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Solar engineering is what I am looking to have as a future job. It is a up and coming business with a large career future. 

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Solar engineering is what I am looking to have as a future job. It is a up and coming business with a large career future. 

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Basics of Solar Engineers

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Solar engineers create solar cells that collect and store the sun's rays. They work with clients to design, plan and implement solar energy projects for cities, businesses, and homeowners.

What Do Solar Engineers Do?

Solar engineers plan, design, and implement solar energy projects. They may manage anything from large-scale municipal projects to home rooftop installations. The engineer typically begins with a client consultation, site assessment, and financial assessment, which help him or her understand the project's context. The engineer then designs an appropriate plan that takes all relevant factors into account. He or she may also oversee or manage implementation of the plan. Solar engineers may also need to report on the efficiency, cost, and safety of the project. The engineer may also be on call to deal with outages, emergencies, and system maintenance.

Solar engineers may also conduct financial reviews, ensure regulatory compliance, inspect installation sites, and write technical reports. Computer skills are essential for creating designs and testing photovoltaic systems.

Where Does a Solar Engineer Work?

Most solar engineers work in offices, but may also travel frequently to different work sites, including overseas locations. They often must climb ladders onto rooftops to inspect installations, and may need to carry heavy loads for short distances.

According to the Solar Foundation, California is by far the leading state for solar jobs in general, with over 10,000 solar jobs as of 2013. New Mexico offers the second highest number of solar jobs. New York, New Jersey, and Massachusetts are also home to relatively high numbers of jobs in the solar industry.

What Is a Typical Solar Engineer's Salary?

The average salary listed in nationwide job postings for solar engineers was $82,000 in December 2014. This is 42% higher than average salaries for all job postings nationwide.

Table data taken from BLS (http://www.bls.gov/oes/current/oes172199.htm)

What Is the Job Demand for Solar Engineers?

While the U.S. Bureau of Labor Statistics (BLS) does not have projections for solar engineers, the Center for Climate and Energy Solutions reports that worldwide solar energy generation capacity averaged 40% annual growth from 2000 to 2011. The continued rapid expansion and adoption of solar panel installation is expected to continue creating new jobs in the United States and elsewhere. BLS predicts that job growth for solar installers will grow 24% between 2012 and 2022, which is much faster than average.

Getting a Solar Engineering Degree

A bachelor's degree in mechanical engineering or electrical engineering is typically required for solar engineering positions. In some areas, more advanced certification could be required. Degrees in industrial engineering, chemical engineering, and computer software engineering may also be helpful.

Many jobs require Professional Engineer (PE) or Engineer in Training (EIT) licensure. Licensure generally requires:

A degree from an ABET-accredited engineering program

A passing score on the Fundamentals of Engineering (FE) exam

Relevant work experience, typically at least 4 years

A passing score on the Professional Engineering (PE) exam

College graduates may take the Fundamentals of Engineering (FE) exam immediately. Engineers who pass this exam are called engineers in training (EITs) or engineer interns (EIs). After gaining four years of work experience, EITs and EIs can go on to take the Principles and Practice of Engineering exam to qualify for licensure.

Several states require engineers to participate in professional development activities in order to keep their licenses. Most states recognize licensure from other states, as long as that state's requirements meet or exceed their own licensure requirements.

More complex jobs may require a master's or doctoral degree. Engineers are expected to participate in professional development to keep up with technological developments. They should also be familiar with AutoCAD, a computer-aided design program widely used in engineering. Within solar engineering, AutoCAD is used for photovoltaic system layout. Some firms may also use Google SketchUp.

Because solar engineers must consult with clients, create technical reports, and write emails, they should also have good communication skills.

Solar Engineering Related Degrees

What Kind of Societies and Professional Organizations Do Solar Engineers Have?

The American Solar Energy Society (ASES) (http://www.ases.org/) is the foremost association of solar professionals and advocates. The society aims to speed the transition to a sustainable energy economy. ASES publishes Solar Today magazine, holds a national conference, and offers other networking opportunities through regional chapters, student chapters, and technical divisions.

The North American Board of Certified Energy Practitioners (http://www.nabcep.org/) is primarily a professional certification organization. It also runs company accreditation programs and offers continuing education.

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How to Become a Solar Engineer | EnvironmentalScience.org

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Solar engineers create solar cells that collect and store the sun's rays. They work with clients to design, plan and implement solar energy projects for cities, businesses, and homeowners. Solar engineers plan, design, and implement solar energy projects. They may manage anything from large-scale municipal projects to home rooftop installations.

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Large mouth also known as black bass are in my opinion one of the most fun animals to fish for. Large mouth bas are hard fighters on the line as well as a good size for a lake fish in New York.

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Large mouth also known as black bass are in my opinion one of the most fun animals to fish for. Large mouth bas are hard fighters on the line as well as a good size for a lake fish in New York.

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Large Mouth or Black Bass information

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Bass fishing is the activity of angling for the North American gamefish known colloquially as the black bass. There are numerous black bass species considered as gamefish in North America, including largemouth bass ( Micropterus salmoides), smallmouth bass ( Micropterus dolomieui), spotted bass or Kentucky bass ( Micropterus punctulatus), and Guadalupe bass (order Perciformes ).

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Lake Champlain is on of the nicest lakes for ascetics that I've ever seen personally. Lake Champlain stretches from Whitehall New York up into Canada.

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Lake Champlain is on of the nicest lakes for ascetics that I've ever seen personally. Lake Champlain stretches from Whitehall New York up into Canada.

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Lake Champlain

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Lake Champlain ( sham-PLAYN ; French: Lac Champlain) is a natural freshwater lake in North America. It mostly lies between the US states of New York and Vermont, but also extends north into the Canadian province of Quebec.

The New York portion of the Champlain Valley includes the eastern portions of Clinton County and Essex County. Most of this area is part of the Adirondack Park. There are recreational facilities in the park and along the relatively undeveloped coastline of the lake. The cities of Plattsburgh, New York, and Burlington, Vermont, are on the lake's western and eastern shores, respectively, and the town of Ticonderoga, New York, is in the southern part of the region. The Quebec portion is in the regional county municipalities of Le Haut-Richelieu and Brome-Missisquoi. There are a number of islands in the lake; the largest include Grand Isle, Isle La Motte and North Hero: all part of Grand Isle County, Vermont.

Because of Lake Champlain's connections both to the St. Lawrence Seaway via the Richelieu River, and to the Hudson River via the Champlain Canal, Lake Champlain is sometimes referred to as "The Sixth Great Lake".

The Champlain Valley is the northernmost unit of a landform system known as the Great Appalachian Valley, which stretches between Quebec, Canada, to the north, and Alabama, US, to the south. The Champlain Valley is a physiographic section of the larger Saint Lawrence Valley, which in turn is part of the larger Appalachian physiographic division.

Lake Champlain is one of numerous large lakes scattered in an arc through Labrador, in Canada, the northern United States, and the Northwest Territories of Canada.[citation needed ] It is the thirteenth-largest lake by area in the US. Approximately 490 sq mi (1,269 km ²) in area, the lake is 107 mi (172 km) long and 14 mi (23 km) across at its widest point, and has a maximum depth of approximately 400 ft (120 m). The lake varies seasonally from about 95 to 100 ft (29 to 30 m) above mean sea level.

Lake Champlain is in the Lake Champlain Valley between the Green Mountains of Vermont and the Adirondack Mountains of New York, drained northward by the 106 mi-long (171 km) Richelieu River into the St. Lawrence River at Sorel-Tracy, Quebec, northeast and downstream of Montreal. The Champlain basin collects waters from the northwestern slopes of the Green Mountains and the eastern portion of the Adirondack Mountains, reaching as far south as the 32 mi-long (51 km) Lake George in New York.

Lake Champlain drains nearly half of Vermont, and approximately 250,000 people get their drinking water from the lake.

The lake is fed in Vermont by the LaPlatte, Lamoille, Missisquoi, Poultney and Winooski rivers, along with Lewis Creek, Little Otter Creek and Otter Creek. In New York, it is fed by the Ausable, Boquet, Great Chazy, La Chute, Little Ausable, Little Chazy, Salmon and Saranac rivers, along with Putnam Creek. In Quebec, it is fed by the Pike River.

It is connected to the Hudson River by the Champlain Canal.

Parts of the lake freeze each winter, and in some winters the entire lake surface freezes, referred to as "closing". In July and August, the lake temperature reaches an average of 70 °F (21 °C).

The Chazy Reef is an extensive Ordovician carbonate rock formation that extends from Tennessee to Quebec and Newfoundland. The oldest reefs are around "The Head" of the south end of Isle La Motte; slightly younger reefs are found at the Fisk Quarry, and the youngest (the famous coral reefs) are in fields to the north.

The lake has long acted as a border between indigenous nations, much as it is today between the states of New York and Vermont. The lake is located at the frontier between Abenaki and Mohawk ( Iroquois Confederacy) traditional territories. The official toponym for the lake, according to the orthography established by the Grand Council of Wanab-aki Nation, is Pitawbagok (alternative orthographies include Petonbowk and Bitawbagok), meaning "middle lake", "lake in between" or "double lake".

The Mohawk name in modern orthography, as standardized in 1993, is Kaniatarakwà:ronte, meaning "a bulged lake" or "lake with a bulge in it". An alternate name is Kaniá:tare tsi kahnhokà:ronte (phonetic English spelling Caniaderi Guarunte), meaning "door of the country" or "lake to the country". The lake is an important eastern gateway to Iroquois Confederacy lands.

The lake was named after the French explorer Samuel de Champlain, who encountered it in July 1609. While the ports of Burlington, Vermont, Port Henry, New York, and Plattsburgh, New York, today are primarily used by small craft, ferries and lake cruise ships, they were of substantial commercial and military importance in the 18th and 19th centuries.

Map of Lac Champlain, from Fort de Chambly up to Fort St-Fréderic in Nouvelle France. Cadastral map showing concessions and seigneuries on the coasts of the lake according to 1739 surveying.

New France allocated concessions all along Lake Champlain to French settlers and built forts to defend the waterways. In colonial times, Lake Champlain was used as a water (or, in winter, ice) passage between the Saint Lawrence and Hudson valleys. Travelers found it easier to journey by boats and sledges on the lake rather than go overland on unpaved and frequently mud-bound roads. The lake's northern tip at Saint-Jean-sur-Richelieu, Quebec (known as St. John in colonial times under British rule) is just 25 miles (40 km) from Montreal, Quebec. The southern tip at Whitehall (Skenesborough in revolutionary times) is 23 miles (37 km) north of Glens Falls on the Hudson River and 70 miles (110 km) north of Albany, New York.

Forts were built at Ticonderoga and Crown Point ( Fort St. Frederic) to control passage on the lake in colonial times. Important battles were fought at Ticonderoga in 1758 and 1775. During the Revolutionary War, the British and Americans conducted a frenetic shipbuilding race through the spring and summer of 1776, at opposite ends of the lake, and fought a significant naval engagement on October 11 at the Battle of Valcour Island. While it was a tactical defeat for the Americans, and the small fleet led by Benedict Arnold was almost destroyed, the Americans gained a strategic victory; the British invasion was delayed long enough so the approach of winter prevented the fall of these forts until the following year. In this period, the Continental Army gained strength and was victorious at Saratoga.

At the start of the Revolutionary War, British forces occupied the Champlain Valley. However, it did not take long for rebel leaders to realize the importance of controlling Lake Champlain. Early in the war, the colonial militias attempted to expel the British from Boston; however, this undertaking could not be achieved without heavy artillery. The British forts at Ticonderoga and Crown Point, on Lake Champlain, were known to have ample supplies of artillery and were weakly-manned by the British. Thus, the colonial militias devised a plan to take control of the two forts and bring the guns back to the fight in Boston.

The necessity of controlling the two forts at Ticonderoga and Crown Point placed Lake Champlain as a strategic arena during the Revolutionary War. By taking control of these forts, Americans not only gained heavy artillery, but control of a vast water highway as well: Lake Champlain provided a direct invasion route to British Canada. However, had the British controlled the lake, they could have divided the colonies of New England and further depleted the Continental Army.

The Continental Army's first offensive action took place in May 1775, three weeks after the Battles of Lexington and Concord. Ethan Allen, accompanied by 200 Green Mountain Boys, was ordered to capture Fort Ticonderoga and retrieve supplies for the fight in Boston. Benedict Arnold shared the command with Allen, and, in early May 1775, they captured Fort Ticonderoga, Crown Point and the southern Loyalist settlement of Skenesborough. As a result of Allen's offensive attack on the Champlain Valley in 1775, the American forces controlled the Lake Champlain waterway.

Siege of Quebec: 1775-1776

The Continental Army realized the strategic advantage of controlling Lake Champlain, as it leads directly to the heart of Quebec. Immediately after taking Forts Ticonderoga and Crown Point, the Americans began planning an attack on British Canada. The American siege of Quebec was a two-pronged assault and occurred throughout the winter of 1775-1776. Brigadier General Richard Montgomery led the first assault up the Champlain Valley into Canada, while Benedict Arnold led a second army to Quebec via the Maine wilderness.

Despite the strategic advantage of controlling a direct route to Quebec by way of the Champlain Valley, the American siege of British Canada during the winter of 1775 failed. The Continental Army mistakenly assumed that it would receive support from the Canadians upon their arrival at Quebec. This was not the case, and the rebel army struggled to take Quebec with diminishing supplies, support, and harsh northern winter weather.

The Continental Army was forced to camp outside Quebec's walls for the winter, with reinforcements from New York, Pennsylvania, Massachusetts, New Hampshire and Connecticut allowing the soldiers to maintain their siege of the city. However, smallpox descended on both the sieging forces and their reinforcements and savaged the American force. The reinforcements traveled hundreds of miles up the frozen Lake Champlain and St. Lawrence River, but were too late and too few to influence a successful siege of Quebec. In May 1776, with the arrival of a British convoy carrying 10,000 British and Hessian troops to Canada, the Continental forces retreated back down the Champlain Valley to reevaluate their strategy.

"I know of no better method than to secure the important posts of Ticonderoga and Crown Point, and by building a number of armed vessels to command the lakes, otherwise the forces now in Canada will be brought down upon us as quick as possible, having nothing to oppose them...They will doubtless try to construct some armed vessels and then endeavor to penetrate the country toward New York." (Brigadier General John Sullivan to George Washington, June 24, 1776).

Both British and American forces spent the summer of 1776 building their naval fleets, at opposite ends of Lake Champlain. By the October 1776, the Continental Army had 16 operating naval vessels on Lake Champlain: a great increase to the four small ships they had at the beginning of the summer. General Benedict Arnold commanded the American naval fleet on Lake Champlain, which was composed of volunteers and soldiers drafted from the Northern Army. With great contrast to the Continental navy, experienced Royal Navy officers, British seamen and Hessian artillerymen manned the British fleet on Lake Champlain. By the end of the summer of 1776, the opposing armies were prepared to battle over the strategic advantage of controlling Lake Champlain.

On October 11, 1776, the British and American naval fleets met on the western side of Valcour Island, on Lake Champlain. American General Benedict Arnold established the location, as it provided the Continental fleet with a natural defensive position. The British and American vessels engaged in combat for much of the day, only stopping due to impending nightfall.

After a long day of combat, the American fleet was in worse shape than the experienced British Navy. Upon ceasefire, Arnold called a council of war with his fellow officers, proposing to escape the British fleet via rowboats under the cover of night. As the British burned Arnold's flagship, the Royal Savage, to the east, the Americans rowed past the British lines.

The following morning, the British learned of the Americans' escape and set out after the fleeing Continental vessels. On October 13, the British fleet caught up to the struggling American ships near Split Rock Mountain. With no hope of fighting off the powerful British navy, Arnold ordered his men to run their five vessels aground in Ferris Bay, Panton, Vermont. The depleted Continental army escaped on land back to Fort Ticonderoga and Mount Independence; however, they no longer controlled the Lake Champlain waterway.

The approaching winter of 1776-1777 restricted British movement along the recently controlled Lake Champlain. As the British abandoned Crown Point and returned to Canada for the winter, the Americans reduced their garrisons in the Champlain Valley from 13,000 to 2,500 soldiers.

General Burgoyne's Campaign

In early 1777, British General John Burgoyne led 8,000 troops from Canada, down Lake Champlain and into the Champlain Valley. The goal of this invasion was to divide the New England colonies, thus forcing the Continental Army into a separated fight on multiple fronts. Lake Champlain provided Burgoyne with protected passage deep into the American colonies. Burgoyne's army reached Fort Ticonderoga and Mount Independence in late June, 1777. During the night of July 5, the American forces fled Ticonderoga as the British took control of the fort. However, Burgoyne's southern campaign did not go uncontested.

On October 7, 1777, American General Horatio Gates, who occupied Bemis Heights, met Burgoyne's army at the Second Battle of Freeman's Farm. At Freeman's Farm, Burgoyne's army suffered its final defeat and ended its invasion south into the colonies. Ten days later, on October 17, 1777, British General Burgoyne surrendered his army at Saratoga. This defeat was instrumental to the momentum of the Revolutionary War, as the defeat of the British army along the Champlain-Hudson waterway convinced France to ally with the American army.

Following the failed British campaign led by General Burgoyne, the British still maintained control over the Champlain waterway for the duration of the Revolutionary War. The British used the Champlain waterway to supply raids across the Champlain Valley from 1778 to 1780, and Lake Champlain permitted direct transportation of supplies from the British posts at the northern end of the lake.

With the end of the Revolutionary War in 1783, the British naval fleet on Lake Champlain retreated up to St. John's. However, British troops garrisoned at Fort Dutchman's Point ( North Hero, Vermont) and Fort au Fer ( Champlain, New York), on Lake Champlain, did not leave until the 1796 Jay Treaty.

Eager to take back control of Lake Champlain following the end of the Revolutionary War, Americans flocked to settle the Champlain Valley. Many individuals emigrated from Massachusetts and other New England colonies, such as Salmon Dutton, a settler of Cavendish, Vermont. Dutton emigrated in 1782 and worked as a surveyor, town official and toll-road owner. His home had a dooryard garden, typical of mid-19th century New England village homes, and his experience settling in the Champlain Valley depicts the industries and lifestyles surrounding Lake Champlain following the Revolutionary War.

Similar to the experience of Salmon Dutton, former colonial militia Major General Hezekiah Barnes settled in Charlotte, Vermont, in 1787. Following the war, Barnes worked as a road surveyor; he also established an inn and trading post in Charlotte, along the main trade route from Montreal down Lake Champlain. Barnes' stagecoach inn was built in traditional Georgian style, with 10 fireplaces, a ballroom on the interior and a wraparound porch on the outside. In 1800, Continental Army Captain Benjamin Harrington established a distillery business in Shelburne, Vermont, which supplied his nearby inn. These individual accounts shed light on the significance of Lake Champlain during the post-Revolutionary War period.

During the War of 1812, British and American forces faced each other in the Battle of Lake Champlain, also known as the Battle of Plattsburgh, fought on September 11, 1814. This ended the final British invasion of the northern states during the War of 1812. It was fought just prior to the signing of the Treaty of Ghent, and the American victory denied the British any leverage to demand exclusive control over the Great Lakes or territorial gains against the New England states.

Three US Naval ships have been named after this battle: USS Lake Champlain (CV-39), USS Lake Champlain (CG-57) and a cargo ship used during World War I.

Following the War of 1812, the U.S. Army began construction on " Fort Blunder": an unnamed fortification built at the northernmost end of Lake Champlain to protect against attacks from British Canada. Its nickname came from a surveying error: the initial phase of construction on the fort turned out to be taking place on a point mi (1.2 km) north of the Canada-U.S. border. Once this error was spotted, construction was abandoned. Locals scavenged materials used in the abandoned fort for use in their homes and public buildings.

By the Webster-Ashburton Treaty of 1842, the Canada-U.S. border was adjusted northward to include the strategically important site of "Fort Blunder" on the US side. In 1844, work was begun to replace the remains of the 1812-era fort with a massive new Third System masonry fortification, known as Fort Montgomery. Portions of this fort are still standing.

In the early 19th century, the construction of the Champlain Canal connected Lake Champlain to the Hudson River system, allowing north-south commerce by water from New York City to Montreal and Atlantic Canada.

In 1909, 65,000 people celebrated the 300th anniversary of the French discovery of the lake. Attending dignitaries included President William Howard Taft, along with representatives from France, Canada and the United Kingdom.

In 1929, then-New York Governor Franklin Roosevelt and Vermont Governor John Weeks dedicated the first bridge to span the lake, built from Crown Point to Chimney Point. This bridge lasted until December 2009. Severe deterioration was found, and the bridge was demolished and replaced with the Lake Champlain Bridge, which opened in November 2011.

On February 19, 1932, boats were able to sail on Lake Champlain. It was the first time that the lake was known to be free of ice during the winter at that time.

Lake Champlain briefly became the nation's sixth Great Lake on March 6, 1998, when President Clinton signed Senate Bill 927. This bill, which was led by U.S. Senator Patrick Leahy of Vermont and reauthorized the National Sea Grant Program, contained a line declaring Lake Champlain to be a Great Lake. This status enabled its neighboring states to apply for additional federal research and education funds allocated to these national resources. However, following a small uproar, the Great Lake status was rescinded on March 24 (although New York and Vermont universities continue to receive funds to monitor and study the lake).

"Champ", Lake Champlain monster

In 1609, Samuel de Champlain wrote that he saw a lake monster 5 ft (1.5 m) long, as thick as a man's thigh, with silver-gray scales a dagger could not penetrate. The alleged monster had 2.5 ft (0.76 m) jaws with sharp and dangerous teeth. Native Americans claimed to have seen similar monsters 8 to 10 ft (2.4 to 3.0 m) long. This mysterious creature is likely the original Lake Champlain monster. The monster has been memorialized in sports teams' names and mascots, e.g., the Vermont Lake Monsters and Champ, the mascot of the state's minor league baseball team. A Vermont Historical Society publication recounts the story and offers possible explanations for accounts of the so-called monster: "floating logs, schools of large sturgeon diving in a row, or flocks of blackbirds flying close to the water". In 2022, it was reported that a feature dramatic film, Lucy and the Lake Monster, was in the works about a young orphan girl and her grandfather looking for Champ.

A pollution prevention, control and restoration plan for Lake Champlain was first endorsed in October 1996 by the governors of New York and Vermont and the regional administrators of the United States Environmental Protection Agency (EPA). In April 2003, the plan was updated, and Quebec signed on to it. The plan is being implemented by the Lake Champlain Basin Program and its partners at the state, provincial, federal and local levels. Renowned as a model for interstate and international cooperation, its primary goals are to reduce phosphorus inputs to Lake Champlain, reduce toxic contamination, minimize the risks to humans from water-related health hazards and control the introduction, spread, and impact of non-native nuisance species to preserve the integrity of the Lake Champlain ecosystem.

Senior staff who helped organize the Environmental Protection Agency in 1970 recall that International Paper was one of the first companies to call upon the brand-new agency, because it was being pressured by both New York and Vermont with regard to a discharge of pollution into Lake Champlain.

Agricultural and urban runoff from the watershed or drainage basin is the primary source of excess phosphorus, which exacerbates algae blooms in Lake Champlain. The most problematic blooms have been cyanobacteria, commonly called blue-green algae, in the northeastern part of the lake: primarily Missisquoi Bay.

To reduce phosphorus runoff to this part of the lake, Vermont and Quebec agreed to reduce their inputs by 60% and 40%, respectively, by an agreement signed in 2002. While agricultural sources (manure and fertilizers) are the primary sources of phosphorus (about 70%) in the Missisquoi basin, runoff from developed land and suburbs is estimated to contribute about 46% of the phosphorus runoff basin-wide to Lake Champlain, and agricultural lands contributed about 38%.

In 2002, the cleanup plan noted that the lake had the capacity to absorb 120 short tons (110 t) of phosphorus each year. In 2009, a judge noted that 240 short tons (218 t) were still flowing in annually: more than twice what the lake could handle. Sixty municipal and industrial sewage plants discharge processed waste from the Vermont side.

In 2008, the EPA expressed concerns to the State of Vermont that the lake's cleanup was not progressing fast enough to meet the original cleanup goal of 2016. The state, however, cites its Clean and Clear Action Plan as a model that will produce positive results for Lake Champlain.

In 2007, Vermont banned phosphates for dishwasher use starting in 2010. This will prevent an estimated 2-3 short tons (1.8-2.7 t) from flowing into the lake. While this represents 0.6% of the phosphate pollution, it took US$1.9 million to remove the pollutant from treated wastewater: an EPA requirement.

Despite concerns about pollution, Lake Champlain is safe for swimming, fishing and boating. It is considered a world-class fishery for salmonid species ( lake trout and Atlantic salmon) and bass. About 81 fish species live in the lake, and more than 300 bird species rely on it for habitat and as a resource during migrations.

By 2008, at least seven institutions were monitoring lake water health:

1. Conservation Law Foundation, which in 2002 appointed a "lakekeeper" who reviews the state's pollution controls

2. Friends of Missisquoi Bay, formed in 2003

3. Lake Champlain Committee

4. Vermont Water Resources Board, which hired a water quality expert in 2008 to write water quality standards and create wetland protection rules

5. Vermont Agency of Natural Resources, which in 2007 appointed a "lake czar" to oversee pollution control

6. Clean and Clear, an agency of the Vermont state government, established in 2004

7. The Nature Conservancy, a non-profit group which focuses on biodiversity and ecosystem health.

In 2001, scientists estimated that farming contributed 38% of the phosphorus runoff. By 2010, results of environmentally-conscious farming practices, enforced by law, had made a positive contribution to lake cleanliness. A federally-funded study was started to analyze this problem and to arrive at a solution.

Biologists have been trying to control lampreys in the lake since 1985 or earlier. Lampreys are native to the area, but have expanded in population to such an extent that they wounded nearly all lake trout in 2006, and 70-80% of salmon. The use of pesticides against the lamprey has reduced their damage to other fish to 35% of salmon and 31% of lake trout. The goal was 15% of salmon and 25% of lake trout.

The federal and state governments originally budgeted US$18 million for lake programs for 2010. This was later supplemented by an additional US$6.5 million from the federal government.

In 2010, the estimate of cormorant population, now classified as a nuisance species because they take so much of the lake fish, ranged from 14,000 to 16,000. A Fish and Wildlife commissioner said that the ideal population would be about 3,300, amounting to 7.8/sq mi (3/km ²). Cormorants had disappeared from the lake (and all northern lakes) due to the use of DDT in the 1940s and 1950s, which made their eggs more fragile and reduced breeding populations.

Ring-billed gulls are also considered a nuisance, and measures have been taken to reduce their population. Authorities are trying to encourage the return of black-crowned night herons, cattle egrets and great blue herons, which disappeared during the time DDT was being widely used.

In 1989, UNESCO designated the area around Lake Champlain as the Champlain-Adirondack Biosphere Reserve.

The Alburgh Peninsula (also known as the Alburgh Tongue), extending south from the Quebec shore of the lake into Vermont, and Province Point, the southernmost tip of a small promontory approximately 2 acres (1 ha) in size a few miles to the northeast of the community of East Alburgh, Vermont, are connected by land to the rest of the state only via Canada. This is a distinction shared with the state of Alaska, Point Roberts, Washington, and the Northwest Angle in Minnesota. All of these are practical exclaves of the United States contiguous with Canada. Unlike the other cases, highway bridges across the lake provide direct access to the Alburgh peninsula from within the United States (from three directions), but Province Point is still accessible by land only through Canada.

Three roadways cross the lake, two connecting New York and Vermont and one connecting two towns in New York:

In 2009, the bridge had been used by 3,400 drivers per day,[67] and driving around the southern end of the lake added two hours to the trip. Ferry service was re-established to take some of the traffic burden. On December 28, 2009, the bridge was destroyed by a controlled demolition. A new bridge was rapidly constructed by a joint state commitment, opening on November 7, 2011.[68]

To the north, US 2 runs from Rouses Point, New York, to Grand Isle County, Vermont, in the town of Alburgh, before continuing south along a chain of islands toward Burlington. To the east, Vermont Route 78 runs from an intersection with US 2 in Alburgh through East Alburgh to Swanton. The US 2-VT 78 route technically runs from the New York mainland to an extension of the mainland between two arms of the lake and then to the Vermont mainland, but it provides a direct route across the two main arms of the lake's northern part.

In the southern section of the lake, New York State Route 22 crosses the South Bay connecting Whitehall, NY and Dresden, Washington County, New York

The LCTC ferry slip at Grand Isle, Vermont

North of Ticonderoga, New York, the lake widens appreciably; ferry service is operated by the Lake Champlain Transportation Company at:

While the old bridge was being demolished and the new one constructed, Lake Champlain Transportation Company operated a free, 24-hour ferry from just south of the bridge to Chimney Point, Vermont, at the expense of the states of New York and Vermont, at a cost to the states of about $10 per car.

The most southerly crossing is the Fort Ticonderoga Ferry, connecting Ticonderoga, New York, with Shoreham, Vermont, just north of the historic fort.

Four significant railroad crossings were built over the lake. As of 2021, only one remains.

The "floating" rail trestle from Larabees Point, Vermont, to Ticonderoga, New York, was operated by the Addison Branch of the Rutland Railroad. It was abandoned in 1918, due to a number of accidents which resulted in locomotives and rail cars falling into the lake.

The Island Line Causeway, a marble tailings and granite rock landfill causeway that stretched from Colchester (on the mainland) three mi (4.8 km) north and west to South Hero, Vermont. Two breaks in the causeway were spanned by a fixed iron trestle and a swing bridge that could be opened to allow boats to pass. The Rutland Railroad (later Rutland Railway) operated trains over this causeway from 1901 to 1961, with the last passenger train operating in 1953. The railroad was officially abandoned in 1963, with tracks and trestles removed over the course of the ten years that followed. The marble tailings and granite rock causeway still remains, as does the fixed iron trestle that bridges the lesser of the two gaps. The swing bridge over the navigation channel was removed in the early 1970s.[citation needed ]

Now called Colchester Park, the main 3-mile (5 km) causeway has been adapted and preserved as a recreation area for cyclists, runners and anglers. Two smaller marble tailings and granite rock landfill causeways were also erected as part of this line that connected Grand Isle to North Hero, and spanned from North Hero to Alburgh.

The Alburgh, Vermont - Rouses Point, New York, rail trestle. From sometime in the late 19th century until 1964, this wooden trestle carried two railroads (the Rutland Railroad and the Central Vermont Railroad) over the lake just south of the US 2 vehicular bridge. The iron swing bridge at the center (over the navigation channel) has been removed. Most of the wooden pilings remain, greatly deteriorated, and can be seen looking south from the US 2 bridge. Part of the trestle on the Rouses Point side has been converted for use as an access pier associated with the local marina.[citation needed ]

The Swanton - Alburgh, Vermont rail trestle. Built in the same manner as at Rouses Point, it crosses the lake just south of Missisquoi Bay and the Canada-U.S. border, within yards south of the Vermont Route 78 bridge. It is still in use by the New England Central Railroad.

Lake Champlain has been connected to the Erie Canal via the Champlain Canal since the canal's official opening on September 9, 1823, the same day as the opening of the Erie Canal from Rochester on Lake Ontario to Albany. It connects to the St. Lawrence River via the Richelieu River, with the Chambly Canal bypassing rapids on the river since 1843. Together with these waterways, the lake is part of the Lakes to Locks Passage. The Lake Champlain Seaway, a project to use the lake to bring ocean-going ships from New York City to Montreal, was proposed in the late 19th century and considered as late as the 1960s, but rejected for various reasons. The lake is also part of the 740-mile (1,190 km) Northern Forest Canoe Trail, which begins in Old Forge, New York, and ends in Fort Kent, Maine.

Burlington, Vermont (pop. 44,743, 2020 census) is the largest city on the lake. The second and third most-populated cities/towns are Plattsburgh, New York, and South Burlington, Vermont, respectively. The fourth-largest community is the town of Colchester.

Lake Champlain contains roughly 80 islands, three of which comprise four entire Vermont towns (most of Grand Isle County). The largest islands:

Bluff Point Lighthouse, on Valcour Island near the New York shore, was built in 1871; it was manned by a full-time lightkeeper until 1930, making it one of the last lighthouses to be manned on the Lake

Cumberland Head Light, which operated until 1934, is an historic stone lighthouse located on Cumberland Head which is privately owned

Isle La Motte Light, on the northern end of the island, was originally red, but faded to pink over time; it is privately owned

Juniper Island Light is a cast-iron lighthouse that dates from 1846; in 1954, it was deactivated and replaced by a steel tower; it is privately owned

On Point Au Roche, part of Beekmantown, New York, there is a privately owned, historic lighthouse

Split Rock Lighthouse is located south of Essex, New York, near a natural boundary of the territory between the Mohawk and Algonquin tribes

All active navigational aids on the American portion of the lake are maintained by Coast Guard Station Burlington, along with those on international Lake Memphremagog to the east. Aids to navigation on the Canadian portion of the lake are maintained by the Canadian Coast Guard.

There are a number of parks in the Lake Champlain region, in both New York and Vermont.

Those on the New York side of the lake include Point Au Roche State Park, which park grounds have hiking and cross country skiing trails and a public beach; and Ausable Point Campground within the Adirondack Park. Cumberland Bay State Park is located on Cumberland Head, with a campground, city beach and sports fields.

There are various parks along the lake on the Vermont side, including Sand Bar State Park in Milton, featuring a 2,000 ft (610 m) natural sand beach, swimming, canoe and kayak rentals, food concession, picnic grounds and a play area. At 226 acres (91 ha), Grand Isle State Park contains camping facilities, a sand volleyball court, a nature walk trail, a horseshoe pit and a play area. Button Bay State Park in Ferrisburgh features campsites, picnic areas, a nature center and a swimming pool. Burlington's Waterfront Park is a revitalized industrial area.

Coast Guard Station Burlington provides "Search and Rescue, Law Enforcement and Ice Rescue services 24 hours a day, 365 days a year". Services are also provided by local, state and federal governments bordering on the lake, including the U.S. Border Patrol, Royal Canadian Mounted Police, Vermont State Police, New York State Police Marine Detail, and Vermont Fish and Wildlife wardens.

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Lake Champlain ( sham-PLAYN ; French: Lac Champlain) is a natural freshwater lake in North America. It mostly lies between the US states of New York and Vermont, but also extends north into the Canadian province of Quebec. The New York portion of the Champlain Valley includes the eastern portions of Clinton County and Essex County.

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Thomas Edison was a major inspiration due to the different ideas and inovations that he and his coleges came up with (mainly the light bulb).

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Thomas Edison was a major inspiration due to the different ideas and inovations that he and his coleges came up with (mainly the light bulb).

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Thomas Edison

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Marine Biology is a passion of mine because it allows for the study and protection of the environment. Marine Biologists do different water tests and fish testing to preserve ocean waters.

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Marine Biology is a passion of mine because it allows for the study and protection of the environment. Marine Biologists do different water tests and fish testing to preserve ocean waters.

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Marine Biology Basics

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Marine biology is the scientific study of the biology of marine life, organisms in the sea. Given that in biology many phyla, families and genera have some species that live in the sea and others that live on land, marine biology classifies species based on the environment rather than on taxonomy.

A large proportion of all life on Earth lives in the ocean. The exact size of this large proportion is unknown, since many ocean species are still to be discovered. The ocean is a complex three-dimensional world covering approximately 71% of the Earth's surface. The habitats studied in marine biology include everything from the tiny layers of surface water in which organisms and abiotic items may be trapped in surface tension between the ocean and atmosphere, to the depths of the oceanic trenches, sometimes 10,000 meters or more beneath the surface of the ocean. Specific habitats include estuaries, coral reefs, kelp forests, seagrass meadows, the surrounds of seamounts and thermal vents, tidepools, muddy, sandy and rocky bottoms, and the open ocean ( pelagic) zone, where solid objects are rare and the surface of the water is the only visible boundary. The organisms studied range from microscopic phytoplankton and zooplankton to huge cetaceans (whales) 25-32 meters (82-105 feet) in length. Marine ecology is the study of how marine organisms interact with each other and the environment.

Marine life is a vast resource, providing food, medicine, and raw materials, in addition to helping to support recreation and tourism all over the world. At a fundamental level, marine life helps determine the very nature of our planet. Marine organisms contribute significantly to the oxygen cycle, and are involved in the regulation of the Earth's climate. Shorelines are in part shaped and protected by marine life, and some marine organisms even help create new land.

Many species are economically important to humans, including both finfish and shellfish. It is also becoming understood that the well-being of marine organisms and other organisms are linked in fundamental ways. The human body of knowledge regarding the relationship between life in the sea and important cycles is rapidly growing, with new discoveries being made nearly every day. These cycles include those of matter (such as the carbon cycle) and of air (such as Earth's respiration, and movement of energy through ecosystems including the ocean). Large areas beneath the ocean surface still remain effectively unexplored.

Marine biology studies species that live in marine habitats. Most of the Earth's surface is covered by ocean, which is the home to marine life. Oceans average nearly four kilometers in-depth and are fringed with coastlines that run for about 360,000 kilometres.[4][5]

Marine biology can be contrasted with biological oceanography. Marine life is a field of study both in marine biology and in biological oceanography. Biological oceanography is the study of how organisms affect and are affected by the physics, chemistry, and geology of the oceanographic system. Biological oceanography mostly focuses on the microorganisms within the ocean; looking at how they are affected by their environment and how that affects larger marine creatures and their ecosystem. Biological oceanography is similar to marine biology, but it studies ocean life from a different perspective. Biological oceanography takes a bottom up approach in terms of the food web, while marine biology studies the ocean from a top down perspective. Biological oceanography mainly focuses on the ecosystem of the ocean with an emphasis on plankton: their diversity (morphology, nutritional sources, motility, and metabolism); their productivity and how that plays a role in the global carbon cycle; and their distribution (predation and life cycle). Biological oceanography also investigates the role of microbes in food webs, and how humans impact the ecosystems in the oceans.

Marine habitats can be divided into coastal and open ocean habitats. Coastal habitats are found in the area that extends from the shoreline to the edge of the continental shelf. Most marine life is found in coastal habitats, even though the shelf area occupies only seven percent of the total ocean area. Open ocean habitats are found in the deep ocean beyond the edge of the continental shelf. Alternatively, marine habitats can be divided into pelagic and demersal habitats. Pelagic habitats are found near the surface or in the open water column, away from the bottom of the ocean and affected by ocean currents, while demersal habitats are near or on the bottom. Marine habitats can be modified by their inhabitants. Some marine organisms, like corals, kelp and sea grasses, are ecosystem engineers which reshape the marine environment to the point where they create further habitat for other organisms.

Tide pools with sea stars and sea anemone

Intertidal zones, the areas that are close to the shore, are constantly being exposed and covered by the ocean's tides. A huge array of life can be found within this zone. Shore habitats span from the upper intertidal zones to the area where land vegetation takes prominence. It can be underwater anywhere from daily to very infrequently. Many species here are scavengers, living off of sea life that is washed up on the shore. Many land animals also make much use of the shore and intertidal habitats. A subgroup of organisms in this habitat bores and grinds exposed rock through the process of bioerosion.

Estuaries have shifting flows of sea water and fresh water.

Estuaries are also near shore and influenced by the tides. An estuary is a partially enclosed coastal body of water with one or more rivers or streams flowing into it and with a free connection to the open sea. Estuaries form a transition zone between freshwater river environments and saltwater maritime environments. They are subject both to marine influences-such as tides, waves, and the influx of saline water-and to riverine influences-such as flows of fresh water and sediment. The shifting flows of both sea water and fresh water provide high levels of nutrients both in the water column and in sediment, making estuaries among the most productive natural habitats in the world.

Coral reefs form complex marine ecosystems with tremendous biodiversity.

Reefs comprise some of the densest and most diverse habitats in the world. The best-known types of reefs are tropical coral reefs which exist in most tropical waters; however, reefs can also exist in cold water. Reefs are built up by corals and other calcium-depositing animals, usually on top of a rocky outcrop on the ocean floor. Reefs can also grow on other surfaces, which has made it possible to create artificial reefs. Coral reefs also support a huge community of life, including the corals themselves, their symbiotic zooxanthellae, tropical fish and many other organisms.

Much attention in marine biology is focused on coral reefs and the El Niño weather phenomenon. In 1998, coral reefs experienced the most severe mass bleaching events on record, when vast expanses of reefs across the world died because sea surface temperatures rose well above normal. Some reefs are recovering, but scientists say that between 50% and 70% of the world's coral reefs are now endangered and predict that global warming could exacerbate this trend.

Some representative ocean animal life (not drawn to scale) within their approximate depth-defined ecological habitats. Marine microorganisms exist on the surfaces and within the tissues and organs of the diverse life inhabiting the ocean, across all ocean habitats.[18]

The open ocean is the area of deep sea beyond the continental shelves.

The open ocean is relatively unproductive because of a lack of nutrients, yet because it is so vast, in total it produces the most primary productivity. The open ocean is separated into different zones, and the different zones each have different ecologies. Zones which vary according to their depth include the epipelagic, mesopelagic, bathypelagic, abyssopelagic, and hadopelagic zones. Zones which vary by the amount of light they receive include the photic and aphotic zones. Much of the aphotic zone's energy is supplied by the open ocean in the form of detritus.

A deep-sea chimaera. Its snout is covered with tiny pores capable of detecting animals by perturbations in electric fields.

The deepest recorded oceanic trench measured to date is the Mariana Trench, near the Philippines, in the Pacific Ocean at 10,924 m (35,840 ft). At such depths, water pressure is extreme and there is no sunlight, but some life still exists. A white flatfish, a shrimp and a jellyfish were seen by the American crew of the bathyscaphe when it dove to the bottom in 1960. In general, the deep sea is considered to start at the aphotic zone, the point where sunlight loses its power of transference through the water. Many life forms that live at these depths have the ability to create their own light known as bio-luminescence. Marine life also flourishes around seamounts that rise from the depths, where fish and other sea life congregate to spawn and feed. Hydrothermal vents along the mid-ocean ridge spreading centers act as oases, as do their opposites, cold seeps. Such places support unique biomes and many new microbes and other lifeforms have been discovered at these locations.

In biology many phyla, families and genera have some species that live in the sea and others that live on land. Marine biology classifies species based on the environment rather than on taxonomy. For this reason marine biology encompasses not only organisms that live only in a marine environment, but also other organisms whose lives revolve around the sea.

As inhabitants of the largest environment on Earth, microbial marine systems drive changes in every global system. Microbes are responsible for virtually all the photosynthesis that occurs in the ocean, as well as the cycling of carbon, nitrogen, phosphorus and other nutrients and trace elements.

Microscopic life undersea is incredibly diverse and still poorly understood. For example, the role of viruses in marine ecosystems is barely being explored even in the beginning of the 21st century.

The role of phytoplankton is better understood due to their critical position as the most numerous primary producers on Earth. Phytoplankton are categorized into cyanobacteria (also called blue-green algae/bacteria), various types of algae (red, green, brown, and yellow-green), diatoms, dinoflagellates, euglenoids, coccolithophorids, cryptomonads, chrysophytes, chlorophytes, prasinophytes, and silicoflagellates.

Zooplankton tend to be somewhat larger, and not all are microscopic. Many Protozoa are zooplankton, including dinoflagellates, zooflagellates, foraminiferans, and radiolarians. Some of these (such as dinoflagellates) are also phytoplankton; the distinction between plants and animals often breaks down in very small organisms. Other zooplankton include cnidarians, ctenophores, chaetognaths, molluscs, arthropods, urochordates, and annelids such as polychaetes. Many larger animals begin their life as zooplankton before they become large enough to take their familiar forms. Two examples are fish larvae and sea stars (also called starfish).

Microscopic algae and plants provide important habitats for life, sometimes acting as hiding places for larval forms of larger fish and foraging places for invertebrates.

Algal life is widespread and very diverse under the ocean. Microscopic photosynthetic algae contribute a larger proportion of the world's photosynthetic output than all the terrestrial forests combined. Most of the niche occupied by sub plants on land is actually occupied by macroscopic algae in the ocean, such as and kelp, which are commonly known as seaweeds that create kelp forests.

Plants that survive in the sea are often found in shallow waters, such as the seagrasses (examples of which are eelgrass, , and turtle grass, Thalassia). These plants have adapted to the high salinity of the ocean environment. The intertidal zone is also a good place to find plant life in the sea, where mangroves or cordgrass or beach grass might grow.

As on land, invertebrates make up a huge portion of all life in the sea. Invertebrate sea life includes Cnidaria such as jellyfish and sea anemones; Ctenophora; sea worms including the phyla Platyhelminthes, Nemertea, Annelida, Sipuncula, Echiura, Chaetognatha, and Phoronida; Mollusca including shellfish, squid, octopus; Arthropoda including Chelicerata and Crustacea; Porifera; Bryozoa; Echinodermata including starfish; and Urochordata including sea squirts or tunicates. Invertebrates have no backbone. There are over a million species.

Over 10,000 species of fungi are known from marine environments. These are parasitic on marine algae or animals, or are saprobes on algae, corals, protozoan cysts, sea grasses, wood and other substrata, and can also be found in sea foam. Spores of many species have special appendages which facilitate attachment to the substratum. A very diverse range of unusual secondary metabolites is produced by marine fungi.

A reported 33,400 species of fish, including bony and cartilaginous fish, had been described by 2016, more than all other vertebrates combined. About 60% of fish species live in saltwater.

Reptiles which inhabit or frequent the sea include sea turtles, sea snakes, terrapins, the marine iguana, and the saltwater crocodile. Most extant marine reptiles, except for some sea snakes, are oviparous and need to return to land to lay their eggs. Thus most species, excepting sea turtles, spend most of their lives on or near land rather than in the ocean. Despite their marine adaptations, most sea snakes prefer shallow waters nearby land, around islands, especially waters that are somewhat sheltered, as well as near estuaries. Some extinct marine reptiles, such as ichthyosaurs, evolved to be viviparous and had no requirement to return to land.

Birds adapted to living in the marine environment are often called seabirds. Examples include albatross, penguins, gannets, and auks. Although they spend most of their lives in the ocean, species such as gulls can often be found thousands of miles inland.

There are five main types of marine mammals, namely cetaceans ( toothed whales and baleen whales); sirenians such as manatees; pinnipeds including seals and the walrus; sea otters; and the polar bear. All are air-breathing, and while some such as the sperm whale can dive for prolonged periods, all must return to the surface to breathe.

The marine ecosystem is large, and thus there are many sub-fields of marine biology. Most involve studying specializations of particular animal groups, such as phycology, invertebrate zoology and ichthyology. Other subfields study the physical effects of continual immersion in sea water and the ocean in general, adaptation to a salty environment, and the effects of changing various oceanic properties on marine life. A subfield of marine biology studies the relationships between oceans and ocean life, and global warming and environmental issues (such as carbon dioxide displacement). Recent marine biotechnology has focused largely on marine biomolecules, especially proteins, that may have uses in medicine or engineering. Marine environments are the home to many exotic biological materials that may inspire biomimetic materials.

Through constant monitoring of the ocean, there have been discoveries of marine life which could be used to create remedies for certain diseases such as cancer and leukemia. In addition, Ziconotide, an approved drug used to treat pain, was created from a snail which resides in the ocean.

Marine biology is a branch of biology. It is closely linked to oceanography, especially biological oceanography, and may be regarded as a sub-field of marine science. It also encompasses many ideas from ecology. Fisheries science and marine conservation can be considered partial offshoots of marine biology (as well as environmental studies). Marine Chemistry, Physical oceanography and Atmospheric sciences are closely related to this field.

An active research topic in marine biology is to discover and map the life cycles of various species and where they spend their time. Technologies that aid in this discovery include pop-up satellite archival tags, acoustic tags, and a variety of other data loggers. Marine biologists study how the ocean currents, tides and many other oceanic factors affect ocean life forms, including their growth, distribution and well-being. This has only recently become technically feasible with advances in GPS and newer underwater visual devices.

Most ocean life breeds in specific places, nests or not in others, spends time as juveniles in still others, and in maturity in yet others. Scientists know little about where many species spend different parts of their life cycles especially in the infant and juvenile years. For example, it is still largely unknown where juvenile sea turtles and some year-1 sharks travel. Recent advances in underwater tracking devices are illuminating what we know about marine organisms that live at great Ocean depths. The information that pop-up satellite archival tags give aids in certain time of the year fishing closures and development of a marine protected area. This data is important to both scientists and fishermen because they are discovering that by restricting commercial fishing in one small area they can have a large impact in maintaining a healthy fish population in a much larger area.

Aristotle recorded that the embryo of a dogfish was attached by a cord to a kind of placenta (the yolk sac).[39]

The study of marine biology dates back to Aristotle (384-322 BC), who made many observations of life in the sea around Lesbos, laying the foundation for many future discoveries. In 1768, Samuel Gottlieb Gmelin (1744-1774) published the Historia Fucorum, the first work dedicated to marine algae and the first book on marine biology to use the new binomial nomenclature of Linnaeus. It included elaborate illustrations of seaweed and marine algae on folded leaves. The British naturalist Edward Forbes (1815-1854) is generally regarded as the founder of the science of marine biology. The pace of oceanographic and marine biology studies quickly accelerated during the course of the 19th century.

The observations made in the first studies of marine biology fueled the age of discovery and exploration that followed. During this time, a vast amount of knowledge was gained about the life that exists in the oceans of the world. Many voyages contributed significantly to this pool of knowledge. Among the most significant were the voyages of HMS Beagle where Charles Darwin came up with his theories of evolution and on the formation of coral reefs. Another important expedition was undertaken by HMS Challenger, where findings were made of unexpectedly high species diversity among fauna stimulating much theorizing by population ecologists on how such varieties of life could be maintained in what was thought to be such a hostile environment. This era was important for the history of marine biology but naturalists were still limited in their studies because they lacked technology that would allow them to adequately examine species that lived in deep parts of the oceans.

The creation of marine laboratories was important because it allowed marine biologists to conduct research and process their specimens from expeditions. The oldest marine laboratory in the world, Station biologique de Roscoff, was established in Concarneau, France founded by the College of France in 1859. In the United States, the Scripps Institution of Oceanography dates back to 1903, while the prominent Woods Hole Oceanographic Institute was founded in 1930. The development of technology such as sound navigation ranging, scuba diving gear, submersibles and remotely operated vehicles allowed marine biologists to discover and explore life in deep oceans that was once thought to not exist.

1. ^ Oceanographic and Bathymetric Features Marine Conservation Institute. Uploaded 18 September 2013.

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20. ^ Amend, Anthony; Burgaud, Gaetan; Cunliffe, Michael; Edgcomb, Virginia P.; Ettinger, Cassandra L.; Gutiérrez, M. H.; Heitman, Joseph; Hom, Erik F. Y.; Ianiri, Giuseppe; Jones, Adam C.; Kagami, Maiko (2019-03-05). "Fungi in the Marine Environment: Open Questions and Unsolved Problems". mBio. 10 (2). doi:10.1128/mBio.01189-18. PMC 6401481. PMID 30837337. S2CID 73481006.[permanent dead link ]

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33. Gmelin S G (1768) ^ Historia Fucorum Ex typographia Academiae scientiarum, St. Petersburg.

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Marine biology is the scientific study of the biology of marine life, organisms in the sea. Given that in biology many phyla, families and genera have some species that live in the sea and others that live on land, marine biology classifies species based on the environment rather than on taxonomy.

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This is just something that I enjoy doing in my free time. I like deep sea fishing because the fish in the oceans will fight harder and have more weight than just about any fish in a New York lake.

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This is just something that I enjoy doing in my free time. I like deep sea fishing because the fish in the oceans will fight harder and have more weight than just about any fish in a New York lake.

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Deep sea fishing

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Deep-sea fish are fish that live in the darkness below the sunlit surface waters, that is below the epipelagic or photic zone of the sea. The lanternfish is, by far, the most common deep-sea fish. Other deep sea fishes include the flashlight fish, cookiecutter shark, bristlemouths, anglerfish, viperfish, and some species of eelpout.

Only about 2% of known marine species inhabit the pelagic environment. This means that they live in the water column as opposed to the benthic organisms that live in or on the sea floor. Deep-sea organisms generally inhabit bathypelagic (1000-4000m deep) and abyssopelagic (4000-6000m deep) zones. However, characteristics of deep-sea organisms, such as bioluminescence can be seen in the mesopelagic (200-1000m deep) zone as well. The mesopelagic zone is the disphotic zone, meaning light there is minimal but still measurable. The oxygen minimum layer exists somewhere between a depth of 700m and 1000m deep depending on the place in the ocean. This area is also where nutrients are most abundant. The bathypelagic and abyssopelagic zones are aphotic, meaning that no light penetrates this area of the ocean. These zones make up about 75% of the inhabitable ocean space.

The epipelagic zone (0-200m) is the area where light penetrates the water and photosynthesis occurs. This is also known as the photic zone. Because this typically extends only a few hundred meters below the water, the deep sea, about 90% of the ocean volume, is in darkness. The deep sea is also an extremely hostile environment, with temperatures that rarely exceed 3 °C (37.4 °F) and fall as low as −1.8 °C (28.76 °F) (with the exception of hydrothermal vent ecosystems that can exceed 350 °C, or 662 °F), low oxygen levels, and pressures between 20 and 1,000 atmospheres (between 2 and 100 megapascals).

In the deep ocean, the waters extend far below the epipelagic zone, and support very different types of pelagic fishes adapted to living in these deeper zones.

In deep water, marine snow is a continuous shower of mostly organic detritus falling from the upper layers of the water column. Its origin lies in activities within the productive photic zone. Marine snow includes dead or dying plankton, protists ( diatoms), fecal matter, sand, soot and other inorganic dust. The "snowflakes" grow over time and may reach several centimetres in diameter, travelling for weeks before reaching the ocean floor. However, most organic components of marine snow are consumed by microbes, zooplankton and other filter-feeding animals within the first 1,000 metres of their journey, that is, within the epipelagic zone. In this way marine snow may be considered the foundation of deep-sea mesopelagic and benthic ecosystems: As sunlight cannot reach them, deep-sea organisms rely heavily on marine snow as an energy source.

Some deep-sea pelagic groups, such as the lanternfish, ridgehead, marine hatchetfish, and lightfish families are sometimes termed pseudoceanic because, rather than having an even distribution in open water, they occur in significantly higher abundances around structural oases, notably seamounts and over continental slopes. The phenomenon is explained by the likewise abundance of prey species which are also attracted to the structures.

Hydrostatic pressure increases by 1 atmosphere for every 10m in depth. Deep-sea organisms have the same pressure within their bodies as is exerted on them from the outside, so they are not crushed by the extreme pressure. Their high internal pressure, however, results in the reduced fluidity of their membranes because molecules are squeezed together. Fluidity in cell membranes increases efficiency of biological functions, most importantly the production of proteins, so organisms have adapted to this circumstance by increasing the proportion of unsaturated fatty acids in the lipids of the cell membranes. In addition to differences in internal pressure, these organisms have developed a different balance between their metabolic reactions from those organisms that live in the epipelagic zone. David Wharton, author of Life at the Limits: Organisms in Extreme Environments, notes "Biochemical reactions are accompanied by changes in volume. If a reaction results in an increase in volume, it will be inhibited by pressure, whereas, if it is associated with a decrease in volume, it will be enhanced". This means that their metabolic processes must ultimately decrease the volume of the organism to some degree.

Most fish that have evolved in this harsh environment are not capable of surviving in laboratory conditions, and attempts to keep them in captivity have led to their deaths. Deep-sea organisms contain gas-filled spaces (vacuoles). Gas is compressed under high pressure and expands under low pressure. Because of this, these organisms have been known to blow up if they come to the surface.

The fish of the deep-sea have evolved various adaptations to survive in this region. Since many of these fish live in regions where there is no natural illumination, they cannot rely solely on their eyesight for locating prey and mates and avoiding predators; deep-sea fish have evolved appropriately to the extreme sub-photic region in which they live. Many of these organisms are blind and rely on their other senses, such as sensitivities to changes in local pressure and smell, to catch their food and avoid being caught. Those that aren't blind have large and sensitive eyes that can use bioluminescent light. These eyes can be as much as 100 times more sensitive to light than human eyes. Also, to avoid predation, many species are dark to blend in with their environment.

Many deep-sea fish are bioluminescent, with extremely large eyes adapted to the dark. Bioluminescent organisms are capable of producing light biologically through the agitation of molecules of luciferin, which then produce light. This process must be done in the presence of oxygen. These organisms are common in the mesopelagic region and below (200m and below). More than 50% of deep-sea fish, as well as some species of shrimp and squid, are capable of bioluminescence. About 80% of these organisms have photophores - light producing glandular cells that contain luminous bacteria bordered by dark colourings. Some of these photophores contain lenses, much like those in the eyes of humans, which can intensify or lessen the emanation of light. The ability to produce light only requires 1% of the organism's energy and has many purposes: It is used to search for food and attract prey, like the anglerfish; claim territory through patrol; communicate and find a mate, and distract or temporarily blind predators to escape. Also, in the mesopelagic where some light still penetrates, some organisms camouflage themselves from predators below them by illuminating their bellies to match the colour and intensity of light from above so that no shadow is cast. This tactic is known as counter-illumination.

The lifecycle of deep-sea fish can be exclusively deep water although some species are born in shallower water and sink upon maturation. Regardless of the depth where eggs and larvae reside, they are typically pelagic. This planktonic - drifting - lifestyle requires neutral buoyancy. In order to maintain this, the eggs and larvae often contain oil droplets in their plasma. When these organisms are in their fully matured state they need other adaptations to maintain their positions in the water column. In general, water's density causes upthrust - the aspect of buoyancy that makes organisms float. To counteract this, the density of an organism must be greater than that of the surrounding water. Most animal tissues are denser than water, so they must find an equilibrium to make them float. Many organisms develop swim bladders (gas cavities) to stay afloat, but because of the high pressure of their environment, deep-sea fishes usually do not have this organ. Instead they exhibit structures similar to hydrofoils in order to provide hydrodynamic lift. It has also been found that the deeper a fish lives, the more jelly-like its flesh and the more minimal its bone structure. They reduce their tissue density through high fat content, reduction of skeletal weight - accomplished through reductions of size, thickness and mineral content - and water accumulation makes them slower and less agile than surface fish.

Due to the poor level of photosynthetic light reaching deep-sea environments, most fish need to rely on organic matter sinking from higher levels, or, in rare cases, hydrothermal vents for nutrients. This makes the deep-sea much poorer in productivity than shallower regions. Also, animals in the pelagic environment are sparse and food doesn't come along frequently. Because of this, organisms need adaptations that allow them to survive. Some have long feelers to help them locate prey or attract mates in the pitch black of the deep ocean. The deep-sea angler fish in particular has a long fishing-rod-like adaptation protruding from its face, on the end of which is a bioluminescent piece of skin that wriggles like a worm to lure its prey. Some must consume other fish that are the same size or larger than them and they need adaptations to help digest them efficiently. Great sharp teeth, hinged jaws, disproportionately large mouths, and expandable bodies are a few of the characteristics that deep-sea fishes have for this purpose. The gulper eel is one example of an organism that displays these characteristics.

Fish in the different pelagic and deep water benthic zones are physically structured, and behave in ways, that differ markedly from each other. Groups of coexisting species within each zone all seem to operate in similar ways, such as the small mesopelagic vertically migrating plankton-feeders, the bathypelagic anglerfishes, and the deep water benthic rattails. "

Ray finned species, with spiny fins, are rare among deep sea fishes, which suggests that deep sea fish are ancient and so well adapted to their environment that invasions by more modern fishes have been unsuccessful. The few ray fins that do exist are mainly in the Beryciformes and Lampriformes, which are also ancient forms. Most deep sea pelagic fishes belong to their own orders, suggesting a long evolution in deep sea environments. In contrast, deep water benthic species, are in orders that include many related shallow water fishes.

Below the epipelagic zone, conditions change rapidly. Between 200 metres and about 1000 metres, light continues to fade until there is almost none. Temperatures fall through a thermocline to temperatures between 3.9 °C (39 °F) and 7.8 °C (46 °F). This is the twilight or mesopelagic zone. Pressure continues to increase, at the rate of one atmosphere every 10 metres, while nutrient concentrations fall, along with dissolved oxygen and the rate at which the water circulates."

Sonar operators, using the newly developed sonar technology during World War II, were puzzled by what appeared to be a false sea floor 300-500 metres deep at day, and less deep at night. This turned out to be due to millions of marine organisms, most particularly small mesopelagic fish, with swimbladders that reflected the sonar. These organisms migrate up into shallower water at dusk to feed on plankton. The layer is deeper when the moon is out, and can become shallower when clouds pass over the moon. This phenomenon has come to be known as the deep scattering layer.

Most mesopelagic fish make daily vertical migrations, moving at night into the epipelagic zone, often following similar migrations of zooplankton, and returning to the depths for safety during the day. These vertical migrations often occur over large vertical distances, and are undertaken with the assistance of a swimbladder. The swimbladder is inflated when the fish wants to move up, and, given the high pressures in the messoplegic zone, this requires significant energy. As the fish ascends, the pressure in the swimbladder must adjust to prevent it from bursting. When the fish wants to return to the depths, the swimbladder is deflated. Some mesopelagic fishes make daily migrations through the thermocline, where the temperature changes between 50 °F (10 °C) and 69 °F (20 °C), thus displaying considerable tolerances for temperature change.

These fish have muscular bodies, ossified bones, scales, well developed gills and central nervous systems, and large hearts and kidneys. Mesopelagic plankton feeders have small mouths with fine gill rakers, while the piscivores have larger mouths and coarser gill rakers. The vertically migratory fish have swimbladders.

Mesopelagic fish are adapted for an active life under low light conditions. Most of them are visual predators with large eyes. Some of the deeper water fish have tubular eyes with big lenses and only rod cells that look upwards. These give binocular vision and great sensitivity to small light signals. This adaptation gives improved terminal vision at the expense of lateral vision, and allows the predator to pick out squid, cuttlefish, and smaller fish that are silhouetted against the gloom above them.

Mesopelagic fish usually lack defensive spines, and use colour to camouflage themselves from other fish. Ambush predators are dark, black or red. Since the longer, red, wavelengths of light do not reach the deep sea, red effectively functions the same as black. Migratory forms use countershaded silvery colours. On their bellies, they often display photophores producing low grade light. For a predator from below, looking upwards, this bioluminescence camouflages the silhouette of the fish. However, some of these predators have yellow lenses that filter the (red deficient) ambient light, leaving the bioluminescence visible.

The brownsnout spookfish, a species of barreleye, is the only vertebrate known to employ a mirror, as opposed to a lens, to focus an image in its eyes.

Sampling via deep trawling indicates that lanternfish account for as much as 65% of all deep sea fish biomass. Indeed, lanternfish are among the most widely distributed, populous, and diverse of all vertebrates, playing an important ecological role as prey for larger organisms. The estimated global biomass of lanternfish is 550 - 660 million metric tonnes, several times the entire world fisheries catch. Lanternfish also account for much of the biomass responsible for the deep scattering layer of the world's oceans. Sonar reflects off the millions of lanternfish swim bladders, giving the appearance of a false bottom.

Bigeye tuna are an epipelagic/mesopelagic species that eats other fish. Satellite tagging has shown that bigeye tuna often spend prolonged periods cruising deep below the surface during the daytime, sometimes making dives as deep as 500 metres. These movements are thought to be in response to the vertical migrations of prey organisms in the deep scattering layer.

The stoplight loosejaw has a lower jaw one-quarter as long as its body. The jaw has no floor and is attached only by a hinge and a modified tongue bone. Large fang-like teeth in the front are followed by many small barbed teeth.

The stoplight loosejaw is also one of the few fishes that produce red bioluminescence. As most of their prey cannot perceive red light, this allows it to hunt with an essentially invisible beam of light.

Long-snouted lancetfish. Lancetfish are ambush predators which spend all their time in the mesopelagic zone. They are among the largest mesopelagic fishes (up to 2 metres).

The daggertooth paralyses other mesopelagic fish when it bites them with its dagger-like teeth.

Below the mesopelagic zone it is pitch dark. This is the midnight (or bathypelagic zone), extending from 1000 metres to the bottom deep water benthic zone. If the water is exceptionally deep, the pelagic zone below 4000 metres is sometimes called the lower midnight (or abyssopelagic zone).

Conditions are somewhat uniform throughout these zones; the darkness is complete, the pressure is crushing, and temperatures, nutrients and dissolved oxygen levels are all low.

Bathypelagic fish have special adaptations to cope with these conditions - they have slow metabolisms and unspecialized diets, being willing to eat anything that comes along. They prefer to sit and wait for food rather than waste energy searching for it. The behaviour of bathypelagic fish can be contrasted with the behaviour of mesopelagic fish. Mesopelagic fish are often highly mobile, whereas bathypelagic fish are almost all lie-in-wait predators, normally expending little energy in movement.

The dominant bathypelagic fishes are small bristlemouth and anglerfish; fangtooth, viperfish, daggertooth and barracudina are also common. These fishes are small, many about 10 centimetres long, and not many longer than 25 cm. They spend most of their time waiting patiently in the water column for prey to appear or to be lured by their phosphors. What little energy is available in the bathypelagic zone filters from above in the form of detritus, faecal material, and the occasional invertebrate or mesopelagic fish. About 20 percent of the food that has its origins in the epipelagic zone falls down to the mesopelagic zone, but only about 5 percent filters down to the bathypelagic zone.

Bathypelagic fish are sedentary, adapted to outputting minimum energy in a habitat with very little food or available energy, not even sunlight, only bioluminescence. Their bodies are elongated with weak, watery muscles and skeletal structures. Since so much of the fish is water, they are not compressed by the great pressures at these depths. They often have extensible, hinged jaws with recurved teeth. They are slimy, without scales. The central nervous system is confined to the lateral line and olfactory systems, the eyes are small and may not function, and gills, kidneys and hearts, and swimbladders are small or missing.

These are the same features found in fish larvae, which suggests that during their evolution, bathypelagic fish have acquired these features through neoteny. As with larvae, these features allow the fish to remain suspended in the water with little expenditure of energy.

Despite their ferocious appearance, these beasts of the deep are mostly miniature fish with weak muscles, and are too small to represent any threat to humans.

The swimbladders of deep sea fish are either absent or scarcely operational, and bathypelagic fish do not normally undertake vertical migrations. Filling bladders at such great pressures incurs huge energy costs. Some deep sea fishes have swimbladders which function while they are young and inhabit the upper epipelagic zone, but they wither or fill with fat when the fish move down to their adult habitat.

The most important sensory systems are usually the inner ear, which responds to sound, and the lateral line, which responds to changes in water pressure. The olfactory system can also be important for males who find females by smell. Bathypelagic fish are black, or sometimes red, with few photophores. When photophores are used, it is usually to entice prey or attract a mate. Because food is so scarce, bathypelagic predators are not selective in their feeding habits, but grab whatever comes close enough. They accomplish this by having a large mouth with sharp teeth for grabbing large prey and overlapping gill rakers which prevent small prey that have been swallowed from escaping.

It is not easy finding a mate in this zone. Some species depend on bioluminescence. Others are hermaphrodites, which doubles their chances of producing both eggs and sperm when an encounter occurs. The female anglerfish releases pheromones to attract tiny males. When a male finds her, he bites on to her and never lets go. When a male of the anglerfish species Haplophryne mollis bites into the skin of a female, he releases an enzyme that digests the skin of his mouth and her body, fusing the pair to the point where the two circulatory systems join up. The male then atrophies into nothing more than a pair of gonads. This extreme sexual dimorphism ensures that, when the female is ready to spawn, she has a mate immediately available.

Many forms other than fish live in the bathypelagic zone, such as squid, large whales, octopuses, sponges, brachiopods, sea stars, and echinoids, but this zone is difficult for fish to live in.

The pelican eel uses its mouth like a net by opening its large mouth and swimming at its prey. It has a luminescent organ at the tip of its tail to attract prey.

Female Haplophryne mollis anglerfish trailing attached males which have atrophied into a pair of gonads, for use when the female is ready to spawn.

Sampling via deep trawling indicates that lanternfish account for as much as 65% of all deep-sea fish biomass. Indeed, lanternfish are among the most widely distributed, populous, and diverse of all vertebrates, playing an important ecological role as prey for larger organisms. With an estimated global biomass of 550 - 660 million metric tons, several times the entire world fisheries catch, lanternfish also account for much of the biomass responsible for the deep scattering layer of the world's oceans. In the Southern Ocean, Myctophids provide an alternative food resource to krill for predators such as squid and the king penguin. Although these fish are plentiful and prolific, currently only a few commercial lanternfish fisheries exist: These include limited operations off South Africa, in the sub-Antarctic, and in the Gulf of Oman.

A 2006 study by Canadian scientists has found five species of deep-sea fish - blue hake, spiny eel - to be on the verge of extinction due to the shift of commercial fishing from continental shelves to the slopes of the continental shelves, down to depths of 1600 meters. The slow reproduction of these fish - they reach sexual maturity at about the same age as human beings - is one of the main reasons that they cannot recover from the excessive fishing.

1. ^ Moyle and Cech, 2004, page 585

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4. ^ Moyle and Cech, 2004, page 571

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Media related to Deep sea fish at Wikimedia Commons

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Deep-sea fish are fish that live in the darkness below the sunlit surface waters, that is below the epipelagic or photic zone of the sea. The lanternfish is, by far, the most common deep-sea fish. Other deep sea fishes include the flashlight fish, cookiecutter shark, bristlemouths, anglerfish, viperfish, and some species of eelpout.

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Saratoga lake is the best bass fishing around and one of the most astetically pleasing lakes. Saratoga lake is a small lake in comparison to other lakes around such as Lake George, and Lake Sacandaga.

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Saratoga lake is the best bass fishing around and one of the most astetically pleasing lakes. Saratoga lake is a small lake in comparison to other lakes around such as Lake George, and Lake Sacandaga.

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Saratoga lake

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The Lake is surrounded by the City of Saratoga Springs on the north west, the Town of Malta on the south west, the Town of Stillwater on the south east, and the Town of Saratoga on the north east.

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Steve Job inspired me in the sense that technology is still evolving. With the creation of the mac franchise it is one of the most advanced innovations in the modern era.

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Steve Job inspired me in the sense that technology is still evolving. With the creation of the mac franchise it is one of the most advanced innovations in the modern era.

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Steve Jobs

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Steven Paul Jobs (February 24, 1955 - October 5, 2011) was an American businessman, inventor, and investor best known as the co-founder of Apple. Jobs was also chairman and majority shareholder of Pixar, and the founder of NeXT. He was a pioneer of the personal computer revolution of the 1970s and 1980s, along with his early business partner and fellow Apple co-founder Steve Wozniak.

Jobs was born in San Francisco to a Syrian father and Swiss-German American mother. He was adopted shortly after his birth. He attended Reed College in 1972 before withdrawing that same year. In 1974, he traveled through India seeking enlightenment before later studying Zen Buddhism. He and Wozniak co-founded Apple in 1976 to sell Wozniak's Apple I personal computer. Together the duo gained fame and wealth a year later with production and sale of the Apple II, one of the first highly successful mass-produced microcomputers. Jobs saw the commercial potential of the Xerox Alto in 1979, which was mouse-driven and had a graphical user interface (GUI). This led to the development of the unsuccessful Apple Lisa in 1983, followed by the breakthrough Macintosh in 1984, the first mass-produced computer with a GUI. The Macintosh introduced the desktop publishing industry in 1985 with the addition of the Apple LaserWriter, the first laser printer to feature vector graphics.

In 1985, Jobs departed Apple after a long power struggle with the company's board and its then-CEO, John Sculley. That same year, Jobs took some Apple employees with him to found NeXT, a computer platform development company that specialized in computers for higher-education and business markets, serving as its CEO. In addition, he helped develop the visual effects industry when he funded the computer graphics division of George Lucas's Lucasfilm in 1986. The Graphics Group eventually spun off independently as Pixar, producing the first 3D computer-animated feature film (1995) and becoming a leading animation studio, producing over 27 films since.

In 1997, Jobs returned to Apple as CEO after the company's acquisition of NeXT. He was largely responsible for reviving Apple, which was on the verge of bankruptcy. He worked closely with British designer Jony Ive to develop a line of products and services that had larger cultural ramifications, beginning with the " Think different" advertising campaign, and leading to the iMac, iTunes, Mac OS X, Apple Store, iPod, iTunes Store, iPhone, App Store, and iPad. In 2003, Jobs was diagnosed with a pancreatic neuroendocrine tumor. He died of respiratory arrest related to the tumor in 2011, at the age of 56, with Tim Cook succeeding him as CEO of Apple. In 2022, he was posthumously awarded the Presidential Medal of Freedom.

Steven Paul Jobs was born in San Francisco, California, on February 24, 1955, to Joanne Carole Schieble and Abdulfattah "John" Jandali ( Arabic: عبد الفتاح الجندلي). Abdulfattah Jandali was born in a Muslim household to wealthy Syrian parents, the youngest of nine siblings. After obtaining his undergraduate degree at the American University of Beirut, Jandali pursued a PhD in political science at the University of Wisconsin. There, he met Joanne Schieble, an American Catholic of Swiss-German descent whose parents owned a mink farm and real estate. The two fell in love but faced opposition from Schieble's father due to Jandali's Muslim faith. When Schieble became pregnant, she arranged for a closed adoption, and travelled to San Francisco to give birth.

Schieble requested that her son be adopted by college graduates. A lawyer and his wife were selected, but they withdrew after discovering that the baby was a boy, so Jobs was instead adopted by Paul Reinhold and Clara (née Hagopian) Jobs. Paul Jobs was the son of a dairy farmer; after dropping out of high school, he worked as a mechanic, then joined the U.S. Coast Guard. When his ship was decommissioned, he met Clara Hagopian, an American of Armenian descent, and the two were engaged ten days later, in March 1946, and married that same year. The couple moved to Wisconsin, then Indiana, where Paul Jobs worked as a machinist and later as a car salesman. Since Clara missed San Francisco, she convinced Paul to move back. There, Paul worked as a repossession agent, and Clara became a bookkeeper. In 1955, after having an ectopic pregnancy, the couple looked to adopt a child. Since they lacked a college education, Schieble initially refused to sign the adoption papers, and went to court to request that her son be removed from the Jobs household and placed with a different family, but changed her mind after Paul and Clara promised to pay for their son's college tuition.

Of all the inventions of humans, the computer is going to rank near or at the top as history unfolds and we look back. It is the most awesome tool that we have ever invented. I feel incredibly lucky to be at exactly the right place in Silicon Valley, at exactly the right time, historically, where this invention has taken form.

In his youth, Jobs's parents took him to a Lutheran church. When Steve was in high school, Clara admitted to his girlfriend, Chrisann Brennan, that she "was too frightened to love [Steve] for the first six months of his life ... I was scared they were going to take him away from me. Even after we won the case, Steve was so difficult a child that by the time he was two I felt we had made a mistake. I wanted to return him." When Chrisann shared this comment with Steve, he stated that he was already aware, and later said that he had been deeply loved and indulged by Paul and Clara. Many years later, Jobs's wife Laurene also noted that "he felt he had been really blessed by having the two of them as parents". Jobs would "bristle" when Paul and Clara were referred to as his "adoptive parents", and he regarded them as his parents "1,000%". Jobs referred to his biological parents as "my sperm and egg bank. That's not harsh, it's just the way it was, a sperm bank thing, nothing more."

I always thought of myself as a humanities person as a kid, but I liked electronics... then I read something that one of my heroes, Edwin Land of Polaroid, said about the importance of people who could stand at the intersection of humanities and sciences, and I decided that's what I wanted to do.

-Steve Jobs

Paul Jobs worked in several jobs that included a try as a machinist, several other jobs, and then "back to work as a machinist".

Paul and Clara adopted Jobs's sister Patricia in 1957, and by 1959 the family had moved to the Monta Loma neighborhood in Mountain View, California. Paul built a workbench in his garage for his son in order to "pass along his love of mechanics". Jobs, meanwhile, admired his father's craftsmanship "because he knew how to build anything. If we needed a cabinet, he would build it. When he built our fence, he gave me a hammer so I could work with him ... I wasn't that into fixing cars ... but I was eager to hang out with my dad." By the time he was ten, Jobs was deeply involved in electronics and befriended many of the engineers who lived in the neighborhood. He had difficulty making friends with children his own age, however, and was seen by his classmates as a "loner".

Childhood family home of Steve Jobs on Crist Drive in Los Altos, California, and the original site of Apple Computer. The home was added to a list of historic Los Altos sites in 2013.[18]

Jobs had difficulty functioning in a traditional classroom, tended to resist authority figures, frequently misbehaved, and was suspended a few times. Clara had taught him to read as a toddler, and Jobs stated that he was "pretty bored in school and [had] turned into a little terror... you should have seen us in the third grade, we basically destroyed the teacher". He frequently played pranks on others at Monta Loma Elementary School in Mountain View. His father Paul (who was abused as a child) never reprimanded him, however, and instead blamed the school for not challenging his brilliant son.

Jobs would later credit his fourth grade teacher, Imogene "Teddy" Hill, with turning him around: "She taught an advanced fourth grade class, and it took her about a month to get hip to my situation. She bribed me into learning. She would say, 'I really want you to finish this workbook. I'll give you five bucks if you finish it.' That really kindled a passion in me for learning things! I learned more that year than I think I learned in any other year in school. They wanted me to skip the next two years in grade school and go straight to junior high to learn a foreign language, but my parents very wisely wouldn't let it happen." Jobs skipped the 5th grade and transferred to the 6th grade at Crittenden Middle School in Mountain View, where he became a "socially awkward loner". Jobs was often "bullied" at Crittenden Middle, and in the middle of 7th grade, he gave his parents an ultimatum: either they would take him out of Crittenden or he would drop out of school.

The Jobs family was not affluent, and only by expending all their savings were they able to buy a new home in 1967, allowing Steve to change schools. The new house (a three-bedroom home on Crist Drive in Los Altos, California) was in the better Cupertino School District, Cupertino, California, and was embedded in an environment even more heavily populated with engineering families than the Mountain View area was. The house was declared a historic site in 2013, as the first site of Apple Computer. As of 2013, it was owned by Jobs's sister, Patty, and occupied by his stepmother, Marilyn.

When he was 13, in 1968, Jobs was given a summer job by Bill Hewlett (of Hewlett-Packard) after Jobs cold-called him to ask for parts for an electronics project.

Homestead High

The location of the Los Altos home meant that Jobs would be able to attend nearby Homestead High School, which had strong ties to Silicon Valley. He began his first year there in late 1968 along with Bill Fernandez, who introduced Jobs to Steve Wozniak, and would become Apple's first employee. Neither Jobs nor Fernandez (whose father was a lawyer) came from engineering households and thus decided to enroll in John McCollum's Electronics I class. Jobs had grown his hair long and become involved in the growing counterculture, and the rebellious youth eventually clashed with McCollum and lost interest in the class.

He underwent a change during mid-1970: "I got stoned for the first time; I discovered Shakespeare, Dylan Thomas, and all that classic stuff. I read and went back as a junior taking creative writing classes." Jobs later noted to his official biographer that "I started to listen to music a whole lot, and I started to read more outside of just science and technology - Shakespeare, Plato. I loved ... when I was a senior I had this phenomenal AP English class. The teacher was this guy who looked like Ernest Hemingway. He took a bunch of us snowshoeing in Yosemite." During his last two years at Homestead High, Jobs developed two different interests: electronics and literature. These dual interests were particularly reflected during Jobs's senior year, as his best friends were Wozniak and his first girlfriend, the artistic Homestead junior Chrisann Brennan.

In 1971, after Wozniak began attending University of California, Berkeley, Jobs would visit him there a few times a week. This experience led him to study in nearby Stanford University's student union. Instead of joining the electronics club, Jobs put on light shows with a friend for Homestead's avant-garde jazz program. He was described by a Homestead classmate as "kind of brain and kind of hippie ... but he never fit into either group. He was smart enough to be a nerd, but wasn't nerdy. And he was too intellectual for the hippies, who just wanted to get wasted all the time. He was kind of an outsider. In high school everything revolved around what group you were in, and if you weren't in a carefully defined group, you weren't anybody. He was an individual, in a world where individuality was suspect." By his senior year in late 1971, he was taking a freshman English class at Stanford and working on a Homestead underground film project with Chrisann Brennan.

Around that time, Wozniak designed a low-cost digital " blue box" to generate the necessary tones to manipulate the telephone network, allowing free long-distance calls. He was inspired by an article titled "Secrets of the Little Blue Box" from the October 1971 issue of . Jobs decided then to sell them and split the profit with Wozniak. The clandestine sales of the illegal blue boxes went well and perhaps planted the seed in Jobs's mind that electronics could be both fun and profitable. In a 1994 interview, he recalled that it took six months for him and Wozniak to design the blue boxes. Jobs later reflected that had it not been for Wozniak's blue boxes, "there wouldn't have been an Apple". He states it showed them that they could take on large companies and beat them.

By his senior year of high school, Jobs began using LSD. He later recalled that on one occasion he consumed it in a wheat field outside Sunnyvale, and experienced "the most wonderful feeling of my life up to that point". In mid-1972, after graduation and before leaving for Reed College, Jobs and Brennan rented a house from their other roommate, Al.

Reed College

In September 1972, Jobs enrolled at Reed College in Portland, Oregon. He insisted on applying only to Reed, although it was an expensive school that Paul and Clara could ill afford. Jobs soon befriended Robert Friedland, who was Reed's student body president at that time. Brennan remained involved with Jobs while he was at Reed.

After just one semester, Jobs dropped out of Reed College without telling his parents. Jobs later explained this was because he did not want to spend his parents' money on an education that seemed meaningless to him. He continued to attend by auditing his classes, including a course on calligraphy that was taught by Robert Palladino. In a 2005 commencement speech at Stanford University, Jobs stated that during this period, he slept on the floor in friends' dorm rooms, returned Coke bottles for food money, and got weekly free meals at the local Hare Krishna temple. In that same speech, Jobs said: "If I had never dropped in on that single calligraphy course in college, the Mac would have never had multiple typefaces or proportionally spaced fonts".

I was lucky to get into computers when it was a very young and idealistic industry. There weren't many degrees offered in computer science, so people in computers were brilliant people from mathematics, physics, music, zoology, whatever. They loved it, and no one was really in it for the money [...] There are people around here who start companies just to make money, but the great companies, well, that's not what they're about.

In February 1974, Jobs returned to his parents' home in Los Altos and began looking for a job. He was soon hired by Atari, Inc. in Los Gatos, California, as a computer technician. Back in 1973, Steve Wozniak designed his own version of the classic video game and gave its electronics board to Jobs. According to Wozniak, Atari only hired Jobs because he took the board down to the company, and they thought that he had built it himself. Atari's cofounder Nolan Bushnell later described him as "difficult but valuable", pointing out that "he was very often the smartest guy in the room, and he would let people know that".

Jobs traveled to India in mid-1974 to visit Neem Karoli Baba at his Kainchi ashram with his Reed friend (and eventual Apple employee) Daniel Kottke, searching for spiritual enlightenment. When they got to the Neem Karoli ashram, it was almost deserted because Neem Karoli Baba had died in September 1973. Then they made a long trek up a dry riverbed to an ashram of Haidakhan Babaji.

After seven months, Jobs left India and returned to the US ahead of Daniel Kottke. Jobs had changed his appearance; his head was shaved, and he wore traditional Indian clothing. During this time, Jobs experimented with psychedelics, later calling his LSD experiences "one of the two or three most important things [he had] done in [his] life". He spent a period at the All One Farm, a commune in Oregon that was owned by Robert Friedland.

During this time period, Jobs and Brennan both became practitioners of Zen Buddhism through the Zen master Kōbun Chino Otogawa. Jobs engaged in lengthy meditation retreats at the Tassajara Zen Mountain Center, the oldest Sōtō Zen monastery in the US. He considered taking up monastic residence at Eihei-ji in Japan, and maintained a lifelong appreciation for Zen, Japanese cuisine, and artists such as Hasui Kawase.

Jobs returned to Atari in early 1975, and that summer, Bushnell assigned him to create a circuit board for the arcade video game in as few chips as possible, knowing that Jobs would recruit Wozniak for help. During his day job at HP, Wozniak drew sketches of the circuit design; at night, he joined Jobs at Atari and continued to refine the design, which Jobs implemented on a breadboard. According to Bushnell, Atari offered $100 (equivalent to about $500 in 2022) for each TTL chip that was eliminated in the machine. Jobs made a deal with Wozniak to split the fee evenly between them if Wozniak could minimize the number of chips. Much to the amazement of Atari engineers, within four days Wozniak reduced the TTL count to 45, far below the usual 100, though Atari later re-engineered it to make it easier to test and add a few missing features. According to Wozniak, Jobs told him that Atari paid them only $750 (instead of the actual $5,000), and that Wozniak's share was thus $375. Wozniak did not learn about the actual bonus until ten years later but said that if Jobs had told him about it and explained that he needed the money, Wozniak would have given it to him.

Jobs and Wozniak attended meetings of the Homebrew Computer Club in 1975, which was a steppingstone to the development and marketing of the first Apple computer.

Apple (1976-1985)

Basically Steve Wozniak and I invented the Apple because we wanted a personal computer. Not only couldn't we afford the computers that were on the market, those computers were impractical for us to use. We needed a Volkswagen. The Volkswagen isn't as fast or comfortable as other ways of traveling, but the VW owners can go where they want, when they want and with whom they want. The VW owners have personal control of their car.

By March 1976, Wozniak completed the basic design of the Apple I computer and showed it to Jobs, who suggested that they sell it; Wozniak was at first skeptical of the idea but later agreed. In April of that same year, Jobs, Wozniak, and administrative overseer Ronald Wayne founded Apple Computer Company (now called " Apple Inc.") as a business partnership in Jobs's parents' Crist Drive home on April 1, 1976. The operation originally started in Jobs's bedroom and later moved to the garage. Wayne stayed briefly, leaving Jobs and Wozniak as the active primary cofounders of the company.

The two decided on the name "Apple" after Jobs returned from the All One Farm commune in Oregon and told Wozniak about his time in the farm's apple orchard. Jobs originally planned to produce bare printed circuit boards of the Apple I and sell them to computer hobbyists for $50 (equivalent to about $260 in 2022) each. To fund the first batch, Wozniak sold his HP scientific calculator and Jobs sold his Volkswagen van. Later that year, computer retailer Paul Terrell purchased 50 fully assembled Apple I units for $500 each. Eventually about 200 Apple I computers were produced in total.

A neighbor on Crist Drive recalled Jobs as an odd individual who would greet his clients "with his underwear hanging out, barefoot and hippie-like". Another neighbor, Larry Waterland, who had just earned his PhD in chemical engineering at Stanford, recalled dismissing Jobs's budding business compared to the established industry of giant mainframe computers with big decks of punch cards: "Steve took me over to the garage. He had a circuit board with a chip on it, a DuMont TV set, a Panasonic cassette tape deck and a keyboard. He said, 'This is an Apple computer.' I said, 'You've got to be joking.' I dismissed the whole idea." Jobs's friend from Reed College and India, Daniel Kottke, recalled that as an early Apple employee, he "was the only person who worked in the garage ... Woz would show up once a week with his latest code. Steve Jobs didn't get his hands dirty in that sense." Kottke also stated that much of the early work took place in Jobs's kitchen, where he spent hours on the phone trying to find investors for the company.

They received funding from a then-semi-retired Intel product marketing manager and engineer named Mike Markkula. Scott McNealy, one of the cofounders of Sun Microsystems, said that Jobs broke a " glass age ceiling" in Silicon Valley because he'd created a very successful company at a young age. Markkula brought Apple to the attention of Arthur Rock, which, after looking at the crowded Apple booth at the Home Brew Computer Show, started with a $60,000 investment and went on the Apple board. Jobs was not pleased when Markkula recruited Mike Scott from National Semiconductor in February 1977 to serve as the first president and CEO of Apple.

For what characterizes Apple is that its scientific staff always acted and performed like artists - in a field filled with dry personalities limited by the rational and binary worlds they inhabit, Apple's engineering teams had passion. They always believed that what they were doing was important and, most of all, fun. Working at Apple was never just a job; it was also a crusade, a mission, to bring better computer power to people. At its roots, that attitude came from Steve Jobs. It was " Power to the People", the slogan of the sixties, rewritten in technology for the eighties and called Macintosh.

After Brennan returned from her own journey to India, she and Jobs fell in love again, as Brennan noted changes in him that she attributes to Kobun (whom she was also still following). It was also at this time that Jobs displayed a prototype Apple II computer for Brennan and his parents in their living room. Brennan notes a shift in this time period, where the two main influences on Jobs were Apple Inc. and Kobun.

In April 1977, Jobs and Wozniak introduced the Apple II at the West Coast Computer Faire. It is the first consumer product to have been sold by Apple Computer. Primarily designed by Wozniak, Jobs oversaw the development of its unusual case and Rod Holt developed the unique power supply. During the design stage, Jobs argued that the Apple II should have two expansion slots, while Wozniak wanted eight. After a heated argument, Wozniak threatened that Jobs should "go get himself another computer". They later agreed on eight slots. The Apple II became one of the first highly successful mass-produced microcomputer products in the world.

As Jobs became more successful with his new company, his relationship with Brennan grew more complex. In 1977, the success of Apple was now a part of their relationship, and Brennan, Daniel Kottke, and Jobs moved into a house near the Apple office in Cupertino. Brennan eventually took a position in the shipping department at Apple. Brennan's relationship with Jobs deteriorated as his position with Apple grew, and she began to consider ending the relationship. In October 1977, Brennan was approached by Rod Holt, who asked her to take "a paid apprenticeship designing blueprints for the Apples". Both Holt and Jobs believed that it would be a good position for her, given her artistic abilities. Holt was particularly eager that she take the position and puzzled by her ambivalence toward it. Brennan's decision, however, was overshadowed by the fact that she realized she was pregnant, and that Jobs was the father. It took her a few days to tell Jobs, whose face, according to Brennan, "turned ugly" at the news. At the same time, according to Brennan, at the beginning of her third trimester, Jobs said to her: "I never wanted to ask that you get an abortion. I just didn't want to do that." He also refused to discuss the pregnancy with her.

Brennan turned down the internship and decided to leave Apple. She stated that Jobs told her "If you give up this baby for adoption, you will be sorry" and "I am never going to help you". According to Brennan, Jobs "started to seed people with the notion that I slept around, and he was infertile, which meant that this could not be his child". A few weeks before she was due to give birth, Brennan was invited to deliver her baby at the All One Farm. She accepted the offer. When Jobs was 23 (the same age as his biological parents when they had him) Brennan gave birth to her baby, Lisa Brennan, on May 17, 1978.

Jobs went there for the birth after he was contacted by Robert Friedland, their mutual friend and the farm owner. While distant, Jobs worked with her on a name for the baby, which they discussed while sitting in the fields on a blanket. Brennan suggested the name "Lisa" which Jobs also liked and notes that Jobs was very attached to the name "Lisa" while he "was also publicly denying paternity". She would discover later that during this time, Jobs was preparing to unveil a new kind of computer that he wanted to give a female name (his first choice was "Claire" after St. Clare). She stated that she never gave him permission to use the baby's name for a computer and he hid the plans from her. Jobs worked with his team to come up with the phrase, "Local Integrated Software Architecture" as an alternative explanation for the Apple Lisa. Decades later, however, Jobs admitted to his biographer Walter Isaacson that "obviously, it was named for my daughter".

When Jobs denied paternity, a DNA test established him as Lisa's father. It required him to pay Brennan $385 (equivalent to about $1,100 in 2022) monthly in addition to returning the welfare money she had received. Jobs paid her $500 (equivalent to about $1,500 in 2022) monthly at the time when Apple went public and made him a millionaire. Later, Brennan agreed to interview with Michael Moritz for magazine for its Time Person of the Year special, released on January 3, 1983, in which she discussed her relationship with Jobs. Rather than name Jobs the Person of the Year, the magazine named the generic personal computer the "Machine of the Year". In the issue, Jobs questioned the reliability of the paternity test, which stated that the "probability of paternity for Jobs, Steven... is 94.1%". He responded by arguing that "28% of the male population of the United States could be the father". Time also noted that "the baby girl and the machine on which Apple has placed so much hope for the future share the same name: Lisa".

In 1978, at age 23, Jobs was worth over $1 million (equivalent to $4.49 million in 2022). By age 25, his net worth grew to an estimated $250 million (equivalent to $805 million in 2022). He was also one of the youngest "people ever to make the list of the nation's richest people-and one of only a handful to have done it themselves, without inherited wealth".

In 1982, Jobs bought an apartment on the top two floors of The San Remo, a Manhattan building with a politically progressive reputation. Although he never lived there, he spent years renovating it thanks to I. M. Pei.

In 1983, Jobs lured John Sculley away from Pepsi-Cola to serve as Apple's CEO, asking, "Do you want to spend the rest of your life selling sugared water, or do you want a chance to change the world?".

In 1984, Jobs bought the Jackling House and estate and resided there for a decade. Thereafter, he leased it out for several years until 2000 when he stopped maintaining the house, allowing weathering to degrade it. In 2004, Jobs received permission from the town of Woodside to demolish the house to build a smaller, contemporary styled one. After a few years in court, the house was finally demolished in 2011, a few months before he died.

Jobs took over development of the Macintosh in 1981, from early Apple employee Jef Raskin, who had conceived the project. Wozniak and Raskin had heavily influenced the early program, and Wozniak was on leave during this time due to an airplane crash earlier that year, making it easier for Jobs to take over the project. On January 22, 1984, Apple aired a Super Bowl television commercial titled " 1984", which ended with the words: "On January 24th, Apple Computer will introduce Macintosh. And you'll see why 1984 won't be like ." On January 24, 1984, an emotional Jobs introduced the Macintosh to a wildly enthusiastic audience at Apple's annual shareholders meeting held in the Flint Auditorium at De Anza College. Macintosh engineer Andy Hertzfeld described the scene as "pandemonium". The Macintosh was inspired by the Lisa (in turn inspired by Xerox PARC's mouse-driven graphical user interface), and it was widely acclaimed by the media with strong initial sales. However, its low performance and limited range of available software led to a rapid sales decline in the second half of 1984.

Sculley's and Jobs's respective visions for the company greatly differed. Sculley favored open architecture computers like the Apple II, targeting education, small business, and home markets less vulnerable to IBM. Jobs wanted the company to focus on the closed architecture Macintosh as a business alternative to the IBM PC. President and CEO Sculley had little control over chairman of the board Jobs's Macintosh division; it and the Apple II division operated like separate companies, duplicating services. Although its products provided 85% of Apple's sales in early 1985, the company's January 1985 annual meeting did not mention the Apple II division or employees. Many left, including Wozniak, who stated that the company had "been going in the wrong direction for the last five years" and sold most of his stock. Though frustrated with the company's and Jobs's dismissal of the Apple II in favor of the Macintosh, Wozniak left amicably and remained an honorary employee of Apple, maintaining a lifelong friendship with Jobs.

By early 1985, the Macintosh's failure to defeat the IBM PC became clear, and it strengthened Sculley's position in the company. In May 1985, Sculley-encouraged by Arthur Rock-decided to reorganize Apple, and proposed a plan to the board that would remove Jobs from the Macintosh group and put him in charge of "New Product Development". This move would effectively render Jobs powerless within Apple. In response, Jobs then developed a plan to get rid of Sculley and take over Apple. However, Jobs was confronted after the plan was leaked, and he said that he would leave Apple. The Board declined his resignation and asked him to reconsider. Sculley also told Jobs that he had all of the votes needed to go ahead with the reorganization. A few months later, on September 17, 1985, Jobs submitted a letter of resignation to the Apple Board. Five additional senior Apple employees also resigned and joined Jobs in his new venture, NeXT.

The Macintosh's struggle continued after Jobs left Apple. Though marketed and received in fanfare, the expensive Macintosh was hard to sell. In 1985, Bill Gates's then-developing company, Microsoft, threatened to stop developing Mac applications unless it was granted "a license for the Mac operating system software. Microsoft was developing its graphical user interface ... for DOS, which it was calling Windows and didn't want Apple to sue over the similarities between the Windows GUI and the Mac interface." Sculley granted Microsoft the license which later led to problems for Apple. In addition, cheap IBM PC clones that ran Microsoft software and had a graphical user interface began to appear. Although the Macintosh preceded the clones, it was far more expensive, so "through the late 1980s, the Windows user interface was getting better and better and was thus taking increasingly more share from Apple". Windows-based IBM-PC clones also led to the development of additional GUIs such as IBM's TopView or Digital Research's GEM, and thus "the graphical user interface was beginning to be taken for granted, undermining the most apparent advantage of the Mac...it seemed clear as the 1980s wound down that Apple couldn't go it alone indefinitely against the whole IBM-clone market".

NeXT computer

Following his resignation from Apple in 1985, Jobs founded NeXT Inc. with $7 million. A year later he was running out of money, and he sought venture capital with no product on the horizon. Eventually, Jobs attracted the attention of billionaire Ross Perot, who invested heavily in the company. The NeXT computer was shown to the world in what was considered Jobs's comeback event, a lavish invitation-only gala launch event that was described as a multimedia extravaganza. The celebration was held at the Louise M. Davies Symphony Hall, San Francisco, California, on Wednesday, October 12, 1988. Steve Wozniak said in a 2013 interview that while Jobs was at NeXT he was "really getting his head together".

NeXT workstations were first released in 1990 and priced at $9,999 (equivalent to about $22,000 in 2022). Like the Apple Lisa, the NeXT workstation was technologically advanced and designed for the education sector but was largely dismissed as cost prohibitive. The NeXT workstation was known for its technical strengths, chief among them its object-oriented software development system. Jobs marketed NeXT products to the financial, scientific, and academic community, highlighting its innovative, experimental new technologies, such as the Mach kernel, the digital signal processor chip, and the built-in Ethernet port. Making use of a NeXT computer, English computer scientist Tim Berners-Lee invented the World Wide Web in 1990 at CERN in Switzerland.

The revised, second generation NeXTcube was released in 1990. Jobs touted it as the first "interpersonal" computer that would replace the personal computer. With its innovative NeXTMail multimedia email system, NeXTcube could share voice, image, graphics, and video in email for the first time. "Interpersonal computing is going to revolutionize human communications and groupwork", Jobs told reporters. Jobs ran NeXT with an obsession for aesthetic perfection, as evidenced by the development of and attention to NeXTcube's magnesium case. This put considerable strain on NeXT's hardware division, and in 1993, after having sold only 50,000 machines, NeXT transitioned fully to software development with the release of NeXTSTEP/ Intel. The company reported its first yearly profit of $1.03 million in 1994. In 1996, NeXT Software, Inc. released WebObjects, a framework for Web application development. After NeXT was acquired by Apple Inc. in 1997, WebObjects was used to build and run the Apple Store, MobileMe services, and the iTunes Store.

Pixar and Disney

In 1986, Jobs funded the spinout of The Graphics Group (later renamed Pixar) from Lucasfilm's computer graphics division for the price of $10 million, $5 million of which was given to the company as capital and $5 million of which was paid to Lucasfilm for technology rights.

The first film produced by Pixar with its Disney partnership, (1995), with Jobs credited as executive producer, brought financial success and critical acclaim to the studio when it was released. Over the course of Jobs's life, under Pixar's creative chief John Lasseter, the company produced box-office hits (1998), (1999), Monsters, Inc. (2001), Finding Nemo (2003), The Incredibles (2004), (2006), Ratatouille (2007), (2008), (2009), (2010), and (2011). (2012), Pixar's first film to be produced since Jobs's death, honored him with a tribute for his contributions to the studio. Finding Nemo, The Incredibles, Ratatouille, WALL-E, Up, Toy Story 3, and Brave each received the Academy Award for Best Animated Feature, an award introduced in 2001.

In 2003 and 2004, as Pixar's contract with Disney was running out, Jobs and Disney chief executive Michael Eisner tried but failed to negotiate a new partnership, and in January 2004, Jobs announced that he would never deal with Disney again. Pixar would seek a new partner to distribute its films after its contract expired.

In October 2005, Bob Iger replaced Eisner at Disney, and Iger quickly worked to mend relations with Jobs and Pixar. On January 24, 2006, Jobs and Iger announced that Disney had agreed to purchase Pixar in an all-stock transaction worth $7.4 billion. When the deal closed, Jobs became The Walt Disney Company's largest single shareholder with approximately seven percent of the company's stock. Jobs's holdings in Disney far exceeded those of Eisner, who holds 1.7%, and of Disney family member Roy E. Disney, who until his 2009 death held about 1% of the company's stock and whose criticisms of Eisner-especially that he soured Disney's relationship with Pixar-accelerated Eisner's ousting. Upon completion of the merger, Jobs received 7% of Disney shares, and joined the board of directors as the largest individual shareholder. Upon Jobs's death his shares in Disney were transferred to the Steven P. Jobs Trust led by Laurene Jobs.

After Jobs's death, Iger recalled in 2019 that many warned him about Jobs, "that he would bully me and everyone else". Iger wrote, "Who wouldn't want Steve Jobs to have influence over how a company is run?", and that as an active Disney board member "he rarely created trouble for me. Not never but rarely." He speculated that they would have seriously considered merging Disney and Apple had Jobs lived. Floyd Norman, of Pixar, described Jobs as a "mature, mellow individual" who never interfered with the creative process of the filmmakers. In early June 2014, Pixar cofounder and Walt Disney Animation Studios President Edwin Catmull revealed that Jobs once advised him to "just explain it to them until they understand" in disagreements. Catmull released the book Creativity, Inc. in 2014, in which he recounts numerous experiences of working with Jobs. Regarding his own manner of dealing with Jobs, Catmull writes:

In all the 26 years with Steve, Steve and I never had one of these loud verbal arguments, and it's not my nature to do that. ... but we did disagree fairly frequently about things. ... I would say something to him and he would immediately shoot it down because he could think faster than I could. ... I would then wait a week ... I'd call him up, and I give my counterargument to what he had said, and he'd immediately shoot it down. So I had to wait another week, and occasionally this went on for months. But ultimately one of three things happened. About a third of the time he said, "Oh, I get it, you're right", and that was the end of it. And it was another third of the time in which [I'd] say, "Actually I think he is right". The other third of the time, where we didn't reach consensus, he just let me do it my way, never said anything more about it.

Return to Apple

In 1996, Jobs's former company Apple was struggling and its survival depended on completing its next operating system. After failed negotiations to purchase Be Inc., Apple eventually came to a deal with NeXT in December for $400 million; the deal was finalized in February 1997, bringing Jobs back to the company he had cofounded. Jobs became de facto chief after then-CEO Gil Amelio was ousted in July 1997. He was formally named interim chief executive on September 16. In March 1998, to concentrate Apple's efforts on returning to profitability, Jobs terminated several projects, such as Newton, Cyberdog, and OpenDoc. In the coming months, many employees developed a fear of encountering Jobs while riding in the elevator, "afraid that they might not have a job when the doors opened. The reality was that Jobs's summary executions were rare, but a handful of victims was enough to terrorize a whole company." Jobs changed the licensing program for Macintosh clones, making it too costly for the manufacturers to continue making machines.

With the purchase of NeXT, much of the company's technology found its way into Apple products, most notably NeXTSTEP, which evolved into Mac OS X. Under Jobs's guidance, the company increased sales significantly with the introduction of the iMac and other new products; since then, appealing designs and powerful branding have worked well for Apple. At the 2000 Macworld Expo, Jobs officially dropped the "interim" modifier from his title at Apple and became permanent CEO. Jobs quipped at the time that he would be using the title "iCEO".

The company subsequently branched out, introducing and improving upon other digital appliances. With the introduction of the iPod portable music player, iTunes digital music software, and the iTunes Store, the company made forays into consumer electronics and music distribution. On June 29, 2007, Apple entered the cellular phone business with the introduction of the iPhone, a multi-touch display cell phone, which also included the features of an iPod and, with its own mobile browser, revolutionized the mobile browsing scene. While nurturing open-ended innovation, Jobs also reminded his employees that "real artists ship".

Jobs had a public war of words with Dell Computer CEO Michael Dell, starting in 1987, when Jobs first criticized Dell for making "un-innovative beige boxes". On October 6, 1997, at a Gartner Symposium, when Dell was asked what he would do if he ran the then-troubled Apple Computer company, he said: "I'd shut it down and give the money back to the shareholders". Then, in 2006, Jobs emailed all employees when Apple's market capitalization rose above Dell's. It read:

Team, it turned out that Michael Dell wasn't perfect at predicting the future. Based on today's stock market close, Apple is worth more than Dell. Stocks go up and down, and things may be different tomorrow, but I thought it was worth a moment of reflection today. Steve.

Jobs was both admired and criticized for his consummate skill at persuasion and salesmanship, which has been dubbed the " reality distortion field" and was particularly evident during his keynote speeches (colloquially known as " Stevenotes") at Macworld Expos and at Apple Worldwide Developers Conferences.

Jobs usually went to work wearing a black long-sleeved mock turtleneck made by Issey Miyake, Levi's 501 blue jeans, and New Balance 991 sneakers. Jobs told his biographer Walter Isaacson "...he came to like the idea of having a uniform for himself, both because of its daily convenience (the rationale he claimed) and its ability to convey a signature style".

Jobs was a board member at Gap Inc. from 1999 to 2002.

Jobs and Bill Gates at the fifth D: All Things Digital conference (D5) in May 2007

In 2005, Jobs responded to criticism of Apple's poor recycling programs for e-waste in the US by lashing out at environmental and other advocates at Apple's annual meeting in Cupertino in April. A few weeks later, Apple announced it would take back iPods for free at its retail stores. The Computer TakeBack Campaign responded by flying a banner from a plane over the Stanford University graduation at which Jobs was the commencement speaker. The banner read "Steve, don't be a mini-player-recycle all e-waste".

In 2006, he further expanded Apple's recycling programs to any US customer who buys a new Mac. This program includes shipping and "environmentally friendly disposal" of their old systems. The success of Apple's unique products and services provided several years of stable financial returns, propelling Apple to become the world's most valuable publicly traded company in 2011.

Jobs was perceived as a demanding perfectionist who always aspired to position his businesses and their products at the forefront of the information technology industry by foreseeing and setting innovation and style trends. He summed up this self-concept at the end of his keynote speech at the Macworld Conference and Expo in January 2007, by quoting ice hockey player Wayne Gretzky:

There's an old Wayne Gretzky quote that I love. "I skate to where the puck is going to be, not where it has been". And we've always tried to do that at Apple. Since the very, very beginning. And we always will.

On July 1, 2008, a $7 billion class action suit was filed against several members of the Apple board of directors for revenue lost because of alleged securities fraud.

Health problems

In October 2003, Jobs was diagnosed with cancer. In mid-2004, he announced to his employees that he had a cancerous tumor in his pancreas. The prognosis for pancreatic cancer is usually very poor; Jobs stated that he had a rare, much less aggressive type, known as islet cell neuroendocrine tumor.

Jobs resisted his doctors' recommendations for medical intervention for nine months, in favor of alternative medicine. Other doctors agree that Jobs's diet was insufficient to address his disease. However, cancer researcher and alternative medicine critic David Gorski wrote that "it's impossible to know whether and by how much he might have decreased his chances of surviving his cancer through his flirtation with woo. My best guess was that Jobs probably only modestly decreased his chances of survival, if that." Barrie R. Cassileth, the chief of Memorial Sloan Kettering Cancer Center's integrative medicine department, on the other hand, said, "Jobs's faith in alternative medicine likely cost him his life ... He had the only kind of pancreatic cancer that is treatable and curable ... He essentially committed suicide". According to biographer Walter Isaacson, "for nine months he refused to undergo surgery for his pancreatic cancer - a decision he later regretted as his health declined". "Instead, he tried a vegan diet, acupuncture, herbal remedies, and other treatments he found online, and even consulted a psychic. He was also influenced by a doctor who ran a clinic that advised juice fasts, bowel cleansings and other unproven approaches, before finally having surgery in July 2004." He underwent a pancreaticoduodenectomy (or "Whipple procedure") that appeared to remove the tumor successfully. Jobs did not receive chemotherapy or radiation therapy. During Jobs's absence, Tim Cook, head of worldwide sales and operations at Apple, ran the company.

In January 2006, only Jobs's wife, his doctors, and Iger knew that his cancer had returned. Jobs told Iger privately that he hoped to live to see his son Reed's high school graduation in 2010. In early August 2006, Jobs delivered the keynote for Apple's annual Worldwide Developers Conference. His "thin, almost gaunt" appearance and unusually "listless" delivery, together with his choice to delegate significant portions of his keynote to other presenters, inspired a flurry of media and internet speculation about the state of his health. In contrast, according to an Ars Technica journal report, Worldwide Developers Conference (WWDC) attendees who saw Jobs in person said he "looked fine". Following the keynote, an Apple spokesperson said that "Steve's health is robust".

Two years later, similar concerns followed Jobs's 2008 WWDC keynote address. Apple officials stated that Jobs was victim to a "common bug" and was taking antibiotics, while others surmised his cachectic appearance was due to the Whipple procedure. During a July conference call discussing Apple earnings, participants responded to repeated questions about Jobs's health by insisting that it was a "private matter". Others said that shareholders had a right to know more, given Jobs's hands-on approach to running his company. Based on an off-the-record phone conversation with Jobs, The New York Times reported, "While his health problems amounted to a good deal more than 'a common bug', they weren't life-threatening and he doesn't have a recurrence of cancer".

On August 28, 2008, Bloomberg mistakenly published a 2500-word obituary of Jobs in its corporate news service, containing blank spaces for his age and cause of death. News carriers customarily stockpile up-to-date obituaries to facilitate news delivery in the event of a well-known figure's death. Although the error was promptly rectified, many news carriers and blogs reported on it, intensifying rumors concerning Jobs's health. Jobs responded at Apple's September 2008 Let's Rock keynote by paraphrasing Mark Twain: "Reports of my death are greatly exaggerated". At a subsequent media event, Jobs concluded his presentation with a slide reading "110/70", referring to his blood pressure, stating he would not address further questions about his health.

On December 16, 2008, Apple announced that marketing vice-president Phil Schiller would deliver the company's final keynote address at the Macworld Conference and Expo 2009, again reviving questions about Jobs's health. In a statement given on January 5, 2009, on Apple.com, Jobs said that he had been suffering from a " hormone imbalance" for several months.

On January 14, 2009, Jobs wrote in an internal Apple memo that in the previous week he had "learned that my health-related issues are more complex than I originally thought". He announced a six-month leave of absence until the end of June 2009, to allow him to better focus on his health. Tim Cook, who previously acted as CEO in Jobs's 2004 absence, became acting CEO of Apple, with Jobs still involved with "major strategic decisions".

In 2009, Tim Cook offered a portion of his liver to Jobs, since both share a rare blood type, and the donor liver can regenerate tissue after such an operation. Jobs yelled, "I'll never let you do that. I'll never do that."

In April 2009, Jobs underwent a liver transplantation at Methodist University Hospital Transplant Institute in Memphis, Tennessee. Jobs's prognosis was described as "excellent".

Resignation

On January 17, 2011, a year and a half after Jobs returned to work following the liver transplant, Apple announced that he had been granted a medical leave of absence. Jobs announced his leave in a letter to employees, stating his decision was made "so he could focus on his health". As it did at the time of his 2009 medical leave, Apple announced that Tim Cook would run day-to-day operations and that Jobs would continue to be involved in major strategic decisions at the company. While on leave, Jobs appeared at the iPad 2 launch event on March 2, the WWDC keynote introducing iCloud on June 6, and before the Cupertino City Council on June 7.

On August 24, 2011, Jobs announced his resignation as Apple's CEO, writing to the board, "I have always said if there ever came a day when I could no longer meet my duties and expectations as Apple's CEO, I would be the first to let you know. Unfortunately, that day has come." Jobs became chairman of the board and named Tim Cook as his successor as CEO. Jobs continued to work for Apple until the day before his death six weeks later.

Jobs died at his Palo Alto, California, home around 3 p.m. ( PDT) on October 5, 2011, due to complications from a relapse of his previously treated islet-cell pancreatic neuroendocrine tumor, which resulted in respiratory arrest. He had lost consciousness the day before and died with his wife, children, and sisters at his side. His sister, Mona Simpson, described his death thus: "Steve's final words, hours earlier, were monosyllables, repeated three times. Before embarking, he'd looked at his sister Patty, then for a long time at his children, then at his life's partner, Laurene, and then over their shoulders past them. Steve's final words were: 'Oh wow. Oh wow. Oh wow.' " He then lost consciousness and died several hours later. A small private funeral was held on October 7, 2011, the details of which, out of respect for Jobs's family, were not made public.

Both Apple and Pixar issued announcements of his death. Apple announced on the same day that they had no plans for a public service, but were encouraging "well-wishers" to send their remembrance messages to an email address created to receive such messages. Apple and Microsoft both flew their flags at half-staff throughout their respective headquarters and campuses.

Bob Iger ordered all Disney properties, including Walt Disney World and Disneyland, to fly their flags at half-staff from October 6 to 12, 2011. For two weeks following his death, Apple displayed on its corporate Web site a simple page that showed Jobs's name and lifespan next to his portrait in grayscale. On October 19, 2011, Apple employees held a private memorial service for Jobs on the Apple campus in Cupertino. It was attended by Jobs's widow, Laurene, and by Tim Cook, Bill Campbell, Norah Jones, Al Gore, and Coldplay. Some of Apple's retail stores closed briefly so employees could attend the memorial. A video of the service was uploaded to Apple's website.

California Governor Jerry Brown declared Sunday, October 16, 2011, to be "Steve Jobs Day". On that day, an invitation-only memorial was held at Stanford University. Those in attendance included Apple and other tech company executives, members of the media, celebrities, politicians, and family and close friends of Jobs. Bono, Yo-Yo Ma, and Joan Baez performed at the service, which lasted longer than an hour. There was high security with guards at all of the university's gates, and a helicopter overhead from an area news station. Each attendee was given a small brown box as a "farewell gift" from Jobs, containing a copy of the Autobiography of a Yogi (1946) by Paramahansa Yogananda.

Childhood friend and fellow Apple co-founder Steve Wozniak, former owner of what would become Pixar, George Lucas, his competitor Microsoft co-founder Bill Gates, and President Barack Obama all made statements in response to his death.

At his request, Jobs was buried in an unmarked grave at Alta Mesa Memorial Park, the only nonsectarian cemetery in Palo Alto.

Innovations and designs

Jobs's design aesthetic was influenced by philosophies of Zen and Buddhism. In India, he experienced Buddhism while on his seven-month spiritual journey, and his sense of intuition was influenced by the spiritual people with whom he studied. Jobs gained insights regarding industrial designs from Richard Sapper.

According to Apple co-founder Steve Wozniak, "Steve didn't ever code. He wasn't an engineer and he didn't do any original design...". Daniel Kottke, one of Apple's earliest employees and a college friend of Jobs, stated: "Between Woz and Jobs, Woz was the innovator, the inventor. Steve Jobs was the marketing person."

He is listed as either primary inventor or co-inventor in 346 United States patents or patent applications related to a range of technologies from actual computer and portable devices to user interfaces (including touch-based), speakers, keyboards, power adapters, staircases, clasps, sleeves, lanyards, and packages. His contributions to most of his patents were to "the look and feel of the product". He and his industrial design chief Jonathan Ive are named for 200 of the patents. Most of these are design patents as opposed to utility patents or inventions; they are specific product designs such as both original and lamp-style iMacs, and PowerBook G4 Titanium. He holds 43 issued US patents on inventions. The patent on the Mac OS X Dock user interface with "magnification" feature was issued the day before he died. Although Jobs had little involvement in the engineering and technical side of the original Apple computers, Jobs later used his CEO position to directly involve himself with product design.

Involved in many projects throughout his career was his long-time marketing executive and confidant Joanna Hoffman, known as one of the few employees at Apple and NeXT who could successfully stand up to Jobs while also engaging with him.

Even while terminally ill in the hospital, Jobs sketched new devices that would hold the iPad in a hospital bed. He despised the oxygen monitor on his finger, and suggested ways to revise the design for simplicity.

Since his death, he has won 141 patents. He holds over 450 patents in total.

Although entirely designed by Steve Wozniak, Jobs had the idea of selling the desktop computer, which led to the formation of Apple Computer in 1976. Both Jobs and Wozniak constructed several of the Apple I prototypes by hand, funded by selling some of their belongings. Eventually, 200 units were produced.

The Apple II is an 8-bit home computer, one of the world's first highly successful mass-produced microcomputer products, designed primarily by Wozniak while Jobs oversaw the development of the Apple II's unusual case and Rod Holt developed the unique power supply. It was introduced in 1977 at the West Coast Computer Faire by Jobs and Wozniak as the first consumer product sold by Apple.

In 1982, after Jobs was forced out of the Lisa project, he took over the Macintosh project, adding inspiration from Lisa. The final Lisa 2/10 was modified and sold as the Macintosh XL.

Once he joined the Macintosh team, Jobs took over the project after Wozniak had experienced a traumatic airplane accident and temporarily left the company. Jobs launched the Macintosh on January 24, 1984, as the first mass-market personal computer featuring an integral graphical user interface and mouse. This first model was later renamed to Macintosh 128k among the prolific series. Since 1998, Apple has phased out the Macintosh name in favor of "Mac", though the product family has been nicknamed "Mac" or "the Mac" since inception. The Macintosh was introduced by a US$1.5 million Ridley Scott television commercial, " 1984". It aired during the third quarter of Super Bowl XVIII on January 22, 1984, received as a "watershed event" and a "masterpiece". Regis McKenna called the ad "more successful than the Mac itself". It uses an unnamed heroine to represent the coming of the Macintosh (indicated by a Picasso-style picture of the computer on her white tank top) to save humanity from the conformity of IBM's domination of the computer industry. The ad alludes to George Orwell's novel Nineteen Eighty-Four, which describes a dystopian future ruled by a televised " Big Brother".

The Macintosh, however, was expensive, which hindered its ability to be competitive in a market already dominated by the Commodore 64 for consumers, and the IBM Personal Computer and its accompanying clone market for businesses. Macintosh systems still found success in education and desktop publishing and kept Apple as the second-largest PC manufacturer for the next decade.

NeXT Computer

After Jobs was forced out of Apple in 1985, he started NeXT, a workstation computer company. The NeXT Computer was introduced in 1988 at a lavish launch event. Using the NeXT Computer, Tim Berners-Lee created the world's first web browser, the WorldWideWeb. The NeXT Computer's operating system, named NeXTSTEP, begat Darwin, which is now the foundation of most of Apple's operating systems such as Macintosh's macOS and iPhone's iOS.

Apple iMac G3 was introduced in 1998 and its innovative design was directly the result of Jobs's return to Apple. Apple boasted "the back of our computer looks better than the front of anyone else's". Described as "cartoonlike", the first iMac, clad in Bondi Blue plastic, was unlike any personal computer that came before. In 1999, Apple introduced the Graphite gray Apple iMac and since has varied the shape, color and size considerably while maintaining the all-in-one design. Design ideas were intended to create a connection with the user such as the handle and a "breathing" light effect when the computer went to sleep. The Apple iMac sold for $1,299 at that time. The iMac also featured forward-thinking changes, such as eschewing the floppy disk drive and moving exclusively to USB for connecting peripherals. This latter change resulted, through the iMac's success, in the interface being popularized among third-party peripheral makers-as evidenced by the fact that many early USB peripherals were made of translucent plastic (to match the iMac design).

iTunes is a media player, media library, online radio broadcaster, and mobile device management application developed by Apple. It is used to play, download, and organize digital audio and video (as well as other types of media available on the iTunes Store) on personal computers running the macOS and Microsoft Windows operating systems. The iTunes Store is also available on the iPod Touch, iPhone, and iPad.

Through the iTunes Store, users can purchase and download music, music videos, television shows, audiobooks, podcasts, movies, and movie rentals in some countries, and ringtones, available on the iPhone and iPod Touch (fourth generation onward). Application software for the iPhone, iPad and iPod Touch can be downloaded from the App Store.

The first generation of iPod was released October 23, 2001. The major innovation of the iPod was its small size achieved by using a 1.8" hard drive compared to the 2.5" drives common to players at that time. The capacity of the first-generation iPod ranged from 5 GB to 10 GB. The iPod sold for US$399 and more than 100,000 iPods were sold before the end of 2001. The introduction of the iPod resulted in Apple becoming a major player in the music industry. Also, the iPod's success prepared the way for the iTunes music store and the iPhone. After the first few generations of iPod, Apple released the touchscreen iPod Touch, the reduced-size iPod Mini and iPod Nano, and the screenless iPod Shuffle in the following years.

Apple began work on the first iPhone in 2005 and the first iPhone was released on June 29, 2007. The iPhone created such a sensation that a survey indicated six out of ten Americans were aware of its release. declared it "Invention of the Year" for 2007 and included it in the All-TIME 100 Gadgets list in 2010, in the category of Communication. The completed iPhone had multimedia capabilities and functioned as a quad-band touch screen smartphone. A year later, the iPhone 3G was released in July 2008 with three key features: support for GPS, 3G data and tri-band UMTS/HSDPA. In June 2009, the iPhone 3GS, whose improvements included voice control, a better camera, and a faster processor, was introduced by Phil Schiller. The iPhone 4 was thinner than previous models, had a five megapixel camera capable of recording video in 720p HD, and added a secondary front-facing camera for video calls. A major feature of the iPhone 4S, introduced in October 2011, was Siri, a virtual assistant capable of voice recognition.

The iPad is an iOS-based line of tablet computers designed and marketed by Apple. The first iPad was released on April 3, 2010. The user interface is built around the device's multi-touch screen, including a virtual keyboard. The iPad includes built-in Wi-Fi and cellular connectivity on select models. As of April 2015, more than 250 million iPads have been sold.

Personal life

Jobs's house with abundant fruit trees in Palo Alto

In 1989, Jobs first met his future wife, Laurene Powell, when he gave a lecture at the Stanford Graduate School of Business, where she was a student. Soon after the event, he stated that Laurene "was right there in the front row in the lecture hall, and I couldn't take my eyes off of her ... kept losing my train of thought, and started feeling a little giddy". After the lecture, he met her in the parking lot and invited her out to dinner. From that point forward, they were together, with a few minor exceptions, for the rest of his life.

Jobs proposed on New Year's Day 1990 with "a fistful of freshly picked wildflowers". They married on March 18, 1991, in a Buddhist ceremony at the Ahwahnee Hotel in Yosemite National Park. Fifty people, including Jobs's father, Paul, and his sister Mona, attended. The ceremony was conducted by Jobs's guru, Kobun Chino Otogawa. The vegan wedding cake was in the shape of Yosemite's Half Dome, and the wedding ended with a hike and Laurene's brothers' snowball fight. Jobs reportedly said to Mona: "You see, Mona [...], Laurene is descended from Joe Namath, and we're descended from John Muir".

Jobs and Powell had two more children, daughters Erin (b. 1995) and Eve Jobs (b. 1998), who is a fashion model. The family lived in Palo Alto, California.

Although a billionaire, Jobs made it known that, like Bill Gates, he had stipulated that most of his monetary fortune would not be left to his children. Both men had limited their children's access, age appropriate, to social media, computer games, and the Internet.

Chrisann Brennan notes that after Jobs was forced out of Apple, "he apologized many times over for his behavior" towards her and Lisa. She said Jobs "said that he never took responsibility when he should have, and that he was sorry". By this time, Jobs had developed a strong relationship with Lisa and when she was nine, Jobs had her name on her birth certificate changed from "Lisa Brennan" to "Lisa Brennan-Jobs". Jobs and Brennan developed a working relationship to co-parent Lisa, a change which Brennan credits to the influence of his newly found biological sister, Mona Simpson, who worked to repair the relationship between Lisa and Jobs. Jobs had found Mona after first finding his birth mother, Joanne Schieble Simpson, shortly after he left Apple.

Jobs only contacted Schieble after Clara died in early 1986 and after he received permission from his father, Paul. In addition, out of respect for Paul, he asked the media not to report on his search. Jobs stated that he was motivated to find his birth mother out of both curiosity and a need "to see if she was okay and to thank her, because I'm glad I didn't end up as an abortion. She was twenty-three and she went through a lot to have me." Schieble was emotional during their first meeting (though she wasn't familiar with the history of Apple or Jobs's role in it) and told him that she had been pressured into signing the adoption papers. She said that she regretted giving him up and repeatedly apologized to him for it. Jobs and Schieble would develop a friendly relationship throughout the rest of his life and would spend Christmas together.

During this first visit, Schieble told Jobs that he had a sister, Mona, who was not aware that she had a brother. Schieble then arranged for them to meet in New York where Mona worked. Her first impression of Jobs was that "he was totally straightforward and lovely, just a normal and sweet guy". Simpson and Jobs then went for a long walk to get to know each other. Jobs later told his biographer that "Mona was not completely thrilled at first to have me in her life and have her mother so emotionally affectionate toward me... As we got to know each other, we became really good friends, and she is my family. I don't know what I'd do without her. I can't imagine a better sister. My adopted sister, Patty, and I were never close."

I grew up as an only child, with a single mother. Because we were poor and because I knew my father had emigrated from Syria, I imagined he looked like Omar Sharif. I hoped he would be rich and kind and would come into our lives (and our not-yet-furnished apartment) and help us. Later, after I'd met my father, I tried to believe he'd changed his number and left no forwarding address because he was an idealistic revolutionary, plotting a new world for the Arab people. Even as a feminist, my whole life I'd been waiting for a man to love, who could love me. For decades, I'd thought that man would be my father. When I was 25, I met that man, and he was my brother.

Jobs then learned his family history. Six months after he was given up for adoption, Schieble's father died, she wed Jandali, and they had a daughter, Mona. Jandali states that after finishing his PhD he returned to Syria to work, and then Schieble left him. They divorced in 1962 and he said then he lost contact with Mona for a time:

I also bear the responsibility for being away from my daughter when she was four years old, as her mother divorced me when I went to Syria, but we got back in touch after 10 years. We lost touch again when her mother moved and I didn't know where she was, but since 10 years ago we've been in constant contact, and I see her three times a year. I organized a trip for her last year to visit Syria and Lebanon and she went with a relative from Florida.

A few years later, Schieble married an ice-skating teacher, George Simpson. Mona Jandali took her stepfather's last name, as Mona Simpson. In 1970, after divorcing her second husband, Schieble took Mona to Los Angeles and raised her alone.

When Simpson found that their father, Abdulfattah Jandali, was living in Sacramento, California, Jobs had no interest in meeting him as he believed Jandali didn't treat his children well and according to the San Francisco Chronicle, this was because of finding a Seattle Times article about Jandali's abandonment of his students on a trip to Egypt in 1974. Simpson went to Sacramento alone and met Jandali, who worked in a small restaurant. They spoke for several hours, and he told her that he had left teaching for the restaurant business. He said he and Schieble had given another child away for adoption but that "we'll never see that baby again. That baby's gone." He said he once managed a Mediterranean restaurant near San Jose and that "all of the successful technology people used to come there. Even Steve Jobs ... oh yeah, he used to come in, and he was a sweet guy and a big tipper". At the request of Jobs, Simpson did not tell Jandali that she had met his son.

After hearing about the visit, Jobs recalled that "it was amazing ... I had been to that restaurant a few times, and I remember meeting the owner. He was Syrian. Balding. We shook hands." However, Jobs still did not want to meet Jandali because "I was a wealthy man by then, and I didn't trust him not to try to blackmail me or go to the press about it ... I asked Mona not to tell him about me". Jandali later discovered his relationship to Jobs through an online blog. He then contacted Simpson and asked, "what is this thing about Steve Jobs?". Simpson told him that it was true and later commented, "My father is thoughtful and a beautiful storyteller, but he is very, very passive ... He never contacted Steve". Because Simpson herself researched her Syrian roots and began to meet the family, she assumed that Jobs would eventually want to meet their father, but he never did. Jobs also never showed an interest in his Syrian heritage or the Middle East. Simpson fictionalized the search for their father in her 1992 novel The Lost Father. Malek Jandali is their cousin.

Philanthropy

Jobs's views and actions on philanthropy and charity are a public mystery. He maintained privacy even over what few of these actions were publicly known. He has been a key figure in public discussions about societal obligations of the wealthy and powerful. Through his career, the media investigated and criticized him and Apple as unusually and inexplicably mysterious or absent among powerful leaders and especially billionaires. His name is absent from the Million Dollar List of all large global philanthropy. Some have speculated about his possible secret role in large anonymous donations.

Shortly after leaving Apple, he formed the charitable Steven P. Jobs Foundation, led by Mark Vermilion, hired away from Apple's community leadership. Jobs wanted a focus on nutrition and vegetarianism, but Vermilion wanted social entrepreneurship. That year, Jobs soon launched NeXT and closed the foundation with no results. Upon his 1997 return to Apple, Jobs optimized the failing company to the core, such as eliminating all philanthropic programs, never to be restored. In 2007, Stanford Social Innovation Review magazine listed Apple among "America's least philanthropic companies". A few months after another unflattering news report, Apple started a program to match employees' charitable gifts. Jobs declined to sign The Giving Pledge, launched in 2010 by Warren Buffett and Bill Gates for fellow billionaires. He donated $50 million to Stanford hospital and contributed to efforts to cure AIDS. Bono reported "tens of millions of dollars" given by Apple while Jobs was CEO, to AIDS and HIV relief programs in Africa, which inspired other companies to join.

Honors and awards

Jobs receiving the National Medal of Technology from President Ronald Reagan in 1985, which he was awarded jointly with Steve Wozniak

Statue of Jobs at Graphisoft Park, Budapest[293]

In popular culture

References

Bibliography

External links

Steve Jobs official memorial page at Apple

Steve Jobs discography at Discogs

Steve Jobs at IMDb

Steve Jobs profile at Forbes

Steven Paul Jobs The Vault at FBI Records

Steve Jobs at Andy Hertzfeld's The Original Macintosh (folklore.org)

Steve Jobs at Steve Wozniak's woz.org

2011: "Steve Jobs: From Garage to World's Most Valuable Company." Computer History Museum

2005: Steve Jobs commencement speech at Stanford University

1995: Steve Jobs, Founder, NeXT Computer, excerpts from an Oral History Interview at Smithsonian Institution, April 20, 1995

1994: Steve Jobs in 1994: The Rolling Stone Interview in Rolling Stone

1990: Steve Jobs Archived December 16, 2014, at the Wayback Machine - memory and imagination "What a computer is to me is it's the most remarkable tool that we've ever come up with, and it's the equivalent of a bicycle for our minds"

1983: The "Lost" Steve Jobs Speech from 1983; Foreshadowing Wireless Networking, the iPad, and the App Store (audio clip)

History of Steve Jobs (Full Documentary) on YouTube

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The Detroit Red Wings are a professional ice hockey team based in Detroit. They are members of the Atlantic Division in the Eastern Conference of the National Hockey League (NHL) and are one of the Original Six teams of the league. Founded in 1926, the team was known as the Detroit Cougars from then until 1930.

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NY Jets Football

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The New York Jets are a professional American football team located in the New York metropolitan area. The Jets compete in the National Football League (NFL) as a member club of the league's American Football Conference (AFC) East division. The team is headquartered in Florham Park, New Jersey.