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Does the amount of water affect how many seeds germinate in 48 hours ?

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Does the amount of water affect how many seeds germinate in 48 hours ?

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Yes, it does affect how many seeds germinate in 48 hours.

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Independant Variable- the amount of water used in millimeters
Dependant Variable- The amount of seeds that germinate in 48 hours
Constants- The light, humitity, water tempature, 10 seeds, the peatree dishes

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Does the moisture affect the number of isopods in choice chambers ?

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Does the moisture affect the number of isopods in choice chambers ?

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N0 - Moisture will and no affect on the number of bugs
N1 - Moisture will increase the # of bugs

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Independent Variable- Moisture
Dependent Variable- Number of bugs
Constants- # of bugs, space, light, tempature

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The amount of moisture does affect the number of isopods in the chambers. As you can see, in the graph the average amount of isopods on wet side is 7.1 whereas on the dry side it is 2.9. This is also true because the bars on the graph do not overlap, so the data technechy shows a change. Since they are used to and live mainly in wet dark areas they would prefer to be on the wet side than on the dry side. If they stay on the dry side to long they will die so some can say that they moved due to survival instincts.

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Does the color of the peitre dish affect the amount of isopods 

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Does the color of the peitre dish affect the amount of isopods 

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N0- No the color does not affect the number of isopods
N1- Yes the color does affect the number of isopods

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Independent Variable- Color
Dependent Variable- The number of isopods
Constants- light, temperature, number of isopods

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How does Nitrate (NO3-) Concentration Affect The Growth of Duckweed?

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How does Nitrate (NO3-) Concentration Affect The Growth of Duckweed?

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NO- No there will be no affect on the Duckweed
N1- Yes there will be an affect on the Duckweed

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Independent Variable- Nitrate
Dependent Variable- Growth of Duckweed
Constants- The amount of water, sunlight, the temperature, 10 duckweed to start, the peatree dishes

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You will need:
- Duckweed
- Petri dishes
- Nitrate Mix
- Magnifying Glass

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1.) Put Nitrate mix in the dish with water in it, make sure each dish has its own amount of nitrate
2.) Put 10 duckweed in each dish
3.) Label each dish cover with the amount of nitrate in each one
4.) Put the correct lids on the dishes and set them by the window so that sun is hitting them
5.) Remember to record data daily

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The nitrate mix did affect the duckweed. During the lab, we had a controlled group with 0 nitrate mix and other groups with different levels of nitrate and we observed them over a 10-day period. As you can see from the table of all the averages over the 10-day period, the nitrate mix had a 34 average duckweed population compared to the controlled group with 16.3. Since the averages have such a big gap one can infer that the nitrate had a positive effect on the population increase. Another thing we can look at is the error bars on the bar graph. Since the error bars with the controlled group and the 1.5 group don't overlap one could say there was a change in the data between both groups. Since the bars don't overlap one could not say there was no change in the data, furthermore proving that the nitrate affected the duckweed

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Will the rate of photosynthesis change based on light?

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Will the rate of photosynthesis change based on light?

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NO - The amount of light has an effect on photosynthesis
N1 - The amount of light does have an effect on photosynthesis

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Independent Variable - The amount of light
Dependence Variable - The rate of photosynthesis
Constants - The light source, the water in the cup, time, temperature, species

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What you need:
- Clear Bowl
- Clear cup
- Lamp
- Water
- Baking Soda
- Syringe
- Leafs

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1.) Punch out holes in the leaf and then put it in a syringe
2.) Fill the syringe with water that has dissolved baking soda in it to add CO2 to it
3.) Create a suction to take out the air in the leaves, once that is done you can put everything in the syringe into the cup of water that contains CO2 and place a clear bowl that contains water onto the cup with the leaves and water
4.) Direct the light to be right on top of the cup and bowl

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The amount of light increases the rate of photosynthesis. In the "Avg. # of Disks Floating" data table, we can see that on average more chads floated to the top, and faster, with full light than the no light groups. More specifically we can see that after 12 minutes of photosynthesis we can see that on average the group with full light had 3.1 chads float to the top whereas the group average for no light is 0.1. Due to the data, we can infer that the light in the lab did influence the rate of photosynthesis by the fact that the full light and no light groups had a huge difference in their results. The light group had a clearly higher production rate out of the 3 groups. Another thing we can look at the see that light affects photo synthesis is

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How does solute concentration affect water movement in potato cells  

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How does solute concentration affect water movement in potato cells  

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NO - S.C. does not affect water movement
N1 - S.C. does affect the direction and rate of water movement

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Independent - Salute concentration
Dependent - % mass change
Constants - potato size and shape, amount of liquid (25 mL), time spent in the concentration

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1.) You cut up a potato so that there are 15 pieces of the same size/mass as the potato
2.) Put 3 of those pieces in each cup and label the cup so we know which solution is in each cup
3.) Weigh the cups so that it is only weighting the potatoes
3.) Add the 25mL of the solutions to the corresponding cup
4.) Wait 24 hours and the record the data after the day

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The S.C. did in fact lower the efficiency of the water movement with the more there is with the potato. With the data graph we can see that there is a negative slope with the more solution that was with the potatoes. This shows the decline of water movement within the potatoes after 24 hours submerged in the solution due to the amount of mass change within a single day. We can see that after the 0.2 consideration group that the potato had less mass than the mass before put into the solution.  Another thing we can look at is the data chart. In the chart we can see the negative numbers corresponding to the negative change in the mass after the lab. Since there was such a negative difference in the mass with the bigger solution concentration and such a high change in the mass with no consideration in it, it is very obvious that the solution concentration was blocking or slowing down the water movement in the potato.

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How long does each phase of mitosis take in onion root tip cells?

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How long does each phase of mitosis take in onion root tip cells?

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#1 The number of the cells we identify in each phase is proportional to the time it takes to complete that phase

#2 The total time to complete the cell is 1440 minutes

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From longest to shortest the list of how long each phase is interphase, prophase, telophase, anaphase, and lastly mitosis. In the table, we can see that 55% of the cells are in interphase, so about 795.5 minutes of the total 1440 minutes it takes to complete the cell cycle is spent in the interphase section. Prophase is the second most time-consuming phase because 43.8% percent of the cells were prophase, meaning that 347.4 minutes were spent in this phase. 8% of the cells were telophase so about 113.6 of the 1440 minutes was spent in the telophase. Second to last, was anaphase at 6% with about 92.5 minutes. Lastly, mitosis was the quickest phase at 6% of the cells being mitosis and at 90.9 minutes. The reason why interphase takes the longest is that it has the G1, S, and G2, midpoints that the cell has to go through to grow and be prepared to multiply.

reasoning, description of why it is taking so long