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These tools collectively enhance inclusion by removing barriers associated with SLDs, fostering independence, and improving conceptual understanding:

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Assistive Technology Examples for Math: Part 1

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Assistive Technology Examples for Math: Part 1

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1. MathTalk (Speech Recognition Software)

Type of Technology:

Voice recognition software that converts spoken math commands into digital math notation.

Targeted Disability:

Dysgraphia: Assists students who struggle with handwriting or typing math symbols accurately.

Dyscalculia: Helps students break down multi-step math problems verbally and organize their thoughts without focusing on writing.

Usage Scenarios:

In classrooms, students can dictate equations, graphs, and other math tasks. For example, a student solving a word problem can narrate each calculation step, and MathTalk converts it into a visual output.

At home, students can use MathTalk to complete homework and tests independently, reducing the cognitive load related to handwriting or typing complex formulas.

Effectiveness:
Promotes independence by allowing students to focus on math comprehension rather than the physical act of writing equations.

Reference:

https://www.dyslexic.com/wp-content/uploads/2018/02/MathTalkManual.pdf

2. Dragon NaturallySpeaking + Math Editor

Type of Technology:

General speech-to-text software integrated with math-specific tools for creating math content.

Targeted Disability:

Dyslexia: Assists with writing numbers, terms, and equations without worrying about reversals or omissions.

Dysgraphia: Supports students who have difficulty forming mathematical symbols by hand.

Usage Scenarios:

During math assessments or group projects, students can verbally describe their mathematical reasoning, and the software transcribes it.

For at-home use, students can complete digital assignments using speech rather than typing, which minimizes frustration.

Effectiveness:
Supports fluency and accuracy in math writing for students with severe reading and writing disabilities.

Reference:

https://advopps.org/math-accessibility-software/

https://advopps.org/play-dragon-app-full-participation-independence/

Here is a detailed list of assistive technologies for math, designed to aid students with Specific Learning Disabilities (SLDs), including their applications, targeted disabilities, and usage scenarios:

1. MathTalk (Speech Recognition Software)

Type of Technology:

Voice recognition software that converts spoken math commands into digital math notation.

Targeted Disability:

Dysgraphia: Assists students who struggle with handwriting or typing math symbols accurately.

Dyscalculia: Helps students break down multi-step math problems verbally and organize their thoughts without focusing on writing.

Usage Scenarios:

In classrooms, students can dictate equations, graphs, and other math tasks. For example, a student solving a word problem can narrate each calculation step, and MathTalk converts it into a visual output.

At home, students can use MathTalk to complete homework and tests independently, reducing the cognitive load related to handwriting or typing complex formulas.

Effectiveness:
Promotes independence by allowing students to focus on math comprehension rather than the physical act of writing equations.

2. Dragon NaturallySpeaking + Math Editor

Type of Technology:

General speech-to-text software integrated with math-specific tools for creating math content.

Targeted Disability:

Dyslexia: Assists with writing numbers, terms, and equations without worrying about reversals or omissions.

Dysgraphia: Supports students who have difficulty forming mathematical symbols by hand.

Usage Scenarios:

During math assessments or group projects, students can verbally describe their mathematical reasoning, and the software transcribes it.

For at-home use, students can complete digital assignments using speech rather than typing, which minimizes frustration.

Effectiveness:
Supports fluency and accuracy in math writing for students with severe reading and writing disabilities.

3. Snap&Read Universal (Text-to-Speech with Math Support)

Type of Technology:

Text-to-speech software that reads math problems and digital texts aloud.

Targeted Disability:

Dyslexia: Helps students decode written problems by reading text aloud.

Dyscalculia: Supports understanding of written math instructions and reduces anxiety with multi-step problems.

Usage Scenarios:

In a classroom, students can use Snap&Read during guided practice or tests to hear questions and problems read aloud.

At home, students can use the tool to access math worksheets or digital platforms like IXL, improving comprehension of math word problems.

Effectiveness:
Facilitates math comprehension by enabling auditory processing, particularly for students who struggle with reading math instructions.

References:

https://snapandread.com

4. EquatIO (Digital Math Tool)

Type of Technology:

A tool that allows students to type, write, or dictate math equations digitally using predictive text and speech-to-math tools.

Targeted Disability:

Dysgraphia: Assists with forming complex math symbols.

Dyscalculia: Provides visual tools like digital manipulatives to enhance understanding of abstract concepts.

Usage Scenarios:

During math lessons, students can use EquatIO to create and manipulate fractions, algebraic equations, and graphs without handwriting.

Teachers can use EquatIO to customize digital worksheets that students can complete interactively.

Effectiveness:
Supports students in visualizing math concepts and reduces the barrier of physical writing.

Reference:

https://subjectguides.york.ac.uk/learning-tech/equatio

https://youtu.be/Wffye7J6eGo?list=PLvSZbmGbKpCRz3o-FmU9AkEpURs9-Z0nH

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Type of Technology:
Audiobooks and platforms like Audible, Learning Ally and Bookshare provide audio versions of books and educational materials.

Targeted Disability:
Audiobooks support students with dyslexia or other reading disabilities by offering an alternative to print-based reading (Wolf, 2018).

Usage Scenarios:

In the Classroom: Students listen to assigned novels or textbooks, enabling them to keep up with reading assignments.

At Home: Audiobooks provide a way for students to engage with literature or study materials independently.

Effectiveness:
Audiobooks improve reading fluency, comprehension, and motivation, making reading an enjoyable and accessible activity for struggling learners (Edyburn, 2020).

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Type of Technology: What is the device or software?

A hearing aid is a small electronic device designed to amplify sound for individuals with hearing loss. It enables individuals to perceive environmental sounds, spoken language, and other auditory information, which can improve communication, learning, and social interaction.

Hearing aids fit into the definition of assistive technology because:

1. They are designed specifically to address hearing impairments.

2. They help individuals access and process sound to better engage with daily communication, learning, and social activities.

3. They can support a wide range of individuals, including children and adults, with varying degrees of hearing loss.

How Hearing Aids Work

Hearing aids capture sound through a microphone and amplify it for easier perception by the wearer. There are different types of hearing aids based on their design, placement, and level of technology:

1. Behind-the-Ear (BTE): A device worn behind the ear with a tube that delivers sound to an ear mold.

2. In-the-Ear (ITE): A device custom-made to fit in the ear canal.

3. Completely in the Canal (CIC): A very discreet device worn deep within the ear canal.

4. Receiver-in-Canal (RIC): A small receiver placed near the ear canal to provide a clear, natural sound.

Hearing aids work by amplifying specific frequencies of sound depending on an individual’s hearing loss, helping them hear more effectively in different environments.

Targeted Disability: Specify which learning disabilities each technology aims to assist. This should include a detailed look at how the technology addresses particular challenges associated with each disability.

Hearing aids are specifically designed to support children with deafness or hearing loss (hard of hearing) by improving their ability to access auditory information.

Defining Deafness and Hard of Hearing

Deafness: Profound hearing loss, which may range from very limited sound detection to an inability to perceive sound entirely, even with amplification. Deafness can be congenital (present at birth) or acquired (developed later due to illness, injury, or genetic conditions).

Hard of Hearing: A milder degree of hearing loss that may still allow a child to perceive some sounds with amplification. Children who are hard of hearing often benefit greatly from assistive technologies like hearing aids.

Hearing aids are assistive devices primarily aimed at supporting individuals with:

Mild to Severe Hearing Loss: Amplify environmental and speech sounds.

Sensorineural Hearing Loss: Damage in the inner ear or auditory nerve.

Conductive Hearing Loss: Issues in the outer or middle ear that prevent sound from being transmitted.

How Hearing Aids Address Deafness/Hard of Hearing

Hearing aids are an assistive technology that improves sound accessibility by amplifying environmental and speech sounds. They are particularly effective in the following areas:

1. Speech Perception:
Hearing aids amplify speech sounds, making it easier for children with deafness or hearing loss to process spoken language.

2. Environmental Awareness:
Hearing aids allow children to be aware of sounds in their surroundings, such as alarms, other students' voices, or traffic sounds, which contributes to their safety and situational awareness.

3. Classroom Access:
Hearing aids ensure students can hear their teachers’ instructions, classroom discussions, and group lessons, even in noisy settings.

4. Social Interaction:
Children with hearing loss may struggle to engage with their peers in typical conversational settings. Hearing aids can improve their ability to interact with peers by amplifying conversational speech, reducing frustration and isolation.

5. Literacy and Language Development:
Hearing is critical for developing phonemic awareness, the foundation for reading. Hearing aids can support the acquisition of early reading and language skills by making speech sounds clearer.

Hearing aids could also be beneficial for students with other co-occurring conditions that may interact with auditory processing challenges. The following specific learning disabilities and additional needs are supported by hearing aids:

1. Auditory Processing Disorder (APD):

Children with APD struggle with the brain’s ability to process auditory signals, even if their hearing is technically normal.

Hearing aids amplify the clarity of speech and reduce competing background noise, improving a child's ability to interpret sounds and instructions effectively.

2. ADHD and Autism Spectrum Disorder (ASD):

Hearing loss can complicate or mimic certain behaviors associated with ADHD or autism (e.g., inattentiveness, difficulty responding to speech).

Hearing aids can support clearer auditory input, helping children process verbal instructions and reduce auditory-related stress that may exacerbate behavioral challenges.

3. Learning Disabilities (including Dyslexia):

Hearing aids can support children with learning disabilities by improving phonemic awareness and auditory discrimination skills, particularly for students struggling to differentiate speech sounds.

Hearing loss or undiagnosed hearing challenges can sometimes mask as learning difficulties, delaying literacy or comprehension progress unless corrected.

4. Down’s Syndrome:

Around 10–15% of children with Down’s syndrome have sensorineural deafness, which can directly impair language and cognitive development. Hearing aids can reduce these challenges by supporting auditory access to instruction and conversation.

5. Auditory Neuropathy Spectrum Disorder (ANSD):

ANSD involves disruptions between the ear and brain, leading to difficulty interpreting sound even if sound is audible.

Hearing aids can optimize sound perception by amplifying speech frequencies while attempting to improve auditory clarity.

6. Tinnitus:

While tinnitus is not a direct learning disability, it can interfere with attention, learning, and auditory concentration. Hearing aids can reduce the perceived impact of tinnitus by amplifying external sounds and reducing the prominence of internal sound interference.

7. Vestibular Disorders (Balance Challenges):

Vestibular dysfunction can lead to balance difficulties, which in turn can affect auditory experiences during movement. Although hearing aids don’t directly treat vestibular disorders, their use can ensure children experience better auditory clarity during movement and interaction.

8. Visual Impairment/Multi-Sensory Impairment (MSI):

Deafblind children (deaf + visually impaired) may use hearing aids in combination with other communication strategies like tactile signing. Hearing aids amplify sound, improving auditory access when integrated into a multi-sensory approach.

ADCET (n.d.) Deaf/Hard of Hearing - Specific Disabilities. [online] Available at: https://www.adcet.edu.au/inclusive-teaching/specific-disabilities/deaf-hearing-impaired (Accessed: 8 December 2024).

National Deaf Children's Society (NDCS) (n.d.) Additional Needs - Types of Additional Needs. [online] Available at: https://www.ndcs.org.uk/information-and-support/childhood-deafness/additional-needs/additional-need-types/ (Accessed: 8 December 2024).

CCHAT Sacramento (n.d.) Should You Be Using Hearing Assistive Technology in the Classroom? [online] Available at: https://www.cchatsacramento.org/blog-and-events/should-you-be-using-hearing-assistive-technology-in-the-classroom(Accessed: 8 December 2024).

National Deaf Children's Society (NDCS) (n.d.) Types of Hearing Aids. [online] Available at: https://www.ndcs.org.uk/information-and-support/childhood-deafness/hearing-aids-and-implants/hearing-aids/types-of-hearing-aids/ (Accessed: 8 December 2024).

PLEASE SEE PART 2

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Usage Scenarios: Describe practical scenarios in which each technology can be employed effectively within educational settings.

Case Study 1: A 6-Year-Old with Profound Deafness

Scenario: A child has congenital profound deafness and has struggled with spoken language acquisition.

How Hearing Aids Help: The child is fitted with hearing aids that amplify sound, allowing for auditory access to environmental sounds and speech. This enables the child to begin developing spoken language skills and engage in early literacy programs.

Outcome: After consistent hearing aid use, the child demonstrates progress in speech recognition and vocabulary development, allowing them to participate more actively in classroom discussions.

Case Study 2: A 9-Year-Old with Hard of Hearing

Scenario: A child with moderate hearing loss struggles to understand instructions during group lessons, especially when background noise is present.

How Hearing Aids Help: The child uses hearing aids that amplify the teacher's voice while reducing competing classroom noise.

Outcome: The child follows instructions more successfully, participates in group activities, and demonstrates improved confidence and engagement with peers.

Case Study 3: A 10-Year-Old in a Mainstream Classroom with Early-Identified Hearing Loss

Scenario: A child was diagnosed with hearing loss at age 4 and wears hearing aids consistently. However, they still struggle with social interactions.

How Hearing Aids Help: The child uses their hearing aids to better access speech during peer interactions and group settings. Additionally, auditory speech is clearer, allowing them to better engage in conversations.

Outcome: The child builds friendships and develops improved confidence in social situations.

Case Study 4: A 7-Year-Old with Auditory Processing Disorder (APD)

Scenario: A child struggles to focus on verbal instructions during noisy group settings.

How Hearing Aids Help: Hearing aids amplify the teacher’s voice and reduce competing noise. This allows the child to distinguish the teacher's speech from background sounds.

Outcome: The child can follow multi-step instructions with greater ease, improving engagement and participation in learning tasks.

Case Study 5: A 9-Year-Old with Down’s Syndrome and Sensorineural Hearing Loss

Scenario: A child with Down’s syndrome experiences challenges with speech development and literacy.

How Hearing Aids Help: Sensorineural hearing loss impairs auditory access to language. Hearing aids amplify key frequencies and enhance access to spoken language, improving speech perception and comprehension.

Outcome: The child can access literacy instruction, improving their reading and language development.

Case Study 6: A 12-Year-Old with Auditory Neuropathy Spectrum Disorder (ANSD)

Scenario: A student with ANSD struggles with clarity of speech, especially in group environments or noisy classrooms.

How Hearing Aids Help: These devices focus on specific frequencies to clarify the teacher's voice while minimizing distortions caused by ANSD.

Outcome: The child can process verbal instructions and classroom discussion more easily, supporting academic engagement.

Summary of Hearing Aids’ Impact for Deafness and Hard of Hearing

Hearing aids are an effective assistive technology for children with varying levels of deafness or hard of hearing. They can:

Improve access to speech and language development.

Foster inclusion and participation in classroom and peer social settings.

Support environmental awareness and safety by amplifying key environmental sounds.

Enhance literacy development by aiding phonemic awareness and auditory processing.

Hearing aids work best as part of a multi-faceted support approach, often paired with speech and language therapy, classroom accommodations, communication strategies (like sign language or visual aids), and emotional support. Through this holistic approach, children with deafness or hearing loss can thrive both academically and socially.

ADCET (n.d.) Deaf/Hard of Hearing - Specific Disabilities. [online] Available at: https://www.adcet.edu.au/inclusive-teaching/specific-disabilities/deaf-hearing-impaired (Accessed: 8 December 2024).

National Deaf Children's Society (NDCS) (n.d.) Additional Needs - Types of Additional Needs. [online] Available at: https://www.ndcs.org.uk/information-and-support/childhood-deafness/additional-needs/additional-need-types/ (Accessed: 8 December 2024).

CCHAT Sacramento (n.d.) Should You Be Using Hearing Assistive Technology in the Classroom? [online] Available at: https://www.cchatsacramento.org/blog-and-events/should-you-be-using-hearing-assistive-technology-in-the-classroom(Accessed: 8 December 2024).

National Deaf Children's Society (NDCS) (n.d.) Types of Hearing Aids. [online] Available at: https://www.ndcs.org.uk/information-and-support/childhood-deafness/hearing-aids-and-implants/hearing-aids/types-of-hearing-aids/ (Accessed: 8 December 2024).

PLEASE SEE PART 1

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AAC (Augmentative and Alternative Communication) Devices

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AAC (Augmentative and Alternative Communication) Devices

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Type of Technology: An AAC device—an acronym for "Augmentative and Alternative Communication"—is a tool that helps people with speech impairments communicate by replacing or supplementing their spoken language. These devices are typically tablets or handheld devices that contain text or symbols that, when selected, can produce speech.

Function:

They allow users to select words or phrases from a visual display to communicate their thoughts and needs.

Types of AAC devices:

Low-tech: Picture boards, communication boards, writing boards, gestures

High-tech: Speech-generating devices (SGDs) on tablets or dedicated hardware with synthesized voice output.

Ways AAC devices address challenges:

-AAC devices provide a way for children with limited or no speech to communicate using visual symbols or generated speech, allowing them to express themselves effectively.

-AAC devices can help children with disabilities develop language skills, including vocabulary acquisition and sentence structure, by providing a structured communication system, even if they cannot speak.

-AAC devices enable children to participate in conversations and social activities by giving them a tool to express their thoughts and feelings, fostering better connections with peers and family.

-The ability for children to communicate their needs clearly through AAc can significantly reduce frustration and behavioral challenges that often arise from communication difficulties.

-AAc devices can be tailored to individual needs with different symbol systems, layouts, and voice options allowing for customization based on the child's cognitive abilities and communication style.

Targeted Disability: Individuals with conditions like cerebral palsy, autism, stroke, ALS, or other disabilities affecting speech production can benefit from AAC devices.

Children with Autism: AAC devices can help autistic children who may struggle with verbal communication to express their needs, wants, and feelings through visual symbols or picture based systems.

Children with Cerebral Palsy: For children with physical limitations affecting their speech production, AAc devices provide a way to communicate using a touch screen or eye-gaze technology.

Children with Intellectual Disabilities: AAC devices can be used to build vocabulary and communication skills for children with intellectual disabilities by providing visual prompts and simple language structures.

Usage Scenarios:

-A student can use their AAC device to express their opinions or reactions to activities happening in the classroom.

-Teachers can use the AAC device to introduce new vocabulary related to the lesson and guide students to practice using these words.

-Some AAC devices have features that allow students to communicate their emotional state, like feeling frustrated or needing a break, to their teacher.

-Teachers can incorporate visual aids like picture boards or digital displays into their lessons, which students can easily access using their AAC device.

-During collaborative activities, students can use their AAC device to contribute ideas, ask questions, or provide feedback to their peers.

References:

-American Academy of Pediatrics Council on Children with Disabilities and American Speech-Language-Hearing Association. (2023. October 11). Beyond Spoken Words: Augmentative and Alternative Communication (AAC). https://www.healthychildren.org/English/health-issues/conditions/developmental-disabilities/Pages/augmentative-and-alternative-communication-for-children.aspx

-ASHA. (2024). Augmentative and Alternative Communication (AAC). https://www.asha.org/practice-portal/professional-issues/augmentative-and-alternative-communication/#:~:text=Overview,speech%2Dgenerating%20devices

-Gallagher, Lesley. Litton, Amy. (2014) 54 TIPS AND TRICKS FOR IMPLEMENTING ALTERNATIVE AND AUGMENTATIVE COMMUNICATION IN THE CLASSROOM. https://www.naperville203.org/cms/lib/IL01904881/Centricity/Domain/89/Top-tips-for-implementing-AAC.pdf

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Type of Technology:

Software or device that transcribes spoken words into written text.

Examples: Dragon NaturallySpeaking, Google Voice Typing, Microsoft Dictate.

Targeted Disability:

Dysgraphia: Addresses challenges with handwriting or typing, allowing students to express their thoughts verbally.

ADHD: Supports focus by enabling students to dictate ideas quickly without being bogged down by the mechanics of writing.

Physical Disabilities: Aids students with limited fine motor skills or mobility issues, such as cerebral palsy.

Learning Disabilities (e.g., dyslexia): Reduces cognitive load by bypassing writing difficulties, allowing students to focus on idea generation.

Usage Scenarios:

Classroom Notes: A student with dysgraphia dictates notes during a lecture instead of writing.

Writing Assignments: A student with ADHD quickly brainstorms and drafts essays by speaking instead of typing.

Collaborative Projects: A student with motor impairments contributes to group work by using speech-to-text to share ideas.

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Assistive Technology Examples for Reading

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Assistive Technology Examples for Reading

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Assistive Technology for Reading

Here are some of the most helpful AT tools for reading.

Text-to-speech (TTS) lets kids see text and hear it read aloud at the same time. To use this tool, kids click on or highlight words, and the words are read by a computer-generated voice. TTS can be used with books, emails, web pages and any digital text. It can also be used to convert text files into audio files.

Audiobooks and digital TTS books allow kids to hear books read aloud. Some kids like to read along with the book so they can see the words at the same time. Audiobooks are read by human voices. Digital TTS books are created with TTS and use computer-generated voices.

Optical character recognition (OCR) reads aloud text from images and pictures. Kids with reading issues can use OCR by taking photos of worksheets and other documents, and even objects like street signs. They can also scan documents in. OCR can read words from pictures on web pages (such as image files, like JPG). Like TTS, OCR uses computer-generated voices.

Graphic organizers are visual representations, like diagrams and mind maps, of ideas and concepts. Kids can use graphic organizers to take notes while reading, which can help with comprehension. Graphic organizers can be digital or pen and paper.

Annotation tools let kids take notes and write comments while reading. This can make it easier to retain information. Annotation tools can be found on certain software or apps, or they can be traditional pens, markers and sticky notes.

Display control allows kids to control how text is displayed. When reading on a screen, they can change the font, font size, color and spacing of text. Kids can also mask or cover parts of the screen to lessen distractions while reading. When reading on paper, they can use a simple adaptive tool, like a plastic reading guide. Some books use large print or special fonts. Or they may replace certain words with images.

Dictionaries and thesauri allow kids to look up words they don’t understand when reading. A picture dictionary is a popular tool that uses images to define words. And a talking dictionary reads definitions aloud.

https://www.youtube.com/watch?v=_qu7UQuF77k&embeds_referring_euri=https%3A%2F%2Fwww.readingrockets.org%2F&source_ve_path=OTY3MTQ

The Best Assistive Technology Tools for Reading | Recite Me

Screen Readers

Screen readers are applications that transform digital text into synthesized speech, enabling individuals (ex: low vision and blind) to access content displayed on a computer screen.

They read aloud text on the screen and can describe images.

Beyond just reading content, screen readers allow users to navigate web pages, documents, and other digital interfaces using keyboard shortcuts.

Screen readers can be a beneficial assistive technology for ADHD

Optical Character Recognition (OCR)

Optical Character Recognition is an assistive technology that converts different types of documents, such as scanned paper documents, PDFs, or images captured by a digital camera, into editable and searchable data.

For individuals with visual impairments or difficulties reading printed material, OCR can help.

scanning a book or document

read aloud using text-to-speech tools or converted to braille for tactile reading

Where to get Assistive Technology

You can look at your local library for tools like audiobooks. There are also places to find free or low-cost audiobooks and digital TTS books.

Bookshare is a leading source for free digital text-to-speech books. It’s the largest online library of accessible reading materials.

Voice Dream Reader or Bookshare’s Read2Go (iOS) and Go Read (Android) apps.

Storynory offers free audiobooks for young children. Each audiobook includes the digital text of the book.

Lit2Go provides free audiobook versions of books that are no longer protected by copyright laws. Lit2Go offers downloadable PDFs of books so your child can read along while listening to classic books. The site also categorizes books by reading level.

Project Gutenberg doesn't have any recent bestsellers there but has more than 50,000 free classic books in digital format. The majority are digital books that can be read with text-to-speech. To have them read aloud, kids must first download the free digital book to a computer or mobile device. Then they can use text-to-speech technology to have the book read aloud.

Audible is Amazon’s audiobook website. It has many paid audiobooks. But there are also many “free listens”.

AT tools for reading are also part of many computer platforms.

Desktop and laptop computers typically have built-in AT options, like TTS. You can download AT software programs for reading to add more functions to computers.

Mobile devices (like tablets and smartphones) also have built-in AT. You can add more reading tools to mobile devices with apps.

Chromebooks (and Chrome browsers on any device) also have built-in AT. You can add Chrome apps and extensions to help with reading even more.

NDIS (Australia's government funded assistance for people with special needs) and assistive technology

The list of available AT is long with hundreds of different products. In an effort to simplify the process of accessing AT via your NDIS plan, the NDIA split AT into four different levels.

Level 1 – Basic Assistive Technology

Basic AT is easy to use and you don't need specialized assistance to set it up. Basic AT items cost less than $1500. You can buy it online or from a local shop.

Level 2 – Standard Assistive Technology

You can generally buy Standard AT from a supplier. Standard AT is not customized; however, you’ll probably need some assistance setting it up and making adjustments.

Level 3 – Specialized Assistive Technology

While Specialized AT is similar to Standard in that you can buy from an AT Supplier, Specialized AT often requires some adjustments or modifications to suit the individual. Specialized AT will require an AT Assessment and a written quote.

Level 4 – Complex Assistive Technology

Complex assistive technology is custom made. It often requires ongoing support including training. This kind of AT requires an AT Assessment and a written quote.

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What Are Screen Readers?

Screen readers are assistive technologies designed to help visually impaired or blind students by converting digital text into speech or Braille. These tools enable users to navigate websites, documents, and applications independently.

Key Features of Screen Readers:

Text-to-Speech Conversion: Reads on-screen text aloud, including navigation menus and web pages.

Braille Output: For users with Braille displays, converts text into tactile Braille.

Keyboard Navigation: Allows users to interact with a computer without a mouse.

Examples of Popular Screen Readers:

1. JAWS (Job Access With Speech):

A widely used screen reader that supports multiple languages and applications.

Compatible with Windows OS, allowing navigation through web browsers, email, and word processors.

2. NVDA (NonVisual Desktop Access):

Free, open-source screen reader for Windows.

Works with a wide range of applications, including web browsers and office software.

3. VoiceOver:

Built-in screen reader for Apple devices (macOS, iOS).

Enables visually impaired students to use iPads, iPhones, and Macs seamlessly.

4. TalkBack:

Pre-installed on Android devices, providing text-to-speech and gesture navigation.

5. ZoomText Fusion:

Combines magnification and screen reader functionality for students with low vision.

Example Usage:

Scenario: A visually impaired student uses JAWS to navigate a digital textbook, with the text read aloud as they move through chapters.

Effectiveness: Enables independent access to learning materials, fostering confidence and academic success.

Benefits of Screen Readers:

Provides independent access to educational content and digital tools.

Supports equitable participation in academic tasks like assignments and research.

Improves navigation of online learning platforms.

Screen readers are essential for ensuring accessibility, allowing visually impaired students to thrive in educational environments.

References:

https://www.afb.org/blindness-and-low-vision/using-technology/assistive-technology-products/screen-readers

https://abilitynet.org.uk/factsheets/introduction-screen-readers

https://www.freedomscientific.com/products/software/jaws/

https://www.nvaccess.org/download/

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Assistive Technology Examples for Math: Part 2

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Assistive Technology Examples for Math: Part 2

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5. NumberShark (Multisensory Math Program)

Type of Technology:

A game-based software program that uses visual and auditory learning to teach basic math concepts.

Targeted Disability:

Dyscalculia: Helps students with number recognition, arithmetic, and numerical reasoning.

ADHD: Engages students with interactive, structured games to maintain focus.

Usage Scenarios:

In small group interventions, teachers can use NumberShark to provide individualized practice in foundational math skills.

At home, parents can use the program to supplement math learning in a fun and engaging way.

Effectiveness:
Improves numeracy skills through repeated, multisensory practice and reinforces foundational math concepts.

Reference:

https://www.wordshark.co.uk/getting-to-know-numbershark/

https://www.inclusive.com/uk/numbershark.html

6. Virtual Manipulatives (e.g., Brainingcamp or Mathigon Polypad)

Type of Technology:

Digital versions of physical manipulatives (e.g., base-ten blocks, fraction strips, algebra tiles).

Targeted Disability:

Dyscalculia: Provides hands-on visual support to represent abstract math concepts.

Visual-Spatial Processing Issues: Helps students understand place value, fractions, and geometry through visual aids.

Usage Scenarios:

In classrooms, teachers can use Brainingcamp to demonstrate math concepts using a smartboard or tablets.

At home, students can explore manipulatives independently or with parents to reinforce classroom learning.

Effectiveness:
Improves conceptual understanding of math topics like place value, fractions, and algebra through interactive and tactile tools.

Reference:

https://www.google.com/url?sa=t&source=web&rct=j&opi=89978449&url=https://mathigon.org/&ved=2ahUKEwi_p5L4hp2KAxVehv0HHRlQCxAQFnoECBsQAQ&usg=AOvVaw3s_oo5qTem7tKhtQ5-2iGr

https://www.google.com/url?sa=t&source=web&rct=j&opi=89978449&url=https://www.brainingcamp.com/&ved=2ahUKEwi_p5L4hp2KAxVehv0HHRlQCxAQFnoECBcQAQ&usg=AOvVaw00_pl5myDTtokSpOLIF5dZ

7. Calculator with Audio Feedback (e.g., Orion TI-84 Plus)

Type of Technology:

A talking graphing calculator that provides auditory feedback for all input and output.

Targeted Disability:

Dyslexia: Helps students with reading difficulties verify numerical inputs and outputs.

Blind or Visually Impaired: Provides access to graphing and calculations through audio.

Usage Scenarios:

In the classroom, students can use the calculator for complex algebra, geometry, or trigonometry problems, receiving audio confirmation of their work.

At home, students can use it during independent practice to ensure accuracy and minimize errors.

Effectiveness:
Promotes accessibility and reduces errors for students who struggle with reading math symbols or visual tracking.

Reference:

http://www.orbitresearch.com/product/orion-ti-84-plus/?srsltid=AfmBOopTLsf1s5HRxO5teQTQpbIUsuCSyO9np1XWHIofsENS6R279M1z

8. Photomath (Math Problem Solver App)

Type of Technology:

A mobile app that scans and solves math problems step-by-step.

Targeted Disability:

Dyscalculia: Helps students break down and understand math problems in a structured way.

ADHD: Provides a step-by-step solution to keep students organized and reduce frustration.

Usage Scenarios:

Students can use Photomath in class as a supplemental tool for problem-solving during independent practice.

At home, students can use it to receive guided feedback when solving homework problems.

Effectiveness:
Provides clear scaffolding for problem-solving, helping students build procedural fluency and comprehension.

Reference:

https://photomath.com

9. ModMath (iPad App)

Type of Technology:

An app that allows students to organize, align, and complete math problems digitally.

Targeted Disability:

Dysgraphia: Supports alignment and organization of equations.

Dyscalculia: Reduces cognitive load for multi-step problems.

Usage Scenarios:

In classrooms, ModMath can be used during tests or assignments for clean, legible digital responses.

At home, students can work on math worksheets using the app, reducing anxiety around messy handwriting.

Effectiveness:
Improves accuracy and organization, empowering students to demonstrate their knowledge effectively.

Reference:

https://www.modmath.com

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Devices: Refreshable braille keyboards such as the Perkins SMART Brailler, Orbit Reader, or specialized braille displays integrated with mainstream devices (e.g., laptops, tablets).

Software: Braille translation software like Duxbury Braille Translator or screen readers like JAWS (Job Access With Speech) for compatibility with braille keyboards.

Targeted Disability

Visual Impairments and Blindness:

Braille keyboards assist students who are blind or have low vision by enabling access to text-based information in a tactile format.

Challenges addressed: Inaccessibility of printed materials, difficulty writing or editing documents, and barriers to digital resources.

Other Disabilities:

Students with both visual impairments and additional motor challenges may benefit from ergonomic braille keyboards designed for ease of use.

Usage Scenarios

1. Classroom Writing Activities:

Students use a braille keyboard to write essays, complete assignments, or participate in writing workshops.

Teachers can pair the keyboard with braille-to-text translation software to receive typed assignments.

2. Accessible Testing:

During exams, students use braille keyboards with screen readers to independently answer questions, enhancing their test-taking confidence and autonomy.

3. Digital Literacy Sessions:

Braille keyboards can be integrated into technology lessons, helping students develop typing and navigation skills in digital environments.

4. Group Projects:

In collaborative activities, students can use their braille keyboards to type contributions in shared documents, participate in real-time brainstorming, or control presentations.

5. Daily School Communication:

Students can use their keyboards to send messages to teachers and classmates or participate in discussion boards, enabling smoother communication.

By incorporating braille keyboards into classrooms, educators can help students with disabilities thrive academically, socially, and emotionally while ensuring their full participation in educational settings.

How Technology Benefits Students with Disabilities

1. Academically:

Braille keyboards provide visually impaired students with access to digital learning resources, allowing them to type, edit, and submit assignments independently.

They facilitate participation in computer-based activities such as research, writing, and interactive learning platforms, which enhances literacy and technological proficiency.

With additional screen-reader integration, students can access audio feedback while typing, reinforcing their literacy skills.

2. Socially:

Using braille keyboards can enable students to communicate via emails, social media, or messaging apps, fostering connections with peers.

Participation in group projects becomes more accessible, as students can contribute equally by typing their thoughts and collaborating on shared documents.

3. Emotionally:

Empowering students to use assistive technology promotes a sense of independence and confidence.

Equal access to digital tools helps students feel included in classroom activities, reducing feelings of isolation.

How Technology Helps Interaction with Peers

Collaboration in Class: Students can use braille keyboards to take part in shared writing tasks, presentations, and interactive activities.

Social Communication: Braille keyboards enable students to join class discussions via typing or contribute ideas during group projects without requiring constant assistance.

Inclusion: Peers may become curious and engage in learning about braille, fostering mutual understanding and respect.

Refrences:

ckeyboard.com/shop/braille-1133s1.html#:~:text=Braille%20Keyboards%20for%20PC%20and%20Mac&text=A%20Braille%20keyboard%20equippe

https://allyant.com/advantages-of-braille-keyboards-useful-helpful/

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Todoist is a cloud-based task management and productivity app available on multiple platforms, including iOS, Android, Windows, macOS, and web browsers. It belongs to the category of organizational software designed to help users manage their tasks, schedules, and projects efficiently.

Key features of Todoist include:

Task Management: Users can create, organize, and prioritize tasks with due dates, labels, and project categories.

Cross-Platform Integration: Seamless syncing across devices ensures accessibility and consistency.

Collaboration Tools: Shared projects and task delegation enable teamwork and collaboration.

Natural Language Processing: Quick task entry using conversational commands, such as "Submit a report every Monday at 3 PM."

Automation and AI: Features like recurring tasks, smart scheduling, and productivity tracking leverage AI to optimize time management.

Targeted Disability

Todoist is an assistive technology (AT) that supports students with executive functioning challenges, often seen in learning disabilities such as ADHD or dyslexia. Key features include task prioritization, recurring reminders, and a user-friendly interface. These tools help manage challenges like poor time management, forgetfulness, or difficulty in breaking large tasks into smaller, manageable steps. The use of natural language processing allows students to create tasks quickly by typing intuitive commands, reducing cognitive load. Additionally, the app syncs tasks across devices, ensuring consistency and accessibility for students who need structured environments to succeed.

Usage Scenarios

1. Homework Organization for ADHD Students: A student can create tasks for assignments, set reminders, and visualize due dates. The prioritization feature helps focus on high-importance tasks.

2. Project Management for Dyslexia: By categorizing tasks into sections with labels and subtasks, students can break complex projects into easier steps, reducing overwhelm.

3. Collaboration for Inclusive Group Work: In group assignments, Todoist's shared projects feature allows students to delegate and track tasks collaboratively, fostering inclusivity in diverse learning environments.

4. Daily Planning for Time Management: Using the "Today" and "Next 7 Days" views, students can review and prepare for their schedules, which supports transitions and daily focus.

References

Assistive technology apps for LD, dyslexia and ADHD. LDRFA. (2021, November 5). https://www.ldrfa.org/assistive-technology/ Cao, J. (2024, October 21). Todoist Review 2024: Is the task management app right for you?. The Upbase Blog. https://upbase.io/blog/todoist-review/

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Type of technology: Graphic Organisers, such as Inspiration 11

Targeted Disability:

Specific Learning Disabilities:

Dyslexia: Inspiration 11 can help students with dyslexia by providing a visual representation of information. This can make it easier to understand complex concepts, identify patterns, and improve reading comprehension.

ADHD: The software's ability to organize thoughts and ideas visually can help students with ADHD to stay focused and on task. Visual aids can also reduce distractions and improve attention span.

Dysgraphia: By providing a variety of tools for creating and organizing information, Inspiration 11 can help students with dysgraphia to improve their writing skills.
The software can also be used to create outlines and drafts, which can help to reduce the cognitive load associated with writing.

Autism: Inspiration 11 allows for customization of colors, fonts, and layouts.This can be helpful for autistic students who may have sensory sensitivities. By adjusting the visual presentation, educators can create a more comfortable and accessible learning environment.

Usage Scenarios:

1. Creating Mind Maps:

Students can use Inspiration 11 to create mind maps to brainstorm ideas, organize information, and study for exams.

Teachers can use mind maps to introduce new topics, review key concepts, and assess student understanding.

2. Developing Outlines:

Students can use Inspiration 11 to create outlines for essays, reports, and presentations.

Teachers can use outlines to help students organize their thoughts and ideas before writing.

3. Creating Graphic Organizers:

Students can use Inspiration 11 to create graphic organizers to compare and contrast information, analyze data, and solve problems.

Teachers can use graphic organizers to help students visualize complex concepts and relationships.

4. Developing Presentations:

Students can use Inspiration 11 to create visually appealing presentations that are easy to understand and follow.

Teachers can use Inspiration 11 to create engaging presentations that capture students' attention and facilitate learning.

References:

Nurturing attention span in today’s tech-driven education. International School Aberdeen. (2023, October 19). https://isa.aberdeen.sch.uk/news-and-events/nurturing-attention-span-in-todays-tech-driven-education#:~:text=This%20offers%20teachers%20the%20opportunity,can%20capture%20children’s%20attention%20and

What is dyslexia?. Inspiration 11 and Inspiration Maps: Visual Thinking Tools. (n.d.). https://www.inspiration-at.com/what-is-dyslexia/#

Young, G. (2018, May 4). Assistive technology for students with learning disabilities. LD@school. https://www.ldatschool.ca/assistive-technology/

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Text to speech device | Exam aid | Human reader alternative

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Exam Reader 2 is a portable, off-line assistive text reader for printed text. It is specifically designed for use in tests and exams as it scans text and reads it aloud when a student requires reading assistance. A student who has a hard time reading the questions can hardly be expected to be able to provide proper answers.

Who can benefit?

Individuals with Neurodiverse differences and individuals of all ages.

Students with dyslexia and other reading difficulties

What are the benefits?

Reads printed text out aloud with a human-like digital voice in multiple English accents and different languages including: French, Spanish, Italian, German, and more.

Has a built in dictionary and voice memo.

Allows students with reading difficulties, to take written exams.

Can be used in exams as an alternative to a human reader and therefore bolsters reading independence

No Wi-Fi required.-an off-line closed system with no opportunity to store any assistive content.

Assists the students to read the questions but offers no help with the answers.

Has left-hand and Right hand accommodation.

Using Exam Reader 2 with earphones enables these students to be in the same room as their peers when taking the test.

Totally portable, pocket-sized device with earbuds and

Quick long lasting charge via USB

Alternative keyboards

Ergonomic keyboards

These keyboards are designed to provide a more comfortable and natural typing experience for students with any number of physical disabilities. They often feature a split design or a curved layout, allowing users to position their hands and wrists in a more ergonomic and neutral position.

Compact keyboards

Compact keyboards are smaller in size compared to standard keyboards, making them suitable for individuals who have restricted hand movement or are limited to one-hand typing. They may include built-in shortcuts or programmable keys for easier access to frequently used functions.

Keyboards with larger keys

These keyboards have oversized keys, making it easier for individuals with visual impairments or dexterity issues to see and press the keys accurately. The increased surface area of the keys can enhance typing accuracy and reduce errors.

High-visibility keyboards

High-visibility keyboards use high-contrast colors to make the keys more visible. The keys may have bold, large print labels or backlighting for better visibility in low-light conditions. Alternatively, special high-contrast stickers can be placed on standard keyboards to create a high visibility effect.

Specialist keyboards

Specialist keyboards cater to specific needs and disabilities. Examples include braille keyboards for students with visual impairments, keyboards with head or stick controls for those with limited hand mobility, and keyboards with key guards to prevent accidental key-pressing.

Virtual Reality (VR) and Augmented Reality (AR)

VR headsets- students use VR headsets to immerse themselves in virtual art galleries, visit museums worldwide, and even step into historical periods to experience art movements firsthand.

- Blind persons or persons with Autism can use VR to explore a museum.

- People with mobility impairments can use VR to participate in sports or other activities

AR technology – gives students the ability to overlay digital elements onto real-world environments, enabling students to superimpose their artwork onto physical surfaces or interact with virtual objects.

References

Assistive Technology: Empowering Students with Disabilities in the Classroom. (n.d.). Computeam. https://www.computeam.co.uk/videos-and-blog/article/assistive-technology-empowering-students-with-disabilities-in-the-classroom

VR and AR in Special Education. (2023, February). Www.cahelp.org. https://www.cahelp.org/cahelpenews/v_r_and_a_r_in_special_education

‌

C-Pen Reader Review. (n.d.). The Smarter Learning Guide. https://smarterlearningguide.com/c-pen-reader-review/

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Virtual Reality as an assistive technology for Autism https://www.youtube.com/watch?v=LERi5vnQX8Q

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Usage Scenarios

Scenario 1: Social Skills Training for ASD

A student practices greeting peers and teachers in a virtual classroom. The program provides feedback on tone, body language, and timing.

Benefit: Builds confidence in real-life social interactions.

Scenario 2: Academic Learning for ADHD

A student engages in a virtual math lab, solving puzzles that require focus and step-by-step problem-solving.

Benefit: Improves attention span while making learning enjoyable.

Scenario 3: Physical Exploration for Students with Limited Mobility

A student virtually explores a museum or participates in a simulated field trip to historical landmarks.

Benefit: Ensures inclusivity in experiential learning.

How VR Addresses Academic, Social, and Emotional Needs

1. Academically:

Engages students in interactive lessons, simulations, and problem-solving activities that cater to diverse learning styles.

Provides access to content that may be physically or cognitively challenging to access in real life (e.g., science labs, historical reenactments).

2. Socially:

Simulates real-world interactions, helping students practice social norms, turn-taking, and collaborative work.

Encourages inclusive group activities where all students participate equally, regardless of abilities.

3. Emotionally:

Reduces anxiety by allowing students to practice challenging tasks in a safe, controlled setting.

Builds self-confidence through repeated practice and success in simulated environments.

Example Technologies

1. Floreo:

Focuses on social-emotional learning for ASD. It offers modules to practice making eye contact, navigating group activities, and understanding facial expressions.

2. zSpace:

Combines VR and AR for STEM learning, enabling students to manipulate 3D models in a virtual lab.

3. CoSpaces Edu:

Allows students to create and interact with their own virtual worlds, fostering creativity and problem-solving.

How VR Supports Peer Interaction

1. Collaborative VR Activities:

Multi-user platforms allow students to work together in virtual environments to solve problems or complete group tasks.

Example: Collaborating to build a virtual city using CoSpaces Edu.

2. Building Empathy Among Peers:

Neurotypical students can use VR to experience what it’s like to have a disability, fostering understanding and inclusivity.

Example: A simulation showing sensory overload for an ASD student.

3. Social Scenarios Practice:

VR games and role-playing environments teach students with disabilities how to engage in conversations, share materials, or resolve conflicts with classmates.

Conclusion

VR is a transformative assistive technology that bridges gaps for students with disabilities, offering engaging, tailored, and effective solutions for academic, social, and emotional growth. By fostering inclusion, building confidence, and creating collaborative opportunities, VR enhances learning and helps students thrive in school and beyond.

Citations:

1. Floreo. (n.d.). Floreo VR for Autism (Accessed: 8 December 2024).

2. zSpace. (n.d.). zSpace Education Platform (Accessed: 8 December 2024).

3. CoSpaces Edu. (n.d.). CoSpaces for Education (Accessed: 8 December 2024).

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Virtual Reality (VR) for Social Skills Training Part I

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Virtual Reality (VR) for Social Skills Training Part I

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Technology: Virtual Reality (VR) for Social Skills Training

How VR Works

VR uses headsets, controllers, and sometimes motion sensors to create a virtual world. Students can interact with the environment, completing tasks, solving problems, or practicing skills. The content can include simulations for academic lessons, life skills, or social scenarios.

Key components include:

Hardware: Headsets (e.g., Oculus Quest, HTC Vive), motion controllers, and sensors.

Software: Educational programs tailored to specific skills, such as Floreo for social-emotional learning or zSpace for STEM simulations.

Targeted Disability: Autism Spectrum Disorder (ASD), Social Anxiety

Challenges Addressed: Difficulty understanding social cues, anxiety in social interactions.

Usage Scenarios:

Students can practice real-life scenarios, such as initiating conversations or taking turns, in a safe and controlled virtual environment.

Teachers can use VR to simulate classroom activities, group work, or interactions at recess.

Academic Benefits: Prepares students for cooperative learning activities and group tasks.

Social/Emotional Benefits: Builds confidence in navigating social situations, reducing anxiety.

Peer Interaction: Improves understanding of social norms and peer dynamics, facilitating more meaningful interactions with classmates.

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Assistive Technology Examples for Reading Part 2

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Assistive Technology Examples for Reading Part 2

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Who Benefits from assistive reading technology?

Assistive reading technology helps people with physical or learning disability access information and content. It can help people with a variety of needs, including:

Visual impairments

Magnification software and desktop, or computer screen magnifiers can help people with low vision or visual impairments.

Dyslexia or other reading challenges

Text-to-speech (TTS) technology can help people with dyslexia or other reading challenges by converting written text into spoken words.

Learning disabilities

TTS can help students with learning disabilities access educational materials.

Assistive reading technology can also help with

Memory problems, planning tasks and communication.

Resources:

Understood. (n.d.). Free audiobooks and digital text-to-speech books for your child. Retrieved December 10, 2024, from https://www.understood.org/en/articles/free-audiobooks-and-digital-text-to-speech-books-for-your-child

Recite Me. (n.d.). Assistive technology for ADHD. Retrieved December 10, 2024, from https://reciteme.com/au/news/assistive-technology-for-adhd/

Recite Me. (n.d.). Assistive technology for reading. Retrieved December 10, 2024, from https://reciteme.com/au/news/assistive-technology-for-reading/

Reading Rockets. (n.d.). Assistive technology for reading. Retrieved December 10, 2024, from https://www.readingrockets.org/topics/assistive-technology/articles/assistive-technology-reading