LISA ChatGPT
Well-being and mental health are fundamental components of children's development and their educational success. Yet, more than one in four children face challenges such as neurodevelopmental and learning disorders (like Specific Learning Disorder, Autism Spectrum Disorder, Attention deficit hyperactivity disorder, etc.), mood disorders (like anxiety, depression), or emotional and behavioral disorders.
In the absence of detection and intervention, these challenges often lead to severe consequences for the child and those around them: lack of interest, dropping out, bullying, violence, suicidal actions...
The LISA research-action program provides educational stakeholders with tools to identify, understand, and collaborate, to support each child, both in and outside of school, based on their strengths and needs. Co-constructed by teachers, families, researchers, clinicians, and other educational actors, LISA develops a community, a training program, and a digital platform.
LISA is originally developed and prototyped in France, initiated by iféa, a network of innovative schools, and the Learning Planet Institute. LISA is developed Under the supervision of its scientific committee, including Ariel B. Lindner, Bennett L. Leventhal, Richard Delorme, Bruno Falissard, Caroline Huron, Yasser Kazhaal, and others; a dedicated team including Anirudh Krishnakumar, Naima Page, Kseniia Konischeva, Arno Klein, and others; and key partner institutions including the Child Mind Institute, INSERM U1284, CléPsy, and the Robert Debré Hospital in Paris.
The project has received support from the French government to be deployed in 200 schools within the Académie de Créteil, Académie de Paris, Académie de Versaille, and the Mission laïque française.
LISA aims to provide stakeholders in the education of children and adolescents with evidence-based, actionable, and accessible training and guidance in the process of identifying and supporting their unique strengths and needs. As part of this effort, LISA is building a database of resources, Lisapedia.
While all Lisapedia content will be carefully written, reviewed, and validate by a scientific and editorial committee, this page represents a technological proof of concept of combining structured knowledge from field experts with generative AI to draft content, which can then be reviewed and edited by experts.
THIS CONTENT IS DISPLAYED HERE FOR DEMONSTRATION PURPOSES ONLY. IT IS NOT INTENDED TO BE USED AS A REFERENCE. SOME CONTENT MAY BE IRRELEVANT, OR EVEN OUTRIGHT FALSE. IF YOU SUSPECT A MEDICAL CONDITION, IMMEDIATLY REFER TO A TRAINED PROFESSIONAL.
This is the generated guide:
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I am a 12th grade math teacher. I am looking for suggestions on how to support my student according to their strengths and needs. You are a child and adolescent psychiatrist. Your role is to provide guidance to a 12th grade math teacher on how to support student according to their strengths and needs. My student has been assessed for the following dimension: Memory/Recall - expending effort and employing strategies for remembering and recalling: Memory is a complex biological function that allows for the brain to store and recall factual information and related emotional and other factors that are linked to the facts. There are multiple forms of memory to account for different uses of the stored information. Short-term memory is for the management of information that is needed temporarily to complete a brief task. For intermediate level activities, information from short-term memory is transferred to working memory for more extended task completion. Long-term memory is information that may be used again and again and/or over extended periods of time. The durability of a particular memory depends a great deal on the importance of that which is being remembered, the linkages of that memory to other important factors (i.e., emotions, location, sensory associations, other memories, etc.), repetition of the memory over the course of time, and distractions or disruptions when the memory is being stored. His/her profile is as follows: Does not remember or recall even essential information: Unwilling or unable to recall items from short-term and/or long-term memory. Create a guide that I can use and share to best support my student. The guide MUST have the following structure: 1. Overview of the challenges associated with this profile Present this section as a markdown table with 2 columns: - Challenges, - How they manifest. 2. Efficient, evidence-based strategies to support this student In this section, include 3 to 5 strategies. Each strategy must have: - A title, - A brief description and why it is efficient, - Specific implementation steps, - Parameters to monitor and adjust. Present this information in a markdown table with 4 columns. Each strategy must be sustainable and easy to implement in the classroom, and lead to this student nurturing his strengths and building resilience. 3. Do and don'ts List common mistakes to avoid and best practices to follow when supporting this student. Present this information in a markdown table with 2 columns. 4. Further reading and research List resources that can help me learn more about this profile, as well as a choice of keywords to use in my own research. Be concise and use simple language. Prefer using bullet points and/or markdown tables instead of long text paragraphs.
1. Overview of the challenges associated with this profile
Challenges | How they manifest |
---|---|
Difficulty in remembering learned materials | The student fails to recall basic mathematical principles or concepts that have been taught |
Problems with completing tasks | The student struggles with executing mathematical problems because the tasks require memory recall |
Struggles with test-taking | The student might have difficulty remembering formulas or algorithms during tests |
Difficulty with long-term retention | The student might understand a concept when it's taught but forgets it over time |
Poor academic performance | The student's grades might suffer due to memory problems |
2. Efficient, evidence-based strategies to support this student
Strategy Title | Description and Efficiency | Implementation Steps | Parameters to Monitor |
---|---|---|---|
Chunking Strategy | Breaking down information into manageable chunks enhances recall. | - Break complex mathematical problems into smaller, more manageable parts - Teach one part at a time | Monitor the student’s understanding and recall of each chunk before proceeding to the next |
Use of Mnemonics | Mnemonics improve memory by associating concepts with familiar and meaningful images or words. | - Introduce mnemonic devices for complex formulas - Encourage the student to create their own mnemonics | Regularly test recall of the mnemonics and associated concepts |
Regular Testing | Regular testing reinforces memory by prompting the brain to retrieve information. | - Provide short quizzes at the end of each lesson - Regularly review previous concepts | Monitor improvement in the student’s test performances |
Visual Aids | Visual aids like diagrams, flowcharts act as a visual memory prompt. | - Include diagrams or visual aids in lessons - Encourage the student to draw their own visual aids | Monitor the student’s capability to remember information using visual cues |
3. Do and Don'ts
Do | Don't |
---|---|
Regularly review previously taught concepts | Do not overload the student with too many concepts at once |
Be understanding and patient | Do not show frustration or disappointment which can demotivate the student |
Encourage the student to ask for clarification or repetition when they forget | Do not move forward if the student does not remember essential information |
Adjust the pace of lessons to meet the student's learning capability | Do not pressurize the student to keep up with the pace of other students |
4. Further reading and research
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Deslauriers, L., Schelew, E., & Wieman, C. (2011). Improved Learning in a Large-Enrollment Physics Class. Science, 332(6031), 862-864. Keywords: 'improved learning', 'large enrollment', 'physics class'.
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McDaniel, M.A., RoedigerIII, H.L. and McDermott, K.B. (2007). Generalizing test-enhanced learning from the laboratory to the classroom. Psychonomic Bulletin & Review, 14(2), 200-206. Keywords: 'Test-enhanced learning', 'laboratory to classroom'.
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Hitch, G.J., Towse, J.N. and Hutton, U. (2001). What limits children's working memory span? Theoretical accounts and applications for scholastic development. Journal of Experimental Psychology: General, 130(2), 184. Keywords: 'Working memory span', 'limits', 'scholastic development'.
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Miller, G.A. (1956). The Magical Number Seven, Plus or Minus Two: Some Limits on Our Capacity for Processing Information. Psychological Review, 63(2), 81–97. Keywords: 'Magical Number Seven', 'Processing Information', 'Memory Recall'