The Enhanced Perceptual Functioning (EPF) model suggests that autistic individuals often have heightened sensory abilities, allowing them to perceive finer details in their environment more acutely than neurotypical individuals. It reframes sensory sensitivities as strengths rather than deficits.
Showing posts with label Cognition. Show all posts
Showing posts with label Cognition. Show all posts
How Autism Changes Perception
Seeing the World in More Detail: How Autism Changes Perception
Imagine walking into a busy street market. Most people see a blur of color and activity, a rush of sounds blending together—a vibrant but overwhelming scene. But for some autistics, this moment might feel different. They could notice the intricate patterns on the fabrics hanging in a shop, the slight variations in pitch from different voices, or the distinct texture of the pavement underfoot. These details pop out in a way that others might miss.
This heightened ability to perceive the world in more detail is a central idea behind the Enhanced Perceptual Functioning (EPF) model of autism. Proposed by Laurent Mottron and his team, the EPF model offers a refreshing way of understanding the sensory differences experienced by autistics —not as deficits, but as strengths.
What is the Enhanced Perceptual Functioning Model?
In simple terms, the EPF model suggests that many autistics have superior abilities when it comes to perceiving certain types of sensory information. This might mean they can pick up on subtle visual details, hear sounds that others tune out, or feel textures more intensely.
Let’s break down the key ideas:
Enhanced Sensory Abilities: Autistics might outperform NTs in tasks like detecting fine details, distinguishing sounds, or noticing tiny changes in the environment. For example, while most of us might not notice a slight shift in a pattern, an autistic may immediately pick up on it.
Details Over Big Picture: One core idea of the EPF model is that perception tends to take precedence over higher-level cognitive processes like interpretation. While many people naturally try to see the “big picture” of what’s happening around them, autistics may focus more on specific details. This is why, in certain tasks, they excel at noticing things that others would miss.
Perception Runs Independently: The EPF model also suggests that autistic individuals’ sensory processing may work more independently from top-down cognitive influences like attention or expectations. This autonomy can allow for a clearer, less biased perception of the world, but it can also mean that irrelevant stimuli are harder to filter out, sometimes leading to sensory overload.
Strengths, Not Impairments: Where traditional models might view sensory sensitivities as impairments, the EPF model reinterprets them as the byproducts of enhanced sensory functioning. An autistic person might experience sensory overload because they are perceiving far more detail than the average person, not because their brain is malfunctioning.
Seeing Sensory Differences Through a New Lens
What does this mean in practice? Imagine that someone with autism is in a noisy restaurant. Instead of just hearing the hum of conversation, they may notice every individual voice, the clinking of silverware, the hum of the air conditioner—every layer of sound. In this scenario, sensory overload can occur because they’re processing more sensory input, not less. Their brain is tuned into the fine details of the environment.
But these heightened perceptual abilities can also be a tremendous strength. Consider autistic artists who create incredibly detailed, realistic drawings, or musicians who can identify subtle differences in pitch. This kind of attention to detail has led to extraordinary achievements in various fields, from scientific research to creative arts.
Beyond the Stereotypes: Autism’s Hidden Potential
The EPF model encourages us to move beyond the deficit-based view of autism, which focuses solely on challenges. Instead, it invites us to think about the hidden potential that comes with enhanced sensory abilities. For instance, many autistics have made major contributions to fields that require precise attention to sensory detail, like visual arts, music composition, and even coding.
By recognizing and embracing these strengths, we can create environments that allow autistic people to thrive. Schools, workplaces, and social settings can be designed to harness these abilities, turning what might traditionally be viewed as a challenge into a powerful tool.
A Shift in Thinking
The Enhanced Perceptual Functioning model of autism offers a new way to understand sensory experiences in autism—not as impairments, but as areas of enhanced ability. This shift in thinking has profound implications for how we support, educate, and interact with autistic individuals. It encourages us to focus on the strengths that often come with heightened perception and to consider how those strengths can be celebrated and integrated into society.
Next time you’re in a bustling environment, pause and think: what if you could notice every small detail, every nuance of sound and texture? For some, this is not just a possibility—it’s their reality, and it comes with both challenges and strengths.
Predictive Coding Theory of Autism
Predictive coding is a theoretical framework in which the brain is modeled as a hierarchical system that generates predictions about incoming sensory data, constantly updating its internal models to minimize prediction errors. Autism, in the context of predictive coding, is hypothesized to involve atypicalities in how the brain generates, updates, and weights predictions and prediction errors, contributing to sensory sensitivities, repetitive behaviors, and social difficulties.[Read in more detail]
PlainSpeak: Predictive coding is the idea that the brain works like a prediction machine, guessing what’s going to happen next and adjusting when something unexpected happens. Autism might involve the brain having a harder time making and adjusting predictions, which can lead to challenges with senses, routines, and social interactions. [ Read in detail. PlainSpeak Version]
Read in More Detail about Predictive Coding Theory of Autism
For the Scientific/Academic Audience
PlainSpeak Plain Language for Lay Reader
Monotropism and Special Interests in Autism - a Neurocognitive Perspective
Monotropism and special interests are closely related yet distinct constructs within the context of autism. Both concepts elucidate how autistic individuals exhibit profound engagement with specific domains, yet they underscore different facets of this phenomenon.
Monotropism is a cognitive model positing that autistic individuals exhibit a narrowed attentional focus on a limited set of interests, in contrast to the broader attentional distribution observed in neurotypical individuals. This heightened attentional focus facilitates deep expertise and significant enjoyment in specialized areas. However, it also results in attentional inflexibility, making it challenging for individuals to shift focus to other tasks or interests that do not align with their core interests. Monotropism provides a framework for understanding why autistic individuals often demonstrate exceptional proficiency in their areas of passion but may face difficulties with tasks that are outside these focal points.
Special Interests refer to the specific topics or activities that elicit intense focus and enthusiasm in autistic individuals. These interests often manifest as lifelong passions and serve as sources of comfort, identity, and competence. While special interests contribute positively to an autistic individual's life, they may be misunderstood or undervalued by others who fail to recognize their significance.
Neurocognitive explanations for both monotropism and special interests suggest that these behaviors are underpinned by fundamental differences in brain function and information processing in autistic individuals. Monotropism is thought to involve an atypical allocation of cognitive resources, where autistic individuals preferentially allocate their cognitive bandwidth to areas of high personal significance. This preferential allocation can be understood through the lens of predictive coding theories, particularly those emphasizing 'slow-updating' and 'high-precision' or 'hypoprior' mechanisms. These theories propose that autistic individuals maintain highly precise and stable internal models for their areas of interest, leading to profound engagement and expertise in these domains but also to challenges in adapting to new or less predictable tasks.
Special interests, on the other hand, may be conceptualized as emergent properties of these underlying neurocognitive mechanisms. The intense focus and enthusiasm associated with special interests reflect the heightened precision and stability of the predictive models governing these interests. The sustained engagement with special interests can be further understood through the framework of neural reward pathways, where dopaminergic activity reinforces behaviors that align with these precise internal models, thereby enhancing the salience and reward value of special interests.
Understanding both monotropism and special interests from a neurocognitive perspective can inform the development of supportive environments that leverage the strengths of autistic individuals. By recognizing and building upon their focused cognitive styles, educators, clinicians, and caregivers can implement strategies that accommodate attentional inflexibility while fostering opportunities for growth and adaptation. This approach not only acknowledges the unique cognitive profiles of autistic individuals but also promotes their overall well-being and societal inclusion.
Here are the different versions to help understand Monotropism and Special Interests
- Neurocognitive explanation
- Plain Language
- A Short Definition
Weak Central Coherence Theory of Autism
Autism Lexicon: Weak Central Coherence (WCC) Theory
The WCC Theory is a cognitive theory of autism (cognitive theories try to explain how autistics think).
It suggests that autistics focus on noticing details but might struggle with seeing the bigger picture. This affects how they see and understand the world around them. This unique way of thinking brings both strengths and challenges, affecting everyday tasks, social interactions, and work or hobbies.
Read about WCC in more detail
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Perception Runs Independently
Perception Runs Independently
The Strengths and Challenges of Autonomous Sensory ProcessingOne of the most fascinating aspects of the Enhanced Perceptual Functioning (EPF) model is the idea that, for many autistic individuals, sensory processing operates more independently from higher-level cognitive influences, like attention or expectation. This can be understood through the concepts of top-down and bottom-up processing—two different ways the brain handles sensory information.
Top-Down vs. Bottom-Up Processing:
For example, when you walk through a busy street, your frontal cortex might direct your attention to familiar sounds, like a car engine or a friend's voice, while tuning out irrelevant details like background noise. This ability to prioritize sensory input helps you function efficiently, without being overwhelmed by the countless stimuli around you.
In contrast, the EPF model suggests that autistics experience a stronger reliance on bottom-up sensory processing. This means that their brains process raw sensory input before cognitive filters have a chance to influence what is perceived. Bottom-up processing starts in the sensory pathways—for instance, visual information is processed from the eyes through the thalamus to the primary visual cortex in the occipital lobe, and auditory information moves from the ears through the thalamus to the primary auditory cortex in the temporal lobe.
In this bottom-up process, the brain takes in a more direct and unfiltered version of sensory input, without as much modulation from higher cognitive regions like the prefrontal cortex. As a result, the autistic brain may prioritize details that neurotypical brains might quickly dismiss. While this means autistic individuals often have a clearer, more detailed perception, it also means their brains may struggle to filter out irrelevant stimuli in a noisy environment, leading to sensory overload.
This also ties into findings of hyperconnectivity or altered connectivity between sensory regions and higher cognitive areas in autism. Studies using fMRI (functional magnetic resonance imaging) have shown that autistic brains may have more local connectivity in sensory areas, meaning that signals in these regions are processed more intensely, while long-range connectivity to cognitive control areas may be weaker. This imbalance can contribute to heightened sensory experiences and challenges with regulating attention.A Clearer, Less Biased Perception
Sensory Pathways and OverloadThe way sensory information travels in the brain also provides insight into why sensory overload can be more common in autistic individuals. In a neurotypical brain, the thalamus, often referred to as the brain’s “sensory relay station,” plays a major role in filtering out unnecessary sensory input before it reaches the cortex. However, research has suggested that in autism, the thalamus may not perform this filtering function as effectively, allowing more sensory data to pass through to higher brain regions.
Supporting Autistic Sensory Processing
The EPF model encourages us to view this type of sensory processing not as a defect but as a different way of experiencing the world. The challenge, then, is to find ways to support autistic individuals in environments that might overwhelm their senses, while also allowing them to harness their heightened perceptual abilities in ways that suit them.
The Role of Attention and Sensory Pathways
The differences in top-down and bottom-up processing in autism can also be understood in terms of how the brain handles attention. In neurotypical individuals, the dorsal attention network (DAN) and ventral attention network (VAN) play key roles in guiding attention to relevant stimuli. The DAN, which involves regions like the intraparietal sulcus (IPS) and the frontal eye fields, helps direct voluntary attention to important stimuli based on goals or expectations (top-down). The VAN, which includes areas like the temporo-parietal junction (TPJ), responds to unexpected but relevant sensory information (bottom-up).
In autistics, research suggests that these attentional networks may function differently. The brain might have a harder time using top-down signals from areas like the prefrontal cortex to guide attention, leading to an increased reliance on bottom-up sensory input. This could explain why many autistic people seem to notice small details others miss—their brains are less influenced by pre-existing expectations and more tuned in to the raw sensory data arriving from their environment.
This also ties into findings of hyperconnectivity or altered connectivity between sensory regions and higher cognitive areas in autism. Studies using fMRI (functional magnetic resonance imaging) have shown that autistic brains may have more local connectivity in sensory areas, meaning that signals in these regions are processed more intensely, while long-range connectivity to cognitive control areas may be weaker. This imbalance can contribute to heightened sensory experiences and challenges with regulating attention.The Role of Attention and Sensory Pathways
The differences in top-down and bottom-up processing in autism can also be understood in terms of how the brain handles attention. In neurotypical individuals, the dorsal attention network (DAN) and ventral attention network (VAN) play key roles in guiding attention to relevant stimuli. The DAN, which involves regions like the intraparietal sulcus (IPS) and the frontal eye fields, helps direct voluntary attention to important stimuli based on goals or expectations (top-down). The VAN, which includes areas like the temporo-parietal junction (TPJ), responds to unexpected but relevant sensory information (bottom-up).
A Clearer, Less Biased Perception
The benefit of this autonomy is that autistic individuals often perceive the world in a way that is less biased by assumptions or distractions. For example, while a NT brain might overlook subtle differences in a visual scene because it’s focused on the overall picture or expected patterns, an autistic may notice these fine details with ease. This ability to see things without the brain’s automatic filters allows for incredibly precise perception in many situations.
Consider the case of an autistic artist. While many people would glance at a tree and interpret its general shape and structure, an autistic artist might perceive the unique texture of the bark, the subtle variations in leaf color, or the intricate patterns of shadow and light. These details aren’t blurred by the brain’s expectations of what a tree "should" look like—they are seen as they truly are.
This enhanced attention to detail has clear advantages in fields that rely on precision. This may explain why some autistics may excel in areas like programming, scientific research, music, and visual arts because their brain processes sensory information in a highly accurate, detailed way that isn’t as easily influenced by preconceived ideas.
The benefit of this autonomy is that autistic individuals often perceive the world in a way that is less biased by assumptions or distractions. For example, while a NT brain might overlook subtle differences in a visual scene because it’s focused on the overall picture or expected patterns, an autistic may notice these fine details with ease. This ability to see things without the brain’s automatic filters allows for incredibly precise perception in many situations.
Sensory Pathways and Overload
The way sensory information travels in the brain also provides insight into why sensory overload can be more common in autistic individuals. In a neurotypical brain, the thalamus, often referred to as the brain’s “sensory relay station,” plays a major role in filtering out unnecessary sensory input before it reaches the cortex. However, research has suggested that in autism, the thalamus may not perform this filtering function as effectively, allowing more sensory data to pass through to higher brain regions.
Once this unfiltered sensory information reaches the cortex, the autistic brain—especially with heightened local connectivity in sensory areas—may amplify the sensory experience. This is why an autistic individual walking through a crowded mall might be overwhelmed by every sound, every light, every movement around them. Their brain is processing all stimuli equally, without prioritizing which are most important for the situation.
However, this independence from top-down cognitive filtering comes with its own set of challenges, particularly when it comes to sensory overload. Imagine walking through a crowded mall. For most people, the brain quickly decides what sensory information is relevant—focusing on navigating the crowd and maybe listening to the person they’re walking with, while tuning out background music, chatter, and bright displays.
In contrast, an autistic individual may perceive all the stimuli equally, because their brain isn’t filtering out irrelevant details as efficiently. The result can be overwhelming. Every sound, every light, every movement is processed with equal importance, which can make it incredibly difficult to focus on any one task. This is why autistic individuals often report feeling overwhelmed or anxious in environments that are filled with sensory input—there’s simply too much to take in.
This phenomenon is a key part of what many call sensory hypersensitivity in autism. The inability to tune out irrelevant stimuli doesn’t mean that the brain is malfunctioning; rather, it’s processing far more information than the average person. While this can lead to sensory overload, it also means that in more controlled environments, autistic individuals can exhibit an extraordinary level of focus on tasks that rely on the ability to notice and analyze small details.
Balancing Strengths and Challenges
The EPF model presents both strengths and challenges due to this reliance on bottom-up processing. On the positive side, it explains why many autistic individuals excel in areas requiring high attention to detail. The precision of their perception allows them to see, hear, and feel things that others might miss, making them particularly skilled in fields like art, music, programming, and scientific research.
However, the same ability that allows for such detailed perception can also lead to sensory overload in environments with a lot of stimuli. Without the same level of filtering, every sound, every sight, and every touch is processed with equal importance, which can make it hard to focus on any one thing.
Supporting Autistic Sensory ProcessingBalancing Strengths and Challenges
The EPF model encourages us to view this type of sensory processing not as a defect but as a different way of experiencing the world. The challenge, then, is to find ways to support autistic individuals in environments that might overwhelm their senses, while also allowing them to harness their heightened perceptual abilities in ways that suit them.
Understanding how top-down and bottom-up processing work differently in autism helps us find better ways to support autistic individuals. For example, in educational settings, creating sensory-friendly environments—with softer lighting, quieter spaces, and less clutter—can help reduce the burden of sensory overload. Allowing students to use noise-canceling headphones or providing breaks in quieter areas can help them manage sensory input more effectively.
In the workplace, offering flexible environments or hybrid work options where autistic employees can adjust lighting or reduce noise can allow them to focus on their strengths, like attention to detail. By recognizing the autonomy of their sensory processing, we can create spaces that support both their sensory needs and their abilities.
Cognitive Dissonance
Cognitive dissonance theory, proposed by psychologist Leon Festinger in the 1950s, is a fundamental concept in psychology that explores the discomfort people experience when they hold conflicting beliefs, attitudes, or values. When individuals encounter information or situations that challenge their existing beliefs or attitudes, they often experience cognitive dissonance, a state of psychological tension. This tension arises from the inconsistency between what they believe and what they are confronted with.
To reduce this discomfort, individuals typically employ various cognitive and behavioral strategies. They may change their beliefs or attitudes to align with the new information, seek out information that supports their existing beliefs (confirmation bias), or downplay the significance of the conflicting information. For example, if someone holds a negative stereotype about a particular group but then has a positive encounter with a member of that group, they might experience cognitive dissonance. To alleviate this discomfort, they may adjust their stereotype or minimize the significance of the positive encounter.
Cognitive dissonance theory is crucial for understanding the dynamics of attitude change and behavior. It highlights the human tendency to strive for consistency in our beliefs and actions and the discomfort that arises when inconsistency occurs. By recognizing cognitive dissonance, psychologists and individuals alike can better understand the processes underlying attitude change, prejudice reduction, and decision-making in the face of conflicting information
To reduce this discomfort, individuals typically employ various cognitive and behavioral strategies. They may change their beliefs or attitudes to align with the new information, seek out information that supports their existing beliefs (confirmation bias), or downplay the significance of the conflicting information. For example, if someone holds a negative stereotype about a particular group but then has a positive encounter with a member of that group, they might experience cognitive dissonance. To alleviate this discomfort, they may adjust their stereotype or minimize the significance of the positive encounter.
Cognitive dissonance theory is crucial for understanding the dynamics of attitude change and behavior. It highlights the human tendency to strive for consistency in our beliefs and actions and the discomfort that arises when inconsistency occurs. By recognizing cognitive dissonance, psychologists and individuals alike can better understand the processes underlying attitude change, prejudice reduction, and decision-making in the face of conflicting information
An article where I talk about its impacts with respect to autism
Attribution Errors
Attribution errors, also known as attribution biases, are cognitive biases that affect how individuals interpret and explain the behavior of themselves and others. These biases involve making inaccurate or biased judgments about the causes of behaviors, often by attributing them to dispositional (internal) factors or situational (external) factors. One common attribution error is the fundamental attribution error (FAE), which occurs when people tend to overemphasize dispositional factors and underestimate situational factors when explaining the behavior of others. For instance, if someone witnesses a colleague being late to work, they might attribute it to the colleague's laziness or lack of punctuality (dispositional), while ignoring the possibility that the colleague might have encountered traffic or had an emergency (situational).
Another attribution error is the actor-observer bias, which relates to the tendency for individuals to attribute their own behavior to situational factors (e.g., "I was late because of traffic") but attribute the behavior of others to dispositional factors (e.g., "They were late because they're always irresponsible"). This bias highlights the differing perspectives people have when explaining their own actions versus the actions of others, often giving themselves the benefit of the doubt while judging others more critically. Understanding attribution errors is essential because they can lead to misunderstandings and conflicts in interpersonal relationships and can affect how individuals perceive and interact with others. Recognizing these biases can help people become more empathetic and make more accurate judgments about the behaviors and motivations of those around them.
Another attribution error is the actor-observer bias, which relates to the tendency for individuals to attribute their own behavior to situational factors (e.g., "I was late because of traffic") but attribute the behavior of others to dispositional factors (e.g., "They were late because they're always irresponsible"). This bias highlights the differing perspectives people have when explaining their own actions versus the actions of others, often giving themselves the benefit of the doubt while judging others more critically. Understanding attribution errors is essential because they can lead to misunderstandings and conflicts in interpersonal relationships and can affect how individuals perceive and interact with others. Recognizing these biases can help people become more empathetic and make more accurate judgments about the behaviors and motivations of those around them.
Linear and Non Linear Thinking
Linear and non-linear thinking represent distinct cognitive styles for processing information and solving problems.
Linear Thinking is characterized by a sequential, logical approach. It involves following a step-by-step progression to reach conclusions or solve problems. Linear thinkers focus on cause-and-effect relationships, rely on logical reasoning, and use a structured, organized method. This approach is effective for tasks requiring logical analysis, systematic breakdown of problems, and adherence to specific processes.
Non-Linear Thinking is defined by a holistic, divergent approach. Non-linear thinkers make connections between seemingly unrelated ideas, engage in creative, out-of-the-box thinking, and see patterns others might miss. They generate multiple solutions to problems and think in an intuitive, associative, or visual manner. This cognitive style excels in creative problem-solving, pattern recognition, and generating innovative ideas.
Both have strengths. Linear thinking is often effective for tasks that require logical analysis, step-by-step reasoning, or adherence to a specific process. Non-linear thinking, can be valuable in creative problem-solving, pattern recognition, generating innovative ideas, or seeing the bigger picture.
However, traditional IQ tests often emphasize linear thinking and may not fully capture or assess the strengths of non-linear thinking in the autistic population.
Recognizing and valuing both cognitive styles can provide a more comprehensive understanding of cognitive abilities in autism.
Fluid v Crystallized Intelligence
Fluid intelligence and crystallized intelligence are two distinct aspects of cognitive abilities, as proposed by psychologist Raymond Cattell. Research suggests that autistics may exhibit strengths in fluid intelligence while crystallized intelligence may vary depending on individual experiences and access to education. However, it is to be noted that traditional distinction between fluid and crystallized intelligence may not fully capture the complexity of cognitive abilities in autistics as their cognitive profiles often encompass a wide range of skills, strengths, and challenges that extend beyond these categories.
Self Perception
Self-perception refers to how individuals perceive themselves, including their physical, cognitive, emotional, and social attributes. It involves forming an understanding of one's own characteristics, abilities, and behaviors. Self-perception can encompass both internal aspects, such as thoughts and emotions, and external aspects, such as appearance and social roles. It involves recognizing oneself as a distinct entity separate from others and the environment.
- Formation: Self-perception starts to develop early in life and continues to evolve throughout one's lifespan. It begins with self-recognition during infancy and progresses through social interactions, personal experiences, and feedback from others. As individuals engage with their environment and receive information about themselves, they construct their self-perception.
- Multifaceted Nature: Dimensions include physical attributes, such as appearance and health; cognitive aspects, such as intellectual abilities and problem-solving skills; emotional characteristics, including one's emotional states and temperament; and social aspects, such as social roles, identities, and relationships. These facets come together to form a multifaceted self-perception.
- Internal and External Factors: Internal factors, such as one's own thoughts, beliefs, and self-reflection, contribute to self-perception. For example, individuals might assess their own abilities and personality traits through introspection. External factors, on the other hand, include feedback and evaluations received from others, social comparisons, cultural norms, and societal expectations. Both internal and external factors shape and influence self-perception.
- Self-Consistency and Cognitive Dissonance: Self-perception theory suggests that individuals strive for consistency between their attitudes, beliefs, and behaviors. When there is a mismatch between one's self-perception and their actions, cognitive dissonance arises, leading individuals to seek alignment. This can result in changes in self-perception or adjustments in behavior to restore consistency.
- Self-Esteem and Self-Perception: Self-perception and self-esteem are closely intertwined. Self-esteem refers to an individual's overall evaluation and subjective feelings of self-worth. Positive self-perception, where individuals perceive themselves favorably in various domains, tends to contribute to higher self-esteem. Conversely, negative self-perception can lead to lower self-esteem and negative self-evaluations.
- Contextual and Cultural Influences: Cultural values, beliefs, and socialization practices shape how individuals perceive themselves and what aspects they prioritize in their self-perception.
Linear Thinking v Non-Linear Thinking
Plain Language Version
People think in different ways. Two common ways are linear thinking and non-linear thinking.
Linear Thinking is like following a straight line. It means thinking step-by-step in a clear and logical order. People who think this way focus on cause and effect and use a structured approach to solve problems.
Non-Linear Thinking is like seeing the whole picture at once. It means thinking in a more creative and flexible way. People who think this way make connections between different ideas, come up with many solutions to problems, and see patterns others might not notice.
Both types of thinking are important. Linear thinking is good for tasks that need careful planning and clear steps. Non-linear thinking is helpful for coming up with new ideas and solving problems creatively.
Many autistics are great at non-linear thinking. They can see connections and patterns that others might miss. But traditional IQ tests often focus on linear thinking, so they might not show the strengths of non-linear thinking in autistics. It’s important to value both types of thinking to understand everyone’s abilities better
Linear v Non Linear Neuroscience Version, Plain Language Version
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