Diving into Diversity: Harnessing Neurodivergent Strengths to Transform Aquatic Sciences

Ana C. Vásquez, Bianca M. Rodríguez-Cardona, Rebecca Gladstone-Gallagher, Pascal Bodmer, Raquel F. Flynn, Mina Bizic
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The neurodiversity paradigm reframes cognitive differences as assets rather than deficits, emphasizing the strengths, specialized skills, and high-performance potential of neurodivergent individuals in science (Jaarsma and Welin <span>2011</span>; Lefevre-Levy et al. <span>2023</span>). This approach aligns with the broader views of cognitive variances as essential components of human diversity, resilience, and social collaboration (Goldberg <span>2023</span>), akin to the role of biodiversity in ecosystem functioning and resilience. This paper advocates for systemic reforms to enhance the careers and experiences in aquatic sciences, thereby enriching the discipline by incorporating a wider array of perspectives and talent.</p><p>Neurodivergent individuals, particularly those with autism spectrum disorder (ASD), often exhibit unique cognitive strengths beneficial for data-intensive research (Goldberg <span>2023</span>; Sikimić <span>2023</span>). Their keen attention to detail enables them to identify subtle patterns and anomalies, which is vital for analyzing complex datasets and detecting gradual changes (Wilson et al. <span>2023</span>). Additionally, their meticulousness, sustained focus, and creative problem-solving boost reliability and innovative outcomes. In aquatic sciences, where interdisciplinary approaches are crucial, these attributes are highly significant but often overlooked. Estimates suggest that only 5% of Science, Technology, Engineering, and Mathematics (STEM) undergraduates and 0.9% of senior academics in the UK disclose their neurodivergent conditions (Wilson et al. <span>2023</span>). In contrast, nearly 17% of the US workforce may be neurodivergent (Lefevre-Levy et al. <span>2023</span>). In geosciences, preliminary calculations indicate that 2–3 of every 150 students may be autistic (Kingsbury et al. <span>2020</span>). However, comparable data for aquatic sciences is lacking.</p><p>Neurodivergent underrepresentation is exacerbated by structural barriers. Traditional metrics of success in academia, such as publication rates, conference networking skills, and grant acquisition, are often shaped by neurotypical norms. Hence, these metrics may not capture the contributions of neurodivergent scientists, at least not without adequate support (Cosentino and Souviron-Priego <span>2021</span>), such as written/recorded instructions, time flexibility, and an uninterrupted workflow. Stigma and a lack of specific accommodations at the institutional level aggravate the challenges faced by neurodivergent researchers, leading many to conceal their conditions. This issue is particularly acute among the neurodivergent community from the Global South and Early Career Researchers (ECRs), who are often held back from the <i>diversity discourse</i> due to feelings of disconnection or lack of representation (Cosentino and Souviron-Priego <span>2021</span>; Sikimić <span>2023</span>), largely because the discourse tends to prioritize larger or discernible minority groups over those with less visible conditions. Preconceptions and assumptions that neurodivergent researchers will not produce as many results or interact socially as expected further condense the number of opportunities available, increasing their reluctance to ask for help (Wilson et al. <span>2023</span>).</p><p>Institutions must adopt wide-ranging practices that accommodate diverse cognitive styles. Accommodations refer to adjustments, such as communication methods, assisting devices, or learning methods, that enable neurodivergents to attain the same level of proficiency as their neurotypical counterparts (Fig. 1). The purpose of accommodations is not “special treatment”, but to ensure equitable opportunities for learning and success within the neurodiverse community. For instance, sensory-friendly environments are specifically designed spaces (or equipment) intended to accommodate sensitivities associated with autism, like workspaces with soft lighting, soundproofing, and calming color schemes. The use of sensory tools, such as weighted blankets, fidget gadgets, and bubble tube lamps, aids neurodivergent individuals in achieving greater comfort and balance in the workplace. Similarly, flexible work schedules and fieldwork roles can mitigate external stimuli and enhance productivity. Structured communication practices, including clear meeting plans and written feedback mechanisms, can facilitate effective collaboration and create a secure space for neurodivergent individuals to disclose their conditions (Goldberg <span>2023</span>; Sikimić <span>2023</span>; Wilson et al. <span>2023</span>). Comprehensive evaluation criteria that recognize the varied contributions to science beyond traditional metrics can ensure the equitable assessment of neurodivergents. Educational programs on neurodiversity can further reduce bias and nurture a culture of respect, acknowledging, and supporting the diverse cognitive styles of researchers. Kingsbury et al. (<span>2020</span>) reflect that autistic students must be included in the planning of their accommodations to properly address their needs. This statement must be extended to all neurodivergent individuals in academia.</p><p>To inform both individual and institutional practices that foster the inclusion of neurodivergents in aquatic sciences, it is essential to identify the primary challenges faced by neurodivergent individuals within scientific fields. Neurodivergents' capacity to manage novel situations or sensory stimuli can be compromised due to their elevated baseline cognitive load (Kingsbury et al. <span>2020</span>). For example, fieldwork, a cornerstone of aquatic sciences, poses exceptional difficulties for neurodivergent scientists owing to sensory sensitivities and unpredictable conditions. Establishing routines at sea/field and access to supportive accommodation, such as spaces for self-regulation and self-assessment, can alleviate anxiety and improve performance (Kingsbury et al. <span>2020</span>; Gushulak et al. <span>2023</span>; Wilson et al. <span>2023</span>).</p><p>Similarly, variations in communication styles and information processing frequently lead to misunderstandings with neurotypical individuals. Most neurodivergents possess distinct nonverbal and verbal communication patterns/interactions that assimilate the principles of cross-cultural communication (Kingsbury et al. <span>2020</span>). Effective cross-cultural communication proposes that individuals engaging with those from diverse cultural and cognitive backgrounds do so with an awareness of their differences, avoid making assumptions, maintain openness, and become active listeners. Neurodivergent individuals usually prioritize low-context (direct and clear) interactions; hence, literal thinking is commonly associated with the community. Repetitive questioning may be perceived by neurotypicals as argumentative; however, for neurodivergent individuals, dissecting the information received enables them to decode the message. Neurodivergents stress the need for essential information to ensure the accuracy of their interpretation and to establish mutual understanding; otherwise, they will be (mentally and physically) unable to proceed.</p><p>Neurodivergent individuals may experience difficulties interpreting nonverbal cues (Kingsbury et al. <span>2020</span>; Sikimić <span>2023</span>), wherein avoiding eye contact facilitates better processing of the received message, or physical movement aids in enhancing cognitive processing by mitigating external stimuli. The employment of self-regulatory mechanisms, such as stimming behaviors, manages sensory overload. Stimming refers to repetitive behaviors through one or multiple senses, such as repeating words, hand mannerisms, body movements, aligning objects by color or shape, and reproducing the same sounds or songs multiple times. These behaviors, including dissociation, fidgeting, vocalizations, and repetitive motions, are predominantly involuntary and frequently misunderstood, perceived as distracting, or upsetting by neurotypicals (Cosentino and Souviron-Priego <span>2021</span>). For instance, fidgeting, hyperactivity, and humming are manifestations of the Attention-Deficit/Hyperactivity Disorder (ADHD) enabling individuals to expend energy, focus, and self-regulate (Kingsbury et al. <span>2020</span>; Sikimić <span>2023</span>). If their behavior proves disruptive to other group members, offering designated spaces will boost team performance, as opposed to compelling neurodivergents to suppress unintentional traits, thereby exposing them to emotional dysregulation and burnout (Cosentino and Souviron-Priego <span>2021</span>).</p><p>However, suppressing these mechanisms, also known as masking, is extremely detrimental to the well-being and mental health of neurodivergent individuals, as it diverts cognitive resources toward self-control above all else. Polarization of the autistic community results in high-masking or low-masking, further minimizing the special needs of autistic persons. High-masking autistic individuals are better received by “neutralizing” their traits and “function” approaching societal expectations, while low-masking are singled out and greeted with stigmatization due to their condition (Jaarsma and Welin <span>2011</span>; Sikimić <span>2023</span>). This polarization within the autism spectrum, disregarding their conditions and needs, closely associates with the suppression of their traits to fit social functioning standards, which is detrimental to the mental health and well-being of autistic individuals.</p><p>Correspondingly, Early Career neurodivergent researchers are expected to master interdisciplinary scientific skills with limited funding, support, and nonexistent accommodations (Cosentino and Souviron-Priego <span>2021</span>) while navigating social anxiety, burnout, communication disruption, and mental health issues. In stigmatizing environments, individuals often avoid support to cope with and escape negative perceptions (Lefevre-Levy et al. <span>2023</span>; Wilson et al. <span>2023</span>). Enhancing the overall work environment can be achieved by acknowledging neurodivergent needs, providing spaces for customized accommodations, and ensuring that all team members have access to wellness breaks throughout the workday. Repetitive motion activities, meditation, breathing exercises, knitting, crafting, or transitory aerobic workout sessions are beneficial neurodivergent self-regulation strategies that can also be advantageous for neurotypical individuals.</p><p>The inclusion of neurodivergent individuals in aquatic sciences is not merely a matter of equity, but a strategic imperative for scientific advancement. As we strive to protect and understand our planet's aquatic systems, we recognize that diversity in all its forms is our greatest asset. The exceptional skills of neurodivergent individuals are invaluable in data-intensive research (Goldberg <span>2023</span>; Sikimić <span>2023</span>). Neurological variations represent atypical human cognitive processes and communication patterns relative to the statistical majority, reflecting our societal and evolutionary adaptability (Jaarsma and Welin <span>2011</span>; Goldberg <span>2023</span>). Rather than categorizing neurodiversity as a disorder that requires treatment, we must assimilate neurodiversity as a natural difference.</p><p>Neurodivergents are individuals with a specific disruption of behavioral abilities that require specific social adjustments and support to thrive in society (Goldberg <span>2023</span>). For example, individuals with dyslexia demonstrate rapid learning capabilities when provided with the proper educational tools. Addressing these barriers requires systemic change, including the adoption of inclusive policies, tailored mentorship programs, designated safe spaces, and a cultural shift towards valuing diverse cognitive styles. The future of aquatic sciences depends on our ability to harness the power of every mind. Research institutions should prioritize strategies that facilitate the inclusion of neurodivergent individuals, leveraging their distinctive cognitive abilities to drive scientific advancements rather than implementing approaches that are incongruent with their inherent thought processes. Ultimately, we reclaim the <i>Right to be Different</i> (Goldberg <span>2023</span>).</p><p>Although we, the ASLO ECC, are not mental health professionals, through our activities, we are committed to promoting diversity in aquatic sciences, including the promotion of systematic change to enhance the future of the neurodivergent community. This commitment extends beyond mere acknowledgment, as the ASLO ECC actively works to implement systemic transformations that can positively impact the careers and experiences of ECRs in aquatic research. By addressing the unique challenges faced by underrepresented researchers and students, the ASLO ECC contributes to a broader movement towards inclusivity and diversity in scientific fields, ultimately enriching the discipline with a wider range of perspectives and talents.</p><p>Hence, the ASLO ECC launched a platform for peer support in 2023 through the webinar series “Voices for Well-Being in Aquatic Sciences” (<i>see</i> Bizic et al. <span>2023</span>; Gushulak et al. <span>2023</span>). The webinars aim to facilitate discussions regarding self-care and well-being within the aquatic science community, moderated by a qualified expert to provide an appropriate environment for open dialogue and community support. Mechanisms are implemented to enable the anonymous sharing of experiences. Finally, the ASLO ECC aims to recognize and address, through supportive strategies, the systemic factors that contribute to stigmatization and exacerbate personal distress in academia. We call for reforms in aquatic sciences. We urge the scientific community to appreciate diverse perspectives and competencies while acknowledging the significance of the holistic well-being of researchers by fostering an inclusive environment, positing that these differences can significantly contribute to innovation and advancement in the aquatic sciences.</p><p>On a final note, this paper reflects the journey and experiences of one of the authors regarding her late diagnosis of AuDHD (co-occurrence of autism and ADHD). While obtaining an official diagnosis is a personal decision, remaining undiagnosed does not inherently indicate well-being and may have detrimental effects on the individual and those around them. In particular, for neurodivergents with self-competing traits or those exposed to significant stress (i.e., in a doctoral program), obtaining an official diagnosis represents an initial step in a comprehensive process of self-assessment and self-care. Understanding your unique traits, acknowledging your need for accommodations, and establishing your boundaries will equip you with the means to treat yourself more compassionately.</p><p>If you have any comments based on this article, or if you would like to see specific topics addressed in the webinar series, contact us at <span>[email protected]</span>, or fill out this anonymous survey: https://forms.gle/D1af4FarZ569pbBbA.</p>","PeriodicalId":40008,"journal":{"name":"Limnology and Oceanography Bulletin","volume":"34 2","pages":"37-39"},"PeriodicalIF":0.0000,"publicationDate":"2025-04-25","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://onlinelibrary.wiley.com/doi/epdf/10.1002/lob.10705","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Limnology and Oceanography Bulletin","FirstCategoryId":"1085","ListUrlMain":"https://onlinelibrary.wiley.com/doi/10.1002/lob.10705","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0

Abstract

The Early Career Committee (ECC) of the Association for the Sciences of Limnology and Oceanography (ASLO) calls for amplified acknowledgment and embrace of neurodiverse individuals in aquatic sciences. We advocate for a transformative shift, urging the broader scientific community to recognize and embrace the unique approaches, abilities, and well-being of each researcher. Despite increased attention to demographic heterogeneity, neurodiversity remains an underexplored aspect of society, particularly in scientific disciplines. The neurodiversity paradigm reframes cognitive differences as assets rather than deficits, emphasizing the strengths, specialized skills, and high-performance potential of neurodivergent individuals in science (Jaarsma and Welin 2011; Lefevre-Levy et al. 2023). This approach aligns with the broader views of cognitive variances as essential components of human diversity, resilience, and social collaboration (Goldberg 2023), akin to the role of biodiversity in ecosystem functioning and resilience. This paper advocates for systemic reforms to enhance the careers and experiences in aquatic sciences, thereby enriching the discipline by incorporating a wider array of perspectives and talent.

Neurodivergent individuals, particularly those with autism spectrum disorder (ASD), often exhibit unique cognitive strengths beneficial for data-intensive research (Goldberg 2023; Sikimić 2023). Their keen attention to detail enables them to identify subtle patterns and anomalies, which is vital for analyzing complex datasets and detecting gradual changes (Wilson et al. 2023). Additionally, their meticulousness, sustained focus, and creative problem-solving boost reliability and innovative outcomes. In aquatic sciences, where interdisciplinary approaches are crucial, these attributes are highly significant but often overlooked. Estimates suggest that only 5% of Science, Technology, Engineering, and Mathematics (STEM) undergraduates and 0.9% of senior academics in the UK disclose their neurodivergent conditions (Wilson et al. 2023). In contrast, nearly 17% of the US workforce may be neurodivergent (Lefevre-Levy et al. 2023). In geosciences, preliminary calculations indicate that 2–3 of every 150 students may be autistic (Kingsbury et al. 2020). However, comparable data for aquatic sciences is lacking.

Neurodivergent underrepresentation is exacerbated by structural barriers. Traditional metrics of success in academia, such as publication rates, conference networking skills, and grant acquisition, are often shaped by neurotypical norms. Hence, these metrics may not capture the contributions of neurodivergent scientists, at least not without adequate support (Cosentino and Souviron-Priego 2021), such as written/recorded instructions, time flexibility, and an uninterrupted workflow. Stigma and a lack of specific accommodations at the institutional level aggravate the challenges faced by neurodivergent researchers, leading many to conceal their conditions. This issue is particularly acute among the neurodivergent community from the Global South and Early Career Researchers (ECRs), who are often held back from the diversity discourse due to feelings of disconnection or lack of representation (Cosentino and Souviron-Priego 2021; Sikimić 2023), largely because the discourse tends to prioritize larger or discernible minority groups over those with less visible conditions. Preconceptions and assumptions that neurodivergent researchers will not produce as many results or interact socially as expected further condense the number of opportunities available, increasing their reluctance to ask for help (Wilson et al. 2023).

Institutions must adopt wide-ranging practices that accommodate diverse cognitive styles. Accommodations refer to adjustments, such as communication methods, assisting devices, or learning methods, that enable neurodivergents to attain the same level of proficiency as their neurotypical counterparts (Fig. 1). The purpose of accommodations is not “special treatment”, but to ensure equitable opportunities for learning and success within the neurodiverse community. For instance, sensory-friendly environments are specifically designed spaces (or equipment) intended to accommodate sensitivities associated with autism, like workspaces with soft lighting, soundproofing, and calming color schemes. The use of sensory tools, such as weighted blankets, fidget gadgets, and bubble tube lamps, aids neurodivergent individuals in achieving greater comfort and balance in the workplace. Similarly, flexible work schedules and fieldwork roles can mitigate external stimuli and enhance productivity. Structured communication practices, including clear meeting plans and written feedback mechanisms, can facilitate effective collaboration and create a secure space for neurodivergent individuals to disclose their conditions (Goldberg 2023; Sikimić 2023; Wilson et al. 2023). Comprehensive evaluation criteria that recognize the varied contributions to science beyond traditional metrics can ensure the equitable assessment of neurodivergents. Educational programs on neurodiversity can further reduce bias and nurture a culture of respect, acknowledging, and supporting the diverse cognitive styles of researchers. Kingsbury et al. (2020) reflect that autistic students must be included in the planning of their accommodations to properly address their needs. This statement must be extended to all neurodivergent individuals in academia.

To inform both individual and institutional practices that foster the inclusion of neurodivergents in aquatic sciences, it is essential to identify the primary challenges faced by neurodivergent individuals within scientific fields. Neurodivergents' capacity to manage novel situations or sensory stimuli can be compromised due to their elevated baseline cognitive load (Kingsbury et al. 2020). For example, fieldwork, a cornerstone of aquatic sciences, poses exceptional difficulties for neurodivergent scientists owing to sensory sensitivities and unpredictable conditions. Establishing routines at sea/field and access to supportive accommodation, such as spaces for self-regulation and self-assessment, can alleviate anxiety and improve performance (Kingsbury et al. 2020; Gushulak et al. 2023; Wilson et al. 2023).

Similarly, variations in communication styles and information processing frequently lead to misunderstandings with neurotypical individuals. Most neurodivergents possess distinct nonverbal and verbal communication patterns/interactions that assimilate the principles of cross-cultural communication (Kingsbury et al. 2020). Effective cross-cultural communication proposes that individuals engaging with those from diverse cultural and cognitive backgrounds do so with an awareness of their differences, avoid making assumptions, maintain openness, and become active listeners. Neurodivergent individuals usually prioritize low-context (direct and clear) interactions; hence, literal thinking is commonly associated with the community. Repetitive questioning may be perceived by neurotypicals as argumentative; however, for neurodivergent individuals, dissecting the information received enables them to decode the message. Neurodivergents stress the need for essential information to ensure the accuracy of their interpretation and to establish mutual understanding; otherwise, they will be (mentally and physically) unable to proceed.

Neurodivergent individuals may experience difficulties interpreting nonverbal cues (Kingsbury et al. 2020; Sikimić 2023), wherein avoiding eye contact facilitates better processing of the received message, or physical movement aids in enhancing cognitive processing by mitigating external stimuli. The employment of self-regulatory mechanisms, such as stimming behaviors, manages sensory overload. Stimming refers to repetitive behaviors through one or multiple senses, such as repeating words, hand mannerisms, body movements, aligning objects by color or shape, and reproducing the same sounds or songs multiple times. These behaviors, including dissociation, fidgeting, vocalizations, and repetitive motions, are predominantly involuntary and frequently misunderstood, perceived as distracting, or upsetting by neurotypicals (Cosentino and Souviron-Priego 2021). For instance, fidgeting, hyperactivity, and humming are manifestations of the Attention-Deficit/Hyperactivity Disorder (ADHD) enabling individuals to expend energy, focus, and self-regulate (Kingsbury et al. 2020; Sikimić 2023). If their behavior proves disruptive to other group members, offering designated spaces will boost team performance, as opposed to compelling neurodivergents to suppress unintentional traits, thereby exposing them to emotional dysregulation and burnout (Cosentino and Souviron-Priego 2021).

However, suppressing these mechanisms, also known as masking, is extremely detrimental to the well-being and mental health of neurodivergent individuals, as it diverts cognitive resources toward self-control above all else. Polarization of the autistic community results in high-masking or low-masking, further minimizing the special needs of autistic persons. High-masking autistic individuals are better received by “neutralizing” their traits and “function” approaching societal expectations, while low-masking are singled out and greeted with stigmatization due to their condition (Jaarsma and Welin 2011; Sikimić 2023). This polarization within the autism spectrum, disregarding their conditions and needs, closely associates with the suppression of their traits to fit social functioning standards, which is detrimental to the mental health and well-being of autistic individuals.

Correspondingly, Early Career neurodivergent researchers are expected to master interdisciplinary scientific skills with limited funding, support, and nonexistent accommodations (Cosentino and Souviron-Priego 2021) while navigating social anxiety, burnout, communication disruption, and mental health issues. In stigmatizing environments, individuals often avoid support to cope with and escape negative perceptions (Lefevre-Levy et al. 2023; Wilson et al. 2023). Enhancing the overall work environment can be achieved by acknowledging neurodivergent needs, providing spaces for customized accommodations, and ensuring that all team members have access to wellness breaks throughout the workday. Repetitive motion activities, meditation, breathing exercises, knitting, crafting, or transitory aerobic workout sessions are beneficial neurodivergent self-regulation strategies that can also be advantageous for neurotypical individuals.

The inclusion of neurodivergent individuals in aquatic sciences is not merely a matter of equity, but a strategic imperative for scientific advancement. As we strive to protect and understand our planet's aquatic systems, we recognize that diversity in all its forms is our greatest asset. The exceptional skills of neurodivergent individuals are invaluable in data-intensive research (Goldberg 2023; Sikimić 2023). Neurological variations represent atypical human cognitive processes and communication patterns relative to the statistical majority, reflecting our societal and evolutionary adaptability (Jaarsma and Welin 2011; Goldberg 2023). Rather than categorizing neurodiversity as a disorder that requires treatment, we must assimilate neurodiversity as a natural difference.

Neurodivergents are individuals with a specific disruption of behavioral abilities that require specific social adjustments and support to thrive in society (Goldberg 2023). For example, individuals with dyslexia demonstrate rapid learning capabilities when provided with the proper educational tools. Addressing these barriers requires systemic change, including the adoption of inclusive policies, tailored mentorship programs, designated safe spaces, and a cultural shift towards valuing diverse cognitive styles. The future of aquatic sciences depends on our ability to harness the power of every mind. Research institutions should prioritize strategies that facilitate the inclusion of neurodivergent individuals, leveraging their distinctive cognitive abilities to drive scientific advancements rather than implementing approaches that are incongruent with their inherent thought processes. Ultimately, we reclaim the Right to be Different (Goldberg 2023).

Although we, the ASLO ECC, are not mental health professionals, through our activities, we are committed to promoting diversity in aquatic sciences, including the promotion of systematic change to enhance the future of the neurodivergent community. This commitment extends beyond mere acknowledgment, as the ASLO ECC actively works to implement systemic transformations that can positively impact the careers and experiences of ECRs in aquatic research. By addressing the unique challenges faced by underrepresented researchers and students, the ASLO ECC contributes to a broader movement towards inclusivity and diversity in scientific fields, ultimately enriching the discipline with a wider range of perspectives and talents.

Hence, the ASLO ECC launched a platform for peer support in 2023 through the webinar series “Voices for Well-Being in Aquatic Sciences” (see Bizic et al. 2023; Gushulak et al. 2023). The webinars aim to facilitate discussions regarding self-care and well-being within the aquatic science community, moderated by a qualified expert to provide an appropriate environment for open dialogue and community support. Mechanisms are implemented to enable the anonymous sharing of experiences. Finally, the ASLO ECC aims to recognize and address, through supportive strategies, the systemic factors that contribute to stigmatization and exacerbate personal distress in academia. We call for reforms in aquatic sciences. We urge the scientific community to appreciate diverse perspectives and competencies while acknowledging the significance of the holistic well-being of researchers by fostering an inclusive environment, positing that these differences can significantly contribute to innovation and advancement in the aquatic sciences.

On a final note, this paper reflects the journey and experiences of one of the authors regarding her late diagnosis of AuDHD (co-occurrence of autism and ADHD). While obtaining an official diagnosis is a personal decision, remaining undiagnosed does not inherently indicate well-being and may have detrimental effects on the individual and those around them. In particular, for neurodivergents with self-competing traits or those exposed to significant stress (i.e., in a doctoral program), obtaining an official diagnosis represents an initial step in a comprehensive process of self-assessment and self-care. Understanding your unique traits, acknowledging your need for accommodations, and establishing your boundaries will equip you with the means to treat yourself more compassionately.

If you have any comments based on this article, or if you would like to see specific topics addressed in the webinar series, contact us at [email protected], or fill out this anonymous survey: https://forms.gle/D1af4FarZ569pbBbA.

潜入多样性:利用神经发散性优势改造水生科学
湖沼学和海洋学科学协会(ASLO)的早期职业委员会(ECC)呼吁扩大对水生科学中神经多样性个体的认可和拥抱。我们提倡一种变革性的转变,敦促更广泛的科学界认识并接受每位研究人员独特的方法、能力和福祉。尽管越来越多的关注人口异质性,神经多样性仍然是一个未被充分探索的社会方面,特别是在科学学科。神经多样性范式将认知差异重新定义为资产而不是缺陷,强调科学领域神经分化个体的优势、专业技能和高性能潜力(Jaarsma and Welin 2011;Lefevre-Levy et al. 2023)。这一方法与认知差异是人类多样性、恢复力和社会协作的重要组成部分这一更广泛的观点相一致(Goldberg 2023),类似于生物多样性在生态系统功能和恢复力中的作用。本文主张进行系统性改革,以提高水生科学的职业和经验,从而通过纳入更广泛的观点和人才来丰富该学科。神经发散性个体,尤其是那些患有自闭症谱系障碍(ASD)的个体,往往表现出独特的认知优势,有利于数据密集型研究(Goldberg 2023;Sikimić2023)。他们对细节的敏锐关注使他们能够识别细微的模式和异常,这对于分析复杂的数据集和检测渐变至关重要(Wilson et al. 2023)。此外,他们的一丝不苟、持续专注和创造性地解决问题,提高了可靠性和创新成果。在跨学科方法至关重要的水生科学中,这些属性非常重要,但往往被忽视。据估计,在英国,只有5%的科学、技术、工程和数学(STEM)本科生和0.9%的高级学者披露了他们的神经分化状况(Wilson et al. 2023)。相比之下,近17%的美国劳动力可能是神经分化型(Lefevre-Levy et al. 2023)。在地球科学领域,初步计算表明,每150名学生中有2-3名可能患有自闭症(Kingsbury et al. 2020)。然而,缺乏水生科学的可比数据。结构障碍加剧了神经分化性的代表性不足。学术界成功的传统衡量标准,如发表率、会议网络技能和获得资助,往往是由神经典型规范塑造的。因此,这些指标可能无法捕捉神经分化科学家的贡献,至少没有足够的支持(Cosentino和Souviron-Priego 2021),例如书面/记录指令、时间灵活性和不间断的工作流程。在制度层面上,耻辱和缺乏具体的住宿加剧了神经分化研究人员面临的挑战,导致许多人隐瞒他们的病情。这个问题在来自全球南方和早期职业研究人员(ecr)的神经分化群体中尤为严重,他们经常因为脱节或缺乏代表性的感觉而被排除在多样性话语之外(Cosentino和Souviron-Priego 2021;sikimiki 2023),很大程度上是因为话语倾向于优先考虑较大或可识别的少数群体,而不是那些不太明显的少数群体。先入之见和假设神经分化研究人员不会产生如预期的那么多结果或社交互动,进一步减少了可用机会的数量,增加了他们不愿寻求帮助的意愿(Wilson et al. 2023)。机构必须采用广泛的实践,以适应不同的认知风格。适应指的是调整,如沟通方法、辅助设备或学习方法,使神经分化者达到与典型神经分化者相同的熟练程度(图1)。住宿的目的不是“特殊待遇”,而是确保在神经多样性社区中学习和成功的公平机会。例如,感官友好型环境是专门设计的空间(或设备),旨在适应与自闭症相关的敏感性,如柔和的照明、隔音和平静的配色方案的工作空间。使用感官工具,如加重毛毯、烦躁小工具和气泡管灯,有助于神经分化患者在工作场所获得更大的舒适和平衡。同样,灵活的工作时间表和现场工作角色可以减轻外部刺激并提高生产力。结构化的沟通实践,包括明确的会议计划和书面反馈机制,可以促进有效的合作,并为神经分化个体创造一个安全的空间来披露他们的状况(Goldberg 2023;Sikimić2023;Wilson et al. 2023)。 全面的评估标准,认识到对科学的各种贡献超越传统的指标,可以确保公平的评估神经分化。关于神经多样性的教育项目可以进一步减少偏见,培养一种尊重、承认和支持研究人员不同认知风格的文化。Kingsbury等人(2020)认为,必须将自闭症学生纳入他们的住宿规划中,以适当地满足他们的需求。这句话必须推广到学术界的所有神经分化个体。为了为个人和机构实践提供信息,促进将神经分化者纳入水生科学,有必要确定科学领域中神经分化者面临的主要挑战。神经分化者处理新情况或感官刺激的能力可能会因基线认知负荷升高而受到损害(Kingsbury et al. 2020)。例如,作为水生科学基石的实地考察,由于感觉敏感性和不可预测的条件,给神经分化科学家带来了特殊的困难。在海上/野外建立常规并获得支持性住宿,例如自我调节和自我评估的空间,可以缓解焦虑并提高表现(Kingsbury等人,2020;Gushulak et al. 2023;Wilson et al. 2023)。同样,沟通方式和信息处理的差异也经常导致与神经正常个体的误解。大多数神经分化者具有独特的非语言和语言交流模式/互动,这些模式/互动吸收了跨文化交流的原则(Kingsbury et al. 2020)。有效的跨文化交际要求个体在与来自不同文化和认知背景的人交往时要意识到他们之间的差异,避免假设,保持开放,成为积极的倾听者。神经发散型个体通常优先考虑低情境(直接和清晰)互动;因此,字面思维通常与社区联系在一起。重复的问题可能被神经典型的人认为是好争论的;然而,对于神经分化的个体,解剖接收到的信息使他们能够解码信息。神经分化者强调需要基本信息,以确保其解释的准确性,并建立相互理解;否则,他们将(精神上和身体上)无法继续下去。神经分化个体可能会在解释非语言线索方面遇到困难(Kingsbury et al. 2020;sikimiki 2023),其中避免眼神接触有助于更好地处理接收到的信息,或者身体运动有助于通过减轻外部刺激来增强认知处理。自我调节机制的运用,如刺激行为,可以管理感官超载。刺激是指通过一种或多种感官进行的重复行为,如重复词语、手势、身体动作、通过颜色或形状对齐物体、多次重复播放相同的声音或歌曲等。这些行为,包括分离、坐立不安、发声和重复动作,主要是无意识的,经常被误解,被神经典型者视为分散注意力或心烦意乱(Cosentino和Souviron-Priego 2021)。例如,坐立不安、多动和哼唱是注意力缺陷/多动障碍(ADHD)的表现,使个体能够消耗能量、集中注意力和自我调节(Kingsbury et al. 2020;Sikimić2023)。如果他们的行为被证明对其他团队成员具有破坏性,那么提供指定的空间将提高团队绩效,而不是强迫神经分化者抑制无意的特征,从而使他们面临情绪失调和倦怠(Cosentino和Souviron-Priego 2021)。然而,抑制这些机制,也被称为掩蔽,对神经分化个体的福祉和心理健康是极其有害的,因为它将认知资源转移到自我控制之上。自闭症群体的两极分化导致了高掩蔽或低掩蔽,进一步减少了自闭症患者的特殊需求。高掩蔽性自闭症患者通过“中和”他们的特征和“功能”来接近社会期望,从而得到更好的接受,而低掩蔽性自闭症患者则因为他们的病情而被单独挑选出来并受到污名化(Jaarsma和Welin 2011;Sikimić2023)。自闭症谱系内的这种两极分化,无视他们的条件和需求,与他们的特征被压抑以适应社会功能标准密切相关,这对自闭症个体的心理健康和福祉是有害的。 相应地,早期职业神经发散研究人员需要在有限的资金、支持和不存在的住宿条件下掌握跨学科的科学技能(Cosentino和Souviron-Priego 2021),同时应对社交焦虑、倦怠、沟通中断和心理健康问题。在污名化的环境中,个体往往会避免支持以应对和逃避负面认知(Lefevre-Levy et al. 2023;Wilson et al. 2023)。提高整体工作环境可以通过承认神经分化的需求,提供定制的住宿空间,并确保所有团队成员在整个工作日都有健康休息的机会来实现。重复性运动、冥想、呼吸练习、编织、手工或短暂的有氧运动都是有益的神经发散性自我调节策略,对神经典型个体也有好处。将神经分化个体纳入水生科学不仅是公平问题,而且是科学进步的战略要求。在我们努力保护和了解地球水生系统的同时,我们认识到,各种形式的多样性是我们最大的财富。神经分化个体的特殊技能在数据密集型研究中是无价的(Goldberg 2023;Sikimić2023)。相对于统计上的大多数,神经变异代表了非典型的人类认知过程和交流模式,反映了我们的社会和进化适应性(Jaarsma和Welin 2011;戈德堡2023)。与其将神经多样性归类为一种需要治疗的疾病,我们必须将神经多样性作为一种自然差异来吸收。神经分化者是具有特定行为能力的个体,需要特定的社会调整和支持才能在社会中茁壮成长(Goldberg 2023)。例如,有阅读障碍的人在提供适当的教育工具时表现出快速学习的能力。解决这些障碍需要系统性的变革,包括采用包容性政策、量身定制的指导项目、指定的安全空间,以及重视不同认知风格的文化转变。水生科学的未来取决于我们驾驭每个人的能力。研究机构应该优先考虑那些有助于纳入神经分化个体的策略,利用他们独特的认知能力来推动科学进步,而不是实施与他们固有思维过程不一致的方法。最终,我们收回与众不同的权利(Goldberg 2023)。虽然我们,ASLO ECC,不是心理健康专业人员,但通过我们的活动,我们致力于促进水生科学的多样性,包括促进系统变革,以加强神经分化社区的未来。这一承诺不仅仅是承认,因为ASLO ECC积极致力于实施系统性变革,这将对水生研究中ecr的职业和经验产生积极影响。通过解决代表性不足的研究人员和学生所面临的独特挑战,ASLO ECC为科学领域的包容性和多样性做出了更广泛的贡献,最终为学科提供了更广泛的观点和人才。因此,ASLO ECC于2023年通过网络研讨会系列“水生科学福祉之声”(见Bizic et al. 2023;Gushulak et al. 2023)。网络研讨会旨在促进水生科学界关于自我保健和福祉的讨论,由合格的专家主持,为公开对话和社区支持提供适当的环境。实现了匿名分享经验的机制。最后,ASLO ECC旨在通过支持性策略,识别和解决导致学术界污名化和加剧个人痛苦的系统性因素。我们呼吁对水产科学进行改革。我们敦促科学界欣赏不同的观点和能力,同时承认通过培养包容性环境来提高研究人员整体福祉的重要性,并假设这些差异可以显著促进水生科学的创新和进步。最后,这篇文章反映了一位作者关于她晚期诊断为ADHD(自闭症和ADHD的共同发病)的旅程和经历。虽然获得正式诊断是个人的决定,但未得到诊断并不一定意味着健康,而且可能对个人及其周围的人产生有害影响。特别是,对于那些具有自我竞争特征的神经分化者或那些暴露于重大压力下的人(例如: (在博士课程中),获得正式诊断代表了全面自我评估和自我护理过程的第一步。了解自己的特点,承认自己需要适应,并建立自己的界限,这会让你更有同情心地对待自己。如果您对本文有任何评论,或者如果您想看到网络研讨会系列中的特定主题,请通过[email protected]与我们联系,或填写此匿名调查:https://forms.gle/D1af4FarZ569pbBbA。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Limnology and Oceanography Bulletin
Limnology and Oceanography Bulletin Environmental Science-Water Science and Technology
CiteScore
1.50
自引率
0.00%
发文量
60
期刊介绍: All past issues of the Limnology and Oceanography Bulletin are available online, including its predecessors Communications to Members and the ASLO Bulletin. Access to the current and previous volume is restricted to members and institutions with a subscription to the ASLO journals. All other issues are freely accessible without a subscription. As part of ASLO’s mission to disseminate and communicate knowledge in the aquatic sciences.
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