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Basic principles for the development of an AI-based tool for assistive technology decision making

Authors:
  • David Banes Access and Inclusion Services
  • Institute for Matching Person and Technology

Abstract

Introduction The impact of assistive technology use on the lives of people with disabilities has long been demonstrated in the literature. Despite the need for assistive technologies, and a wealth of innovative, afford-able, and accessible products, a low rate of assistive technology uptake is globally maintained. One of the reasons for this gap is related to data and knowledge formation and management. Low access to information and a lack of assessment services is evident. Fragmentation of data, inconsistency in assessment methodology and heterogeneity in the competence of assistive technology professionals, has led to a growing interest in the opportunities that data sciences, including AI, hold for the future of the assistive technology sector, as a supportive and constructive mechanism in any decision-making process. Objectives In this short paper, we seek to describe some of the principles that such an AI-based recommendation system should be built upon, using the Atvisor platform as a case study. Atvisor.ai is an AI-based digital platform that supports assistive technology assessments and the decision-making process. Recommendations Our recommendations represent the aggregated insights from two pilots held in Israel, testing the platform in multiple environments and with different stakeholders. These recommendations include ensuring the continuum of care and providing a full user journey, incorporating shared decision making and self-assessment features, providing data personalisation and a holistic approach, building a market network infrastructure and designing the tool within a wider service delivery model design. Assessment and decision-making processes, crucial to optimal uptake, cab be leveraged by technology to become more accessible and personalised. • IMPLICATIONS FOR REHABILITATION • Provides principles for the development of an AI-based recommendation system for assistive technology decision making. • Promotes the use of artificial intelligence to support users and professionals in the assistive technology decision making process. • Personalization of data regarding assistive technology, according to functional, holistic and client centered profiles of users, ensures optimal match and better use of assistive technology. • Self-assessment and professional assessment components are important for enabling multiple access points to the assistive technology decision making process, based on the preferences and needs of users.
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Disability and Rehabilitation: Assistive Technology
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Basic principles for the development of an AI-
based tool for assistive technology decision
making
Moran Ran , David Banes & Marcia J. Scherer
To cite this article: Moran Ran , David Banes & Marcia J. Scherer (2020): Basic principles for
the development of an AI-based tool for assistive technology decision making, Disability and
Rehabilitation: Assistive Technology, DOI: 10.1080/17483107.2020.1817163
To link to this article: https://doi.org/10.1080/17483107.2020.1817163
Published online: 04 Dec 2020.
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CASE REPORT
Basic principles for the development of an AI-based tool for assistive technology
decision making
Moran Ran
a
, David Banes
b
and Marcia J. Scherer
c
a
Atvisor.ai, Ramat Hasharon, Israel;
b
David Banes Access and Inclusion Services, United Kingdom;
c
Institute for Matching Person & Technology,
Inc, Webster, NY, USA
ABSTRACT
Introduction: The impact of assistive technology use on the lives of people with disabilities has long
been demonstrated in the literature. Despite the need for assistive technologies, and a wealth of innova-
tive, afford-able, and accessible products, a low rate of assistive technology uptake is globally maintained.
One of the reasons for this gap is related to data and knowledge formation and management. Low
access to information and a lack of assessment services is evident. Fragmentation of data, inconsistency
in assessment methodology and heterogeneity in the competence of assistive technology professionals,
has led to a growing interest in the opportunities that data sciences, including AI, hold for the future of
the assistive technology sector, as a supportive and constructive mechanism in any decision-mak-
ing process.
Objectives: In this short paper, we seek to describe some of the principles that such an AI-based recom-
mendation system should be built upon, using the Atvisor platform as a case study. Atvisor.ai is an AI-
based digital platform that supports assistive technology assessments and the decision-making process.
Recommendations: Our recommendations represent the aggregated insights from two pilots held in
Israel, testing the platform in multiple environments and with different stakeholders. These recommenda-
tions include ensuring the continuum of care and providing a full user journey, incorporating shared deci-
sion making and self-assessment features, providing data personalisation and a holistic approach,
building a market network infrastructure and designing the tool within a wider service delivery model
design. Assessment and decision-making processes, crucial to optimal uptake, cab be leveraged by tech-
nology to become more accessible and personalised.
äIMPLICATIONS FOR REHABILITATION
Provides principles for the development of an AI-based recommendation system for assistive technol-
ogy decision making.
Promotes the use of artificial intelligence to support users and professionals in the assistive technol-
ogy decision making process.
Personalization of data regarding assistive technology, according to functional, holistic and client cen-
tered profiles of users, ensures optimal match and better use of assistive technology.
Self-assessment and professional assessment components are important for enabling multiple access
points to the assistive technology decision making process, based on the preferences and needs
of users.
ARTICLE HISTORY
Received 31 May 2020
Accepted 27 August 2020
KEYWORDS
Assistive technology;
artificial intelligence;
assistive technology
decision making;
recommendation system;
market network
The potential outcomes of assistive technology use and the
impact it can have on the lives of people with disabilities have
long been discussed and demonstrated in the literature (for
recent examples see Refs. [16]). The COVID-19 pandemic and the
introduction of social distancing and quarantine, led to at-risk
populations, including those with disabilities, to be tied to their
homes and has brought an added urgency to the planning and
provision of assistive technologies. Direct and personal services
must maintain a safe and independent distance, despite a grow-
ing need to find and distribute assistive technologies that func-
tion as effective support.
In a 2019 global consultation, Chapal Khasnabis, the head of
the Global Cooperation for Assistive Technology (GATE) of the
WHO, stated that assistive technology is currently characterised
by a need, but there is no demand[7]. Indeed, despite an
evident need for assistive technologies from the users perspec-
tive, and a wealth of innovative, affordable and accessible prod-
ucts in an open market of possibilities and mainstream solutions,
this has not translated into common rules of provision, supply
and demand [8]. As a result, the low rate (515%) of assistive
technology uptake is globally maintained [9].
One of the reasons for this gap is related to data and know-
ledge formation and management. Low access to independent
information and a lack of assessment services for assistive tech-
nology is evident. Assistive technology, unlike many commodities
or products, requires judgement in identifying appropriate solu-
tions and further customisation and support in training and
usage. This is dependent on the goals and needs of the person
seeking a solution and the complexity of the solution itself.
Comprehensive work in the field of matching person to
CONTACT Moran Ran moran@atvisor.ai Atvisor.ai, Ramat Hasharon, Israel
ß2020 Informa UK Limited, trading as Taylor & Francis Group
DISABILITY AND REHABILITATION: ASSISTIVE TECHNOLOGY
https://doi.org/10.1080/17483107.2020.1817163
technology [1012] has shown that many elements must be con-
sidered in choosing an assistive technology solution. Assistive
technology professionals, often responsible for facilitating such a
decision-making process together with their clients, may also
struggle with the complexities described (for example Arthanat
et al. [13]).
Fragmentation of knowledge and information, inconsistency in
assessment methodology and heterogeneity in the competence
of assistive technology professionals, has led to a growing interest
in the opportunities that data sciences, including AI, hold for the
future of the assistive technology sector, as a supportive and con-
structive mechanism in any decision-making process [14].
In this short paper, we seek to specify and describe some of
the principles that such an AI-based recommendation system
should be built upon, using the Atvisor platform as a case study
and an example.
Atvisor.ai is an AI-based digital platform that supports assist-
ive technology assessments and the decision-making process.
Used by assistive technology professionals and users, it serves as
a CDSS (clinical decision support system), to help in structuring
the decision-making process, providing relevant ideas for assistive
technology solutions and enables purchasing of the selected
product online. Usage begins with a simple search in the assistive
technology catalogue and may proceed to a more personalised
profile-based search (Figure 1).
The end-user, supported by the assessor, defines his/her
unique profile in keeping with the ICF as a bio-psycho-social
analysis. Following the creation of a personal profile, the user
can then choose the personal goals that are central to him/her
and for which activities assistive technology is required. For
each goal, the platform creates a personal report, containing
recommendations across different assistive technology catego-
ries and subcategories, that are relevant to the profile and the
activity mentioned.
The end-user can review the report, together with the assessor
and independently, consult with family and friends and select the
product he/she would like to buy or have provided. Online
purchasing can be integrated within the platform, alongside infor-
mation about local shops, suppliers and lending programs.
Relevant products can be shared, reviewed or marked as favour-
ites for continuous use, while information from searches, recom-
mendations, purchases and online correspondence is stored both
in the personal archive of the end-user and that of the assessor.
This enables follow up and long-term support, as well as re-initi-
ation of further personalised assistive technology searches for any
additional goals.
On the technological level, Atvisor had developed a new way
of analysing assistive technology products, based on client needs.
The possibility to manage an online matching between the user
and the technology, is enabled through a personal matching
component that contains
an infrastructure of rules sets emulating the thinking process
of a senior professional in the assistive technology field, sup-
porting it and expanding it
a matching algorithm that connectbetween the profile of
the person and the right assistive technology solutions
a functional assessment tool enabling the definition of a per-
sonal profile
The following recommendations represent the aggregated
insights from two pilots held in Israel, testing the platform in mul-
tiple environments and with different stakeholders
1
:
1. Ensure the continuum of care and provide a full user journey
In the assistive technology process, there are many entry
and exitpoints, where the assistive technology user can
deal with questions and concerns, which if not addressed,
may lead to product abandonment. Following the iterative
and repeated cycles of product testing and user feedback, by
assistive technology professionals and users engaged in, the
following stages have been identified:
Discovery (general exploration of possibilities, some-
times with no specific goals declared, and to open up
the possibility of using assistive technology),
Saas - digital
assesment plaorm
Marketplace referral
based
AT Catalogue – local
and internaonal
Selecon
Discovery
Provision and delivery
People with disabilies
Professionals
People with disabilies
Professionals
People with disabilies
Professionals
AT Suppliers
Atvisor – AI based market network for the AT industry
Figure 1. A suggested Market Network model for the Atvisor platform including three platform components database (catalogue), digital assessment platform
(SaaS) and a marketplace, as well as presenting three stakeholders communities using the platform assistive technology users, professionals and suppliers.
2 M. RAN ET AL.
Identification (focusing or zooming inon assistive
technology categories and subcategories that might be
of relevance to the current search),
Selection (interest that is shown regarding specific or
types of assistive technology products. This may entail
loaning and trial possibilities before reaching the
final decision),
Provision of products from an assistive technol-
ogy seller,
Delivery of the purchased product and beginning
of use.
With the understanding of the value that systems and processes
give to users if support is present throughout [15], three distinct
yet interconnected modules in the Atvisor platform have been
developed the discovery module, the assessment module and the
provision and follow up support module. By moving forward from
module to module across the platform, the assistive technology
user and professionals can be digitally supported throughout the
identification of needs, the selection of products, the provision of
the desired solution and its optimal use.
As the platform offers many potential solutions to each goal or
challenge presented, the professional can maintain involvement
until completion, without creating an unintentionally biased or
limited recommendation for a specific product.
2. Incorporation of shared decision making and self-assessment
features
Current effective practice assumes that the assistive technol-
ogy user will be involved in the decision-making process and
that a user-centred service, will eventually lead to better
technology uptake by the person [16,17]. Nevertheless, as
learned from pilot results, assistive technology professionals
and users might conceive shared decision-making processes
quite differently. This discrepancy is significant and influen-
tial. The understanding of its mechanisms is recommended
as a matter for further and future research. It appears that
the use of a digital tool that accompanies stakeholders as a
step by step experience can be an effective way to construe
and unify such variance. Based on that understanding, the
next step is a move towards self-assessment, for situations
and products where professional involvement is less critical.
In Atvisor the Self-assessment feature provides a better
opportunity for self-determination and expression of needs
and goals by assistive technology users. It demonstrates in
practice, the move towards participative and affirmative mod-
els of disability while easing pressure on professionalscase-
load and releasing resources for cases where their
involvement most essential.
3. Personalisation
An optimal match between the needs and characteristics of
those with a disability and the most appropriate assistive
technology requires a depth of professional knowledge and a
comprehensive understanding of existing solutions in the
market. Studies show that high levels of product abandon-
ment are due to several factors related to the quality of solu-
tion matching [1820]. Providing personalised
recommendations that accurately support the counselling
process must be a procedure that takes into consideration
the complex and rich, unique profile of every user, personal-
ity, abilities and needs, preferences, environment, tasks and
goals. By using an AI-based matching algorithm, that calcu-
lates the matrix of every personal profile, the platform identi-
fies and recommends the most suitable assistive technology
solutions for the personsgoals and needs. Thus, from the
wide range of tens of thousands of products available on the
database, only the specific and most relevant products will
appear in any search. The range of products that appear in
the recommendations reflects the platforms fundamental
principles to open the market and to ensure comparisons of
products from an empowered consumersposition.
4. Holistic approach
When a person with disabilities or an older person seeks to
drink, eat or communicate independently, and has a personal
profile that expresses multiple challenges, capabilities and
preferences, specific recommendations for cups and mugs,
plates or mobile phones, will not be enough, even if they are
a good fit themselves. Many potential challenges might be
encountered, and so the types of assistive technology solu-
tions that should be offered must represent a wide variety of
commercial categories and product segments. An AI-based
matching algorithm can provide this due to the computing
capacity and ability to perform complex needs integration
and interaction. Furthermore, this interaction between limita-
tions and needs, can result in additional recommendations of
assistive technologies and serve as an even more advanced
part of the discovery, education and awareness of both
assistive technology professionals and users.
5. The design of a digital tool should be a part of a wider ser-
vice delivery model design
During product development Atvisor has encountered many
questions regarding the service delivery model, from assess-
ment to provision, that unless addressed, would serve as a
barrier to the adoption of the platform. Creating high-level
collaborations with governmental offices relevant to policy
and regulation, while working with stakeholders on the
ground to learn about their needs and the unique value
propositions that are relevant to each has established the
basis for the development of a unique service combining
human resources and experience, together with digital tools.
This development can eventually support the need for stand-
ardisation and scale in services, in line with global policy rec-
ommendations and systems thinking approach implemented
in the field of assistive technology today [21,22].
6. The importance of building an online network infrastructure
The Atvisor platform offers an ongoing and dynamic inter-
action between assistive technology users, professionals and
suppliers. For example, a user can reach out to their nomi-
nated professional online with questions or requests, and if
necessary, can seek a professional from within the platform.
The professional can share recommendations with the user
and discuss them online, and the supplier can be approached
for a purchase or a request regarding services. This network
of interactions is highly relevant to the availability of assess-
ment services in a period of increasing demand, to the dis-
covery of assistive technology solutions and to the evolution
of a new, much-needed awareness and proactive mindset
that translates itself eventually to demand.
Even before the global pandemic, we recognised that the scale
of unmet need for assistive technologies demanded innovation
and change. Demographics and the aspirations of people with a
disability, within a rights-based approach, meant that the trad-
itional model of delivery could not fulfil demand. The impact of
the pandemic has brought into sharp relief the issue that limited
professional resources, including time, has delayed access to prod-
ucts and services leading to frustration and discrimination for
people with a disability. The approach outlined and implemented
BASIC PRINCIPLES FOR THE DEVELOPMENT OF AN AI-BASED TOOL FOR ASSISTIVE TECHNOLOGY DECISION MAKING 3
addresses those demands and offers an alternative approach
based upon telerehabilitation with artificial intelligence.
Potential access to assistive technologies for the benefit of
people with disabilities and older people could not look more
promising, the diversity of products from social robots to smart
homes to autonomous vehicles offers a world of options at our
fingertips. These can help address many barriers. Our task now
would be to ensure that assessment and decision-making equally
respond to the possibilities, and that those who serve as gate-
keepers to knowledge will have the proper keyto make it
accessible and personalised.
Today, where remote services become the principal channel
for communication, this has never been more urgent.
Note
1. Pilots results and insight will be shared in upcoming articles.
Disclosure statement
No potential conflict of interest was reported by the author(s).
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4 M. RAN ET AL.
... Assistive technology use can enable academic engagement and social participation and be transformative from a psychological perspective (McNicholl and Casey, 2021). Despite the need for assistive technologies, and a wealth of innovative, afford-able, and accessible products, a low rate of assistive technology uptake is globally maintained (Ran et al., 2022). ...
... Despite the role of the system's performance on user acceptance, the usage of more sensors and complex AI-based approaches may also affect the user's acceptance [19], especially in elderly populations [20,21]. Within the context of health and caregiving, the lack of acceptance becomes particularly acute because users may be highly dependent on the AI's performance [5,22]. ...
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The area of assistive technology has a long history of technological ingenuity and innovation. In order to ensure that the benefits of assistive technology are equitably distributed across the population and life course, it is necessary to adopt a systemic approach to the area. We describe examples of systems thinking and non-systems thinking across 10 Ps. These Ps are People (or users, as the primary beneficiaries of assistive technology), Policy, Products, Personnel, Provision (as key strategic drivers at systems level); and Procurement, Place, Pace, Promotion and Partnership (as key situational factors for systems). Together these Ps should constitute a framework for an “open” system that can evolve and adapt, that empowers users, inter-connects key components and locates these in the reality of differing contexts. The adoption of a stronger systems thinking perspective within the assistive technology field should allow for more equitable, more resilient and more sustainable assistive technology across high, middle- and low-income contexts and countries. • Implications for Rehabilitation • The progress of assistive technology provison has been hampered by disconnected initiatives and activities and this needs to be corrected. • Systems thinking is a way of thinking about the connections between things and how these are influenced by contextual and other factors. • By encouraging the providers and users of assitive technology to think more systemically we can provide a more cohesive and resilient systems. • The user experience is the central component of systems thinking in assistive technologies.
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Purpose: This is a position paper describing the elements of an international framework for assistive technology provision that could guide the development of policies, systems and service delivery procedures across the world. It describes general requirements, quality criteria and possible approaches that may help to enhance the accessibility of affordable and high quality assistive technology solutions. Materials and methods: The paper is based on the experience of the authors, an analysis of the existing literature and the inputs from many colleagues in the field of assistive technology provision. It includes the results of discussions of an earlier version of the paper during an international conference on the topic in August 2017. Results and conclusion: The paper ends with the recommendation to develop an international standard for assistive technology provision. Such a standard can have a major impact on the accessibility of AT for people with disabilities. The paper outlines some the key elements to be included in a standard. • Implications for Rehabilitation • Assistive technology is a key element in rehabilitation, but many people have no access to affordable AT solutions. The recommendations in the paper aim to inform policies, systems and service delivery procedures on how to improve access to AT across the world.
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The purpose of this study is to systematically review published evidence regarding the development, use and effectiveness of assistive devices and technologies that enable internet access for individuals who are deafblind. Eight electronic research databases (CINAHL, Embase, Engineering Village MEDLINE, PsycINFO, PubMed, Cochrane Library, and Web of Science) and three clinical trials registries (ISRCTN Registry, WHO ICTRP, and ClinicalTrials,gov) were searched. Seven articles met the inclusion criteria for this systematic review. The assistive technologies described were in the preliminary stages of development, with only three of the technologies having undergone any testing. The effectiveness of all seven assistive technologies was quantified in this review based on the proposed impacts of internet access on the domains of the World Health Organization’s International Classification of Functioning, Disability and Health framework. Internet access technologies for individuals with deafblindness are in the early stages of development and are targeted towards specific functions of the internet. It is imperative that future device development and evaluation seek input from persons who are deafblind. There is also a need to address the gap between academic research which seeks to develop assistive technology to access the internet and the translation into real world use of this technology.
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This commentary explores the issues raised in the original article and seeks to suggest how the systems and processes that the professionals utilize shape the challenges and issues they face. Furthermore, it asks the question as to the extent to which self-determination in the selection of many forms of assistive technology would address and resolve the barriers identified. • IMPLICATIONS FOR REHABILITATION • The implications of the study and experiences of the professionals are highly relevant for the planning of future rehabilitation services. With increasing global demand for service, and an associated understanding that the client carries significant knowledge and experience it could be suggested that the underlying client/provider relationship is changing and will continue to change. • There is potential for a shift from community-based rehabilitation services, to community led rehabilitation services, where the self-determination of solutions to need is led by the individual, with curated input from the professional, mediated through machine learning and artificial intelligence. Such a model of delivery could effectively support many of those with a disability, where the client has extensive experience, allowing the professional to spend increased resources on those who lack the experience to engage confidently in decision making. • The recognition and validation of the knowledge held by clients, against which options can be mapped could ensure extended reach and reduce the cost and efficiency of future services.
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