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Archives of Rehabilitation Research and Clinical Translation logoLink to Archives of Rehabilitation Research and Clinical Translation
. 2019 Nov 15;2(1):100018. doi: 10.1016/j.arrct.2019.100018

Winter Mobility and Community Participation Among People Who Use Mobility Devices: A Scoping Review

Jacquie Ripat a,, Kathryn M Sibley b,c, Ed Giesbrecht a, Brittany Curtis a, Alexie Touchette b, Jaimie Borisoff d,e, Karen Ethans f, Yue Li g, Ernesto Morales h
PMCID: PMC7853381  PMID: 33543060

Abstract

Objective

To identify the knowledge, products, and strategies for individuals with mobility-related disabilities used to address challenging winter conditions.

Data Sources

AgeLine, OVID, Scopus, and CIHAHL were searched for studies that met the inclusion criteria, from inception to April 2018. Sources for gray literature, or information outside commercial publishing, included ProQUEST, government websites, and manufacturers, vendors, and consumer organization websites.

Source Selection

Population of people with limited or reduced mobility or mobility device users involved in winter-related environmental conditions; aim was to increase activity, participation, or safety.

Data Extraction

Two reviewers independently applied the inclusion criteria to select eligible sources. Two reviewers independently extracted the data from each source.

Data Synthesis

Twenty-three published peer-reviewed papers were located. Study populations were predominantly those who used wheelchairs (mixed wheelchair type, n=7; power, n=4; manual, n=2), canes (n=3), or specialized winter footwear (n=2). The primary focus of these papers was determined to be tool or device (n=10), recommendations (n=9), strategy (n=2), or resource (n=2). Civic policy documents were variable in citizen responsibility for snow clearing. Limited winter-related supports were identified on consumer organization websites. Although some winter-specific products exist, very few studies have examined the effectiveness of any of these products.

Conclusions

Despite the common experience of challenging winter conditions, a paucity of winter-specific research and innovation relevant for individuals who use mobility devices exists. Researchers, consumers, and industry need to partner to develop novel tools, strategies, resources, and evidence-based recommendations.

Keywords: Cold climate, Community participation, Rehabilitation, Self-help devices, Wheelchairs

List of abbreviations: ICF, International Classification of Functioning, Disability and Health


In many parts of the world, winter is characterized by below-freezing temperatures, high accumulations of snow and ice, and strong winds. These conditions can create challenges to community participation (eg, access to community spaces, engagement in community-based activities, and involvement in social relations)1 for all citizens living in these regions. For people who report a mobility-related disability, many of whom use a mobility device such as a cane, walker, or wheelchair, these challenges may be magnified: mobility device wheels may become stuck or fail to gain traction on snow or ice2, 3; ice- or snow-covered outdoor ramps, sidewalks, and roads may make mobility difficult or unsafe2, 3, 4, 5, 6; individuals may experience thermal hand injuries (ie, frostbite) from having to push or steer mobility devices; and diminished battery capacity of powered devices in cold temperatures may restrict range of mobility.6 These factors often limit community participation among people with mobility-related disabilities during winter months.1, 3, 4, 5, 6, 7 In a survey of 99 wheelchair users in Manitoba, Canada, where the average winter temperature is below 0°C and average snowfall is 113.7 cm,8 44% identified going outdoors only 1-2 times per week or less in the winter months, compared to 7% who reported the same frequency in the summer months.3 Another study reported increased feelings of loneliness resulting from reduced outdoor mobility in winter.9 Work by the current authors reinforced this evidence and pointed to additional issues related to policy gaps (eg, snow clearance, transportation options).7

In light of the many winter-related challenges among mobility device users and the detrimental effect of limited community participation on health and well-being, there is a need to identify strategies that address these issues.1, 3, 9 The aim of this study was to conduct a scoping review of the literature to identify existing knowledge as well as information available about products and strategies for people who use mobility devices in the winter. The findings from this review will contribute to development of a web-based Winter Toolkit of accessibility solutions (knowledge, products, resources) for individuals who use mobility devices, as well as other stakeholders including clinicians, representatives of organizations that support individuals with disabilities, and researchers interested in this area.

Methods

Because of the exploratory nature of the present study, a scoping review was conducted. Scoping reviews are a rigorous method of knowledge synthesis that serve to “map evidence on a topic and identify main concepts, theories, sources, and knowledge gaps.”10(p467) Anticipating a dearth of research on this topic, we identified gray literature as an additional source of important information. Gray literature refers to material delivered outside of traditional or commercial publishing sources (ie, self-published) and may not be peer reviewed.11 We were particularly interested in user-generated web content such as online forums, non-peer-reviewed sources, conference proceedings, dissertations and theses, and government documents.

We used the scoping review framework described by Arksey and O’Malley12 and expanded on by others.13 Each of the 5 steps and their associated actions are outlined below.

1. Identify the research question: Our multidisciplinary team, consisting of researchers with backgrounds in occupational therapy, knowledge translation, rehabilitation engineering, architecture, and physiatry engaged in a series of discussions to develop the guiding research question for this study: What are the tools, strategies, resources, and recommendations that have been shown to facilitate winter community participation for people who use mobility devices?

2. Identifying relevant studies and content: Searches of both peer-reviewed and gray literature were conducted. Peer-reviewed literature databases searched were AgeLine, MEDLINE, Scopus, and CIHAHL. In consultation with a health sciences bibliographer, a search strategy was developed for each database, using conventions unique to each database (appendix 1 for sample search strategy). We reviewed all study designs, including both quantitative and qualitative data, published from inception to April 2018. Reference lists of selected papers were also reviewed to identify potential sources. References were uploaded and managed using EndNote Online.

A comprehensive gray literature search was also conducted. An initial list was generated based on the research teams’ experience and knowledge. Sources included thesis and dissertations, conference proceedings, Government of Canada publications, provincial health documents, civic policy documents related to snow-clearing policy and accessible public transportation from 18 Canadian cities (13 provincial capitals and 5 additional larger urban centers), organizations known to provide supports or services to mobility device users, assistive devices vendor or manufacturer websites, and google search for winter-relevant assistive devices. The list was circulated several times among team members for review, seeking additions and suggestions. Search terms specific to each source were generated through consultation with a health science bibliographer and search information provided on individual sites. The gray literature sources searched, search strategy, review, and extraction process relevant to each source type is shown in appendix 2.

3. Selecting content: For peer-reviewed literature, 3 rounds of review were conducted (title screen, abstract screen, full-text screen) with inclusion criteria outlined for each round (fig 1).

Fig 1.

Fig 1

Selection process for peer-reviewed literature.

Studies were excluded if they did not address people with limited mobility or use of mobility aids; the study participant was a caregiver; research centered on biomechanical characteristics of slips and falls without recommendations for prevention; research focused on winter health risks unrelated to mobility; gaps in fall prevention literature were highlighted, but not directly addressed; areas for relevant research were suggested, but not explored; the research focused solely on the mechanics of equipment without consideration of use; the focus was on adaptive winter sports for professional athletes; or the focus was on indoor fall prevention.

Two authors (A.T. and B.C.) independently applied the inclusion criteria at each round. If there was a lack of agreement in the title and abstract screen, we erred on the side of inclusion and carried the study forward into the subsequent round. The first author (J.R.) addressed any lack of agreement between reviewers in the final round. Gray literature was retrieved by A.T. or B.C. via the search strategy outlined for each source; the first author confirmed inclusion based on the study aim.

4. Charting data: For each source the author, title, year published, country of origin, study aim, study design, study population, and outcomes or recommendations were charted in an Excel spreadsheet. A process for ensuring consistency of data extraction was enacted, with 1 research assistant extracting all data and a second research assistant extracting data from a subsample (n=5) of the selected articles. The extractions were compared and confirmed by the first author and extraction processes clarified as needed.

5. Collating, summarizing, and reporting results: Three authors (J.R., K.M.S., E.G.) were engaged in a process of collating and summarizing the results. To ensure consistency of data extraction, 2 team members independently extracted the data from each source and results were compared. In situations where there was a lack of agreement, the article was sent to the third team member for independent review and a final determination made by the first author. Each article was coded on 3 constructs. First, each source was categorized as primarily focused on a tool (device or technology), strategy (use of a device, or teaching people a method), resource (information gathering or sharing), or recommendation (suggestion for improving winter mobility and/or participation). Second, the primary domain of interest in each source was identified as body functions andstructures, activites, participation, or environmental factors as outlined in the International Classification of Functioning, Disability and Health.14 Finally, if the domain was deemed to be an environmental factor, this was further subcategorized as addressing 1 of the 5 types of environmental factors as outlined in the ICF: “products and technology; natural environment and human made changes to the environment; support and relations; attitudes; or services, systems, and policies.15(p591) After all charting, collating, and summarizing activities were complete, the research team engaged in several in-person and online dialogues, looking for patterns and themes within the charted data.

Results

The Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) diagram depicting the peer-reviewed article selection process is shown in figure 2. The initial search resulted in 1403 articles (AgeLine, n=76; CINAHL, n=156; MEDLINE, n=922; Scopus, n=249). After deleting duplicates, 1180 potentially eligible articles remained. After round 1 exclusions, 109 articles remained; round 2 exclusions reduced this number to 40; and after round 3 exclusions, 23 papers were included in the review. Table 1 lists the peer-reviewed studies included.

Fig 2.

Fig 2

Diagram of study selection.

Table 1.

Table of included peer-reviewed studies

Author Article Title Tool, Strategy, Resource, or Recommendation Primary ICF Domain Environmental Factor
Lemaire et al2 Wheelchair ramp navigation in snow and ice-grit conditions Recommendations Environment Products and technology
Ripat et al3 Barriers to wheelchair use in the winter Recommendations Environment Products and technology support and relations; attitudes; services, systems, and policies
Li et al4 Aging and the use of pedestrian facilities in winter—the need for improved design and better technology Recommendations Environment Natural environment and human-made changes to the environment
Lindsay et al5 Weather, disability vulnerability, and resilience: exploring how youth with physical disabilities experience winter Recommendations Participation
Ripat et al7 Patterns of community participation across the seasons: a year-long case study of three Canadian wheelchair users Strategy Environment Services, systems, and policies
Berthelette et al16 Assessing manual wheelchair caster design for mobility in winter conditions Tool Environment Products and technology
Smith17 Long-term rehab. Weathering the winter in a wheelchair Tool Environment Products and technology
Tadano et al18 Driving tests and computer simulations of electric wheelchairs on snow-covered roads Tool Environment Products and technology
Bennett and Murphy19 Slipping cane and crutch tips. I. Static performance of current devices Tool Environment Products and technology
Kim et al20 Travel in adverse winter weather conditions by blind pedestrians: effect of cane tip design on travel on snow Tool Environment Products and technology
McKiernan21 A simple gait-stabilizing device reduces outdoor falls and non-serious injurious falls in fall-prone older people during the winter Tool Activity
Yamaguchi et al22 Efficacy of a rubber outsole with a hybrid surface pattern for preventing slips on icy surfaces Tool Environment Products and technology
Morales et al23 Winter: public enemy #1 for accessibility, exploring new solutions Recommendations Environment Services, systems, and policies
Berthold et al24 Pressure mapping to assess seated pressure distributions and the potential for skin ulceration in a population of sledge hockey players and control subjects Recommendations Body structure/function
Lindsay et al25 The experiences of participating in winter among youths with a physical disability compared with their typically developing peers Recommendations Participation
Odderson et al26 Gel wheelchair cushions: a potential cold weather hazard Tool Environment Products and technology
Green et al27 Toward enabling winter occupations: testing a winter coat designed for older adults Tool Body structure/function
Ripat et al28 Exploring winter community participation among wheelchair users: an online focus group Recommendations Participation
Borisoff et al29 Seasonal patterns of community participation and mobility of wheelchair users over an entire year Resource Participation
Brandt et al30 Older people’s use of powered wheelchairs for activity and participation Resource Participation
Morales et al31 Addressing challenges for youths with mobility devices in winter conditions Tool Environment Products and technology
Shirado et al32 Outdoor winter activities of spinal cord-injured patients. With special reference to outdoor mobility Recommendations Environment Products and technology
Wall33 An exploratory study of how travelers with visual impairments modify travel techniques in winter Strategy Activity

Summary of peer-reviewed studies

Most of the 23 studies were conducted in Canada (n=14) or the United States (n=5); 3 studies were conducted in Japan and 1 study in Denmark. Study designs included cross-sectional (n=8), qualitative methods (n=5), mixed methods (n=3), product or simulation testing (n=2), prepost design (n=2), case study (n=2), and prospective randomized trial (n=1). Study populations were predominantly those who used wheelchairs (mixed wheelchair type, n=7; power, n=4; manual, n=2; gel cushions on wheelchair, n=1), canes (n=3), specialized winter footwear (n=2), or no device specified (n=4). The primary focus of the paper (fig 3) was determined to be tool or device (n=10), recommendations (n=9), strategy (n=2), or resource (n=2). The primary ICF domain addressed in each of the studies (fig 4) was environment (n=14), participation (n=5), activity (n=2), and body structure or function (n=2). Among the 14 studies whose focus was on environmental factors, 10 addressed products and technology; 2 addressed services, systems, and policies; 1 focused on the natural environment and human-made changes, and 1 addressed several factors (products and technology; support and relations; attitudes; services, systems, policies).

Fig 3.

Fig 3

Primary focus of peer-reviewed studies (n=23).

Fig 4.

Fig 4

ICF domain addressed in peer-reviewed literature (n=23).

Summary of gray literature

Table 2 provides a summary of the gray literature search and collating or summarizing results.

Table 2.

Gray literature summary of findings

Source Findings Tool, Strategy, Resource, or Recommendation Primary ICF Domain Environment
Government of Canada8 2 documents Recommendations Environment Systems, services, and policies
Theses Denbeigh34 Tool
Recommendations
Environment Products and tools, systems, services, and policies
Ohri35
Hsu36
Leckie37
Joshi38
Conference proceedings Montgomery et al39
Boubalos et al40
Recommendations
Tool
Environment Products and tools
Provincial health websites Unable to search
City policy—snow clearing 18 policies located and reviewed Resource Environment Systems, services, and policies
City policy—accessible transportation 18 policies located and reviewed Resource Environment Systems, services, and policies
Consumer support—independent living centers 28 consumer websites searched: 6 met inclusion criteria Resource Environment Supports and relations
Canadian mobility device user organization 23 Canadian mobility device user organization websites searched: 8 met inclusion criteria Resource Environment Supports and relations
United States mobility device user organization 16 United States mobility device user organization websites searched: 5 met inclusion criteria Resource Environment Supports and relations
Vendor/manufacturer sites 50 devices located Tool Environment Products and tools

Five theses or dissertations were located that focused on aspects of winter accessibility; all were completed by students in Canadian universities. Three of the 5 focused on tools or devices and addressed environmental factors (products and technology).34, 35, 36 Two aimed to provide winter-related recommendations related to the services and systems component of environmental factors.37,38 Two conference proceedings were located that had not been subsequently published in a peer-review article: both focused on use of products and tools in a simulated winter environment.39,40

The search of Government of Canada documents identified 3 documents that mentioned winter conditions of snow or ice published in the last decade. Of the 3 documents, 1 document was subsequently published in peer-reviewed literature2 and the other 2 provided recommendations at the level of environmental factors, systems, and services (eg, keep entrances clear of snow, recommendations regarding responsibilities for snow clearing). Civic documents regarding snow-clearing and transportation policies were identified as resources, addressing the systems, services, and policies level of the environment. Review of the sidewalk snow removal policy documents of 18 major Canadian cities indicated that sidewalk clearing was a mixed responsibility (city and home owner [n=12], the responsibility of the city [n=5], or the responsibility of the property owner [n=1]). With the exception of 2 jurisdictions, a city road clearing priority system was outlined for all other cities. Review of paratransit policy indicated 12 cities stipulate it is the client’s responsibility to clear snow from pick-up and drop-off locations; 2 cities state that the pick-up and drop-off locations should be cleared but do not clearly specify that it is a client responsibility; 1 city states it is a transit responsibility to ensure accessible transit stops; and 3 cities do not address snow clearance at pick-up or drop-off locations. Only 1 city identified transportation policy related to changing weather conditions, that is, some clients were deemed snow and ice customers and eligible for paratransit when snowy or icy conditions were forecast for the date of travel and others were deemed cold weather customers and eligible to use the services when temperatures were predicted to be −15°C or colder for the date of travel. Thirteen policy documents indicated the possibility of reduced or canceled service based on inclement weather.

The websites of organizations known to the team to provide supports or services to mobility device users were categorized as resources and identified at the supports and relations level of the environment. Of the 28 independent living organization websites searched, 6 provided consumer tips and anecdotal information for safe winter mobility. Similarly, only 8 of 23 Canadian mobility device user organization websites searched, and 5 of 16 United States sites searched, discussed winter-related issues for those with mobility impairments, including consumer tips, 1 review of a research article, and 1 policy recommendation. Three websites were located that provided lists of accessible locations for winter-based activities (eg, skiing, hiking trails).

A dearth of equipment (categorized as tools; environment—products and technology) targeted at winter mobility was identified on vendor and manufacturer sites or located through a google search. Overall, 54 products were identified: 15 were sports related (adapted skis); 8 were all-terrain power mobility or attendant supported manual wheelchair devices where the manufacturer purported the ability to maneuver through snow; 7 items were winter clothing related; 7 items were cane tip attachments for use on ice; 6 items related to outdoor access to the home in winter (stair lifts, ramps); 4 were antislip devices for shoes; 2 were caster attachments for manual wheelchairs; 2 were wheelchair cushion products intended to provide added warmth when seated; 2 related to scooter accessories for winter conditions; and 1 was a hand warmer for power wheelchair users.

Discussion

The findings confirmed the specific challenges faced in winter that affect community participation. Most of the research in the area of winter mobility and participation targeted environmental factors and was generally focused on either measuring this effect or exploring ways to ameliorate the context. Winter mobility and community participation are not population- or disability-specific issues; the scoping review studies corroborated multiple environmental influences beyond just the mobility device itself. Although products and technologies were the focus of almost half of the located papers, not all studies evaluated product performance and the wide diversity in products tested, methods used, and product user populations makes definitive conclusions on performance effectiveness impossible. Products with at least some minimal performance evaluation included wheelchair casters,16 power wheelchairs,17, 18 mobility scooters,35,39 cane or crutches,19,20,40 and shoes or cleats.21,22,34,36 Although there are some winter-specific products available on vendor websites, most of them do not have any supporting research evidence.

There was a lack of high-quality studies investigating categories of products within the wide range and nature of technologies with the potential for improving winter mobility and participation; only 1 randomized control trial was identified.21 Furthermore, only 1 study investigated potential design solutions to improve winter mobility.23 Despite evidence that community participation among individuals with mobility impairment is substantially impeded by winter conditions and that environmental factors (including device, context, service or policy) are implicated, the amount of research specifically addressing these impacting factors is limited. The reasons behind this paucity of literature is unclear. Winter conditions apply to a subset of individuals with mobility impairment, based on geography; recruitment and access to this population may be more challenging and researchers in more temperate climates may lack awareness or interest in these issues. Conducting research in winter conditions is difficult, including uncomfortable conditions for participants and challenges with creating consistency in data collection. Standardization of testing conditions and procedures,35 repetition of product testing, and testing with various populations are all critical components in overcoming this research gap; these should be addressed in imminent research. The sparsity of winter-specific products or technology suggests a lack of product research and development; people using mobility devices in the winter appear to be a large, untapped consumer market.

Overall, only 2 of the peer-reviewed articles located focused on providing strategies on how to move about in winter.7, 24 However, many of the consumer websites provided anecdotal and general winter safety tips. This research gap signals a need to identify, confirm, and obtain evidence to support these safe mobility approaches. Winter conditions present particular safety hazards for mobility devices users. Slippery surfaces increase the risk of falls for those who use ambulation aids. Snow and ice can present challenges for wheelchair and mobility scooter users to obtain traction and increase the risk for tips and falls, as well as stranding users.41 Research documenting prevalence of accidents or injury, safe strategies for winter mobility, and mobility training in winter conditions25 is warranted.

Protection from thermal injury was an area of concern identified on consumer websites and a few targeted products were located on vendor websites (eg, cushion or hand protection when using mobility devices). However, only 2 peer-reviewed studies addressed the potential for thermal injuries (gel-filled wheelchair cushions)26 or warmth (winter coat design).27 Given the health risks of thermal injury, more research on adaptive winter clothing25 and mobility device adaptation is indicated. Rehabilitation and mobility researchers would benefit from seeking out experts in high-performance textiles as partners in future research and development.

The need for improved snow and ice removal policy and procedures has been highlighted in several studies3, 4, 7, 25, 28, 29 because minimal investigation has been conducted in this area.23,38 Current Canadian civic policy documents do address aspects of snow clearing, but only one-quarter identified sidewalk clearing as solely a city responsibility; for individuals who use mobility devices, the ability to independently shovel snow and ice may be curtailed, unsafe, or impossible. Existing Canadian civic policy is centered on road clearing and vehicular traffic rather than pedestrian traffic. Some cities in Sweden have recently adopted snow-clearing policies that prioritize clearing of pedestrian and bicycle traffic routes; examining the effects of this policy on people who use mobility devices would be beneficial. Several studies identified the importance of access to safe and accessible transportation as a key component in maintaining community participation throughout the winter.7,28,29,37 Examination of the paratransit policy document revealed a somewhat punitive approach to use of services in winter, where individuals using these services were expected to keep pick-up and drop-off locations clear of snow and ice. Given that paratransit service users typically experience mobility restrictions, development of novel solutions that intersect health, social, and transportation services is justified.

Findings from peer-reviewed literature confirmed a real issue of social isolation and need for additional supports in winter.3, 25, 28, 30 Although it may be expected that support information would be included on consumer organization websites, for the most part this was not the case. Local and national organizations can play a key role by adopting a targeted focus on providing strategies and supports that move from surviving to thriving in winter.

In summary, we found that there was limited overlap between the research literature and the gray literature found on consumer websites and in policy documents. The peer-reviewed research and academic gray literature focused primarily on environmental factors and equipment, but with very little actual evaluation of performance. The few consumer websites that addressed winter provided primarily anecdotal tips and suggestions that have not been examined in research literature. Although policy documents addressed snow removal and paratransit, these areas have also received little attention in the research literature. Creating an online forum, or toolkit, to house research, consumer-based, and policy information on winter mobility would allow researchers to identify areas of needed research based on consumer-identified and policy issues, consumers and service providers to become aware of emerging evidence and to influence knowledge creation, and developers and innovators to identify consumer-based needs.

Study limitations

Limitations in this study relate mainly to the gray literature search, which was nonexhaustive due to the challenges of searching web-based material, limited to materials written in English or French. Although some organizations and products may have been missed, conducting the search with as much rigor as feasibly possible provides a good indication that there are very few winter-specific devices and limited knowledge. Given the country of residence of the team members, only Canadian government and policy documents were included. Although the team had intended to search provincial health documents, this was unfeasible due to a lack of sophisticated search engines on individual provincial health websites and this information was not included. Annual conference proceedings from some years were not available online or through e-mail contact with the association. Although relevant to future work, we excluded literature that addressed surface conditions related to falls when the research did not specify a focus on individuals with mobility impairments (eg, Kevern et al42). Stakeholder consultation was identified as an optional step in a scoping review.12 Although not conducted as part of this scoping review, the larger study (development of a toolkit) will engage various stakeholders (ie, people using mobility devices, service providers, representatives of disability specific organizations) to provide input and feedback on the scoping review findings through a series of online focus groups (people using mobility devices) and online surveys (all stakeholders).

Conclusions

Despite the common experience of challenging winter conditions, there is a paucity of research and innovation in this important area. Not unexpectedly, existing research has been conducted in countries where the population experiences below freezing temperatures during winter months. Although most of the studies have been conducted in Canada, many focused on providing recommendations only and intervention-based and effectiveness research is lacking.

This scoping review served a twofold purpose: to methodically collect and collate available evidence to identify useful information that could be incorporated in a future toolkit, and to identify knowledge gaps with no or low-level research evidence. Additional tools, strategies, resources, and evidence-based recommendations are acutely needed to provide and share information; this is best done through the development of collaborations among the many stakeholders interested in promoting winter mobility and community participation among those who use mobility devices. This scoping review provides the foundation for these future developments.

Acknowledgments

We thank Hal Loewen for developing the search strategies and Dale Stevenson for his assistance with the gray literature search.

Footnotes

Supported by the University Collaborative Research Grant, University of Manitoba (grant no. #47138).

Disclosures: none

Supplementary Data

Appendix 1.

Appendix 1

Sample Search Strategy for OVID

Appendix 2.

Appendix 2

Gray Literature Search Process

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