Literature DB >> 34779733

Comparing the causes, circumstances and consequences of falls across mobility statuses among individuals with spinal cord injury: A secondary analysis.

Hardeep Singh1,2,3, Lovisa Cheung1,2, Katherine Chan1, Heather M Flett1,4, Sander L Hitzig2,5,6, Anita Kaiser1,2,7, Kristin E Musselman1,2,4.   

Abstract

OBJECTIVE: To compare the occurrence of falls and fall-related injuries, and the circumstances of falls among individuals with spinal cord injury (SCI) who ambulate full-time, use a wheelchair full-time and ambulate part-time.
DESIGN: A secondary analysis.
SETTING: Community. PARTICIPANTS: Adults with SCI. INTERVENTION: None. OUTCOME MEASURES: The occurrence and circumstances of falls and fall-related injuries were tracked over six-months using a survey. Participants were grouped by mobility and fall status. A chi-square test compared the occurrence of falls and fall-related injuries, and the time and location of falls, and a negative binomial regression was used to predict the likelihood of falls by mobility status. Kaplan-Meier analysis was used to determine differences in the time to first fall based on mobility status. Group characteristics and causes of falls were described.
RESULTS: Data from individuals who ambulated full-time (n = 30), used a wheelchair full-time (n = 27) and ambulated part-time (n = 8) were analyzed. Mobility status was a significant predictor of falls (P < 0.01); individuals who used a wheelchair full-time had a third of the likelihood of falling than those who ambulated full-time (P < 0.01). Type of fall-related injuries differed by mobility status. Those who ambulated full-time fell more in the daytime (P < 0.01). Individuals who ambulated full-time and part-time commonly fell while walking due to poor balance, and their legs giving out, respectively. Those who used a wheelchair full-time typically fell while transferring when rushed.
CONCLUSION: Mobility status influences the likelihood and circumstances of falls. Mobility status should be considered when planning fall prevention education/training for individuals with SCI.

Entities:  

Keywords:  Accidental falls; Spinal cord injuries; Surveys and questionnaires

Mesh:

Year:  2021        PMID: 34779733      PMCID: PMC8604457          DOI: 10.1080/10790268.2021.1956252

Source DB:  PubMed          Journal:  J Spinal Cord Med        ISSN: 1079-0268            Impact factor:   1.985


Introduction

A traumatic spinal cord injury (SCI) results from direct damage to the spinal cord and can be caused by motor vehicle accidents, sports or falls.[1] SCI impacts an individual’s motor, sensory and autonomic function, and functional outcomes can vary considerably depending on the severity and location of the injury.[1,2] Individuals with SCI can have varying mobility statuses.[3,4] Depending on factors such as a person’s neurological examination at admission as well as their age, sex and time course of recovery, individuals with SCI may ambulate with or without a gait aid or require a wheelchair for partial or complete mobility.[1,3,5,6] However, regardless of their mobility status, individuals with SCI experience a high number of falls each year[7] and the risk of falls in this population is multifactorial.[8,9] Evidence suggests that the occurrence of falls among individuals with SCI is higher than other populations, including older adults[10-13] and individuals living with the effects of stroke[14] and Parkinson’s disease.[15,16] In one year, up to 82% of participants with SCI who ambulated and 73% of participants with SCI who used a wheelchair reported a fall.[7,17,18] This is concerning because falls can cause physical injuries (e.g. cuts, broken bones, and head injuries), as well as psychosocial consequences (e.g. frustration and activity restrictions).[7] Despite individuals with SCI having variable mobility statuses, how fall circumstances differ by mobility statuses has not been extensively explored among the SCI population. While many previous studies have examined the occurrence and circumstances of falls among samples consisting of individuals with SCI who ambulate[17,19,20] or those who use a wheelchair,[8,9,21-24] few have compared falls between these two groups.[18,25,26] In 2016, Jørgensen and colleagues[18] retrospectively compared the incidence and circumstances of falls between individuals with chronic (≥1 year) SCI who used a wheelchair for mobility and those who ambulated. The results of this study showed that individuals with SCI who ambulated had a significantly higher occurrence of recurrent falls compared to individuals with SCI who used a wheelchair.[18] Following this comparison, these participants were divided into two groups, individuals who were ambulatory and wheelchair users, to prospectively examine their one-year incidence of falls and injurious falls.[17,24] Both groups had a high risk of falls and fall-related injuries and the activities during a fall tended to differ between groups.[17,24] Individuals who used a wheelchair tended to be at risk of falling while transferring and pushing a wheelchair due to factors such as loss of balance, rushing, equipment failure and muscle spasms.[7,8,22-24] Individuals who ambulated tended to fall while changing postures or while walking and standing due to poor balance and legs giving out.[7,17,19,20] Mode of mobility was also associated with recurrent falls, wherein individuals who ambulated experienced higher odds of recurrent falls compared to wheelchair users.[26] Previous studies have dichotomized participants into wheelchair users and ambulators to maximize statistical power, however, since mode of mobility can vary significantly among individuals with SCI, it can be difficult to dichotomize participants into these two groups.[25] While fall risk among individuals who both ambulate and use a wheelchair (i.e. part-time ambulators) was previously recognized as an important construct to investigate,[25] falls among this group remains understudied. In the current study, individuals who ambulated part-time were defined as those who ambulate but also use a wheelchair at times. Due to advances in gait interventions and an increase in the number of individuals with incomplete SCI, ambulation has become a common post-SCI outcome.[27] Individuals who ambulate part-time tend to use a wheelchair for community mobility, which may potentially minimize their risk of falls in the community.[28] At the same time, individuals who ambulate part-time may be at an elevated risk of falls due to having abnormal motor control, significant muscle weakness/fatigue, reduced balance, and low gait speed.[29,30] This group may additionally experience unique fall risk circumstances due to higher levels of pain intensity, pain interference and fatigue with having to exert greater effort to compensate for strength and sensory impairments compared to those that ambulate full-time or use a wheelchair full-time.[27] Yet, the occurrence and circumstances surrounding falls in this group remains understudied. To address this knowledge gap, we compared the six-month occurrence of falls and fall-related injuries, as well as the circumstances of falls among individuals with SCI who: (i) ambulated full-time, (ii) used a wheelchair full-time and (iii) ambulated part-time. We hypothesized that differences would exist in the causes of falls and fall-related injuries between individuals with SCI who ambulated full-time, used a wheelchair full-time and ambulated part-time, and the circumstances of falls would differ between these three groups.

Materials and methods

We conducted a secondary analysis of data that were collected over 2.3 years (2017-2019) for a study that examined the causes and consequences of falls among individuals with traumatic SCI.[8,20,23,31] Ethical approval for the project was obtained from the Research Ethics Boards of the University Health Network and the University of Toronto. The primary dataset was obtained from a sample of participants that met the following inclusion criteria: (i) traumatic SCI with a neurological level of injury between C1 and L1 (AIS grades A–D), (ii) chronic SCI (≥1 year), (iii) 18 years or older, and (iii) community dwelling, defined as living in the community for at least one month, and (iv) had no other significant co-morbidity that could affect their mobility or physical activity (e.g. stroke). Participants were purposefully recruited for the project through various approaches, including the central recruitment database at the rehabilitation hospital, which contained contact information (e-mail and/or mailing address) of past inpatients that consented to receiving information about research opportunities. Over 200 study flyers were sent to individuals identified from the central recruitment database. Participants were also recruited through the networks of other participants in the study, advertisements posted around the rehabilitation hospital and outpatient rehabilitation community clinics, and social media platforms.[8,20,23,31] The primary data contained participants’ demographics and injury characteristics (e.g. time since injury, neurological level of injury), and details about their mobility status; these details had been collected in-person or over the phone during a baseline interview. In addition, the data consisted of fall surveys, which comprised of 11 open-ended and closed-ended questions inquiring about the time, location, causes, circumstances, and consequences of each fall.[32] The surveys were completed by participants each time they fell during a six-month tracking period. Participants were provided the following definition of a fall: “an event which results in a person coming to rest inadvertently on the ground or floor or other lower level.”[33] To minimize recall bias, participants were asked to complete the survey within 24-hours of experiencing a fall.[20,23] The surveys were completed electronically (Qualtrics Survey Software, Dallas, TX, USA) or on paper. A researcher had contacted participants approximately every three to four weeks by telephone to inquire whether they had any falls, remind them about the surveys, and offer assistance with survey completion. The primary data were collected by the lead author and a research assistant at a large Canadian tertiary SCI rehabilitation hospital.[20,23] A secondary analysis was suitable as we sought to re-examine data that were previously collected to answer a new research question.[34] While we previously reported findings for individuals who used a wheelchair and ambulated separately,[8,20,23,31] we had not compared the occurrence of falls and fall-related injuries, or fall circumstances among individuals who ambulated full-time, used a wheelchair full-time and ambulated part-time. Thus, in the current study, we re-classified participants into the following three categories based on their mobility status: (i) individuals who ambulated full-time (i.e. those who ambulated 100% of the time), (ii) individuals who used a wheelchair full-time (i.e. those who used a wheelchair 100% of the time) or (iii) individuals who ambulated part-time (i.e. those who ambulated but also used a wheelchair), as well as by their fall status: faller (i.e. ≥1 fall) or non-faller (i.e. no falls). Data were stored and managed on Microsoft Excel (Microsoft Corporation) and SPSS version 27 (IBM, Armonk, New York) software was used to perform statistical analyses. The normality of continuous data (e.g. age, time since injury, time to first fall) was determined using a Shapiro-Wilks test. Alpha was set to 0.05 and the Bonferroni method was used for post-hoc analyses where appropriate. Participants’ demographics and injury characteristics (e.g. age, time since injury) were analyzed based on their mobility status, using means with one standard deviation or median with interquartile range (IQR) and frequency counts (e.g. for sex, neurological level of injury). Demographic and injury characteristics by mobility status were compared using a one-way ANOVA or chi-square test of independence, as appropriate. ANOVA calculations were conducted even if normality assumptions had been violated because ANOVA calculations remain applicable under these circumstances.[35] Occurrence of falls and fall-related injuries: A chi-square test of independence was used to determine whether the occurrence of falls and fall-related injuries, reported as dichotomous variables for each individual (i.e. presence or absence of fall/fall-related injury), differed between groups (i.e. individuals who ambulated full-time, used a wheelchair full-time, and ambulated part-time). A negative binomial regression was run to determine whether the likelihood of falls differed by mobility status, in which the number of falls experienced by each participant over the six-month period was the dependent variable and mobility status was the independent variable. Time to first fall: Since participants may have experienced more than one fall, which is not an independent event, time to first fall (from the date of the baseline interview to the date of the first fall) was used.[36] Time to first fall was reported using median, interquartile range (IQR) and then compared across the three groups using a Kaplan-Meier analysis. Participants who did not experience a fall during the tracking period are represented as censored events.[36] Time to first fall has been used to compare fall data, including risk, among individuals with SCI[36,37] and has been used as an outcome measure to determine success of fall reduction interventions.[38,39] Fall circumstances: A chi-square test of independence was used to examine differences in fall circumstances (i.e. time and location of falls) between groups. The activities performed during falls and perceived causes of falls, as reported on the fall survey, were descriptively compared between the three groups that differed by mobility status.

Results

Sixty-five community-dwelling adults with traumatic SCI were included; 30 ambulated full-time (aged 61.10 ± 12.80 years, 7.00 (IQR: 9.50) years post-SCI), 27 were full-time wheelchair users (aged 50.33 ± 9.87 years, 27.00 (IQR: 16.00) years post-SCI), and eight participants ambulated part-time (aged 53.88± 17.23 years, 7.00 (IQR: 31.50) years post-SCI). Significant differences in age were found across mobility status using a one-way ANOVA (P = 0.03); fallers who used a wheelchair full-time tended to be younger than fallers who ambulated full-time although this difference did not reach statistical significance in the post-hoc analysis. See Table 1 for a detailed description of the demographics and injury characteristics by mobility status.
Table 1.

Participant demographics and injury characteristics

 Total sampleFallers
Individuals who ambulated full-time (n=30)Individuals who used a wheelchair full-time (n=27)Individuals who ambulated part-time (n=8)Fallers who ambulated full-time (n=18)Fallers who used a wheelchair full-time (n=13)Fallers who ambulated part-time (n=7)Comparison between mobility statuses of fallers
Mean age (SD) (years)61.10 ± 12.8050.33 ± 9.8753.88 ± 17.2359.94 ± 11.3346.85 ± 10.8853.57 ± 18.59F=4.00 P=0.03
Male20.0013.007.0013.005.006.00χ2=5.57 P=0.06
Female10.0014.001.005.008.001.00
Median TSI (year), (IQR)7.00 (9.50)27.00 (16.00)7.00 (31.50)10.50 (22.75)29.00 (20.00)8.00 (34.00)F=1.63 P=0.21
Neurological Level of Injury      χ2=3.11 P=0.21
Tetraplegia22.0014.005.0012.005.005.00
Paraplegia8.0013.003.006.008.002.00
Motor complete (AIS A/B)2.0025.001.002.0011.001.00χ2=19.40 P<0.01
Motor incomplete (AIS C/D)28.002.007.0016.002.006.00

Legend: Neurological level of injury according to international standard neurological classification of spinal cord injury; AIS: American Spinal Injury Association Impairment Scale; TSI: Time Since Injury.

Participant demographics and injury characteristics Legend: Neurological level of injury according to international standard neurological classification of spinal cord injury; AIS: American Spinal Injury Association Impairment Scale; TSI: Time Since Injury. Occurrence of falls and fall-related injuries: A chi-square test of independence revealed no significant relationship between mobility status (i.e. individuals who ambulated full-time, used a wheelchair full-time and ambulated part-time) and the occurrence of falls (P = 0.14) or fall-related injuries (P = 0.95). However, according to the negative binomial regression, the mobility status of an individual was a statistically significant predictor of falls (P < 0.01); individuals who used a wheelchair full-time had a third of the likelihood of falling compared to those who ambulated full-time (0.31, 95% CI: 0.16–0.63, P < 0.01). Bruises and pain were the most common fall-related injuries experienced by individuals who ambulated full-time. Individuals who used a wheelchair full-time reported cuts/scrapes and pain as the most common fall-related injuries. Only one fall-related fracture was reported in the study, by an individual who used a wheelchair full-time. Individuals who ambulated part-time reported bruises, a bumped head, and pain as the most common fall-related injuries. Time to first fall: During the study period, the mean time to first fall for individuals who ambulated full-time was 97.00 days (IQR: 148.00), individuals who used a wheelchair full-time was 182.00 days (IQR: 116.00) and individuals who ambulated part-time was 43.00 days (IQR: 97.00). According to the Kaplan-Meier survival analysis, there were significant differences in the time to first fall across the mobility statuses (χ2 = 7.26, P = 0.03; see Fig. 1 for the Kaplan-Meier curve). Through post-hoc testing, only one pairwise comparison demonstrated that time to first fall for individuals who ambulated part-time and used a wheelchair full-time was approaching statistical significance (P = 0.07).
Figure 1

Kaplan-Meier curve for time to first fall. Participants who did not experience falls during the six-month period are reported as censored events.

Kaplan-Meier curve for time to first fall. Participants who did not experience falls during the six-month period are reported as censored events. Time of fall: According to the chi-square test of independence, the time of day of the fall differed by mobility status (P < 0.01). Post-hoc tests revealed significant differences in the time of falls; individuals who ambulated full-time fell more during the daytime compared to individuals who used a wheelchair full-time (76.92% vs 40.91%; P < 0.01). Locations of falls: There were no group differences in the location of falls (P = 0.21). Participants from all three mobility statuses experienced most of their falls inside or just outside of their home (see Table 2 for fall circumstances).
Table 2

Fall circumstances by mobility status.

 Individuals who ambulated full-time (total number of falls: n = 78)Individuals who used a wheelchair full-time (total number of falls: n = 22)Individuals who ambulated part-time (total number of falls: n = 16)
Fall-related injuries n (% total falls)
Falls resulting in an injury31 (39.74%)8 (36.36%)6 (37.50%)
Time of fall, n (% total falls)
Daytime (morning, afternoon; 6:00am – 5:00pm)60 (76.92%)9 (40.91%)8 (50.00%)
Nighttime (evening, night; 5:01pm-5:59am)18 (23.07%)13 (59.09%)8 (50.00%)
Location of fall, n (% total falls)
Home environment47 (60.26%)12 (54.55%)13 (81.25%)
Community31 (39.74%)10 (45.45%)3 (18.75%)
Fall circumstances by mobility status. Activities during falls: The activities during a fall for each mobility status are displayed in Table 3. The most common activities during a fall reported by individuals who ambulated full-time were walking (46.15%), changing positions (i.e. “getting into and out of a body position and moving from one location to another, such as rolling from one side to the other, sitting, standing, getting up out of a chair to lie down on a bed, and getting into and out of positions of kneeling or squatting”)[40] (26.92%) and standing (8.97%). The most common activities during a fall reported by individuals who used a wheelchair full-time were transferring (getting into/out of bed, shower/bath or vehicle) (27.27%), going over uneven ground (18.18%), playing sports/exercising (13.64%) and changing position (13.64%). The most common activities during a fall reported by individuals who ambulated part-time were walking (25.00%), transferring (getting into/out of bed, shower/bath or vehicle) (18.75%), and other (e.g. sleeping, taking a photo, driving a scooter) (18.75%).
Table 3

Activity during a fall for individuals who ambulated full-time, used a wheelchair full-time and ambulated part-time.

Activity classification, n (% total falls)
Activity reported during fall n (%)Individuals who ambulated full-time (total number of falls: n = 78)Individuals who used a wheelchair full-time (total number of falls: n = 22)Individuals who ambulated part-time (total number of falls: n = 16)
Getting in/out of bed, vehicle, or bath/shower6 (7.69%)6 (27.27%)3 (18.75%)
Going over uneven ground0 (0.00%)4 (18.18%)0 (0.00%)
Sports/exercise1 (1.28%)3 (13.64%)1 (6.25%)
Changing positions21 (26.92%)3 (13.64%)1 (6.25%)
Going through doorway0 (0.00%)1 (4.55%)1 (6.25%)
Walking36 (46.15%)0 (0.00%)4 (25.00%)
Going up or down an incline0 (0.00%)2 (9.09%)0 (0.00%)
Assisted standing0 (0.00%)1 (4.55%)0 (0.00%)
Dressing2 (2.56%)1 (4.55%)0 (0.00%)
Opening drawer/door1 (1.28%)1 (4.55%)0 (0.00%)
Walking up or down the stairs4 (5.13%)0 (0.00%)1 (6.25%)
Standing7 (8.97%)0 (0.00%)2 (12.50%)
Other (e.g. sleeping, taking a photo, driving a scooter)0 (0.00%)0 (0.00%)3 (18.75%)
Activity during a fall for individuals who ambulated full-time, used a wheelchair full-time and ambulated part-time. Activities reported by all three groups included: changing positions, transferring (i.e. getting into/out of bed, bath, or a vehicle), and sports/exercise. In contrast, assisted standing, going up or down an incline, and going over uneven ground were activities only reported by individuals who used a wheelchair full-time. Causes of falls: The top perceived causes of falls reported by individuals who ambulated full-time were having poor balance (16.43%), legs giving out (e.g. knee buckling) (13.15%) and feeling weakness in the legs (11.74%). The top perceived causes of falls reported by individuals who used a wheelchair full-time were moving too quickly or rushing (19.15%), other (e.g. new equipment, caregiver error) (19.15%) and distraction (10.64%). The top perceived causes of falls reported by individuals who ambulated part-time were legs giving out (e.g. knee buckling) (17.95%), feeling weakness in the legs (15.38%) and other (e.g. wet floor, spasm, swollen lower extremity; 12.82%) (see Table 4).
Table 4

Causes of falls experienced by individuals who ambulated full-time, used a wheelchair full-time and ambulated part-time.

Causes of falls, n (% total causes)
Factors perceived to cause falls n (%)Individuals who ambulated full-time (A total of 213 factors perceived to cause 78 falls)Individuals who used a wheelchair full-time (A total of 47 factors perceived to cause 22 falls)Individuals who ambulated part-time (A total of 39 factors perceived to cause 16 falls total)
Poor balance35 (16.43%)4 (8.51%)4 (10.26%)
Legs gave out28 (13.15%)0 (0.00%)7 (17.95%)
Weakness in legs25 (11.74%)0 (0.00%)6 (15.38%)
Other (e.g. new equipment, caregiver error, wet floor, spasm, swollen lower extremity)21 (9.86%)9 (19.15%)5 (12.82%)
Doing more than one thing12 (5.63%)3 (6.38%)3 (7.69%)
Tired16 (7.51%)2 (4.26%)2 (5.13%)
Tripped18 (8.45%)4 (8.51%)3 (7.69%)
Slipped15 (7.04%)2 (4.26%)2 (5.13%)
Distracted9 (4.23%)5 (10.64%)1 (2.56%)
Moving too quickly/rushing11 (5.16%)9 (19.15%)2 (5.13%)
Dark/poorly lit environment/problems with vision5 (2.35%)3 (6.38%)0 (0.00%)
Dizzy2 (0.94%)0 (0.00%)1 (2.56%)
Spasm in leg(s)3 (1.41%)0 (0.00%)2 (5.13%)
Not using mobility aid3 (1.41%)1 (2.13%)1 (2.56%)
Weather8 (3.76%)2 (4.26%)0 (0.00%)
“Don’t know”2 (0.94%)1 (2.13%)0 (0.00%)
Alcohol0 (0.00%)1 (2.13%)0 (0.00%)
Illness0 (0.00%)1 (2.13%)0 (0.00%)
Causes of falls experienced by individuals who ambulated full-time, used a wheelchair full-time and ambulated part-time.

Discussion

In this study, we compared the occurrence of falls and fall-related injuries as well as circumstances of falls between individuals with SCI who ambulated full-time, used a wheelchair full-time and ambulated part-time. In line with previous research,[18] our results indicated that mobility status influenced the likelihood of falls, with individuals that ambulated full-time experiencing a higher likelihood of falls. We found group differences in the time of day of falls, time to first fall, activities and causes of falls, and the type of fall-related injuries. Following SCI, activity patterns could be impacted; the activities a person engages in and how they perform those activities could vary by mobility status.[41,42]. Not only could activities be impacted by a person’s mobility status, but also by a person’s age, sex/gender, and neurological level of injury.[41,42] We believe this may be another reasonable explanation for why we had observed differences by mobility status in the likelihood of falling and the circumstances (e.g. activities, time, causes) surrounding participants’ falls. For instance, individuals who used a wheelchair full-time reported more falls while participating in sports/exercise compared to those that ambulated. This finding may be related to the younger age of the wheelchair users in our sample, as younger individuals with SCI tend to spend more time engaged in sports.[43] Moreover, our findings indicated that transfers were a high fall risk activity since all groups reported a fall during a transfer, but individuals who use a wheelchair may be at the highest risk of falls during transfers as this was the activity during which they reported the most falls. To reduce the risk of falls during transfers, routine re-assessments of a person’s transfer skills and more supportive equipment to increase their safety may be warranted.[44,45] Furthermore, since activities,[41] risk willingness, fear of falling,[46] odds of reporting recurrent falls[18] and fall risk may be impacted by a person’s sex and gender, future research should explore sex and gender-based differences in circumstances and outcomes of falls as well as fall prevention needs. The time of falls differed among individuals who ambulated full-time and individuals who used a wheelchair full-time. Individuals who ambulated full-time tended to fall during the daytime, whereas those who used a wheelchair full-time commonly fell during the nighttime. This could potentially reflect between-group differences in the level and amount of support/assistance from a caregiver (e.g. personal support worker or family member). For instance, individuals who use a wheelchair may receive more support/assistance during the daytime compared to those who ambulate. Also, individuals who use a wheelchair may be more likely to fall in the evening or at night while going to the bathroom (i.e. getting in or out of their bed, going over floor transitions from one room to another, or changing positions) due to being tired and moving too quickly/rushing to return to bed.[8,20,47] A higher number of falls during the nighttime among individuals who use a wheelchair may also be associated with using the washroom more frequently at night compared to those who ambulate. For instance, voiding dysfunction or urinary tract infections are common in people with SCI.[48,49] This finding suggests healthcare professionals should consider which activities an individual performs during specific periods of the day and how the activities are performed. This consideration may provide insight into how routines can be restructured to reduce their fall risk. As expected, falls during walking were common for individuals who ambulated full-time and part-time, but those who ambulated full-time reported a higher proportion of falls while walking than those who ambulated part-time. This finding could simply reflect individuals who ambulated full-time spending more time walking during the day than those who ambulated part-time. Not only is walking needed to complete activities of daily living, but it is also considered a leisure activity that individuals with SCI who ambulate engage in.[43] Walking is a high fall risk activity for multiple reasons, including the presence of environmental hazards (e.g. tripping hazards) and the influence of intrinsic factors (e.g. poor balance).[19,47,50] Individuals who ambulated part-time reported more falls while walking indoors compared to those who ambulated full-time. Participants who ambulated full-time fell more while walking outdoors. This finding may reflect that individuals who ambulate part-time[51] may mostly ambulate indoors, whereas those who ambulate full-time ambulate indoors and outdoors. Although the occurrence of fall-related injuries did not differ between the groups, our study found that the type of injuries most often reported by each mobility status differed; individuals who ambulated part-time and full-time tended to sustain bruises after a fall, whereas those who used a wheelchair full-time had cuts/scrapes. This could be due to engagement in different activities during a fall as well as their surroundings. For instance, individuals who used a wheelchair tended to fall while transferring in/out of their wheelchair and onto/off of another surface. In these situations, there are sharp edges in the vicinity that could penetrate the skin and cause cuts and scrapes. Individuals who ambulated commonly fell while walking; the height from which they fall results in hard contact with the ground, resulting in a bruise. Fortunately, consistent with previous literature, most falls did not result in injuries that required medical attention in all groups.[7,18] It is important to acknowledge that the findings of this study may be limited by the following factors. First, falls were self-reported by participants and there could be errors in self-reported data (e.g. recall bias).[52] As such, the occurrence of falls and fall-related injuries may be under or over-reported. Second, we failed to inquire about the location of the fall within the home,[23] which could have further enriched our findings related to the circumstances of falls. Third, the small sample of individuals who ambulated part-time limits statistical power and these findings should be interpreted with caution. Unfortunately, due to this small sample size, we were unable to identify significant differences in the occurrence and circumstances of falls. However, we noted that individuals who ambulated part-time reported falls while walking and transferring. Based on these preliminary findings, we believe a deeper delve into the circumstances of falls experienced by this group is warranted. This knowledge could provide greater insight into situations where they are more likely to fall and assist in highlighting key considerations for fall prevention. Lastly, a longer tracking period (i.e. ≥6 months) could have resulted in a greater number of falls/fallers.[7] Regardless of these limitations, this study shed light onto new knowledge that can be used to inform fall prevention interventions for individuals with SCI. In conclusion, the experience of falls tends to differ based on mobility status. The unique circumstances encountered by individuals who have differing mobility status must be considered when assessing fall risk and planning fall prevention strategies. Furthermore, falls among individuals who ambulate part-time are understudied in prior literature, but warrant further investigation.

Disclaimer statements

Contributors None. Funding This work was supported by the Craig H. Neilsen Foundation, grant number 440070 to KEM and a CIHR Fellowship and Toronto Rehabilitation Institute student scholarship to HS. Conflicts of interest Authors have no conflict of interests to declare.
  48 in total

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Authors: 
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Review 2.  A systematic review of functional ambulation outcome measures in spinal cord injury.

Authors:  T Lam; V K Noonan; J J Eng
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3.  Non-normal data: Is ANOVA still a valid option?

Authors:  María J Blanca; Rafael Alarcón; Jaume Arnau; Roser Bono; Rebecca Bendayan
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4.  A brief fall prevention intervention for manual wheelchair users with spinal cord injuries: A pilot study.

Authors:  Laura A Rice; Jong Hun Sung; Kathleen Keane; Elizabeth Peterson; Jacob J Sosnoff
Journal:  J Spinal Cord Med       Date:  2019-07-25       Impact factor: 1.985

5.  Assessing the influence of wheelchair technology on perception of participation in spinal cord injury.

Authors:  Eliana S Chaves; Michael L Boninger; Rosemarie Cooper; Shirley G Fitzgerald; David B Gray; Rory A Cooper
Journal:  Arch Phys Med Rehabil       Date:  2004-11       Impact factor: 3.966

6.  Ambulation and complications related to assistive devices after spinal cord injury.

Authors:  Lee L Saunders; James S Krause; Nicole D DiPiro; Sara Kraft; Sandra Brotherton
Journal:  J Spinal Cord Med       Date:  2013-04-13       Impact factor: 1.985

7.  Objective assessment of mobility of the spinal cord injured in a free-living environment.

Authors:  S K M Wilson; J P Hasler; P M Dall; M H Granat
Journal:  Spinal Cord       Date:  2007-12-11       Impact factor: 2.772

8.  Activities of daily living performed by individuals with SCI: relationships with physical fitness and leisure time physical activity.

Authors:  S P Hetz; A E Latimer; K A Martin Ginis
Journal:  Spinal Cord       Date:  2008-12-23       Impact factor: 2.772

9.  Negotiating identity and self-image: perceptions of falls in ambulatory individuals with spinal cord injury - a qualitative study.

Authors:  Vivien Jørgensen; Kirsti Skavberg Roaldsen
Journal:  Clin Rehabil       Date:  2016-07-10       Impact factor: 3.477

10.  Risk of falls and fear of falling in older adults residing in public housing in Ontario, Canada: findings from a multisite observational study.

Authors:  Melissa Pirrie; Guneet Saini; Ricardo Angeles; Francine Marzanek; Jenna Parascandalo; Gina Agarwal
Journal:  BMC Geriatr       Date:  2020-01-09       Impact factor: 3.921

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  2 in total

1.  A qualitative photo-elicitation study exploring the impact of falls and fall risk on individuals with subacute spinal cord injury.

Authors:  Olinda D Habib Perez; Samantha Martin; Katherine Chan; Hardeep Singh; Karen K Yoshida; Kristin E Musselman
Journal:  PLoS One       Date:  2022-06-07       Impact factor: 3.752

2.  Impact of Falls and Fear of Falling on Participation, Autonomy and Life Satisfaction in the First Year After Spinal Cord Injury.

Authors:  Katherine Chan; Olinda Habib Perez; Hardeep Singh; Andresa R Marinho-Buzelli; Sander L Hitzig; Kristin E Musselman
Journal:  Front Rehabil Sci       Date:  2022-06-09
  2 in total

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