ライフサイエンスコーパス: wheelchair

1 lk test <50% predicted or use of rollator or wheelchair.

2 osture is highly likely to slip out of their wheelchair.

3 people in the world whose mobility relies on wheelchairs.

4 ke non-pneumatic tyre (FS-NPT) technology in wheelchairs.

5 for operating devices, such as computers and wheelchairs.

6 lking assistance or support, and 10 required wheelchairs.

7 stive technologies, including prostheses and wheelchairs.

8 p=0.0023); and confirmed time to requiring a wheelchair, 11.5% vs 18.9% (7.4% [0.8-13.9]; p=0.0274).

9 (19.2%), lower extremity orthotics (12.3%), wheelchair (9.6%), oxygen (9.0%), and urinary catheter e

10 At the same time, the prototype wheelchair, accompanied with a smart-chair app, assimila

11 o, spinal-cord injury meant confinement to a wheelchair and a lifetime of medical comorbidity.

12 inverse correlation with time to requiring a wheelchair and with age at death.

13 tive cohort study compared patients who used wheelchairs and controls (propensity score matched 1:1 u

14 al ID badge) and portable medical equipment (wheelchairs and mobile commodes).

15 helicopters, and real-world objects, such as wheelchairs and quadcopters, has demonstrated the promis

16 Those who used wheelchairs and the 55 442 matched controls were followe

17 atient who was obese and hemiparetic, used a wheelchair, and could not self-transfer from chair to ex

18 control in exoskeletons, prosthetics, smart wheelchairs, and navigation systems.

19 ed analysis, excluding patients who required wheelchair assistance, showed a significant improvement

20 agnetic resonance imaging, was confined to a wheelchair at the age of 44 years.

21 ir User's Shoulder Pain Index (WUSPI-Pol) in wheelchair athletes.

22 Affected patients are wheelchair bound after 15 years old, with progressive jo

23 d severe functional disability, with 9 being wheelchair bound, and 18 had late-onset disease and a mi

24 falls and urinary incontinence, and one was wheelchair bound.

25 Nine (32%) were wheelchair-bound 1 month after neurological symptom onse

26 that untreated, affected individuals become wheelchair-bound and blind.

27 overshadowed by myoclonus; 10 patients were wheelchair-bound by their late teenage years.

28 Sixty per cent of patients were wheelchair-bound since early teens (median age of 12.0 y

29 Patients became wheelchair-bound with a mean 12 years post-onset.

30 ely on supportive care and eventually become wheelchair-bound.

31 had severe disability, over one third being wheelchair-bound/bedridden.

32 e with severe locomotive problems, the right wheelchair can affect mobility and quality of life.

33 vestigated fracture risk in patients who use wheelchairs compared with an ambulatory control group.

34 ural prosthetic that could provide input for wheelchair control by decoding navigational intent from

35 asibility of an invasive hippocampal BCI for wheelchair control.

36 th their environment, e.g. communication and wheelchair control.

37 and devices; for example, eye movement-based wheelchair control.

38 gher-order cognitive processes to accomplish wheelchair control.

39 These children also deteriorated to wheelchair dependence (31% -> 57%), exclusive enteral fe

40 These children also deteriorated to wheelchair dependence (31% 57%), exclusive enteral feedi

41 onset, time to disease progression, time to wheelchair dependence and age at death all differed sign

42 ability to walk further than 100 m unaided), wheelchair dependence and mortality.

43 Information about age at wheelchair dependence and steroid use was gathered.

44 those with GAD65 autoimmunity progressed to wheelchair dependence at a rate similar to those with PM

45 -Meier analyses revealed that progression to wheelchair dependence occurred significantly faster amon

46 of neurogenic bladder symptoms, 63 years for wheelchair dependence, and 70 years for death.

47 medication use add to the risk for need for wheelchair dependence, raising the possibility for bette

48 .86 (0.78-0.94); p<0.001) and similar age at wheelchair dependence.

49 oth patients returned to everyday life, from wheelchair dependency to bicycling and mountain hiking,

50 adolescence, and patients slowly progress to wheelchair dependency usually in the late teens or early

51 years of disease duration and a quarter were wheelchair dependent after 15 years.

52 dian disease duration of 23 years and became wheelchair dependent after a median 33 years.

53 % permanent motor disability, 23% had become wheelchair dependent and 9% had died.

54 more likely than those without tremor to be wheelchair dependent and have a worse Expanded Disabilit

55 e associated with a reduced risk of becoming wheelchair dependent by current licensed DMTs.

56 rapidly progressive sensorimotor PN (9 were wheelchair dependent) and 14 were male.

57 s (frequent falls, use of urinary catheters, wheelchair dependent, unintelligible speech, cognitive i

58 antly longer and were at less risk to become wheelchair dependent.

59 years with the disease, 50% of patients were wheelchair dependent.

60 ean age: 8.9 +/- 6.4 years, SD) and 54% were wheelchair-dependent (mean age: 13.4 +/- 9.8 years, SD).

61 negative), and 3 AQP4-Ab negative cases were wheelchair-dependent.

62 use of ankle-foot orthoses, full-time use of wheelchair, dexterity difficulties and also has signific

63 Automatic wheelchairs directly controlled by brain activity could

64 vidual measures), as was time to requiring a wheelchair (EDSS >=7).

65 the Emperor Penguin Optimized Sensor-Infused Wheelchair (EPIC), has been designed to monitor the posi

66 Identifying the appropriate wheelchair for a person who needs one has implications f

67 equire assistive devices such as a walker or wheelchair for mobility (OR=23.00; p=0.007).

68 ible speech, severe dysphagia, dependence on wheelchair for mobility, the use of urinary catheters an

69 et patients then required ambulation aids or wheelchairs for ambulation.

70 Patients who used wheelchairs had a lower risk of any fracture (hazard rat

71 Patients who used wheelchairs had a significantly increased risk of death

72 Adults who use wheelchairs have difficulty accessing physicians and rec

73 position and health of the individual in the wheelchair in real-time.

74 The correct sitting posture in a wheelchair is crucial for paralyzed people.

75 ct and the standards of care for patients in wheelchairs is needed.

76 misapplication of Medicare funds for powered wheelchairs, more than a decade after similar concerns w

77 ivity and translate individual commands into wheelchair movements.

78 re or a recently paralyzed user of a powered wheelchair must learn to operate machinery via interface

79 d half of the patients (53%) needed to use a wheelchair on average 24.1 years after symptom onset.

80 ort have fixed myopathy and 13.5% required a wheelchair or gait aid.

81 Moving in a manual wheelchair places significant strain on the upper extrem

82 ate for muscle weakness during transfers and wheelchair propulsion.

83 This research proposes an autonomous wheelchair prototype system integrated with biophysical

84 In conclusion, the wheelchair prototype uses AI algorithms and navigation t

85 Exclusions were needing a wheelchair, receiving hospice care, and undergoing radio

86 uscle weakness from birth, are confined to a wheelchair, require ventilator assistance, and have redu

87 lts in developmental delay, confinement to a wheelchair, respiratory insufficiency and premature deat

88 Factors like designing efficient wheelchair routes, maintaining escalators and elevators,

89 xamined 74 individuals participating in team wheelchair sports who were experiencing shoulder pain.

90 a cane, crutches, motorized scooter, walker, wheelchair, stretcher, assistance standing, or transport

91 A powered wheelchair system was developed with three biophysical s

92 f fall injury was lower among those who used wheelchairs than among ambulatory controls (unadjusted H

93 orted inability to transfer a patient from a wheelchair to an examination table, and 22 (9%) reported

94 d movement of the right hand would steer the wheelchair to the right.

95 res and 9 unrelated fractures (mostly during wheelchair transfers) were reported.

96 stiffness tuning could enable personalising wheelchair tyres to meet the specific needs of individua

97 from the time of skin biopsy to the time of wheelchair usage (p = 0.029).

98 progression to falls (P = 0.03) and regular wheelchair use (P = 0.02) in comparison to the multiple

99 ales were more likely overall to progress to wheelchair use and at a faster rate as compared to males

100 Association between wheelchair use and fracture outcomes and injurious falls

101 , can result in severe immobility justifying wheelchair use for increased mobility.

102 the effect of allele size on progression to wheelchair use is small compared to disease duration, wh

103 ge, 3-50 years) and a mean (SD) age at first wheelchair use of 26 (9) years (age range, 11-64 years).

104 e randomized (1:1) to standard of care (SOC) wheelchair use or SOC plus at-will use of a US Food and

105 ings suggest that immobility associated with wheelchair use should not be considered a risk factor fo

106 retrospective cohort study of older adults, wheelchair use was associated with a lower risk of fract

107 Shorter time from onset of progression to wheelchair use was associated with higher prevalence of

108 tive epidemiological techniques, and risk of wheelchair use was determined using Cox proportional haz

109 ic data including clinical diagnosis, age at wheelchair use, age at loss of ambulation, and presence

110 is a slowly progressive disease, leading to wheelchair use, on average, 12-20 years after onset of s

111 tices for environmental and personal safety, wheelchair use, psychotropic drug use, and transferring

112 mine predictors of outcomes such as need for wheelchair use.

113 er age at onset, diagnosis and likelihood of wheelchair use.

114 ith a median time from disease onset to been wheelchair user of 8.5 years.

115 r user, while FVC <70% and being a full-time wheelchair user were associated with death.

116 evaluate the psychometric properties of the Wheelchair User's Shoulder Pain Index (WUSPI-Pol) in whe

117 w 50% was as risk factor for being full-time wheelchair user, while FVC <70% and being a full-time wh

118 Full time wheelchair users accounted for 19.1% with a median time

119 d social force model, explicitly integrating wheelchair users and visually impaired individuals.

120 eled mobility service delivery for long-term wheelchair users with complex rehabilitation needs and p

121 id instrument for assessing shoulder pain in wheelchair users.

122 disease evolution, half of the patients were wheelchair users.

123 k (DMN) was used to predict the posture of a wheelchair-using patient following the feature selection

124 s a precise, hands-free control of a robotic wheelchair via electrooculograms.

125 A total of 55 442 adults using wheelchairs were included in the analysis (mean [SD] age

126 of existing pneumatic tyres commonly used in wheelchairs while achieving higher rotational stiffness

127 nic ambulatory disabilities requiring use of wheelchairs who were recruited from advocacy and support

128 Assistive powered wheelchairs will bring patients and elderly the ability