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연제번호 : 33 북마크
제목 TIME-COURSE AND EVOLUTION OF UPPER LIMB SPASTICITY DURING THE ONE YEAR FOLLOWING FIRST-EVER STROKE
소속 Inha University Hospital, Department of Rehabilitation Medicine1, Korea University Anam Hospital, Department of Rehabilitation Medicine2, Kyung Hee University Hospital at Gangdong, Department of Rehabilitation Medicine3, Jeju National University Hospital, Department of Rehabilitation Medicine4, The Catholic University of Korea St. Vincent`s Hospital , Department of Rehabilitation Medicine5, Gachon University Gil Medical Center, Department of Rehabilitation Medicine6, Chungbuk National University Hospital, Department of Rehabilitation Medicine7, Dong A University Hospital , Department of Rehabilitation Medicine8, Inje University Busan Paik Hospital, Department of Rehabilitation Medicine9, presbyterian Medical Center, Department of Rehabilitation Medicine10
저자 Jung Han Young1*†, Pyun Sung Bum 1, Yoo Seung Don 1, Han Eun Young1, Lim Seong Hoon 1, Lee Ju Kang 1, Lee Kyoung Moo 1, Lee Kyeong Woo 1, Kim Hyun Dong 1, Lee Kwang Jae 1
OBJECTIVE: Post-stroke spasticity (PSS) is one of functional barrier for stroke survivors. There is a need for early identification and understanding of change of PSS over time. Therefore, we want to establish the change of post stroke spasticity until 12 months from the first ever stroke onset.

METHODS: A multicenter medical record review for incidence of spasticity at the first detection time, 3, 6 and 12 months after the first ever stroke at 10 university hospitals. Except for 186 stroke subjects who lacked medical records on spasticity, 814 stroke subjects with spasticity (454 cerebral infarct and 360 cerebral hemorrhages) were completely reviewed (Fig.1) (Table 1). Main outcome measures were change of post stroke spasticity (PPS) at the elbow, and wrist in hemiplegic upper limb measured by the Modified Ashworth Scale (MAS).

RESULTS: The 1st detection time (median value) and degree of spasticity in all stroke subjects were 1.26 / 30.5days in infarction and 1.35 / 42.0days in hemorrhage, respectively (p<0.01) (Table 2). PPS had changed from at the first detection of spasticity to at 3, 6 and 12 months in hemiplegic elbow (1.16, 1.29, 1.54, 1.82) and wrist (1.23, 1.30, 1.47, 1.84), respectively, but there were no significantly difference between elbow and wrist (p>0.05)(Table 3). In subjects with cerebral infarction, the incidence of spasticity was higher at cerebral cortex, basal ganglia, pons, thalamus, thalamus, medulla, and midbrain in order. However, the order of incidence in those with cerebral hemorrhage was basal ganglia, cerebral cortex, thalamus, pons, and cerebellum (Table 4). In the supratentorial lesion, more severe PPS was developed and aggravated over time (Table 5). For management of PPS, Physiotherapy and occupational therapy were the most basic treatments, and other treatments were antispastic oral agents, botulinum toxin, and orthosis in order (Table 6, 7).

Conclusion
Post-stroke spasticity in upper limb shows different incidence and the first detection time between types of stroke, and tends to deteriorate over time, especially in cerebral hemorrhage and supra-tentorial lesions.
Fig.1 : Flow diagram for the subjects with spastic upper limb
Table 2: Time course and distribution of spasticity at hemiplegic elbow flexor muscles
Table 7: Different modalities to manage spasticity in subjects for hemiplegic elbow flexor muscles