The Efficacy of Continuous Passive Motion Instituted After Surgical Release of the Post-traumatic Persistent Stiff Elbow: A Clinical Investigation

1989 ◽  
Vol 29 (9) ◽  
pp. 1301
Author(s):  
H Kerr Graham ◽  
Robert B. Salter
1995 ◽  
Vol 4 ◽  
pp. S20 ◽  
Author(s):  
J.O. Søjbjerg ◽  
P. Kj˦rsgaard-Andersen ◽  
H.V. Johanssen ◽  
O. Sneppen

1988 ◽  
Vol 13 (3) ◽  
pp. 286-287
Author(s):  
T. F. BREEN ◽  
R. H. GELBERMAN ◽  
G. N. ACKERMAN

We treated three elbows with post-traumatic flexion contractures (mean contracture: 41°) by operative release and post-operative continuous passive motion rehabilitation. Each elbow had been resistant to at least six weeks of conservative therapy. All patients complained of the residual deformity and some functional deficit. All patients, after failure of non-operative therapy, desired operative treatment. At follow-up (mean 12 months), there was a mean post-operative contracture of 5°. Continuous passive motion is recommended as an adjunct to anterior release in patients with resistant elbow flexion contractures.


2021 ◽  
Vol 11 (2) ◽  
pp. 815
Author(s):  
Husam Almusawi ◽  
Géza Husi

Impairments of fingers, wrist, and hand forearm result in significant hand movement deficiencies and daily task performance. Most of the existing rehabilitation assistive robots mainly focus on either the wrist training or fingers, and they are limiting the natural motion; many mechanical parts associated with the patient’s arms, heavy and expensive. This paper presented the design and development of a new, cost-efficient Finger and wrist rehabilitation mechatronics system (FWRMS) suitable for either hand right or left. The proposed machine aimed to present a solution to guide individuals with severe difficulties in their everyday routines for people suffering from a stroke or other motor diseases by actuating seven joints motions and providing them repeatable Continuous Passive Motion (CPM). FWRMS approach uses a combination of; grounded-exoskeleton structure to provide the desired displacement to the hand’s four fingers flexion/extension (F/E) driven by an indirect feed drive mechanism by adopting a leading screw and nut transmission; and an end-effector structure to provide angular velocity to the wrist flexion/ extension (F/E), wrist radial/ulnar deviation (R/U), and forearm supination/pronation (S/P) driven by a rotational motion mechanism. We employed a single dual-sided actuator to power both mechanisms. Additionally, this article presents the implementation of a portable embedded controller. Moreover, this paper addressed preliminary experimental testing and evaluation process. The conducted test results of the FWRMS robot achieved the required design characteristics and executed the motion needed for the continuous passive motion rehabilitation and provide stable trajectories guidance by following the natural range of motion (ROM) and a functional workspace of the targeted joints comfortably for all trainable movements by FWRMS.


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