Upper Extremity
This complex anatomical area is crucial for a wide range of human movements and functions, including reaching, grasping, manipulating objects, and performing fine motor tasks.
Researchers studying the upper extremity may investigate topics such as musculoskeletal structure, biomechanics, sensory and motor control, and the impact of injuries or disorders.
Optimizing upper extremity research protocols is essential for ensuring reproducible and accurate findings that advance our understanding of this important body region.
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Most cited protocols related to «Upper Extremity»
Forty-one healthy adults were eligible for inclusion: 21 men aged 35.8 ± 16.5 years old and 20 women aged 36.1 ±15.2 years old. 90% of them were right-handed, which is comparable to the world population [14 (link)]. All participants agreed to take part in this study and gave their written informed consent to their inclusion in this study. This study was approved by the Medical Ethics Committee Arnhem/Nijmegen (registration number 2017–3373).
Of the 109 responders, 105 had responded to at least 10 of the 11 items used in the QuickDASH and were included in the analysis. The mean age of the 105 participants was 52 (range 18–83) years; 60 (57%) were women and 45 were men.
Most recents protocols related to «Upper Extremity»
Those who did not give consent
Existence of contraindications for arterial blood sampling, including impalpable or negative Allen’s test in the upper extremities, infection or fistula at the desired site of puncture, or having severe coagulation disorders
Interval of more than 10 min between arterial and venous sampling and inappropriate sample transfer to the laboratory
Postcardiac arrest patients
All of the radiographic parameters concerned in this current study were shown in the Fig.
Ankle brachial index (ABI) was measured noninvasively by a continuous-wave Doppler ultrasound probe (Vista AVS, Summit Co., USA) with participants in the supine position after at least 5 min of rest. Leg-specific ABI was calculated by dividing the higher SBP in the posterior tibial or dorsalis pedis by the higher of the right or left brachial SBP (33 (link), 38 (link)). Patients were diagnosed as having PAD if an ABI value <0.9 on either limb (33 (link), 38 (link)).
DFU was defined as ulceration of the foot (distally from the ankle and including the ankle) associated with neuropathy and different grades of ischemia and infection (39 (link)).
For severity of possible TD, clinicians and patients were asked to “rate the severity of visible, uncontrollable movements” for each of 4 body regions (head/face, neck/trunk, upper extremities, and/or lower extremities) using simple descriptors of “none”, “some”, or “a lot”. For impact of possible TD, patients who were aware of their abnormal involuntary movements (Cohort 2A) were asked to rate how much “over the past 4 weeks” did these movements “impact your ability” to perform each of 7 different activities/functions (usual activities, talking, eating, breathing, being productive, self-care, socializing), also using the descriptors of “none”, “some”, or “a lot”. For regression analyses, these descriptors were assigned values of 0, 1, and 2, respectively, with the summary score for severity ranging from 0 (“none” in all 4 regions) to 8 (“a lot” in all 4 regions) and the summary score for impact ranging from 0 (“none” in all 7 activities) to 14 (“a lot” in all 7 activities).