Leonhard Döderlein's research while affiliated with University of Oxford and other places

... The original search yielded 546 records, of which 309 duplicates were removed, 245 underwent screening of title and abstract, 57 going through full-text review, and 20 subsequently included for review (Figure 1). Seven publications required additional data/information to confirm eligibility and for reporting, 7,9,14,19,[34][35][36] from which four were received, 7,9,14,36 and three were subsequently excluded (data unavailable from authors), 19,34,35 resulting in a total of 17 studies included for data extraction. Of these 17 studies, authors of nine studies reported or supplied subgroup data for the subgroups of participants with CP meeting our inclusion criteria. ...

... This procedure, performed in combination with GSL, may improve the function of the tibialis anterior muscle and hence improve ankle dorsiflexion during the swing phase of gait [28]. This has the potential to reduce the frequency of foot drop and obviate the need for long-term AFO use [29,30]. Retrospective cohort studies of the effectiveness of TATS have been published [28,29,31]. ...

... Hence, FES has great potential for improving foot posture in a flexible clubfoot deformation. The indication of FES use can even be extended to patients with dynamic clubfoot deformities in order to improve the repositioning of the clubfoot at initial contact [37]. ...

... Initially, the search strategy provided 1194 unique articles. After screening articles for inclusion and exclusion criteria, 20 studies met the criteria [24][25][26][27][28][29][30][31][32][33][34][35][36][37][38][39][40][41][42][43]. Articles were mainly excluded since the described clubfoot cohort was not treated with the Ponseti method, and no kinematic outcomes were reported ( Figure 1). ...

... К методам диагностики мобильной плоско-вальгусной деформации стоп относятся визуальный осмотр с проведением тестов мобильности стопы, подометрия и фотоплантография с расчетом индексов стопы, компьютерная педобарография для изучения биомеханической функции стопы. Проводят компьютерную томографию перед операцией для создания 3D-структуры стопы и оптимизации плана операции, а для оценки состояния мягких тканей (ахиллова сухожилия, пружинящей связки, сухожилия задней большеберцовой мышцы, подошвенной фасции) -магнитно-резонансную томографию или ультразвуковое исследование [15][16][17][18][19]. «Золотым стандартом» диагностики плоскостопия остается рентгенография стоп и голеностопных суставов в двух проекциях под нагрузкой с измерением множества параметров для определения степени тяжести плоско-вальгусной деформации стоп [20,21]. ...

... Bruinicks Oseretsky test), and as for the 6MWT, participants with cavus feet had the worst results. The foot type classification using the FPI occurs in a static condition; it may not reflect the foot's behavior in dynamic conditions, according to a study of radiological data and kinematics [33]. Another factor to be considered is that our study participants, unlike adults with CMT, are still developing their deformities. ...

... In recent years, there has been an increasing interest in foot interfaces [9]. For accurately detecting gait and related parameters, literature showcased a great number of technology approaches, which include the following sensors: Inertial Measurement Units (IMUs) for measuring movements, rotation, and angular velocity [18,22], Pressure sensors for measuring ground contact and calculating the center of pressure [11,12], Temperature and humidity sensors for monitoring diabetic foot ulceration [25,26], Strain gauges for recognizing stretch, bend, and changing pressure [5], Speed sensors for calculating physical forces [19], GPS for tracking location, height differences, speed, and distance, Capacitive sensors for detecting walking styles, foot gestures, and floor type [15,23], Infrared light sensors for measuring heat and blood flow, and detecting blood sugar [6,7,14], Microphone sensors for determining gait parameters [29,29] and Cameras for tracking of posture and gait, and detecting terrain [2,3,30]. ...

... Increased hip adduction moments, particularly during PSw, might be, on the one hand, the result of prolonged stance phase (indicated by vertical lines within the figures) and, on the other hand, due to pelvic obliquity caused by leg-length discrepancy (LLD). Our results are consistent with those previously reported [7,21,28,29]. Absolute values comparable to those encountered during our investigations were reported, though only considering sagittal joint kinematics and partial joint moments for the uninvolved limb [28,30]. Generally, the movement pattern of the sound limb was assumed to be the result of the secondary deviation of the involved limb and a strategy to provide increased stability in order to optimize gait [8,9,21]. ...

... Overall, the results presented in the current study could be used to optimize training regimes to improve FR capacity and contribute to evidence-based and fair classification for this parasport. 25 in individuals with CP has been widely discussed, but remains inconclusive [22][23][24][25] . Indeed, the relationship between these factors is complex 23 . ...

... Future trials are needed to estimate how much more (or less) effective eccentric training is than usual rehabilitation, and to determine its optimal dose-effect. Finally, we excluded trials using taskoriented exercises such as backward gait-training (Hosl et al., 2018), whose tend to influence motor control, skill, speed, endurance, and not only strength. Ballistic training offers opportunities but might be more suitable when the goal of training is to improve the rate of force production (Williams et al., 2019). ...