View clinical trials related to Flatfoot.
Filter by:The plantar fascia is a thick, multi-layered, non-elastic fibrous tissue band that extends along the plantar surface of the foot.The configuration of the plantar fascia is generally considered as a dense, longitudinally arranged fiber band divided into medial, central, and lateral components. The most significant functional role of the plantar fascia is to maintain the arch structure of the foot, providing a stable support base while standing and absorbing dynamic reaction forces during walking.Pes planus is a rather general term with many definitions. Staheli described pes planus as a "foot with a broad base of support," commonly known as flatfoot in layman's terms. In a study involving 80 female participants aged 65 and older, 90% of foot deformities observed while standing were identified as pes planus. Generally, pes planus is a condition characterized by excessive pronation of the rear part of the foot and a lowering of the medial longitudinal arch. During the push-off phase of walking, the pronation moment generated by the ground reaction force flattens the arch as the subtalar joint rotation combines. The shift in position in the talus bone causes the navicular bone to drop. The plantar calcaneonavicular ligament tightens, and the tibialis posterior muscle lengthens. Abnormalities in the bones of the foot, dysfunction of the tibialis posterior muscle, Achilles tendon shortening, or muscle weakness can contribute to pes planus. Individuals with pes planus may experience foot and leg pain with exercise, physical activity, and prolonged walking, which can limit their level of physical activity. Research has examined the relationship between pes planus and various physical parameters, and it has been found that one of these parameters, balance, is negatively affected by the presence of pes planus.
The effects of Kinesio-taping and rigid-taping on vertical jump performance have been investigated; however, results remain unclear.
In this study, it was aimed to determine the effect of pressing styles and insoles on jumping performances.
The aim of our study is to examine the effect of using kinesiology tape and using it for 8 weeks on Q angle and pes planus on children with cerebral palsy.
The goal of the clinical trial study is to test the effect of the individual complex physiotherapy intervention program in the children actively playing soccer with flatfoot or valgus foot. The aims are: 1. see if the medial longitudinal arch will by actively more higher after the intervention 2. see if the type of the foot will change toward more neutral type after the intervention 3. see if the transfer of the centre of body mass through the foot during the gait will directed in more neutral line after the intervention The participants will undergo clinical assessment of short kinesiology assessment visually in underwear and barefoot. Then Participant will be tested for balance test in narrow stance with open and closed eyes, and single.leg stance with open eyes on the pressure mat. Finally, participant will walking in self-selected normal speed through the gait pressure mat. Eaxh procedure will be measured twice, before the program start and after the 4 weeks when the program finish. Researchers will compare these two measurement for the changes.
The goal of this clinical trial is to compare the effects of 3D printed insoles versus prefabricated insoles in otherwise healthy subjects with flatfoot condition. The main question it aims to answer is: - If 3D printed insoles are better in terms of fit, weight, durability, comfort, and effectiveness compared to prefabricated insoles. - If 3D printed insoles are better in terms of reducing pain compared to prefabricated insoles. Participants will be divided in two groups. One group will receive 3D printed insoles and other group will wear prefabricated insoles for four weeks. After four weeks, researchers will record their feedback about their insoles which will help them to compare the two insoles.
Thirty-six subjects randomly distributed between a dry needling intervention group and a control group whose intervention is a non-emission laser. All the subjects will be measured before and after the interventions of each group. The measurements will be made on a pressure platform to record the dynamic footprint variables.
Thirty-six subjects randomly distributed between a pressure release intervention group and a control group whose intervention is a non-emission laser. All the subjects will be measured before and after the interventions of each group. The measurements will be made on a pressure platform to record the stabilometry variables.
The purpose of this study is to investigate the effects of intrinsic strengthening and dynamic balance exercises in patients with flexible pes planus. Forty-five participants aged 18 to 35 years were enrolled in the study, and the first group underwent intrinsic foot muscle strengthening training with short foot exercises (SFE) and used insoles. The second group trained using the dynamic balance board, which promotes dynamic balance and used insoles. The third group used only insoles. The total duration of treatment was 8 weeks/3 days. The degree of foot deformity was assessed with the, medial longitudinal arch (MLA) angle, measurements of subtalar angle and navicular drop test. Foot position assessed using Foot Posture Index (FPI) Static balance was assessed with the Flamingo Balance Test and dynamic balance with the " BOBO Health Platform with Gaming®" device.
Pes planus is a foot deformity characterized by a low medial longitudinal arch. It is more common in young adults. With low arch, tension occurs in the plantar fascia. Fascia and soft tissue loading may lead to different musculoskeletal problems such as plantar fasciitis, medial tibial stress syndrome, patellofemoral disorders and back pain. In addition, pes planus can affect individuals' activities of daily living, productivity in occupational settings, and injury risk and performance in sports. Treatment of pes planus includes strengthening, stretching, taping and orthotics for the foot muscles. Among these applications, strengthening of the foot core muscles is one of the most common and effective methods. By strengthening the foot core muscles, it is aimed to reduce the effect of the kinetic chain. Pes planus is a postural deformity that affects the kinetic and fascial chain, but the treatment program is usually planned regionally. With fascial continuity and fascial conduction, the tension on the plantar fascia in pes planus affects the gastro-soleus, peroneus longus and brevis, hamstring muscles, iliotibial band and thoracolumbar fascia. Stretching of the plantar fascia, which is included in current treatment programs, has only a local effect and thus cannot prevent fascial chain involvement. Myofascial release, one of the methods used to reduce the tension in the fascia, has been used frequently in recent years. Myofascial release is performed with methods such as manual, foam roller and instrument assisted release. Foam roller (cylinder foam) is a practical myofascial release method that can be self-applied by the individual. In addition to strengthening the intrinsic muscles of the foot in individuals with pes planus, it has been reported that fascial chain involvement should also be taken into consideration due to the tension in the plantar fascia with low arch. This study was planned to investigate the effect of myofascial release methods on lower extremity performance in addition to foot core exercises used effectively in the treatment of pes planus.