or permanent tissue tensions [3]. One method of assessing these stresses is to measure plantar pressure distribution [4]. This is a necessary indicator in biomechanical analysis for assessing any dynamic or static activity, and it has become almost indispensable in studies of lower limb behavior. Although plantar pressure data is widely recognized for evaluating individuals with diabetes and peripheral neuropathy, these measurements can also be fundamental in assessing and managing disabilities related to neurological disorders [5; 6; 7]. In addition, it is a determining factor in populations suffering from conditions such as diabetic foot, plantar fascitis, bone deformities, and gait alterations [8]. Apart from the aforementioned pathological conditions being influenced by the distribution of plantar pressure, it is reported in the published literature that this biomechanical parameter also plays a critical factor in assessing the postural condition of the human body [9]. It is known that an inadequate posture can lead to unequal plantar pressure distribution, thus causing diverse direct musculoskeletal problems. This can be observed in both static and dynamic situations. Therefore, the growing interest and knowledge acquisitions in this area have paved the way for the most diverse diagnosis, physiotherapy, and rehabilitation [5; 10; 11]. From a clinical perspective, analyzing plantar pressure during different postures and movements allows the detection of biomechanical compensations, which can result in injuries if not detected and corrected in time. Several studies have been published on this interesting topic. Two of these studies, carried out by our research group and already published, are highlighted here. The first examines the differences between the plantar pressure of acrobatic gymnasts when jumping two competition floors [12] and the other assesses the plantar pressure in five different basketball movements [13]. One main conclusion that can be drawn from both reported studies is that the asymmetry between the feet creates an increased propensity for injury. The acquired results can be used to develop several approaches and be helpful in the reduction of the occurrence of lesions. Integrating plantar pressure assessment in different postures has become essential to correctly analyzing the individual's global biomechanics. Several technologies have been developed to obtain plantar pressure data. These types of equipment can collect the desired data, which is then used for further analysis with proper software. The results are subsequently used to improve clinical assessment and research accuracy. The technologies created have been grouped mainly into two systems: insoles with integrated sensors [14; 15] and pressure platforms [16; 17; 18]. Rigid pressure platforms are commonly used to measure plantar pressures to assess foot function during standing and walking, particularly barefoot. They are considered the most accurate method for measuring plantar pressures. In-shoe systems are most suitable for measuring plantar pressures in the field during daily living or dynamic sporting movements as they are often wireless and can measure multiple steps. They are the most suitable equipment to assess the effects of footwear and orthotics on plantar pressures. However, they typically have lower spatial resolution and sampling frequency than platform systems [19]. Most commercial smart insole solutions utilize pressure sensors, including resistive, capacitive, or piezoelectric sensors. In some cases, these sensors are complemented with IMU. Regarding the fields of application, there is a balanced distribution between clinical use (rehabilitation, diagnosis of pathologies), sports (performance optimization, injury prevention), and research (data collection for scientific studies). Equipment such as commercial insoles, like the Motion's OpenGo, utilize BLE to transmit data from 16 plantar sensors and an inertial unit, enabling them to operate for days on a single battery charge due to optimized protocols.