Postural Changes Research Articles

The Postural and Body Surface Temperature Response of Leisure Horses to Lunging with Selected Lunging Aids.

Incorporating lunging into a horse's daily routine aims to enhance fitness, physical condition, and specific skills or exercises when using lunging aids (LAs). To assess the effectiveness of lunging, non-contact technologies like geometric morphometrics and infrared thermography can be employed. This study seeks to evaluate lunging efficiency based on the horse's posture and surface temperature when lunging with different head and neck positions. The study aims to determine if changes in a horse's posture correspond to increased metabolic activity, as indicated by body surface temperature. Thirteen horses included in the study were lunged with chambon (CH), rubber band (RB), and triangle side reins (TRs) as well as with a freely moving head (FMH). Images were taken in visible light and infrared. Principal Component Analysis (PCA) was used to analyze horse posture changes and a Pixel-Counting Protocol (PCP) was used to quantify surface temperature patterns. The horses' posture exhibited contrasting changes, reflected by a changing centroid shape (p < 0.0001) but not size (p > 0.05) when lunged with RB and TRs, but not CH. Different (p < 0.0001) surface temperature patterns were observed during lunging. FMH lunging resulted in lower temperatures over a larger surface, CH induced moderate temperatures on a smaller area, RB caused moderate to high temperatures across a broader surface, and TRs led to higher temperatures over a smaller region. The studied lunging cases returned different (p < 0.0001) surface temperature patterns. Lunging with FMH returned lower temperatures over a larger surface, CH moderate temperatures on a smaller area, RB moderate to high temperatures across a broader surface, and TRs higher temperatures over a smaller region. The proposed methods can be applied to evaluate the efficiency of lunging in horses.

Preventive care for osteoporosis in family medicine: risk assessment, bone health, and fracture prevention

Osteoporosis is a health condition that involves bones and an elevated likelihood of fractures. In the realm of family medicine, the prevention of osteoporosis entails evaluating risks promoting bone health and minimizing the occurrence of fractures. This review explores aspects of care for osteoporosis in family medicine, focusing on early detection and intervention. Family physicians need to be observant of signs like fragility fractures, postural changes, and height loss that indicate osteoporosis. Many different elements, such as one’s age, gender, family medical background and the choices they make in their lifestyle can contribute to the likelihood of developing osteoporosis. These factors also help in devising measures to address the condition effectively. Managing osteoporosis requires an approach led by family physicians that includes lifestyle adjustments, medication interventions tailored to risks, and patient education. Emphasizing weight-bearing exercises, nutrition personalized medications are elements of preventive care. Patient education plays a role in ensuring adherence to prescribed treatments as well as adopting strategies to prevent falls. Tools like FRAX help family physicians assess risks and tailor interventions accordingly. Collaborating with therapists and dietitians further enhances the effectiveness of managing osteoporosis through care. Family doctors go beyond their duties. Take a role in community initiatives that aim to increase awareness offer education and carry out screenings to prevent osteoporosis. Family doctors, as healthcare providers, play a role in minimizing the effects of osteoporosis on bone health and overall well-being. This review provides a summary of measures for osteoporosis, in family medicine emphasizing the significance of early identification, personalized treatment and community involvement.

Posture-Induced Changes in Intraocular, Orbital, Cranial, Jugular Vein, and Arterial Pressures in a Porcine Model.

The purpose of this study was to determine posture-induced changes in arterial blood pressure (ABP), intraocular pressure (IOP), orbital pressure (Porb), intracranial pressure (ICP), and jugular vein pressure (JVP) at various tilt angles in an in vivo pig. Anesthetized and ventilated pigs (n = 8) were placed prone on a tiltable operating table. ABP, IOP, Porb, ICP, and JVP were monitored while the table was tilted at various angles between 15degrees head up tilt (HUT) and 25degrees head down tilt (HDT) either in stepwise changes (5 degrees per step) or continuously. The mean pressure was calculated from digitized pressure waveforms from each compartment. For stepwise changes in tilt angle the pressures were plotted as a function of tilt angle. For continuous tilt changes, the pressures were plotted as a function of time. In the case of stepwise changes, ABP remained relatively stable whilst IOP, Porb, ICP, and JVP demonstrated significant differences between most angles (typically P < 0.0001). The difference was greatest for IOP (P < 0.0001) where the average IOP increased from 13.1 ± 1.23mm Hg at 15degrees HUT to 46.3 ± 2.03mm Hg at 25 degrees HDT. The relationship between pressure and tilt angle was almost linear for ICP and JVP, and sigmoidal for IOP and Porb. Interestingly, the effect of changes in tilt angle occurred very rapidly, within a few seconds. Our results in a pig model demonstrate that changes in posture (tilt angle) induce rapid changes in IOP, Porb, ICP, and JVP, with IOP affected most severely.

Orthostatic blood pressure changes do not influence cognitive outcomes following intensive blood pressure control.

Effects of intensive blood pressure (BP) control on cognitive outcomes in patients with excess orthostatic BP changes are unclear. We aimed to evaluate whether orthostatic BP changes modified the effects of BP intervention on cognitive impairment. We analyzed 8547 participants from the Systolic Blood Pressure Intervention Trial Memory and cognition IN Decreased Hypertension. Associations between orthostatic BP changes and incident cognitive outcomes were evaluated by restricted cubic spline curves based on Cox models. The interactions between orthostatic BP changes and intensive BP intervention were assessed. The U-shaped associations were observed between baseline orthostatic systolic BP changes and cognitive outcomes. However, there were insignificant interactions between either change in orthostatic systolic BP (P for interaction=0.81) or diastolic BP (P for interaction=0.32) and intensive BP intervention for the composite outcome of probable dementia or mild cognitive impairment (MCI). The hazard ratio of intensive versus standard target for the composite cognitive outcome was 0.82 (95% CI 0.50-1.35) in those with an orthostatic systolic BP reduction of >20mmHg and 0.41 (95% CI 0.21-0.80) in those with an orthostatic systolic BP increase of >20mmHg. Results were similar for probable dementia and MCI. The annual changes in global cerebral blood flow (P for interaction=0.86) consistently favored intensive BP treatment across orthostatic systolic BP changes. Intensive BP control did not have a deteriorating effect on cognitive outcomes among hypertensive patients experiencing significant postural BP changes.

Effect of lateral position on rostral fluid shift and relationship to severity of Cheyne-Stokes respiration in heart failure patients.

Lateral sleep position has a significant beneficial effect on the severity of Cheyne-Stokes respiration with central sleep apnea (CSR-CSA) in patients with heart failure (HF). We hypothesized that a reduction in rostral fluid shift from the legs in this position compared with the supine position may contribute to this effect. In patients with CSR-CSA and an apnea-hypopnea index (AHI) ≥ 15/h (by standard polysomnography), uncalibrated leg fluid volume was measured in the supine, left lateral decubitus, and right lateral decubitus positions (in-laboratory assessment). The correlation between postural changes in fluid volume and corresponding changes in AHI was evaluated. Since there was no difference in both leg fluid volume and AHI between the right and left positions, measurements in these two conditions were combined into a single lateral position. In 18 patients with CSR-CSA,leg fluid volume increased by 2.7 ± 3.1% (p = 0.002) in the lateral position compared to the supine position, while AHI decreased by 46 ± 20% (p < 0.0001) with the same postural change. The correlation between postural changes in AHI and leg fluid volume was 0.22 (p = 0.42). Changes in leg fluid volume were a slow phenomenon, whereas changes in CSR-CSA severity were almost synchronous with changes in posture. Lateral position causes a reduction in rostral fluid shift compared to the supine position, but this change does not correlate with the corresponding change in CSR-CSA severity. The two changes occur on different time scales. These findings question the role of postural changes in rostral fluid shift as a determinant of corresponding changes in CSR-CSA severity.

Cardiorhythm in postural changes depending on the autonomic centers reactivity

Postural changes are accompanied by the formation of an adaptive response of the cardiovascular system. This is manifested by a change in heart rate variability. The features of the reaction largely depend on the excitability (reactivity) of the vegetative centers. The aim of the study was to identify individual features of heart rate regulation in postural changes depending on the reactivity of sympathetic and parasympathetic autonomic centers in students. Material and Methods. In 50 men, temporal, frequency, geometric and calculated indicators of heart rate variability were determined in a horizontal position, with active orthostasis, passive orthostasis and passive antiorthostasis. The reactivity of the sympathetic system was assessed by the change of heart rate in active orthostasis. The reactivity of the parasympathetic system was determined by K30:15. Results and Discussion. With normal and high sympathetic reactivity, active orthostasis causes an increase in the low-frequency power of the spectrum, stress index, heart rate, a decrease in the high-frequency component and the duration of cardiac intervals. The changes are more pronounced with high sympathetic reactivity. In passive orthostasis, high sympathetic reactivity is manifested by a large increase in heart rate, shortening of cardiac intervals and a decrease in the proportion of the spectrogram high-frequency component. Passive antiorthostasis with normal sympathetic reactivity causes a decrease in the adequacy of the regulation processes and an expansion of the scatterogram. In subjects with high parasympathetic reactivity with active orthostasis, the increase in the stress index is less than with normal and low reactivity. With low parasympathetic reactivity, the indicator of the adequacy of the regulation processes is greater than with normal and high reactivity, and the increase in heart rate and shortening of the minimum cardiac interval is greater than with normal. In passive orthostasis, the proportion of the high-frequency component decreases, the proportion of the ultra-low-frequency component increases, the modal cardiointerval shortens, which is more pronounced with low parasympathetic reactivity than with normal. In passive antiorthostasis, the ultra-low frequency component decreases in individuals with normal reactivity. With high reactivity, the maximum value of the high-frequency component increases and the adequacy of the regulation processes decreases. Conclusion. Active and passive orthostasis is accompanied by activation of sympathetic centers. It is more pronounced with high reactivity of the sympathetic department and low reactivity of the parasympathetic. Passive antiorthostasis stimulates the activity of parasympathetic cardiac centers in subjects with normal, high parasympathetic reactivity and normal sympathetic reactivity.

Moderate mass loss enhances flight performance via alteration of flight kinematics and postures in a passerine bird.

Many birds experience fluctuations in body mass throughout the annual life cycle. The flight efficiency hypothesis posits that adaptive mass loss can enhance avian flight ability. However, whether birds can increase additional wing loading following mass loss and how birds adjust flight kinematics and postures remain largely unexplored. We investigated physiological changes in body condition in breeding female Eurasian tree sparrows (Passer montanus) through a dietary restriction experiment and determined the changes in flight kinematics and postures. Body mass decreased significantly, but the external maximum load and mass-corrected total load increased significantly after 3days of dietary restriction. After 6days of dietary restriction (DR6), hematocrit, pectoralis and hepatic fat content, take-off speed, theoretical maximum range speed and maximum power speed declined significantly. Notably, the load capacity and power margin remained unchanged relative to the control group. The wing stroke amplitude and relative downstroke duration were not affected by the interaction between diet restriction and extra load. Wing stroke amplitude significantly increased after DR6 treatment, while the relative downstroke duration significantly decreased. The stroke plane angle significantly increased after DR6 treatment only in the load-free condition. In addition, the sparrows adjusted their body angle and stroke plane angle in response to the extra load, but stroke amplitude and wingbeat frequency remained unchanged. Therefore, birds can maintain and even enhance their flight performance by adjusting flight kinematics and postures after a short-term mass loss.

Facial Recognition-Based Entry System for Student Residence Halls: Enhancing Security and Accessibility

Protecting an organization from numerous threats both inside and outside is the primary function of the security system. Automated embedded systems have come a long way in the contemporary era and have shown to be highly beneficial in applications related to security and surveillance. Face recognition is one of the study fields in computer vision, which is commonly used in security systems for video surveillance. Even though facial recognition technology has advanced significantly and is employed in several significant applications, numerous challenges need to be solved. These challenges include changes in posture, occlusions, expression, aging, lighting, and other elements. Deep learning can be useful in these situations. By using several processing layers to develop data representations with multiple feature extraction layers, deep learning may achieve higher accuracy. With the purpose of providing better security for student residence halls, in this work, we present a real-time deep learning-based facial recognition system that can be used to identify an individual's identity and give a warning when the individual's face is not recognized in front of the system. Here, faces from the face database are matched in order to identify students based on a video of their arrival into the residence halls. This process begins with face detection and ends with face recognition. We used a Convolutional Neural Network (CNN) based model Multi-Task Cascaded Convolutional Neural Networks (MTCNN) for face detection and recognizing faces using the Google FaceNet model. The model was trained on around 3000 photos, taken by 30 distinct people.

The application of lightweight AI algorithms in postoperative rehabilitation of breast cancer

The prevalence of breast cancer as a major global cancer has underscored the importance of postoperative recovery for breast cancer patients. Among the issues, postoperative patients are prone to spinal deformities, including scoliosis, which has drawn significant attention from healthcare professionals. The primary aim of this study is to design a postoperative recovery platform for breast cancer patients that can effectively detect posture changes, provide feedback and support to medical staff, assist doctors in formulating recovery plans, and prevent spinal deformities. The feasibility of the recovery platform is also validated through experiments. The development and validation of the experimental recovery platform. The recovery platform includes instrument design, patient data collection, model training and fine-tuning, and postoperative body posture evaluation by comparing preoperative and postoperative conditions. The evaluation results are provided to doctors to facilitate the formulation of personalized postoperative recovery plans. This paper comprehensively designs and implements the recovery platform and verifies its feasibility through simulation experiments. Statistical methods were employed for the validation of the rehabilitation platform in simulated experiments, with a significance level of p < 0.05. In comparison to static assessments like CT scans, this paper introduces a dynamic detection method that provides a more insightful analysis of body posture. The experiments also demonstrate the preventive capability of this method against post-operative spinal deformities, ultimately enhancing patients’ self-image, restoring their confidence, and enabling them to lead more fulfilling lives.

Comparison of Spirometric Parameters in different Postures among Young Healthy Volunteers.

Spirometry is the most common pulmonary function tests that specifically measures volume and flow of air during respiration. It helps to identify obstructive and restrictive diseases of the lungs. The alterations of the results in spirometry can happen even in normal health due to change in body postures that alter lung volumes and muscle biomechanics. So, the objective of this study is to determine the effects of change of postures mainly supine, sitting and standing on pulmonary parameters of young healthy volunteers. A cross-sectional analytical study was conducted among young medical students of Maharajgunj Medical Campus in the department of Clinical Physiology. A total of 31 students were selected by convenient sampling technique. Pulmonary parameters: Forced Vital Capacity (FVC), Forced Expiratory Volume in 1st second (FEV1), FEV1/FVC, Peak Expiratory Flow(PEF), EF2575 were collected from spirometry. The spirometry was done in supine, sitting and standing postures and the best value of each posture was selected for the comparison and obtained data were analyzed using repeated measures ANOVA with confidence interval of 95%. The pulmonary parameters recorded in different postures showed that the mean of these variables comparatively increased in standing posture than others with mean FVC 3.98±0.66 L, mean FEV1 3.53±0.55L, mean FEV1/FVC 89.23±5.60%, mean PEF 8.60±1.62L/s and mean PEF2575 4.46±1.08 L/s. The mean comparisons of these pulmonary parameters in supine, sitting and standing postures showed statistically significant differences with P value < 0.05. The pulmonary parameters are affected by body postures. Those parameters are recorded highest during standing posture and lowest during supine posture.

Individual axis control for industrial robots by posture-variant dynamic compensation and feedback control using the FDTD method

Industrial robots experience posture-dependent inertial variation and interference forces between joints, which in turn generates undesired vibrations due to the inherent elasticity of the reduction gears, making it difficult to control each axis independently. Conventionally, dynamic compensation is used to compensate the robot dynamics and decouple each axis, while state feedback control based on a two-inertia model is used for dealing with the vibrations caused by the elasticity of the reduction gears. However, the control design for this approach usually assumes a fixed moment of inertia, so its performance is compromised when large and fast changes in the robot posture occurs. In this paper, a posture-variant approach that takes into account the posture-dependent inertial variation in real time is proposed to achieve exact dynamic compensation and independent control of each axis regardless of the robot posture. The state equations of the posture-variant two-inertia system model for each robot axis are discretized using the finite-difference time-domain (FDTD) method and adapted on both the dynamic compensation and feedback control parts, allowing to easily redesign the whole control system considering the inertial variation at each control cycle. The effectiveness of the method is confirmed by experimental verification on a 6-axis industrial robot.

The Role of Muscle Biomarkers in Adolescent Idiopathic Scoliosis.

Adolescent idiopathic scoliosis (AIS) is the predominant orthopedic disorder in children, affecting 1-3% of the global population. Research in this field has tried to delineate the genetic factors behind scoliosis and its association with heredity since AIS is considered a polygenic disease and has different genetic and epigenetic factors. The current study conducted a narrative review of the literature, focusing on biomarkers in the pathophysiology of muscle in AIS patients. Articles were collected from Scopus, Pubmed, and Web of Science. The key screening parameters were scoliosis classification, sampling, and the biomarkers evaluated. This review emphasizes potential key mechanisms and molecular regulators in muscle tissue. While there has been limited focus on the proteins contributing to muscle changes in AIS, significant attention has been given to genomic studies of single-nucleotide polymorphisms, particularly in LBX1. Despite these efforts, the exact causes of AIS remain elusive, with several theories suggesting genetic and hormonal factors. This review identified critical protein biomarkers such as Gi-protein alpha subunits, fibrillin-1 and -2, and various differentially expressed proteins, which may be linked to muscle alterations in AIS. This field of research is still limited due to a lack of homogeneity in the distinction of patients by groups and curve severity. Although the pathophysiology of AIS is still unclear, molecular research is important to guide the treatment of AIS before achieving skeletal maturity, thus avoiding serious problems associated with posture changes and low quality of life. In the future, a more comprehensive synergy between orthopedic and molecular research might ameliorate the diagnosis and treatment of AIS patients.

Two-stage video-based convolutional neural networks for adult spinal deformity classification.

Assessment of human gait posture can be clinically effective in diagnosing human gait deformities early in life. Currently, two methods-static and dynamic-are used to diagnose adult spinal deformity (ASD) and other spinal disorders. Full-spine lateral standing radiographs are used in the standard static method. However, this is a static assessment of joints in the standing position and does not include information on joint changes when the patient walks. Careful observation of long-distance walking can provide a dynamic assessment that reveals an uncompensated posture; however, this increases the workload of medical practitioners. A three-dimensional (3D) motion system is proposed for the dynamic method. Although the motion system successfully detected dynamic posture changes, access to the facilities was limited. Therefore, a diagnostic approach that is facility-independent, has low practice flow, and does not involve patient contact is required. We focused on a video-based method to classify patients with spinal disorders either as ASD, or other forms of ASD. To achieve this goal, we present a video-based two-stage machine-learning method. In the first stage, deep learning methods are used to locate the patient and extract the area where the patient is located. In the second stage, a 3D CNN (convolutional neural network) device is used to capture spatial and temporal information (dynamic motion) from the extracted frames. Disease classification is performed by discerning posture and gait from the extracted frames. Model performance was assessed using the mean accuracy, F1 score, and area under the receiver operating characteristic curve (AUROC), with five-fold cross-validation. We also compared the final results with professional observations. Our experiments were conducted using a gait video dataset comprising 81 patients. The experimental results indicated that our method is effective for classifying ASD and other spinal disorders. The proposed method achieved a mean accuracy of 0.7553, an F1 score of 0.7063, and an AUROC score of 0.7864. Additionally, ablation experiments indicated the importance of the first stage (detection stage) and transfer learning of our proposed method. The observations from the two doctors were compared using the proposed method. The mean accuracies observed by the two doctors were 0.4815 and 0.5247, with AUROC scores of 0.5185 and 0.5463, respectively. We proved that the proposed method can achieve accurate and reliable medical testing results compared with doctors' observations using videos of 1 s duration. All our code, models, and results are available at https://github.com/ChenKaiXuSan/Walk_Video_PyTorch. The proposed framework provides a potential video-based method for improving the clinical diagnosis for ASD and non-ASD. This framework might, in turn, benefit both patients and clinicians to treat the disease quickly and directly and further reduce facility dependency and data-driven systems.

LITERATURE REVIEW: EFEKTIVITAS ELASTIC THERAPEUTIC TAPING (ETT) TERHADAP PENGURANGAN SKALA NYERI PUNGGUNG BAWAH PADA KEHAMILAN TRIMESTER III

One of the physiological changes in pregnant women in the third trimester is the gradual musculoskeletal changes associated with the occurrence of low back pain due to increased body weight and changes in body posture. One of the new technologies in physical therapy is the use of elastic therapeutic bandages. This literature review aims to determine the effectiveness of elastic therapeutic taping (ett) against LBP in the third trimester of pregnancy. Of the 11 studies reviewed by the authors, it was shown that ETT support for low back pain relief was usually installed in the lumbar region 5 (L5) and sacrum (S1) with a band pattern I. ETT can be done 2 times a week and the ETT is replaced 3 days every 3 weeks for best results. optimally with a duration of 24-72 hours. ETT can reduce pain scores more significantly when combined with other therapies such as Paracetamol plus ETT, TENS plus ETT, ETT with oblique pelvic exercises, back exercises with ETT. The conclusion is that ETT can relieve low back pain and have a very real effect in reducing low back pain intensity in the last trimester of pregnancy.

6-Week Intervention Program and Posture Changes in Music Students

6-Week Intervention Program and Posture Changes in Music Students

A Case of Intractable Vomiting Due to Superior Mesenteric Artery Syndrome

Superior Mesenteric Artery Syndrome (SMAS) is a chronic mechanical obstruction of the duodenum due to compression of the superior mesenteric artery (SMA) at the level of the duodenum, with corresponding symptoms that can be improved with postural changes. Gastrointestinal symptoms may improve with positional changes. This kind of disease is very rare in clinic, we now review a case of intractable vomiting caused by superior mesenteric artery syndrome in our hospital, and report the details as follows.

Effect of water intake on fluctuations in blood pressure and heart rate induced by postural changes in healthy subjects

Effect of water intake on fluctuations in blood pressure and heart rate induced by postural changes in healthy subjects

Impact of Supine Versus Semirecumbent Body Posture on the Distribution of Ventilation in Acute Respiratory Distress Syndrome.

In some patients with acute respiratory distress syndrome (ARDS), a paradoxical improvement in respiratory system compliance (CRS) has been observed when assuming a supine (head of bed [HOB] 0°) compared with semirecumbent (HOB 35-40°) posture. We sought to test the hypothesis that mechanically ventilated patients with ARDS would have improved CRS, due to changes in ventilation distribution, when moving from the semirecumbent to supine position. We conducted a prospective, observational ICU study including 14 mechanically ventilated patients with ARDS. For each patient, ventilation distribution (assessed by electrical impedance tomography) and pulmonary mechanics were compared in supine versus semirecumbent postures. Compared with semirecumbent, in the supine posture CRS increased (33 ± 21 vs. 26 ± 14 mL/cm H2O, p = 0.005), driving pressure was reduced (14 ± 6 vs. 17 ± 7 cm H2O, p < 0.001), and dorsal fraction of ventilation was decreased (48.5 ± 14.1% vs. 54.5 ± 12.0%, p = 0.003). Posture change from semirecumbent to supine resulted in a favorable physiologic response in terms of improved CRS and reduced driving pressure-with a corresponding increase in ventral ventilation, possibly related to reduced ventral overdistension.

The relationship between low back pain, pelvic tilt, and lumbar lordosis with urinary incontinence using the DIERS formetric 4D motion imaging system.

Urinary incontinence (UI) is a common public health problem and postural changes may be crucial in women presenting with UI. This study was aimed at evaluating the relationship between low back pain (LBP), pelvic tilt (PT), and lumbar lordosis (LL) in women with and without UI using the DIERS formetric 4D motion imaging system. To date no study has to our knowledge compared postural changes and LBP in women with UI using the DIERS 4D formetric system. This was a case-control study. We included 33 women with UI and 33 without incontinence. The severity of urogenital symptoms was assessed by the IIQ-7 (Incontinence Impact Score) and UDI-6 (Urogenital Distress Inventory), and disability owing to LBP was evaluated using the Oswestry Disability Index (ODI). Posture and movement assessment, LL angle, thoracic kyphosis, and PT assessment were performed with the DIERS Formetric 4D motion imaging system. The LL angle and pelvic torsion degree were higher in the incontinence group than in the control group (53.9 ± 9.5° vs 48.18 ± 8.3°; p= 0.012, 3.9 ± 4.1 vs 2.03 ± 1.8 mm; p= 0.018 respectively). The LBP visual analog scale value was also significantly higher in the incontinence group (5.09 ± 2.3 vs 1.7 ± 1.8 respectively, p< 0.0001). The LL angle showed a positive correlation with pelvic obliquity, (r = 0.321, p< 0.01) and fleche lombaire (r = 0.472, p< 0.01) and a negative correlation with lumbar range of motion measurements. Pelvic obliquity correlated positively with pelvic torsion (r = 0.649, p< 0.01), LBP (r = 0.369, p< 0.01), and fleche lombaire (r = 0.269, p< 0.01). Women with UI were more likely to have lumbopelvic sagittal alignment changes and a higher visual analog scale for LBP. These findings show the need for assessment of lumbopelvic posture in women with UI.

앉은 자세에서의 목 안정화 운동이 목통증 환자의 심부 근두께 변화량, 경부 통증, 기능장애지수에 미치는 영향

Objective: The purpose was to measure changes in neck pain, NDI, and deep neck muscle thickness during neck stabilization exercises in a sitting position, and to confirm the effects of postural changes.&#x0D; Method: Participants were divided into a lying posture exercise group (10 participants) and a sitting posture exercise group (10 participants) to perform neck stabilization exercises. Both groups will receive treatment for 20 minutes three times a week for four weeks, and participants will complete a pretest and reassess previously assessed items after a total of four weeks of intervention.&#x0D; Results: Within both groups, the change in deep neck muscle thickness increased significantly in the before-after comparison, but there was no significant difference in the between-group comparison. Within both groups, neck pain was significantly reduced when comparing before and after, but there was no significant difference when comparing between both groups. Within both groups, the NDI was significantly reduced when comparing before and after, and there was also a significant difference when comparing between both groups.&#x0D; Conclusion: Neck stabilization exercises in a sitting position are an effective movement mediation method.