127 results about "Thoracic spine" patented technology

The invention provides a seat comfort optimization calculation method based on a sensor and AI modeling, and the method comprises the steps: collecting the pressure distribution data of the sitting posture of a passenger and a spine contact area in real time through an attitude sensor and a pressure sensor which are disposed on a seat; a seat supporting area is divided into a cervical vertebra area, a thoracic vertebra area, a lumbar vertebra area and a sacrococcygeal area, and a pressure distribution prediction model of each area is established; constructing an input vector based on the average pressure, the maximum pressure, the pressure gravity center, the body type parameter and the pathological weight factor, and outputting a target support pressure value, a pressure avoiding curve and a neighbor cell migration proportion of each partition by using an artificial intelligence model; dynamic adjustment is achieved through the partitioned air bag and the driving unit, and secondary fine adjustment and protection are achieved in combination with feedback monitoring. The system comprises a posture sensing module, a pressure sensing module, a data processing module, a model building module, a regulation and control execution module and a feedback monitoring module, and self-adaptive regulation and control of different areas of the spine of a passenger can be achieved.

The invention belongs to the technical field of medical imaging and digital twinning, and discloses a thoracic cavity whole organ system level lung four-dimensional EIT detection digital motif and a library building method, and the method comprises the following steps: S1) segmenting multiple organs such as double lungs, heart, sternum, rib and thoracic vertebra central axis skeleton, main bronchus and esophagus based on an individual CT image, and building a three-dimensional geometric model integrated with an EIT electrode array; s2) simulating breathing dynamic deformation by using a solid mechanical model; s3) establishing a coupling relationship between deformation and conductivity, and generating dynamic three-dimensional conductivity distribution; s4) solving an electromagnetic field positive problem, and generating a virtual EIT voltage database synchronous with respiration; the invention also covers pathological model integration and data enhancement strategies. According to the method, a high-fidelity, large-scale and diversified EIT virtual data set can be generated, core data support is provided for training and verifying an AI intelligent reconstruction algorithm, and a model foundation is laid for developing a lung function dynamic digital twinning system.

The invention relates to the technical field of spine correction, in particular to a spine correction traction force control method and system, and the safety, effectiveness and intelligent level of spine correction treatment are improved. The method comprises the following steps: dividing a spine into at least three sub-regions according to an anatomical structure of the spine; the at least three sub-regions comprise a cervical vertebra region, a thoracic vertebra region and a lumbar vertebra region; performing biomechanical data acquisition on each sub-region to obtain a spine state feature set corresponding to each sub-region; the spine state feature set at least comprises a pressure distribution feature, a bending angle feature and a muscle tension feature; for different sub-regions, inputting the spine state feature set into a corresponding spine correction state evaluation model to obtain a spine correction state score of each sub-region; the anatomical structure and functional importance of the spine are considered, and the comprehensive influence weight of each sub-region is obtained from a preset weight database;

The invention provides a human body posture abnormity assessment method based on a body measurement all-in-one machine, and the method comprises the steps: obtaining the video data, collected by multiple cameras, of the bending and foot touching actions of a subject, carrying out the preliminary positioning of a spine, a lumbar vertebra and thoracic vertebra transition region, and key points of legs, and extracting the coordinates of the key points; leg joint angle change is calculated according to the leg key point coordinates, if the angle change amplitude is lower than a preset threshold value, it is judged that leg flexibility is insufficient, a key point tracking strategy is adjusted, and the tracking density of a leg area is increased; according to the posture abnormity score, generating a posture abnormity report of the bending and foot touching actions of the subject, and marking specific positions of spine curvature abnormity, stiffness increase of a transition area between the lumbar vertebra and the thoracic vertebra and insufficient leg flexibility; and dynamically updating a key point tracking strategy and an attitude anomaly judgment threshold according to the action normativity score, and optimizing the accuracy and real-time performance of subsequent action evaluation.

The invention relates to the technical field of rehabilitation robots, in particular to a rigid-flexible coupling trunk rehabilitation robot and a control method thereof. The invention comprises: a flexible wearing garment; the upper-layer protector is mounted at the upper part of the flexible wearing clothes; the lower-layer protector is mounted at the lower part of the flexible wearing clothes; two lumbar vertebra branch mechanisms; the URS branch chain mechanism is used for adjusting the rehabilitation center to be consistent with the lumbar vertebra rotation center of the human body; the thoracic vertebra branch mechanism is arranged on the inner wall of the upper-layer protector; during wearing, the upper-layer protector is worn at the thoracic vertebra position of a human body, and the lower-layer protector corresponds to the hip joint of the human body. The thoracic vertebra branch mechanism is arranged on the upper-layer protector, the lumbar vertebra branch mechanism is arranged between the upper-layer protector and the lower-layer protector, and the thoracic vertebra branch mechanism and the lumbar vertebra branch mechanism act on the thoracic vertebra and the lumbar vertebra in a synergistic mode, so that partitioned targeted rehabilitation is achieved, namely independent stretching, forward flexion, backward stretching and lateral flexion rehabilitation training of the thoracic vertebra is achieved; therefore, the rehabilitation action of the human trunk is more targeted, the rehabilitation effect is good, and the applicability and the rehabilitation efficiency in the rehabilitation process are greatly improved.

A spine force modulating assembly for supporting a human spine that prevents, slows down, and or treats spine-related disorders. The spine force modulating assembly includes a frame of a length proportional to a distance between a third thoracic spine bone and a first sacral spine bone of a spine of a wearer of the spine force modulating assembly. The frame is of a “S” shape and configured to support a spine portion between the third thoracic spine bone and the first sacral spine bone. The spine force modulating assembly further includes a pair of should straps extending from near the upper end of the frame and a pair of waist straps extending from near the lower end of the frame.

The invention provides a collision dummy, relates to the technical field of collision dummies, and can improve the reliability of collision test data. A thoracic section spine structure of the collision dummy comprises at least two first rigid thoracic vertebra pieces and at least two flexible thoracic vertebra pieces, the first rigid thoracic vertebra pieces and the flexible thoracic vertebra pieces are alternately arranged in the extending direction of the thoracic section spine structure and are sequentially connected end to end, and rib pieces are fixedly connected with the first rigid thoracic vertebra pieces. The rib parts and the first rigid thoracic vertebra parts are arranged in a one-to-one correspondence mode, and the at least two rib parts are slidably connected with the sternum part in the extending direction of the thoracic segment spine structure. According to the collision dummy provided by the invention, compression and extension of the flexible thoracic vertebra piece enable the thoracic segment spine structure to generate motions such as bending, extension and lateral bending, so that the collision dummy can generate responses such as forward bending, backward bending and lateral turning, and the injury condition of the collision dummy in collision is relatively consistent with the injury condition of a real human body; the reliability of collision test data can be improved.

The utility model relates to the technical field of medical rehabilitation, in particular to a cervical vertebra, thoracic vertebra and lumbar vertebra of a spine of a human body have various diseases, and when medical staff carry out treatment, patients are often suggested to support injured parts by using some appliances or other methods, so that the injured parts return to the physiological curvature which is naturally grown by the human body. However, existing appliances in the medical field are not good in effect, in order to solve the technical problem, the technical scheme is that the combined three-vertebra rehabilitation pillow comprises a bottom cushion, a pillow cushion, a lumbar vertebra cushion, a cervical vertebra cushion and a binding belt, when a user is supported to be in a supine state, the cervical vertebra, the thoracic vertebra and the lumbar vertebra return to the physiological bending degree at the same time, and the cervical vertebra, the thoracic vertebra and the lumbar vertebra return to the physiological bending degree. And a stretching (or relaxing) state is formed under the action of gravity, so that conditions are created for maintaining the health of the spine of a human body and removing injuries and diseases of the spine.

The application provides a crash dummy, and relates to the technical field of crash dummies, and can improve the reliability of crash test data. A chest segment spine structure of the crash dummy comprises at least two first rigid thoracic vertebra pieces and at least two flexible thoracic vertebra pieces, the first rigid thoracic vertebra pieces and the flexible thoracic vertebra pieces are alternately arranged along the extension direction of the chest segment spine structure and sequentially connected in a head-to-tail mode, a rib piece is fixedly connected with the first rigid thoracic vertebra piece, the rib piece is arranged in one-to-one correspondence with the first rigid thoracic vertebra piece, and the at least two rib pieces are all slidably connected with a sternum piece along the extension direction of the chest segment spine structure. The compression and expansion of the flexible thoracic vertebra piece enable the chest segment spine structure to produce bending, stretching and lateral bending movements, the crash dummy can produce forward bending, backward bending and lateral turning responses, the injury condition of the crash dummy in a crash is consistent with the injury condition of a real human body, and the reliability of crash test data can be improved.

This invention relates to the field of cervical and lumbar spine rehabilitation technology, and more particularly to a cervical and lumbar spine rehabilitation training system integrating posture monitoring and motion guidance. The system includes the following modules: a data acquisition and preprocessing module, used to collect real-time three-dimensional posture data of the user's cervical, thoracic, and lumbar spine and related joints, and generate motion data after standardization processing; and a micro-deviation analysis module, which generates a personalized micro-deviation accumulation model based on the motion data, predicts micro-deviations in real time, and generates personalized training adjustment strategies based on the user's physiological characteristics, historical training data, and current movements. In this invention, the micro-deviation analysis module extracts joint position, angle, velocity, and acceleration features from the standardized motion data, and combines this with nonlinear system modeling, user physiological characteristics, and historical training data to realize a personalized micro-deviation accumulation model, generating real-time micro-deviation prediction and training adjustment strategies.

The utility model relates to the field of spine correction, and discloses a scoliosis corrector for teenagers, which is used for adjusting and correcting sleeping postures at night and comprises a correction plate, the front side and the rear side of the left side of the bottom of the correction plate are fixedly connected with first supporting plates, and the front side and the rear side of the right side of the bottom of the correction plate are fixedly connected with second supporting plates. The front faces of the first supporting plate and the second supporting plate are both in threaded connection with connecting rods, and the front sides of the tops of the connecting rods are movably connected with movable plates. According to the waist correcting device for the teenager, through mutual cooperation of the structures of the screw rod, the adjusting block and the fixing rod, after the adjusting block is driven by the screw rod, the limiting plate drives the extrusion cylinder to conduct sleeping posture correcting work on the lateral bending positions of the lumbar vertebra and the thoracic vertebra of the teenager, and the purpose that the waist of the teenager is corrected when the teenager lies on the correcting plate to sleep is achieved; the lateral bending parts of the lumbar vertebrae and the thoracic vertebrae on the two sides of the teenager are also corrected, scoliosis caused by improper sleeping postures is prevented, and the teenager can be prevented from falling from the correction plate due to the change of the sleeping postures during sleeping.

Provided are bone plates and systems including such plates. The present plates may be used for example, to accommodate spinolaminar junction or as a plate locking screw system for posterior spinal fixation in the cervical, thoracic, lumbar and sacral spine, extremities, pelvis and long bone fixation. The present devices and systems may include modular plates, rods and rails. Devices and systems herein relate to both open methods and minimally invasive surgery applications. Also provided are locking plates and systems relating to tethering applications. Further provided are kits including any of the present kits or devices, and methods including insertion of any of the present plates or systems into a patient.

This utility model belongs to the field of back correction technology, specifically referring to a hunchback correction training device, including a base plate; a support plate is provided above the base plate and connected to it; an airbag is provided between the base plate and the support plate to make the support plate bend. The airbag is located at one end of the support plate below the base plate, while no airbag is provided at the other end of the support plate. This makes it easier for one end of the support plate to deform under force, while the other end is more easily deformable. The better support allows the scapula to expand more easily when the user lies on the curved support plate, resulting in a better correction effect. The other end, being more easily deformable downwards, can better fit the area below the user's scapula, conforming to the shape and structure of the human cervical and thoracic vertebrae.

The utility model discloses a thorax stretcher which comprises a backrest part and a headrest part, the backrest part is adjacent to the headrest part, a radian is formed from one end side to the other end side of the backrest part, the included angle between the position where a thoracic vertebra section abuts against in the radian and the ground ranges from 30 degrees to 80 degrees anticlockwise, and an activity space for spine and thorax three-dimensional stretching is reserved in the left-right direction of the backrest part; compared with the prior art, the chair is more in accordance with the ergonomic design, particularly, the arc-shaped support extending in the length direction of the backrest part is combined with an activity space in the left-right direction of the spine and the thorax so that the thorax can be opened while the spine is integrally stretched in a three-dimensional mode, the protruding keel can abut against the spine spinous process, and the stretching action is more accurate and in place comprehensively; in addition, related muscles are further stretched through good stretching of the arms, and meanwhile thorax opening is further facilitated.

Back element or arm or leg module with modular or textile-integrated impulse structure for movement support via sensory detection and feedback of posture and movement parameters, comprising at least one element for mechanical, thermal or sensory stimulation, whereby structured impulses are generated locally or dynamically and transmitted to defined back regions (e.g. cervical spine, thoracic spine, lumbar spine). The system is modularly adaptable, can be worn close to the body, and functions actively or passively, independent of the wearer. The impulses serve to consciously coordinate and correct posture, movement, and inner perception and are activated by textile or electronic control depending on the parameter input. The module has a fiber- and muscle-like structure and generates dynamic restoring forces that support or harmonize physiological leg movement, particularly through segmented fibers or reinforcements in a physiological or geometric arrangement.

A lateral patient positioning system may include a pelvic bolster assembly and a thoracic bolster assembly. Each of the assemblies may be attached to a conventional surgical table frame by the surgical table frame’s longitudinal rails. A plurality of adjustment mechanisms and components are provided to allow for easy and safe manipulation of a patient before and during surgery, including sagittal and / or coronal adjustment of a patient in a lateral position.

The present devices and methods provide a fixation system for restoring a posterior tension band in a patient. A first bracket is mounted to a first posterior boney landmark of a first lamina-spinous process; and a second bracket is mounted to a second posterior boney landmark of a second lamina-spinous process. A flexible tensioning cord is fastened between the first bracket and the second bracket, tensioned to induce lordosis in the lumbar spine; less tension would maintain kyphosis in the thoracic spine. A system for implanting the assembly includes a tensioning tool having a bracket grasping jaw half pivotally opposing a cord grasping jaw half, where their separation tensions the flexible tensioning cord while the cord is being coupled to one or more brackets. Advantageously, this permits restoration of the lumbar or thoracic posterior tension band in a motion sparing (non-fusion) manner and allows complete removal of the lamina / spinous process at a single or multiple levels.

A China-hemp breathable pillow comprises a pillow body and a breather pipe, the pillow body comprises a main pillow, a left auxiliary pillow and a right auxiliary pillow, the main pillow is lower than the left auxiliary pillow and the right auxiliary pillow, the middle lower layer of the pillow body is made of natural rubber, the middle upper layer of the pillow body is filled with China-hemp seed shells, the breather pipe is arranged in the pillow body, and the vent pipe is arranged in the pillow body. The two ends of the ventilation pipe are sealed through net windows, and lug holes are formed in the left auxiliary pillow and the right auxiliary pillow. The hemp seed shells are added into the pillow to serve as filler, and the pillow has the remarkable beneficial effects of resisting bacteria and inhibiting mites; the cervical vertebra is normally and physiologically bent forwards by 15 degrees when the user lies on the back, the cervical vertebra and the thoracic vertebra can still be kept on the same horizontal line when the user lies on the side, and the beneficial effects of correcting the cervical vertebra and relieving muscular tension and strain of the neck and the shoulder are achieved; through the design of the breather pipe in the pillow body and the ear holes in the left auxiliary pillow and the right auxiliary pillow, the beneficial effects that ear nerves are prevented from being pressed when a user lies on the side, airflow in the pillow body is smooth, and the sleep quality is improved are achieved.

During Tumor Treating Fields (TTFields) therapy, one or more pairs of electrode assemblies are used to impose an alternating electric field to the tumor. However, when the cancer cells are distributed among two or more different locations within the subject's body, it can be difficult to achieve sufficient field intensities in all of the different locations. By positioning one pair of electrode assemblies on the left half of the subject's scalp and the right side of the subject's posterior thorax, and positioning another pair of electrode assemblies on the right half of the subject's scalp and the left side of the subject's posterior thorax, it becomes possible to achieve sufficient field intensities in the following three locations simultaneously: (i) an upper half of the subject's thoracic spine, (ii) the subject's cervical spine, and (iii) the subject's head.

The invention belongs to the field of thoracic vertebra posterior surgical instruments, and particularly relates to an intraoperative lifting device for thoracic vertebra posterior surgery, which comprises a steel plate I, a steel plate II, a conical plate I and a conical plate II, the steel plate II is arranged at the rear end of the steel plate I, side frames are fixed on the two sides of the front part of the steel plate II, adjusting grooves are formed in the two sides of the steel plate I, and sliding blocks are arranged in the adjusting grooves; according to the device, the U-shaped block is driven to move outwards by externally rotating the pushing bolt, so that the sawtooth pressing block is separated from the sawtooth fixing strip, the distance between the first steel plate and the second steel plate can be adjusted, the side frame drives the sliding block to slide in the adjusting groove in the adjusting process, and it is ensured that the adjusting process is stable and controllable; and after the required size is adjusted, the pushing bolt is internally screwed to complete fixation. The convenient size expansion and contraction design can adapt to the vertebra spacing difference of different patients and the surgical operation space requirement, the surgical limitation caused by the fixed device size is avoided, and the surgical operation flexibility is improved.

The invention provides a bionic spine device for testing and a using method thereof, and relates to the technical field of testing. The bionic spine device for testing comprises a spine structure and an adjusting structure, the spine structure comprises a plurality of vertebrae which are sequentially arranged from top to bottom, and every two adjacent vertebrae are connected through a connecting piece and can rotate left and right and back and forth relative to each other; the adjusting structure comprises a first connecting rod and a second connecting rod which are located on the front side of the spine structure, the first connecting rod is a telescopic rod, the top end of the first connecting rod is fixedly connected to the bordering area of the cervical vertebra section and the thoracic vertebra section, and the top end of the second connecting rod is hinged to the bottom end of the first connecting rod through a hinge shaft. The hinge shaft extends in the left-right direction. The bionic spine device is high in adjustment convenience and can conveniently meet different test requirements.

The invention discloses a personalized spine orthopedic pillow based on ergonomics and a using method thereof, and belongs to the technical field of medical auxiliary instruments. Based on the ergonomic design, the adaptation degree of the orthopedic pillow with the head and the neck and chest of the patient is improved; through a neck-chest combined biomechanical overall model, collaborative correction of cervical retrobow and scoliosis is achieved, and recovery of overall mechanical balance of the spine is promoted. The pressure value of the air bag in the orthopedic pillow can be quantitatively set according to the individual characteristics of the patient, the personalized correction requirements of different patients are met, and the comfort of the patient is improved. Through the combination of a cervical vertebra-thoracic vertebra biomechanical model, acting forces including supporting force acting on the cervical vertebra, coronal plane pressure acting on the thoracic vertebra scoliosis area and horizontal plane rotation removing force are applied to the cervical vertebra reverse arching area and the thoracic vertebra scoliosis area of a patient. Cooperative correction of cervical vertebra reverse arching and thoracic vertebra lateral bending is achieved, so that recovery of overall mechanical balance of the spine is facilitated, and the stability and the curative effect of spine malformation correction are improved.

The present application relates to medical image processing technology, disclose a kind of for rib segmentation post-processing method and system, its method includes: for rib image is carried out segmentation processing, obtain segmented rib image;To the rib image after processing is post-processed, obtain the segmented rib image after processing, by the extraction of skeleton to segmented rib image;Through the skeleton length statistics of rib of the skeleton extracted, and based on the skeleton length of statistics carries out the determination of rib connection;For the result of rib connection is through the construction energy function, carries out the correction of rib connection.The present application uses statistics and constructs energy function, locates connected rib and matches the same rib spine end and thoracic end, realizes the correction of connected rib.

A seating configuration is described. The seating configuration includes a first support surface configured to support the Ischial Tuberosities of a user. The first support surface includes a feature to urge a user into an optimal position on the seat. The seating configuration includes a second support surface positioned adjacent a pelvic-sacral-lumbar region of the user. The seating configuration includes a third support surface positioned adjacent a thoracic-cervical region of the user. The first, second, and third support surfaces, respectively, together can be configured to create a natural alignment of a spinal column of the user.

The present application relates to the technical field of teaching apparatus, and provides a dynamic dissection demonstration device for thoracic vertebral yellow ligament, which solves the problem that students are difficult to realize the conversion of surgical skills due to the fact that the existing spine surgery teaching tool cannot simultaneously realize the three-dimensional shape real restoration and dynamic reversible operation of surgery. The present application comprises: simulated vertebrae arranged at intervals; simulated intervertebral discs arranged between adjacent simulated vertebrae; simulated vertebral plates arranged on one side of each simulated vertebra; simulated yellow ligaments arranged on one side of each simulated vertebral plate close to each simulated vertebra; each simulated vertebra and / or each simulated vertebral plate and / or each simulated yellow ligament is configured with a standard model and a pathological model, and the pathological model has morphological characteristics different from the standard model; the simulated vertebrae, simulated intervertebral discs and simulated vertebral plates are converted into independent and quickly detachable modules through magnetic blocks and adsorption blocks, and after the dynamic dissection demonstration of the yellow ligament is performed, repeated teaching demonstration and surgical practice can be performed.

1. The name of the design product: acupoint calibration part of human body detection graphical user interface of electronic equipment. 2. The use of the design product: for an electronic device. 3. The design points of the design product: in the local part of the graphical user interface. 4. The picture or photo that best indicates the design points: design 1 front view. 5. Design 1 is designated as the basic design. 6. The use of the graphical user interface: the overall use is for the human body detection interface before the physical therapy service of the service robot; the local use is for acupoint calibration through palpation positioning guidance. 7. The change state of the graphical user interface is explained as follows: in the main view of Design 1, the user finds the position of the "third thoracic spine spinous process" according to the right side palpation positioning guide picture, makes a specified gesture, and is successfully recognized and labeled by the service robot, and then jumps to Design 1 change state diagram 1. In Design 1 change state diagram 1, the user finds the position of the "fourth lumbar vertebra" and makes a specified gesture, which is successfully recognized and labeled by the service robot, and then jumps to Design 1 change state diagram 2. In the main view of Design 2, the user finds the position of the "fourth lumbar vertebra" according to the right side palpation positioning guide picture, makes a specified gesture, and is successfully recognized and labeled by the service robot, and then jumps to Design 2 change state diagram 1. In Design 2 change state diagram 1, the user finds the position of the "third thoracic spine spinous process" and makes a specified gesture, which is successfully recognized and labeled by the service robot, and then jumps to Design 2 change state diagram 2. In the main view of Design 3, the user finds the position of the "third thoracic spine spinous process" according to the right side palpation positioning guide picture, makes a specified gesture, and is successfully recognized and labeled by the service robot, and then jumps to Design 3 change state diagram 1. In Design 3 change state diagram 1, the user finds the position of the "fourth lumbar vertebra" and makes a specified gesture, which is successfully recognized and labeled by the service robot, and then jumps to Design 3 change state diagram 2. In Design 3 change state diagram 2, the user finds other positions and makes a specified gesture, at which time the service robot recognizes that the number of labels exceeds and enters Design 3 change state diagram 3. In the main view of Design 4, the user finds the position of the "third thoracic spine spinous process" according to the right side palpation positioning guide picture, makes a specified gesture, and is successfully recognized and labeled by the service robot, and then jumps to Design 4 change state diagram 1. In Design 4 change state diagram 1, the user palpates the fourth lumbar vertebra of the human body, and when the actual lumbar vertebra position deviates greatly from the position of the fourth lumbar vertebra of the human body detected by the machine before palpation, jumps to Design 4 change state diagram 2. In the main view of Design 5, the user finds the position of the "third thoracic spine spinous process" according to the right side palpation positioning guide picture, makes a specified gesture, and is successfully recognized and labeled by the service robot, and then jumps to Design 5 change state diagram 1. In Design 5 change state diagram 1, the user palpates the fourth lumbar vertebra of the human body, and when the actual lumbar vertebra position deviates greatly from the position of the fourth lumbar vertebra of the human body detected by the machine before palpation, jumps to Design 5 change state diagram 2. In Design 5 change state diagram 2, click "Confirm palpation result" in the lower right corner to enter Design 5 change state diagram 3. 8. Other situations that need to be explained Other explanations: the red translucent covered area does not belong to the appearance design content claimed.

The invention belongs to the technical field of rehabilitation medical instruments, and particularly relates to a series-parallel trunk rehabilitation robot and a use method. The series-parallel trunk rehabilitation robot comprises a strap assembly used for being worn on the shoulder and back of a human body; the upper waist frame is fixedly mounted at the lower end of the strap assembly; the lower waist frame is rotationally connected with the upper waist frame through at least two electric push rods; the thoracic vertebra parallel mechanism is arranged on the strap assembly; the thoracic vertebra parallel mechanism comprises two first self-adaptive muscle groups located on the inner walls of the two sides of the strap assembly respectively and at least two second self-adaptive muscle groups arranged on the rear inner wall of the strap assembly in parallel. The two armpit supporting assemblies are arranged above the first self-adaptive muscle set respectively. The thoracic vertebra rehabilitation exercise part and the lumbar vertebra rehabilitation exercise part are coordinated and matched, rigidity and flexibility are achieved simultaneously, forward flexion / back extension, left flexion / right flexion and rotation three-degree-of-freedom actions of the trunk are achieved through stretching and retracting of the electric push rods and the pneumatic muscles, and then efficient repeated training of the trunk of a patient is achieved.

Provided is a pillow that reduces the burden on the user's cervical and thoracic vertebrae. 【Solution means】The pillow 100 has a main fabric 10, a pair of side fabrics 30, and a partition member 50. The main fabric consists of a surface fabric 11, a back fabric 12, and a rear fabric 13. The pair of side fabrics form both side portions of the pillow and are joined to the main fabric. The partition member is joined to the surface fabric, the back fabric, and the pair of side fabrics, and partitions the space covered by the main fabric and the pair of side fabrics. The pair of side fabrics are respectively portions from the joint location with the rear fabric to the joint location with the partition member, and include a first side fabric 31 having a rectangular shape with the vertical direction in the usage state in the lateral view as the short side direction, and a second side fabric 32 having a right triangle shape in the lateral view and having the shorter side of the two sides sandwiching a right angle connected to the short side opposite to the rear fabric of the first side fabric. The pillow has elastic members filled in the spaces before and after the partition member, and the filling amount of the elastic members is adjustable.

Provided are meat of poultry (10, 30, 40) and a method for producing the same which make it possible to reduce the influence of rigor mortis. The meat of said poultry is in a defeathered state and comprises thoracic vertebrae (18) in which the spinal cord (21) present thereinside has been destroyed. Cervical vertebrae (17) in which the spinal cord present thereinside has been destroyed may be further provided, or a synsacrum (19) in which the spinal cord present thereinside has been destroyed may be further provided. The method for producing the meat involves destroying the spinal cord inside the thoracic vertebrae of the poultry along the thoracic vertebrae. The spinal cord present inside the spinal column (16) may be further destroyed along the spinal column, or the spinal cord present inside the synsacrum may be destroyed along the spinal column.

A lateral patient positioning system may include a pelvic bolster assembly and a thoracic bolster assembly. Each of the assemblies may be attached to a conventional surgical table frame by the surgical table frame's longitudinal rails. A plurality of adjustment mechanisms and components are provided to allow for easy and safe manipulation of a patient before and during surgery, including sagittal and / or coronal adjustment of a patient in a lateral position.