53 results about "Kinesiology" patented technology

One example embodiment includes body-adhesive kinesiology tape. The body-adhesive kinesiology tape includes a strip of kinesiology tape. The strip of kinesiology tape includes a first end and a second end where the second end is opposite the first end. The body-adhesive kinesiology tape also includes a longitudinal cut in the strip of kinesiology tape extending from the first end to a pre-determined distance from the second end and adhesive on a first surface of the strip of kinesiology tape. The adhesive is configured to adhere the strip of kinesiology tape to a human body. The body-adhesive kinesiology tape further includes a backing material on the first surface of the strip of kinesiology tape. The backing material is configured to cover the adhesive and protect the adhesive from drying until a user is ready to apply the strip of kinesiology tape to the human body.

The invention relates to an automatic detection alarming system for falling over of human body and an information processing method thereof; the system is composed of a wearable detection device and a base station; the wearable detection device comprises a three-axis acceleration sensor, a two-axis angular rate sensor, an A / D, an information processing device and a wireless signal emission device; the base station comprises a signal receiving device and an alarming device; the wearable detection device is wore on the trunk part of the human body, the relative kinesiology and kinetics information is collected and is fused, so as to judge whether human body activity has falling over action; if a wearer falls over and needs to be helped, the falling-over information is transmitted to the base station, and the base station transmits a message for help to relevant departments or related personnel after receiving a wireless signal. The automatic detection alarming system has the characteristics of high detectable rate and low false rate, so as to judge the falling over of the human body and provide rescue for the old, patients, dangerous operating personnel who fall over.

One example embodiment includes a pre-cut strip of kinesiology tape. The pre-cut strip of kinesiology tape includes a fabric. The fabric includes a weave of fibers, where the fibers include an elastic fiber covered by a covering material. The fabric also includes a first end and a second end, where the second end is opposite the first end. The fabric further includes one or more rounded corners. The pre-cut strip of kinesiology tape also includes a longitudinal cut in the fabric. The longitudinal cut passes through at least a portion of the fabric and extends from the first end to a pre-determined distance from the second end. The pre-cut strip of kinesiology tape also includes adhesive on a first surface of the fabric, where the adhesive is configured to adhere the fabric to a human body.

The body-adhesive kinesiology tape includes a strip of kinesiology tape. The strip of kinesiology tape includes a first end and a second end where the second end is opposite the first end. The body-adhesive kinesiology tape also includes a longitudinal cut in the strip of kinesiology tape extending from the first end to a pre-determined distance from the second end and adhesive on a first surface of the strip of kinesiology tape. The adhesive is configured to adhere the strip of kinesiology tape to a human body. The body-adhesive kinesiology tape further includes a backing material on the first surface of the strip of kinesiology tape. The backing material is configured to cover the adhesive and protect the adhesive from drying until a user is ready to apply the strip of kinesiology tape to the human body.

The invention provides a tracking control method of plane paths of a self-managing airship. The method comprises the following steps of: (1) giving an expected track value; giving an expected plane path; giving an expected pitch angle Theta c and an expected rolling angle Phi c; and giving an expected speed; (2) calculating navigation: calculating and removing an expected yaw angle Psi c needed by an error between an expected position and an actual position; (3) controlling and calculating a posture kinesiology: calculating and removing an expected angle speed Omega c needed by the error between an expected posture and an actual posture; (4) horizontally and longitudinally disintegrating a kinesiology: horizontally and longitudinally disintegrating a kinetic equation and an expected speedvalue; (5) longitudinally controlling and calculating the kinesiology: calculating and removing a control quantity mu 1on needed by the error between an expected longitudinal speed and an actual longitudinal speed; and (6) horizontally controlling and calculating the kinesiology: calculating and removing the control quantity mu 1at needed by the error between an expected horizontal speed and an actual horizontal speed. By the method of the invention, any parameter plane paths can be tracked for ensuring the stable property of a closed-ring system and simplifying the control calculation.

The invention discloses a pedestrian navigation system and a navigation positioning method based on a kinesiology model, and belongs to the field of combination of biodynamics and inertial navigation. The navigation positioning method comprises the following steps: constructing a virtual inertial sensor component by using a kinematics law between lower limbs (including feet, calves, thighs and hips) in human movement and joints connecting the lower limbs, and correcting errors of the virtual inertial sensor component and the pedestrian navigation system in real time, so as to realize the accurate navigation positioning in human movement. In high-overload human movement, influences of measured information outrange, impact signals and the like on a navigation solution can be effectively overcome, and the real-time positioning performance is relatively high.

An embodiment of the invention includes a continuous feed variable depth die cut for use in cutting kinesiology tape. The die cut includes a housing, including a first opening configured to allow the kinesiology tape to enter the housing and a second opening configured to allow the kinesiology tape to exit the housing. The die cut also includes a roller inside the housing, wherein the roller is configured to rotate as the kinesiology tape passes over the roller and a die formed on the outer surface of the roller, wherein the die includes a cutting edge for cutting the kinesiology tape and wherein the cutting edge is formed in the shape of the strip of kinesiology tape to be cut. The die cut further includes a surface inside the housing, wherein the kinesiology tape passes over the surface when the kinesiology tape is being cut.

The invention discloses a flexible wearable paper-based strain sensor and a preparation method thereof. The flexible wearable paper-based strain sensor comprises an insulated layer, a conductive layer, a guide wire fixing unit and guide wires, wherein the insulated layer is arranged at the bottom end; the conductive layer is arranged on the upper surface of the insulated layer; one guide wire is connected to each of two ends of the conductive layer; the guide wires are connected with a measuring instrument; the insulated layer is paper base with insulating characteristic. The flexible wearable paper-based strain sensor has the benefits that of being simple to prepare, low in cost, good in product performance, simple and convenient to operate, low-carbon and environment-friendly, simple in structure, high in strain detecting speed, can be worn on finger joints, wrist junctions, knee joints of a human body, can be fixed to objects of furniture, books, building structures and the like for strain detection, and has a wide application prospect in the fields of kinesiology, structure safety monitoring, and the like.

The invention relates to a rehabilitation robot, in particular to an exoskeleton-type upper limb rehabilitation robot, which realizes the upper limb rehabilitation by assisting shoulder blades of the body in rotation. The exoskeleton-type upper limb rehabilitation robot comprises an upper arm part, an upper arm forward bending assisting part, an upper arm external expansion assisting part, a shoulder blade rotation assisting part, a transmission part and a bracket part and is characterized in that the diameter of a forward bending driving wheel of the transmission part is twice that of a driving wheel; the diameter of an external expansion driving wheel is twice that of the driving wheel; and a weight wheel, the forward bending driving wheel and the external expansion driving wheel are all provided with positioning devices. The exoskeleton-type upper limb rehabilitation robot follows a 2-1 principle of driving shoulder blades by the upper limb in human body articular kinesiology, makes the mechanical upper arms assist the shoulder blades in rotation according to the 2-1 principle when assisting the upper arms of the user in bending forward or extending by assisting the shoulder blades of the human body and can more scientifically carry out rehabilitation training of the upper limb of a patient.

The invention provides a portable human joint parameter estimation method based on an IMU (inertial measurement unit) and relates to a human joint parameter estimation method in order to solve the problems of low precision, high price, inconvenient operation, high time consumption and the like in the prior art. The method comprises steps as follows: step one, a human arm is equivalent to be hinged by three rigid bodies including an upper arm, a front arm and a palm through an elbow joint and a wrist joint, and a coordinate system is defined; step two, a position vector of o1 in Fa is analyzed according to kinesiology, and a second-order differential form, shown in the specification, of P<o1><e> is obtained; step three, a position vector of o1 in Fb is analyzed according to kinesiology, and a second-order differential form, shown in the specification, of P<o1><e> is obtained; step four, a kinematic constraint relation, caused by ball joints, of P<o1> and P<o1> is obtained; step five, an equation set is solved with the least square method, and P<o1> and P<o1> are obtained; step six, the step two to the step five are executed again, and values of P<o2> and P<o2><c> are obtained; step seven, the length of the forearm is calculated. The method is applied to the field of limb measurement.

One example embodiment includes an elastic strand for use in kinesiology tape. The elastic strand includes an elastic core. The elastic core is configured to elongate under an external force and return to its original size after an external force is removed. The elastic strand also includes at least one outer strand, where the outer strand is wound around the elastic core.

The utility model discloses an adhesive plaster for skin and a use method. The adhesive plaster comprises a fabric layer, a plaster layer and a protecting layer that are sequentially superposed and arranged, wherein the fabric layer elastically stretches along length stretching direction and is not elastic in width direction; the plaster is evenly distributed on the inside surface of the fabric layer, and the plaster takes the shape of continuous strap and is arranged at intervals along width direction; and the protecting layer is release paper or release film. In virtue of the sticky elastic property of the plaster layer and the mechanical direction of the fabric layer and in combination with the principles of kinesiology and biomechanics to influence the trend of skin and increase the gap between skin and muscle, the adhesive plaster further promotes the lymph and blood circulation, removes a number of fatigue metabolic substances in vivo, pain products, metabolic substances remaining after inflammatory reaction, small inner haemorrhage and the like, and achieves the purposes of relieving pain, slowing down inflammation, speeding up recovery and avoiding harm. The treatment process is suitable for all parts on the body surface, and widely applicable to various groups of people.

A user-configurable precut kinesiology tape strip is provided for application by a user to a patient. Each end of the strip lobed, having troughs between the lobes. The lobes are in pairs opposite each other. The backing paper is marked with grid lines connecting troughs between the lobes. The grid lines allow the user to selectively cut the strip to form it into any of a number of possible configurations prior to removing the backing paper and applying the strip to a patient's body. A method of configuring such strips is also provided.

The invention discloses an oval walking machine which comprises a base, a rack connected with the base and left and right movement mechanisms identical in structure and symmetrically arranged on left and right sides of the rack. A pedal frame adopts a mode combining rollers with guide rails, double four-connecting-rod structures are adopted, and forward-backward movement and upward-downward and angle adjusting of pedals are combined organically, so that mountaineering and pedaling actions can be better simulated; a rotating structure is adopted for amplitude adjustment, so that the defects of gaps and high manufacturing accuracy of conventional sliding structures are overcome, step amplitude can be intelligently changed to adapt to training of different human functions, human training effect is improved better, and kinesiology is met better; a machine platform is more reasonable in stress, so that overall service life of the machine platform is prolonged.

The invention discloses an intelligent beam band. The intelligent beam band comprises a sensor module, a power supply module, a central processing unit, a wireless communication module and an elastic beam band part, wherein the sensor module is electrically connected to the central processing unit and used for acquiring information of the animal wearing the intelligent beam band and transmitting the information to the central processing unit; the central processing unit comprises a main control MCU and is used for receiving and storing the information acquired by the sensor module and coordinating the work of the wireless communication module and an output module; the wireless communication module is used for implementing wireless communication connection between the intelligent beam band and an intelligent terminal and implementing interaction and transmission of signals; the elastic beam band part is used for tightening the intelligent beam band on an animal body. The intelligent beam band can be used for acquiring physiology and kinesiology data of an animal; the data is processed by software, thereby helping feeders or managers to arrange nutrition of the feed of the animal, prevent diseases and select high-quality breeds; the data support is supplied for the traceability mechanism of the agricultural products.

One example embodiment includes a pre-cut strip of kinesiology tape. The pre-cut strip of kinesiology tape includes a fabric. The fabric includes a weave of fibers, where the fibers include an elastic fiber covered by a covering material. The fabric also includes a first end and a second end, where the second end is opposite the first end. The fabric further includes one or more rounded corners. The pre-cut strip of kinesiology tape also includes a longitudinal cut in the fabric. The longitudinal cut passes through at least a portion of the fabric and extends from the first end to a pre-determined distance from the second end. The pre-cut strip of kinesiology tape also includes adhesive on a first surface of the fabric, where the adhesive is configured to adhere the fabric to a human body.

The invention discloses a light gradient boosting machine-based (Light GBM-based) exoskeleton gait prediction method. According to the method, through kinesiology analysis, acceleration data of lowerlimb joints is extracted to perform off-line analysis, then, joint control target traces are resolved, and finally, motion control is performed by a control system through the traces to realize humangait motion of exoskeletons of lower limbs. The brand-new prediction method for the motion gait traces of the lower limbs is provided, can be applied to controlling the exoskeletons of the lower limbs, creatively realizes parallel structure input on a Light GBM, and predicts continuous target values of the gait traces of lower limb joints; and the prediction method has relatively high accuracy, and shortens training time.

The present invention belongs to the field of biological and medical laboratory technique, relates to interosseous articular kinesiology and mechanics change, in the concrete, it relates to a method for testing interosseous articular kinetic degree change, specially, it relates to a method for testing intertarsal joint activity. Said method is characterized by that it includes the following several main steps: utilizing calculation principle of rigid body kinematics in physical mechanics to define three-dimensional coordinate system of pedal kinetic system, using three-dimensional digital coordinate instrument to measure three-dimensional coordinate value, resolving nonlinear equation, making matrix conversion, calculating changed value of three-dimensional position relationship from one state to another state so as to obtain the pedal intertarsal joint activity.

The invention discloses a plantar wheel drive self-balancing powered exoskeleton for a patient with spinal cord injury. The plantar wheel drive self-balancing powered exoskeleton comprises hip joints, knee joints, ankle joints, a plantar drive module, a pelvis, thigh bones and shin bones. The ankle joints are unpowered passive joints and respectively have a rotational degree of freedom on a vertical plane and a coronal plane; the knee joints adopt active joint drivers; the hip joints are active joint drivers or controllable brakes; the knee joints and the hip joints have a rotational degree of freedom on the vertical plane; by matching with the advantage that plantar wheel drive both feet are always on the ground, kinesiology and kinetic equilibrium on the coronal plane can be achieved; a supporting device is designed at the pelvis, and body weight is transferred to the ground via the exoskeleton by the supporting device by utilizing the advantage that plantar wheel drive both feet are always on the ground, so that the body weight needing to be constrained by the exoskeleton is effectively decreased. Moreover, torsional springs and other energy storage components are designed at the joints, so that energy consumption of the drivers caused by load fluctuation in the vertical direction in the walking process can be reduced.

The invention discloses transparent kinesiology tape and a production technology thereof. The transparent kinesiology tape comprises transparent elastic base material, a medical acrylic acid glue layer and release paper, wherein the medical acrylic acid glue layer is combined to one surface of the transparent elastic base material, and the release paper covers the medical acrylic acid glue layer. The elasticity value of the transparent elastic base material is greater than 160%, and the thickness is greater than or equal to 8dmm. According to the transparent kinesiology tape, the transparent elastic base material with the elasticity value in an elasticity value range meeting the requirement of the transparent kinesiology tape is adopted, the release paper on the reverse surface of the transparent kinesiology tape can be removed, glue is also transparent, and therefore the full-transparent elastic base material adheres to the back of the human body finally, and the unapparent or invisible effect is achieved perfectly.

The invention relates to a locating block manufacturing method and system for accurate replacement of an artificial knee joint. The method comprises the following steps: 1, acquiring iconography data; 2, acquiring kinesiology data; 3, establishing an individualized bone-muscle multimer kinetic model; 4, acquiring a safe range of a prosthesis mounting position, and determining a design position of a locating hole of an operation locating block; 5, realizing individualized modeling of a locating block through parameter optimization or adjustment; 6, obtaining a locating block matched with a geometrical shape of a target knee joint; 7, acquiring locating holes of an individualized locating block, and carrying out parameterization adjustment; and 8, carrying out 3D printing manufacturing on the individualized locating block. The individualized locating block designed by the invention is high in pertinence, higher in precision and clearer in design basis.

A knee joint protecting device includes a thigh frame connected to a shank frame by a connection structure, which includes an adjustment mechanism and a connection hinge. The thigh frame is rotatable around a first axis using the adjustment mechanism to perform a first rotation about the shank frame within a first position and a second position. When the thigh frame is in the first position, the knee joint protecting device is fit for the lower limb of a standing posture. The thigh frame performs a second rotation about the shank frame using the connection hinge, the included angle of the first axis and the rotation plane of the second rotation is within the range of 0˜15°. By the adjustment mechanism and the connection hinge, the knee protecting device can provide the internal and external rotations between the thigh and the shank, and is more suitable for human engineering and kinesiology.

A bandage for the treatment of animal wounds and related method includes use of a flexible kinesiology tape, a pressure-sensitive adhesive and an absorbent pad disposed on an inner face of the kinesiology tape. The pressure-sensitive adhesive retains the absorbent pad on the tape while a residual portion is free to adhere in use to itself or a surface such as a skin surface surrounding the wound to retain the bandage in position.

The invention discloses an oval walking machine which comprises a base, a rack connected with the base and left and right movement mechanisms identical in structure and symmetrically arranged on left and right sides of the rack. A pedal frame adopts a mode combining rollers with guide rails, double four-connecting-rod structures are adopted, and forward-backward movement and upward-downward and angle adjusting of pedals are combined organically, so that mountaineering and pedaling actions can be better simulated; a rotating structure is adopted for amplitude adjustment, so that the defects of gaps and high manufacturing accuracy of conventional sliding structures are overcome, step amplitude can be intelligently changed to adapt to training of different human functions, human training effect is improved better, and kinesiology is met better; a machine platform is more reasonable in stress, so that overall service life of the machine platform is prolonged.

The invention provides a tracking control method of plane paths of a self-managing airship. The method comprises the following steps of: (1) giving an expected track value; giving an expected plane path; giving an expected pitch angle Theta c and an expected rolling angle Phi c; and giving an expected speed; (2) calculating navigation: calculating and removing an expected yaw angle Psi c needed by an error between an expected position and an actual position; (3) controlling and calculating a posture kinesiology: calculating and removing an expected angle speed Omega c needed by the error between an expected posture and an actual posture; (4) horizontally and longitudinally disintegrating a kinesiology: horizontally and longitudinally disintegrating a kinetic equation and an expected speedvalue; (5) longitudinally controlling and calculating the kinesiology: calculating and removing a control quantity mu 1on needed by the error between an expected longitudinal speed and an actual longitudinal speed; and (6) horizontally controlling and calculating the kinesiology: calculating and removing the control quantity mu 1at needed by the error between an expected horizontal speed and an actual horizontal speed. By the method of the invention, any parameter plane paths can be tracked for ensuring the stable property of a closed-ring system and simplifying the control calculation.

The invention discloses an intelligent protection type kinesiology tape for exercise impact. The kinesiology tape comprises a tape substrate made of a strain rate sensitive material as well as an exercise sensor assembly and a microprocessor which are arranged on the tape substrate, wherein the exercise sensor assembly is connected with the microprocessor through a flexible circuit, and the microprocessor is wirelessly connected with a wireless external terminal. The kinesiology tape can effectively realize the intelligent protection of / against exercise impact of different parts, and can alsoperform impact protection on injured users in exercise. Besides, the kinesiology tape can be used cooperatively with a wireless terminal to detect and output impact force and impact deformation information received during exercise.

The invention relates to an orthopedics kinesiology locking bone screw. The orthopedics kinesiology locking bone screw comprises a screw head and a shaft rod with integrated design, wherein the shaft rod comprises a sliding portion, a spongy bone portion and a cortical bone portion, the sliding portion is connected with the screw head, the outer wall of the sliding portion is smooth, the spongy bone portion is arranged at the front end of the sliding portion and connected with the sliding portion, a spongy bone portion thread is arranged on the outer wall of the spongy bone portion, the cortical bone portion is arranged at the front end of the spongy bone portion and connected with the spongy bone portion, a cortical bone portion thread is arranged on the outer wall of the cortical bone portion, the direction of the spongy bone portion thread is consistent with the direction of the cortical bone portion thread, and the thread pitch of the spongy bone portion thread is two to three times of that of the cortical bone portion thread. The orthopedics kinesiology locking bone screw is suitable for orthopedic operations.

A user-configurable precut kinesiology tape strip is provided for application by a user to a patient. Each end of the strip lobed, having troughs between the lobes. The lobes are in pairs opposite each other. The backing paper is marked with grid lines connecting troughs between the lobes. The grid lines allow the user to selectively cut the strip to form it into any of a number of possible configurations prior to removing the backing paper and applying the strip to a patient's body. A method of configuring such strips is also provided.