75 results about "Chest Press" patented technology

A system applies cardiopulmonary resuscitation (CPR) to a recipient. An automated controller is provided together with a compression device which periodically applies a force to a recipient's thorax under control of the automated controller. A band is adapted to be placed around a portion of the torso of the recipient corresponding to the recipient's thorax. A driver mechanism shortens and lengthens the circumference of the band. By shortening the circumference of the band, radial forces are created acting on at least lateral and anterior portions of the thorax. A translating mechanism may be. provided for translating the radial forces to increase the concentration of anterior radial forces acting on the anterior portion of the thorax. The driver mechanism may comprise a tension device for applying a circumference tensile force to the band. The driver mechanism may comprise an electric motor, a pneumatic linear actuator, or a contracting mechanism defining certain portions of the circumference of the band. The contracting mechanism may comprise plural fluid-receiving cells linked together along the circumference of the band. The width of each of the fluid-receiving cells becomes smaller as each cell is filled with a fluid. This causes the contraction of the band and a resulting shortening of the circumference of the band.

A chest press exercise machine has a self-aligning pivoting user support on a main frame and an exercise arm which is linked to the pivoting user support to translate movement of the exercise arm into movement of the user support. A user support pivot pivotally connects the user support to the main frame. A connecting link is movably associated with the user engagement device or exercise arm and at least one of the main frame, user support, or user support pivot. A user-activated positioning device controls positioning of the exercise arm in an exercise ready position at the start of an exercise. The user support pivot is positioned so that part of the combined weight of the user and user support is positioned on both sides of the gravitational centerline throughout the exercise movement and a portion of the combined weight passes through the centerline to redistribute the weight as the exercise arm is moved.

A chest press exercise machine has a self-aligning pivoting user support on a main frame and an exercise arm which is linked to the pivoting user support to translate movement of the exercise arm into movement of the user support. A user support pivot which may be a single pivot, floating pivot link, or four-bar pivot linkage arrangement pivotally connects the user support to the main frame. A connecting link is movably associated with the user engagement device or exercise arm and at least one of the main frame, user support, or user support pivot. The user support pivot is positioned so that part of the combined weight of the user and user support is positioned on both sides of the gravitational centerline throughout the exercise movement and a portion of the combined weight passes through the centerline to redistribute the weight as the exercise arm is moved.

A portable mechanical device to assist in external chest compressions during cardio-pulmonary resuscitative procedures. The embodiment consists of a frame (100), a plunger unit (104) and an articulating lever (109). The bottom member (102) of the frame is positioned under the subject such that the dome of the plunger unit (104) rests above the mid-sternal region. The handle (108) at the free end of the lever is used to apply downward force by the life-saver to provide the necessary chest compressions. The device is light in weight, easily transportable, and has an indefinite shelf life. This device is designed to be used by anyone with a basic training in CPR. The portability of the device renders itself useful outside the environs of a hospital, in confined quarters, and at remote locations.

A chest compression monitor for measuring the depth of chest compressions achieved during CPR. A sensor of the chest compression monitor is disposed within its housing such that compression of the housing due to CPR compressions, and its resultant deformation, is detected by the sensor and used by the control system as the starting point for calculating chest compression depth based on an acceleration signal indicative of the downward displacement of the chest.

A mechanical device for providing external chest compression for cardiac resuscitation, comprising, a first support member positionable horizontally and a second support member positionable vertically, where the first and second support members are rotationally connected together with a swivel attachment that permits the first support member to rotate in an arc with respect to the second support member in at least one of a vertical and horizontal plane for positioning the first support member over a horizontally positioned victim or to maneuver the first support member out of the operative field when not in use, wherein the swivel attachment allows the first support member to be operated in up and down singular strokes in a pumping motion.

A chest compression device includes a piston to apply compression to the sternum and incorporates leaf springs simultaneously driven by the piston to apply lateral compression to the thorax during chest compressions. A motor in the chest compression device provides motive power to cyclically extend and contract the piston to provide therapeutic chest compressions. One end of each leaf spring is operably connected to the piston and the other end of each leaf spring is secured to the backboard/base or to a support leg of the chest compression device such that during extension of the piston, each leaf spring is compressed against the device base or leg which causes the springs to flex and provide lateral compression of the patient's thorax in addition to the sternal compression of the piston.

The invention is an apparatus for increasing intrathoracic pressure for resuscitating cardiac arrest patients. The apparatus comprises a flexible, substantially inelastic belt wrapped around the patient's chest and attached to a force converter. The force converter converts a downwardly directed force into a chestward resultant, which depresses the sternum, and two belt tightening resultants. The force converter comprises a pair of arm assemblies, each having a pair of spaced arms, which are pivotably mounted to a base. The base is positioned near the patient's sternum and the ends of the belt attach to one end of each arm assembly. The opposite, handle ends of the arm assemblies are depressed toward the chest causing tightening of the belt and compression of the chest cavity.

The invention discloses a cardio-pulmonary resuscitation pressing depth indicating system with double sensors. The system comprises the first acceleration sensor arranged at the front chest pressing position of a human body, and the second acceleration sensor arranged at the position, directly facing the front chest pressing point, of the back of the human body. The first acceleration sensor transfers numerical values induced by the first acceleration sensor to a first microprocessor to calculate a first pressing displacement value. The second acceleration sensor transfers numerical values induced by the second acceleration sensor to a second microprocessor to calculate a second pressing displacement value. The first pressing displacement value and the second pressing displacement value are transferred to a third microprocessor on a display device in a wireless or wired mode. The third microprocessor enables a difference value of the first pressing displacement value and the second pressing displacement value to be displayed on a display screen. The cardio-pulmonary resuscitation pressing depth indicating system can detect the true chest pressing depth accurately, improve the first-aid quality and display the pressing depth to a rescuer in real time for reference.

A CPR patient training mannequin. The CPR patient training mannequin provides for training and teaching individuals in proper CPR technique. The mannequin includes a simulated torso section and simulated head section that enables a user to administer CPR and visually inspect the mannequin's response to the administration. The torso section utilizes a sensor configured to detect pressure exerted by a user performing chest compressions and includes one or more lights positioned in a simulated carotid artery and brain that are operably connected to the sensor. The lights are configured to illuminate to indicate the pressure exerted by a user. In an alternative embodiment, the torso section includes simulated lungs having lights that illuminate if a user properly performs a jaw-thrust maneuver and nose pinch on the mannequin.

An aquatic doll is used to test and train rescue and life saving skills. The doll has a torso and has arms, legs, and a head all connected to the torso. The torso, arms, and legs are all substantially hollow and define a plurality of holes for filling the doll with water. A pair of feet are weighted and attached to the legs for breaking the surface of the water and causing the legs to sink initially when the doll is positioned on the water. Preferably, the head can be turned from side to side for a rescuer to simulate a water clearing technique during a rescue. In addition, the head can be tilted and has a moveable jaw for a rescuer to simulate a jaw thrust method in CPR. Finally, a spring and clicker mechanism is positioned in the hollow of the torso for simulating chest compression techniques of CPR.

A cardiopulmonary resuscitation support device for assisting a rescuer with cardiopulmonary resuscitation using chest compressions, including: a pressure detecting device provided with a pressure sensor including a pressure sensing part which is configured to be overlapped on a chest, the pressure sensing part having a sheet form and being capable of flexural deformation in a flexible manner; and a displacement detecting device provided with a displacement sensor to detect a displacement of a hand of the rescuer compressing the chest, the displacement detecting device being configured to be retained by the hand of the rescuer at a part away from a chest compression surface.

The invention discloses a trunk muscle movement promoting device for early hemiplegia. The device comprises a bed body, a chest pressing mechanism, a rotating frame, a sliding rail, a sliding block, apressing plate, a head moving mechanism, two plate push mechanisms, an upper limb moving mechanism and a lower limb moving mechanism; the chest pressing mechanism comprises a first telescopic rod arranged on the bed head of the bed body; one end of the rotating frame is rotationally connected with the telescopic end of the first telescopic rod; the slide rail is rotationally connected under the other end of the rotating frame; the slide block is in sliding fit with the slide rail; the pressing plate is arranged at the lower end of the slide block and is of a V-shaped sheet structure, and thelower side of the pressing plate is designed to be an arc shape matched with the shape of the pleural region of a patient; the head moving mechanism can drive the head of the patient to move up and down and left and right; the two plate push mechanisms can push shoulder blades at two sides of the patient to move up and down; the upper limb movable mechanism is arranged on one side of a bed plate and can drive an arm at the affected side of the patient to lift and bend; and the lower limb moving mechanism comprises a vertical plate which is in sliding fit with the lower end of the bed plate, wherein a lower limb lifting component is arranged on one side, close to a bed head, of the vertical plate, and lower limb rotating components are respectively arranged on two sides of the upper end ofthe vertical plate.

A chest exercise machine is described. The chest exercise machine includes: a resistance element; a user support coupled to the resistance element; a first movement element coupled to the user support; and a second movement element coupled to the user support. A chest press machine includes: a cable resistance element adapted to allow for a resistance path that is at least partly defined by a user; a user support adapted to move along a movement path as a chest press is performed; and a load including a set of plates that may be selectively coupled to the cable resistance element. A pectoral fly machine includes: a cable resistance element adapted to allow for a resistance path that is at least partly defined by a user; a user support adapted to move along a movement path as a pectoral fly is performed; and a load including a set of plates.

An electro-mechanical CPR device (10, 11) for applying cardiopulmonary compressions to a chest of a patient employs a chest compressor (20), one or more straps (40) and a compression controller (30). Chest compressor (20) is self- supportable upon the chest of the patient and includes assembly an electric motor (50), a mechanical transmission (60), a linear actuator (70) and a plunger (80) mounted within a housing (100) wherein the linear actuator (70) converts rotational motion generated by the electric motor (50) and the mechanical transmission (60) into linear motion of the plunger (80) for applying a compressive force (21) to the chest of the patient. Strap(s) (40) wrap around the patient and is(are) coupled to chest compressor (20). Compression controller (30) is external to the chest compressor (20) and applies power and controls signals to the electric motor (50).

A method to reduce brain injury and brain swelling includes performing active compression decompression cardiopulmonary resuscitation on an individual in a supine position. The individual's head, shoulders, and heart are elevated relative to the individual's lower body. The head is elevated to a height of between about 20 cm and 30 cm above the horizontal plane and the heart is elevated to a height of between about 3 cm and 10 cm above the horizontal plane. Chest compressions are performed on the individual and actively decompressing the individual's chest while the individual's head, shoulders, and heart are elevated. Intrathoracic pressure of the individual is regulated using an intrathoracic pressure regulation device both while the individual is in the supine position and while the individual's head, shoulders, and heart are elevated relative to the lower body, thereby reducing brain edema during CPR.

The invention provides a wireless cardio-pulmonary resuscitation (CPR) guidance device and belongs to the field of medical instruments. The main hardware part of the wireless CPR includes a logic control module 1, a chest press detection module 2, an information display module 3, a voice prompt module 4, a wireless data communication module 5 and a power management module 6. The wireless cardio-pulmonary resuscitation guidance apparatus has the advantages that automatic power management can be realized according to actual chest pressing motion; the first aid process is guided according to thestandard CPR process; in the process of first aid, the actual rescue behavior can be fed back, so that CPR can be more standard and the quality of CPR can be improved.

This combined chest press and leg press exercise machine is comprised of an inclined seat with a weight resistance mechanism attached to handles and a foot-plate for providing adjustable resistance to arm and leg movement. At least one hand rail is positioned to aid entry to and exit from the machine and to stabilize the user while exercising.

A method for using the chest and leg exercise machine is for the user to sit on the inclined seat, hold the weight resistance handles and place his feet on the weight resistance foot-plate. He then pushes with his hands, the said handles forwards, away from the direction of the user's body. Simultaneously, he pushes with his legs on the said foot-plate also away from the direction of the user's body. The said handles and the said foot-plate are then controllably returned to their starting position and the exercise is repeated as desired.

Other methods for using the chest and leg exercise machine could be to operate the chest press and leg press independently or alternately or mostly the chest press with some help from the leg press or visa versa.

The invention discloses a reanimating device of animal heart and lung, which comprises the following parts: air supply adjusting part, chest pressing part, breath venting part and electromagnetic control part, wherein the electromagnetic control part connects chest pressing part and breath venting part; the air supply adjusting part connects electromagnetic control part and breath venting part. The invention utilizes chest pressing part and breath venting part to do mechanic vent for animal synchronously, which links according to the proportion.