A breathing device including a housing portion and a mouthpiece portion. The housing portion has external and internal surfaces and a distal end portion and a proximal end portion. The mouthpiece portion has external and internal surfaces and includes a flared portion having a narrower distal end portion and extending to a wider proximal end portion, and the flared portion includes a depressed portion adjacent to the wider proximal end portion and configured to contact lips of a user.

The present invention discloses a mouthguard. The mouthguard includes an occlusion unit to be bitten by teeth between the maxilla and the mandible of a wearer. A front end of the occlusion unit is connected to a protector for protection. The occlusion unit and the protector are transfixed with an exhalation opening, and the protector is provided with a groove unit to emplace a fixing body. The fixing body is provided with a fan which can rotate relatively on the fixing body, so that the wearer can inhale through the nose and exhale through the mouth to breathe, which drives the fan to rotate, thereby increasing the vital capacity.

A lung exercise measurement device and method that utilizes one or more lift timers, rest timers and/or set counters to accurately display valuable metrics and goals for tracking and improving respiratory development using a lung trainer breathing technique device, with particular advantages for instructive, competitive, self-learning, and group training environments.

A lung exercise measurement device and method that utilizes one or more lift timers, rest timers and/or set counters to accurately display valuable metrics and goals for tracking and improving respiratory development using a lung trainer breathing technique device, with particular advantages for instructive, competitive, self-learning, and group training environments.

A vibratory PEP respiratory therapy device (100) includes a valve element (11) on a rocker arm (12) that opens and closes an opening (10) during exhalation through the apparatus. An accelerometer (20) including a piezoelectric beam (22) supported at one end (23) is mounted on the outside of the housing (2) of the device to respond to vibration transmitted though the housing caused by oscillating movement of the rocker arm (12). The output of the accelerometer (20) is supplied to a circuit (28), (29) that determines when the device (100) is used and the duration and quality of use of the device.

A vibratory PEP respiratory therapy device (100) includes a valve element (11) on a rocker arm (12) that opens and closes an opening (10) during exhalation through the apparatus. An accelerometer (20) including a piezoelectric beam (22) supported at one end (23) is mounted on the outside of the housing (2) of the device to respond to vibration transmitted though the housing caused by oscillating movement of the rocker arm (12). The output of the accelerometer (20) is supplied to a circuit (28), (29) that determines when the device (100) is used and the duration and quality of use of the device.

A respiratory treatment device includes a housing, an inlet configured to receive air into the housing, an outlet configured to permit air to exit the housing, and a flow path defined between the inlet and the outlet. A restrictor member positioned along the flow path that is configured to move between a closed position, where the flow of air along the flow path is restricted, and an open position, where the flow of air along the flow path is less restricted. A vane in communication with the flow path rotatable in response to the flow of air along the flow path is configured to move the restrictor member between the closed position and the open position. A protrusion extends in to the housing to limit movement of the restrictor member from the closed position to the open position.

A respiratory treatment device includes a housing, an inlet configured to receive air into the housing, an outlet configured to permit air to exit the housing, and a flow path defined between the inlet and the outlet. A restrictor member positioned along the flow path that is configured to move between a closed position, where the flow of air along the flow path is restricted, and an open position, where the flow of air along the flow path is less restricted. A vane in communication with the flow path rotatable in response to the flow of air along the flow path is configured to move the restrictor member between the closed position and the open position. A protrusion extends in to the housing to limit movement of the restrictor member from the closed position to the open position.

A training mask for the training of the respiratory muscles and/or snorkeling mask with improved air routing of the inhaled and/or exhaled air consisting of a half mask (8) sealingly closing the mouth and nose area, wherein an air-conducting channel connector (15, 40) with hollow profile is arranged in front of the half mask (8), via which connector at least the inhaled air can be introduced frontally in the half mask (8) via an approximately central inflow opening (22).

A respiratory pressure training strap includes a waist-back support, two shoulder straps, a chest strap and a belly strap; wherein the waist-back support is a main body of the respiratory pressure training strap, an upper portion of the waist-back support is connected to first ends of the shoulder straps, and a lower portion of the waist-back support is connected to the belly strap as well as second ends of the shoulder straps; wherein two ends of the chest strap are respectively connected to a left shoulder strap and a right shoulder strap of the shoulder straps; wherein the belly strap laterally extends from the lower portion of the waist-back support; wherein respiratory pressure regulators are respectively arranged on the waist-back support, the chest strap, and the belly strap. The present invention can realize the respiratory posture correction for the user by the reverse pressures.