An interacting exercise device is revealed. The interacting exercise device includes a driving device and a non-concentric actuator driven by the driving device. While the driving device is operated to rotate, the non-concentric actuator vibrates and the vibration generated is delivered to the interacting exercise device for interacting shaking fitness.

A device and method for monitoring and tracking the body movement of a user performing regular exercises such as squat is disclosed. The device for monitoring and tracking the body movement comprises a thigh strap, a housing and a printed circuit board. The printed circuit boards attached with the thigh straps comprises an actuating device, an accelerometer, a communication link, a power source, a processor, an USB connector, and an alerting device. The device senses accurate squat position and indicate with an audible beep, LED display, or it can be switched to a vibration mode. The device is configured to hold the legs and indicate the accurate squat position. The device could also connected to various other devices via Bluetooth linking technology.

A wearable gym can include base component configured to be worn over a portion of a body of a user. The wearable gym can also include at least one exercise device coupled to the base component, wherein the at least one exercise device is configured to burn calories of the user when the user engages the at least one exercise device.

A bicycle trainer for mounting a bicycle includes a roller for engaging the rear wheel of the bicycle, and a motor controlled by an electrouros unit and providing driving and braking forces to the roller. The bicycle trainer is used in a method for comparative home training.

An exercise apparatus having a pulley, a pair of stabilizing assemblies each configured to couple a front portion of a respective pedal element to each side of the pulley, a looped belt configured to couple the pulley to a resistance assembly, a tension stabilizer configured to maintain a tension of the looped belt on the pulley, and the resistance assembly configured to assert an adjustable resistance to the pedal elements through the looped belt. The exercise apparatus also comprises a resistance band extension for performing additional exercise using resistance bands and a transport mechanism for transporting the exercise apparatus and securing the exercise apparatus to a chair wheel or other structure during exercise.

A fitness ball has first and second hemispheres, which are connectable to form a complete sphere. The first hemisphere supports a motor having a pair of rotatable eccentric masses at opposite ends of a common drive shaft. The second hemisphere supports a rechargeable battery pack, electronic circuitry and indicators LEDs. The electronic circuit controls the charging of the battery pack and also selectively provides electrical power from the battery pack to the motor to control the rotational speed of the motor to rotate the eccentric masses. The rotating eccentric masses cause vibrations that are communicated from the motor to the two hemispheres. The vibration frequency is controlled by the rotational speed of the motor. The hemispheres have outer covers having a configuration that is easy to grip such that the vibrations are communicated to a users hands. The ball is substantially balanced about an equatorial plane.

A respiratory monitor including a sensor (200) responsive to substance in exhaled breath is mounted in or connected to a respiratory therapy device (100) of the kind that provides an alternating resistance to expiratory flow. The sensor (200) is exposed to biomarkers or other substances in exhaled breath. The vibration in the lungs produced by the therapy device (100) helps release an increased amount of the biomarkers or other substances in the exhaled breath.

A running device and method of using the device are disclosed. The device may include a moveable material within an inner chamber of the running device's housing. In operation, a running device may be held in each hand and the runner may thrust both hands downward prior to landing and quickly bring the devices to a vertical stop after landing. Bringing the devices to a vertical stop may cause the moveable material to collide with the housing and increase the force exerted by the runner on the ground. A delay component may delay the peak force exerted by the material against the housing so that the translation of that force to the ground coincides with the peak force that the runner would have exerted against the ground in the absence of the devices.

An exercise apparatus having a pulley, a pair of stabilizing assemblies each configured to couple a front portion of a respective pedal element to each side of the pulley, a looped belt configured to couple the pulley to a resistance assembly, a tension stabilizer configured to maintain a tension of the looped belt on the pulley, and the resistance assembly configured to assert an adjustable resistance to the pedal elements through the looped belt. The exercise apparatus also comprises a resistance band extension for performing additional exercise using resistance bands and a transport mechanism for transporting the exercise apparatus and securing the exercise apparatus to a chair wheel or other structure during exercise.

An exerciser includes a frame, a movable platform disposed on the frame, the movable platform being movable between a first position and a second position, at least one weight disposable on the moveable platform in a first orientation so that the at least one weight slides between a third position and a fourth position, and a tether connected to the moveable platform to move the moveable platform from the first position to the second position. The at least one weight slides to the third position when the movable platform reaches the first position. The at least one weight slides to the fourth position when the moveable platform reaches the second position.