In general and for simplicity of description, the present invention provides realtime feedback to a user of exercise equipment, showing the user the relative input force the user applies between left and right contact points with exercise equipment that has a singular resistance mechanism. By receiving this feedback, a user can balance or adjust to their desired ratio physical effort between the user's left and right engagement points and/or muscle groups with the exercise equipment, thereby achieving desired workouts.

An exercise machine has a base housing and a boom that extends from a proximal end to a distal end. The boom is able to pivot between a rowing configuration wherein the boom is generally horizontal, and a skiing configuration wherein the boom is generally vertical. A rowing assembly includes a row handle attached to a row chain which extends into the base housing, to a row recoil device. A ski assembly includes a pair of ski handles, each ski handle being attached to a ski rope which extends into the base housing, to a ski recoil device. A transmission system has a shaft that is operably connected to a resistance device, the shaft having a row sprocket and a pair of ski spools, and the respective cables contact the spools so that movement of one of the cables rotates the respective spool, thereby rotating the shaft.

The invention relates to a machine for sports training, which comprises a frame pivotably connected to a lever actuated by a user's arms, the at least one lever being connected to two main coupling elements situated parallel to each other, such that when the elements move, they describe an identical path at the same time, transmitting the movement of the at least one lever to resistance means. The machine provides continuous resistance to the actuation of the lever by the user, and a moment of inertia that prevents stops and jerks at the end of the stroke of the lever. The machine is provided with means for supporting the user, such as a platform, solidly fixed to the frame such that while the user trains the upper body, he or she can also train the lower body, at will, by performing exercises on the platform.

Shoulder exercising machines (machines) may include an upper member, a lower member, and a resistance member. The upper member and the lower member may be slidingly engaged with each other. The resistance member may provide resistance with respect to the upper member sliding against the lower member. The resistance member may be at least one elongate elastic member with two opposing terminal ends. The upper member may have at least one handle and an upper surface for supporting at least a portion of a forearm and/or a wrist of a user during exercises with the machine. The user may push or pull the handle and slide the upper member with respect to the lower member while experiencing resistance due to the resistance member.

A running emulator for increasing an athlete's strength in the movement of specific muscles used for running includes: a lower body frame; a pair of leg assemblies movably mounted on the lower body frame and having a leg extension carrier, a leg extension member slidably mounted through the leg extension carrier, a foot cradle mounted to the leg extension member; and two leg resistance members located on an outside of the lower body frame and connected to each of the pair of leg assemblies for resisting pivoting of the leg extension carrier relative to the lower body frame. During use by an athlete, the leg assemblies pivot and the leg extension member reciprocates through the leg extension carrier such that a path travelled by the athlete's foot on the foot cradle emulates motion of a sprinter.

The exercise machine with a variable resistance system includes a frame, an exercise implement movably connected to the frame, a main shaft rotatably connected to the frame, a main connector attached between the main shaft and the exercise implement, a plurality of resistance assemblies and a plurality of actuation assemblies adapted for selectively engaging or disengaging at least one of the plurality of resistance assemblies with respect to the main shaft. The plurality of resistance assemblies apply a total level of rotational resistance against the main shaft based on which of the plurality of resistance assemblies are engaged with the main shaft by the plurality of actuation assemblies.

In one embodiment, an exercise system includes a user interface device sized and configured to fit within a user's hand, the user interface device including a microcontroller configured to control operation of the device, a first sensor configured to sense movements of the device, a second sensor configured to sense forces applied to the device, and a communication device configured to communicate data concerning the sensed movements and forces to a separate device.

A gripping assembly for a lateral pulldown exercise machine, having: a swivel link connected to a center mount, wherein the swivel link is adapted to be pivotally connected to a pulldown arm of a lateral pulldown exercise machine; an outwardly extending arm connected to the center mount for performing wide-angle grips; an inwardly extending arm connected to the center mount, wherein the inwardly extending arm is rotatable between a forwardly angled position and a backwardly pointing position; and a climb hold attached to the center mount.

Shoulder exercising machines (machines) may be disclosed. Such machines might include an upper member, a lower member, and a resistance member. The upper member and the lower member may be slidingly engaged with each other. The resistance member may provide resistance with respect to the upper member sliding against the lower member. The resistance member may be at least one elongate elastic member with two opposing terminal ends. The upper member have a handle and an upper surface for supporting at least a portion of a forearm and/or a wrist of a user during exercises with the machine. The user may push or pull the handle, and slide the upper member with respect to the lower member while experiencing resistance due to the resistance member.

A programmable range of motion system has a frame, a range of motion device, a controller, a computer and sensors. The frame has a seat to support a rehab patient. The range of motion device is attached to the frame. The actuator, servo or alternate mechanism selectively rotates the range of motion device through a range of motion for a rehab patient's limb. The controller controls the actuator, servo or alternate mechanism. The computer is connected electronically to the controller. The computer has a software, program or application including a plurality of programmable range of motion movements for exercising the limb. The sensor detects movements of the actuator, servo or alternate mechanism and records data back to the computer. The term actuator as used hereafter includes servo or alternate articulating mechanism.