168results about "Riding toy animals" patented technology

A balance training apparatus, which is preferably used for training a body balance function and a locomotive function of a user, and for rehabilitation for lumbago prevention, is provided. This apparatus has a seat for the user and a driving unit for driving the seat. The driving unit comprises a drive source and a power transmission unit for converting an output of the drive source into a horse-riding motion, which is a combination of a rectilinear reciprocating motion in a forward and backward direction (X) of the seat, a first pivotal reciprocating motion (θy) about an axis extending in a horizontal direction substantially perpendicular to the forward and backward direction, and a second pivotal reciprocating motion (θx) about an axis extending in the forward and backward direction, and transferring the horse-riding motion to the seat.

There is provided a system for providing interactivity to a guest of an experiential venue, based on sensor measurement of the guest. The system comprises a sensor configured to sense a guest variable of the guest, where the sensor may be a biometric sensor, a facial recognition sensor, a voice stress analysis sensor, a gesture recognition sensor, a motion tracking sensor, or an eye tracking sensor, and may sense heart rate or another guest variable. The system also comprises a control system, which may be implemented as a computer, in communication with the sensor. The control system is configured to determine a guest state from the guest variable, and to modify a venue variable, for example by selecting a path a theme park ride follows. The control system modifies the venue variable according to the guest state to provide increased satisfaction to the guest of the experiential venue.

A riding toy converts between a traditional or conventional upright trike configuration and a low slung chopper configuration. A front frame tube is joined to a head tube to which the front wheel and handlebars are piviotally attached. A rear frame tube is joined to a pair of rear wheels. The front and rear frame tubes are joined by a pivot shaft so that they rotate relative to one another. As a result, the rear portion of the riding toy may be flipped over to reconfigure the riding toy between the trike and chopper configurations. An opening is formed in the front frame tube and receives spring-loaded buttons that turn with the rear frame tube so that the riding toy may be locked in the desired configuration. The front frame tube is also split and features a clamp so that it can clamp down on a guide sleeve that is attached to the rear frame tube.

In a balance exercise machine (1), a swing mechanism (3) swings a seat (2) with composition of a swing motion in an anteroposterior direction (direction X) and a swing motion in a widthwise direction (direction Y). The swing motion of the seat (2) in the anteroposterior direction is driven faster than, preferably twice as faster as that in the widthwise direction. The origin of the swing motion of the seat (2) in the widthwise direction is discrepant from origin of the swing motion of the seat (2) in the anteroposterior direction within a half-cycle.

The present invention relates to a load bearing apparatus, and more particularly, to a passive exoskeleton whereby a load may be placed on the passive exoskeleton and thereby transfer weight of the load from the passive exoskeleton to a ground surface. The passive exoskeleton comprises a rigid body member for attaching proximate a portion of a user's body, a sliding rod attached with the body member, and a ground surface engage-able foot analog attached with the sliding rod. When a user places a load on the body member, weight of the load from is transferred from the body member, through the sliding rod, and into the foot analog, causing the passive exoskeleton to support at least a portion of the load.

In a balance exercise machine (1), a swing mechanism (3) that swings a seat (2) in both of an anteroposterior direction (direction X) and a widthwise direction (direction Y) is rotatably supported on a supporting unit (119 around a predetermined rotation axis (T0). A first inclination mechanism (12) that stands up or down the rotation axis (T0) is provided between the supporting unit (11) and a pedestal (4). A second inclination mechanism (20) that can compensate the posture of the seat (2) is provided between the seat (2) and the swing mechanism (3). By driving the swing mechanism (3), the first inclination mechanism (12) and the second inclination mechanism (20) independently with each other, a stroke of swing motion of the seat can be expanded or contracted. Alternatively, by driving the swing mechanism (3), the first inclination mechanism (12) and the second inclination mechanism (20) in conjunction with each other, the trace of the motion of the seat (2) can be varied.

The invention discloses an interaction system of armed fight and wireless marking with an electromechanical simulation animal as a carrier, which comprises a conductive field structure, a first motionbody, a second motion body, a first apparatus, a second apparatus, a first armor, a second armor and a marking device. A first person and a second person as riders can ride on the motion bodies for apparatus mutual attack motion of two or a plurality of persons through the system, safe and free apparatus mutual attack competition among the riders can be carried out in the control process of actions including speed change, direction change, engagement and disengagement, braking and the like of the motion bodies and under the protection of wearing protective armors, and competitive results canbe automatically distinguished and displayed in real time through marking. Through the mode of together combining riding motion with apparatus fight motion, participants not only can achieve the purposes of body building and entertainment in the riding motion, but also can enjoy the effects of entertainment, body building and competition in a safe mode in the apparatus mutual attack motion, thereby promoting the coordinated motion of each organ of human bodies, and achieving the purpose of mass entertainment.

The present invention relates to a load bearing apparatus, and more particularly, to a passive exoskeleton whereby a load may be placed on the passive exoskeleton and thereby transfer weight of the load from the passive exoskeleton to a ground surface. The passive exoskeleton comprises a rigid body member for attaching proximate a portion of a user's body, a sliding rod attached with the body member, and a ground surface engage-able foot analog attached with the sliding rod. When a user places a load on the body member, weight of the load from is transferred from the body member, through the sliding rod, and into the foot analog, causing the passive exoskeleton to support at least a portion of the load.

A riding toy converts between a traditional or conventional upright trike configuration and a low slung chopper configuration. A front frame tube is joined to a head tube to which the front wheel and handlebars are piviotally attached. A rear frame tube is joined to a pair of rear wheels. The front and rear frame tubes are joined by a pivot shaft so that they rotate relative to one another. As a result, the rear portion of the riding toy may be flipped over to reconfigure the riding toy between the trike and chopper configurations. An opening is formed in the front frame tube and receives spring-loaded buttons that turn with the rear frame tube so that the riding toy may be locked in the desired configuration. The front frame tube is also split and features a clamp so that it can clamp down on a guide sleeve that is attached to the rear frame tube.

To provide a swing device capable of making a user body sense a rising, lowering, and / or turning feeling more impressively or with higher reality with a simple structure, there is provided a swing device including: a swing member on which a user rides; a fulcrum support mechanism that swingably supports the swing member at a fulcrum; and a first driving mechanism that swingably supports a first driving point on the swing member and moving the first driving point in a vertical direction, the first driving point being spaced apart from the fulcrum in a longitudinal direction of the swing member, the fulcrum is placed on a rear side of a riding position of the user in the longitudinal direction of the swing member.

A child's wagon is provided with a mobile base portion and a body portion that define a large inner cavity for storing various articles. Head, neck and tail assemblies may be provided so that the wagon resembles a desired animal. A frame assembly provides the head and neck with realistic movement when the wagon is moved. A cover for the wagon's inner chamber may be shaped like a saddle to support one or more children. Additional accessories such as saddlebags, bottle holsters, and a coiled cord pacifier may be provided. The tongue may be pulled manually or disassembled into a tow bar to be pulled by other motive devices.

A calf roping training apparatus incorporating a simulated calf, a support column and a towing structure. The support column has a spin joint and an invert joint. The calf body of the simulated calf is formed by one or more pieces of simulated skin and a simulated head fixed in anatomical form by a body frame. The support column is anchored to the towing structure. The towing structure has a tow member, a pair of long skids, a short skid, and a towing attachment device. The support column base is attached to the short skid which provides for transfer of the weight of the simulated calf to the ground. The support column top is attached to or integrated with the body frame.

A scooter having a handlebar assembly that includes a vertical portion supporting a handlebar. The vertical portion includes an opening at its top end and the opening is configured to receive an elongate portion of a toy. The assembly also includes a ring portion at the opening of the vertical portion and the ring portion frictionally engages the elongate portion of the toy. The vertical portion and the ring portion are configured to securely support the elongate portion of the toy.

An ambulatory assistance device is provided, having a base that supports an individual in a generally upright position. A forward support frame is provided for engagement between the individual's upper extremities and the operating surface. Forward ambulation may be achieved by shifting the individual's mass toward one side of the device and then pulling on the support frame to pivot the opposite side of the device in a generally forward direction. Repeating the process in a mirror fashion moves the other side of the individual and the device in a generally forward direction. Optional platforms and foot restraints are provided for positioning and securing the individual on the base. Various base configurations are provided to adjust the performance of the device according to conditions.

Children's ride-on vehicles with reconfigured, or flexed panel, bodies. The bodies include at least one reconfigured, or flexed, body panel that is retained in a biased, or flexed, configuration and / or against its internal bias to move from the flexed configuration. In some embodiments, the body has an exterior shape that is determined at least in part by the at least one flexed body panel. In some embodiments, the at least one body panel is integrally formed with other portions of the ride-on's body, and in some embodiments, a portion of the body panel remains in an unflexed configuration when another portion of the body panel is retained in the flexed configuration. In some embodiments, the vehicles include at least one retainer that engages a flexed panel and retains the panel in a defined position relative to another portion of the ride-on's body.

Disclosed is a balance training apparatus for applying an exercise load to a subject, which comprises a seat adapted to allow the subject to sit thereon, a rocking mechanism for rockingly moving the seat, and a phase changer. The rocking mechanism includes a plurality of converters adapted to receive a driving force transmitted from a common driving source so as to operate in an interlocked relationship with each other, and convert the driving force from the driving source to a rocking motion having movement directions intersecting with each other. The phase changer is adapted to selectively connect and disconnect the transmission of the driving force to first converter consisting of a part of the plurality of converter, so as to change a phase relationship in rocking motion between the first converter, and second converter consisting of the rest of the plurality of converter. The seat with a subject thereon can be mockingly moved in a variety of rocking patterns according to variously changed phase relations.

The invention relates to a bio-robot which comprises a machine frame, a driving mechanism, a traveling mechanism and a control mechanism, wherein the driving mechanism, the traveling mechanism and the control mechanism are arranged on the machine frame. The machine frame is provided with a polypod shape-simulating outer casing of which the limbs can drive left and right, e.g. cricket (6 feet), spider (8 feet) and the like, in particular an outer casing simulating the crab. A crankshaft is used for driving the limbs to do simulation motion. A manpower-driving crank link mechanism, an electronic mechanism and a spring mechanism can drive the crankshaft to rotate. The large bio-robot can be ridden by people, and the small toy can be appreciated. The invention is suitable for pleasure grounds and families, and also can be used as physical exercise apparatuses of schools and kindergartens.

A two-legged walking transportation device includes an upper body unit for supporting the trunk of the rider, and leg units provided below the upper body unit, each of the leg units includes a link mechanism connected at one end to the upper body unit via a hip joint with at least three degrees of freedom, a foot mechanism connected to the other end of the link mechanism via an ankle joint with at least two degrees of freedom, and a fixing mechanism for fixing the rider's foot to the link mechanism via a multi-axis force sensor so as to be only rotatable with respect to directions in which the ankle joint is movable, the hip join is voluntarily controlled in accordance with operating force and / or operating torque provided by the rider's foot and sensed by the multi-axis force sensor, and control of the ankle joint while standing is automatically performed as balance maintenance control without directly involving the rider.

A riding device includes a crank device rotatably attached to a base, and a rider support supported on a carrier and movable relative to the base for supporting a rider, the carrier has a front portion pivotally coupled to the base and a rear portion coupled to the cranks for moving cyclically relative to the base and for allowing the carrier to be moved in an elliptical and reciprocating action relative to the base by the crank device, and a motor or motorized rotating device for rotating the crank device relative to the base in the cyclic and reciprocating action to actuate the carrier and the rider support to move relative to the base in an elliptical and reciprocating action.