Abstract: A hybrid power transmission integrated system includes a first planetary gear train, a second planetary gear train, a first transmission-connecting set and a second transmission-connecting set. A control method includes: arranging the first transmission-connecting set to provide a first power input end; arranging the second transmission-connecting set to provide a second power input end, a first power output end and a free transmission end; connecting the first and second transmission-connecting sets to the first and second planetary gear trains; controlling the free transmission end performed as a second power output end or a third power input end such that powers are converted via the second power output end and are stored; supplying the stored power to the hybrid power transmission integrated system via the second or third power input end.

Abstract: An integrated transmission system includes a controllably integrated transmission mechanism, a fluctuated energy input end, a split energy output end and a torque control end. A control method includes: providing the torque control end to control the controllably integrated transmission mechanism; connecting a fluctuated energy source or a speed-variable energy source to the fluctuated energy input end for inputting energy; according to a fluctuated energy input to the fluctuated energy input end, generating an energy buffer command or an energy split command via the torque control end to operate the controllably integrated transmission mechanism in an energy buffer state or an energy split state; according to the energy buffer state or the energy split state, controllably adjusting the input fluctuated energy in the controllably integrated transmission mechanism and thus outputting an adjusted energy via the split energy output end.

Abstract: A hybrid power transmission integrated system includes a first planetary gear train, a second planetary gear train, a first transmission-connecting set and a second transmission-connecting set. A control method includes: arranging the first transmission-connecting set to provide a first power input end; arranging the second transmission-connecting set to provide a second power input end, a first power output end and a free transmission end; connecting the first and second transmission-connecting sets to the first and second planetary gear trains; controlling the free transmission end performed as a second power output end or a third power input end such that powers are converted via the second power output end and are stored; supplying the stored power to the hybrid power transmission integrated system via the second or third power input end.

Abstract: An energy transforming apparatus has a controllable magnetic power gathering device and a transforming device to transform the non-continuous kinetic energy into electrical power to store in the power storage assembly. The controllable magnetic power gathering device has a non-continuous moved or linear reciprocating moved input end, a continuous rotating output end and a controllable energy-adjusting end, etc, to transform the impulse momentum into the continuous kinetic energy with the differential motion and using the non-contacting magnetic wheel transmission assembly to protect the overload effect. The transforming device has an energy transforming assembly, a circuit adjustment assembly and a power storage assembly. The circuit adjustment assembly is electrically connected with the energy transforming assembly to control the energy transforming assembly to transform the kinetic energy into electrical power.

Abstract: An energy transforming apparatus has a controllable magnetic power gathering device and a transforming device to transform the non-continuous kinetic energy into electrical power to store in the power storage assembly. The controllable magnetic power gathering device has a non-continuous moved or linear reciprocating moved input end, a continuous rotating output end and a controllable energy-adjusting end, etc, to transform the impulse momentum into the continuous kinetic energy with the differential motion and using the non-contacting magnetic wheel transmission assembly to protect the overload effect. The transforming device has an energy transforming assembly, a circuit adjustment assembly and a power storage assembly. The circuit adjustment assembly is electrically connected with the energy transforming assembly to control the energy transforming assembly to transform the kinetic energy into electrical power.

Abstract: A method of auto scanning and scraping a work piece for a hard rail has a preparing step, a scanning step, a detecting step, an auto-scraping step and an analyzing step. The preparing step comprises preparing an auto scanning and scraping apparatus with a multi-axis machine tool, a control computer, an auto-scraping device and a position detector. The scanning step comprises scanning the surface of the work piece to read the roughness value and transporting the data to the control computer. The detecting step comprises forming a 3D-appearance drawing of the work piece and detecting the 3D-appearance drawing with multiple detection steps. The auto-scraping step comprises scraping the surface of the work piece by the auto-scraping device. The analyzing step comprises detecting the 3D-appearance drawing of the work piece that has been scraped with the preceding detection steps and scraping the work piece to meet the preceding detection steps.

Abstract: An electric variable inertia apparatus uses a servo drive device to drive a planetary gear mechanism to which a load assembly is attached to provide variable and wide-ranging rotational inertia. A planetary frame and a ring gear of the planetary gear mechanism act as two input ends of the electric variable inertia apparatus, and a rotated shaft of a sun gear assembly of the planetary gear mechanism acts as a load terminal. The load assembly is rotated at a controlled rotational velocity with the ring gear to generate a widely ranging rotational inertia to change a dissipating degree of an input energy from the planetary frame. The electric variable inertia apparatus can be used in different fields such as shock absorbers, stabilizers, dampers or vibrators in the automotive field, etc.

Abstract: An electric variable inertia apparatus uses a servo drive device to drive a planetary gear mechanism to which a load assembly is attached to provide variable and wide-ranging rotational inertia. A planetary frame and a ring gear of the planetary gear mechanism act as two input ends of the electric variable inertia apparatus, and a rotated shaft of a sun gear assembly of the planetary gear mechanism acts as a load terminal. The load assembly is rotated at a controlled rotational velocity with the ring gear to generate a widely ranging rotational inertia to change a dissipating degree of an input energy from the planetary frame. The electric variable inertia apparatus can be used in different fields such as shock absorbers, stabilizers, dampers or vibrators in the automotive field, etc.

Abstract: A dynamic platform with a reality-simulating device includes a base, an inclining mechanism, a swaying mechanism, and a dynamic platform. The inclining mechanism has two inclining shaft frames respectively striding on support members of the base, driven by a motor to incline. A frame base is respectively provided between two non-pivoted ends of the two inclining shaft frames. The swaying mechanism is pivotally connected with the inclining mechanism, having a swaying frame and two swaying plates extending down and pivotally connected with the frame bases of the inclining mechanism. Two spiral gears are provided on the base and driven by another motor for moving the swaying mechanism. The dynamic platform is placed on the swaying mechanism, with an exercise appliance placed thereon, and with a screen provided beside the platform.

Abstract: A directly driven power swing rod device without dead points includes a control rod provided with a coordinate rod base, two L-shaped frames respectively provided with a hole base having a bearing fixed therein, two motors respectively provided with a position detecting coder for receiving a coordinate message and transmitting it to a control device which is able to control the rotating angles of the motor shafts respectively connected with the two L-shaped frames, a first interacting member inserted through a guide hole of the coordinate rod base and secured with the first L-shaped frame, and a second interacting member having one end inserted in a positioning hole of said coordinate rod base and the other end connected with the second L-shaped frame. Then the control rod may be deflected by the motors for driving a high speed, sensitive response system.

Abstract: A directly driven power swing rod device without dead points includes a control rod provided with a coordinate rod base, two L-shaped frames respectively provided with a hole base having a bearing fixed therein, two motors respectively provided with a position detecting coder for receiving a coordinate message and transmitting it to a control device which is able to control the rotating angles of the motor shafts respectively connected with the two L-shaped frames, a first interacting member inserted through a guide hole of the coordinate rod base and secured with the first L-shaped frame, and a second interacting member having one end inserted in a positioning hole of said coordinate rod base and the other end connected with the second L-shaped frame. Then the control rod may be deflected by the motors for driving a high speed, sensitive response system.

Abstract: The device includes at least a roller unit having a fixed immovable shaft rod combined with two coiled stator units having silicon steel stators respectively wound with a coil. Each coil stator unit has its outer circumference covered by a tubular-shaped magnet rotor unit having magnet rotors fitted inside, with every two abutting magnets axially and biasly positioned. A combination unit composed of a bearing and a bearing outer cover is fixed respectively at two ends of the magnet rotor unit. The roller unit includes gaps between the magnet rotors and gaps between the magnet rotors and the silicon steel stator. When the coiled stator units are electrically connected, the magnet rotor unit will rotate around the coiled stator unit.

Abstract: A roller device includes at least a roller unit having a fixed immovable shaft rod combined with two coiled stator units having silicon steel stators respectively wound with a coil. Each coil stator unit has its outer circumference covered up by a tubular-shaped magnet rotor unit having a plurality of magnet rotors fitted inside, with every two abutting magnets axially and biasly positioned. Then, a combination unit composed of a bearing and a bearing outer cover is fixed respectively at two ends of the magnet rotor unit. Thus, the roller unit is completed, having gaps of the magnet rotors and gaps between the magnet rotors and the silicon steel stator. When the coiled stator units are electrically connected, the magnet rotor unit will rotate around the coiled stator unit.