Abstract: A damping transmission device includes a driving shaft, a driven shaft and a first and a second transmission mechanism. The driving shaft drives the driven shaft to rotate via alternating operation of the first and second transmission mechanisms. The first transmission mechanism is a low-torque, high-speed transmission mechanism including a first driving wheel, a first driven wheel diametrically smaller than the first driving wheel, and a first transmission element wound on the first driving and driven wheels. The second transmission mechanism is a high-torque, low-speed transmission mechanism including a second driving wheel, a second driven wheel diametrically larger than the second driving wheel, and a second transmission element wound on the second driving and driven wheels.

Abstract: An energy storage and transmission system includes a flywheel energy storage device, a driver device and a transmission device. The flywheel energy storage device includes a flywheel, and a motor that is coupled to the flywheel. The driver device is electrically powered by a direct current (DC) power source, is coupled to the motor, and is for driving the motor and the flywheel. The transmission device includes a first crankshaft that is coupled to the motor and that is driven by the motor, a cylinder that is coupled to the first crankshaft, and a second crankshaft that is coupled to the cylinder.

Abstract: A damper includes a resonant circuit, a damping capacitor unit and a switching circuit. A damping inductor unit of the resonant circuit receives alternating current (AC) electrical energy. A resonant capacitor of the resonant circuit is connected to the damping inductor unit. The switching circuit is connected to the resonant capacitor, the damping inductor unit, and the damping capacitor unit. The switching circuit establishes, when operating in a first phase, a connection between the damping inductor unit and resonant capacitor to store the AC electrical energy in the resonant circuit, and allows, when operating in a second phase, the AC electrical energy to be transferred to and stored in the clamping capacitor unit.

Abstract: A damping transmission device includes a driving shaft, a driven shaft and a first and a second transmission mechanism. The driving shaft drives the driven shaft to rotate via alternating operation of the first and second transmission mechanisms. The first transmission mechanism is a low-torque, high-speed transmission mechanism including a first driving wheel, a first driven wheel diametrically smaller than the first driving wheel, and a first transmission element wound on the first driving and driven wheels. The second transmission mechanism is a high-torque, low-speed transmission mechanism including a second driving wheel, a second driven wheel diametrically larger than the second driving wheel, and a second transmission element wound on the second driving and driven wheels.

Abstract: A damper includes a resonant circuit, a damping capacitor unit and a switching circuit. A damping inductor unit of the resonant circuit receives alternating current (AC) electrical energy. A resonant capacitor of the resonant circuit is connected to the damping inductor unit. The switching circuit is connected to the resonant capacitor, the damping inductor unit, and the damping capacitor unit. The switching circuit establishes, when operating in a first phase, a connection between the damping inductor unit and resonant capacitor to store the AC electrical energy in the resonant circuit, and allows, when operating in a second phase, the AC electrical energy to be transferred to and stored in the clamping capacitor unit.

Abstract: A reluctance motor includes a ferromagnetic seat, a non-magnetic sleeve sleeved on the seat, a magnetizing coil wound around the sleeve, a magnetic core surrounding the sleeve, a ferromagnetic cover covering the sleeve, and a ferromagnetic pseudo piston partly disposed in the sleeve and axially movable relative to the sleeve.

Abstract: A reluctance generator includes a circular stator made by silicon steel sheets and amorphous metal, first and second exciting coils, first and second outputting coils, and a rotator disposed in the stator. The stator includes four projecting poles. Two opposite ones and the other two opposite ones of the projecting poles are respectively formed with first and second teeth at distal ends thereof. The first exciting coil, the first outputting coil, the second exciting coil and the second outputting coil are in sequence and each wound around the stator between respective two adjacent ones of the projecting poles. When the rotator rotates, the first and second teeth are alternately aligned with third teeth that surround the rotator.

Abstract: A magnetoelectric device capable of storing usable electrical energy includes an inductive servo control unit and a motor. The motor includes a rotor and three ferromagnetic-core coils disposed around the rotor. The inductive servo control unit executes individual phase control on the three-phase induction motor to magnetize the ferromagnetic-core coils with respective phases. When each of the ferromagnetic-core coils is demagnetized, it generates a current due to counter-electromotive force to charge a damping capacitor.

Abstract: A magnetoelectric device capable of storing usable electrical energy includes an inductive servo control unit and a motor. The motor includes a rotor and three ferromagnetic-core coils disposed around the rotor. The inductive servo control unit executes individual phase control on the three-phase induction motor to magnetize the ferromagnetic-core coils with respective phases. When each of the ferromagnetic-core coils is demagnetized, it generates a current due to counter-electromotive force to charge a damping capacitor.

Abstract: A magnetoelectric device includes reluctance components, damping modules and a driving module. Each reluctance component includes a magnetic core unit having a loop-shaped first segment and a second segment connected to the first segment, first to third coils wound around and loosely coupled to the first segment, a first capacitor connected between the second and third coils, and a second capacitor connected to the third coil in parallel. Each damping module receives electrical energy from a respective reluctance component, and releases electrical energy to a DC power source. The driving module connects the DC power source to each first coil in such a way that a respective AC voltage is generated across each first coil.

Abstract: A resonating lithium battery device with damping function includes at least two similar cell stacks connected either in series or in parallel. Each of the cell stacks includes a lithium-ion battery and a lithium-ion polymer battery electrically connected in parallel; the lithium-ion battery is an electrically current-type battery contributive to discharging, and the lithium-ion polymer battery is an electrically voltage-type battery contributive to charging. The lithium-ion battery has a capacity that is equal or close to a capacity of the lithium-ion polymer battery. An automatic voltage balancing occurs between the lithium-ion battery and the lithium-ion polymer battery to provide a damping effect as a result of resonance transition, enabling the lithium battery device to charge and discharge faster without causing a rising temperature and accordingly have a prolonged service life.

Abstract: An acid/alkaline hybrid resonance battery device with damping function is formed of a plurality of similar battery cells connected in either series or parallel. Every battery cell includes an acid rechargeable cell unit and an alkaline rechargeable cell unit, which are electrically connected in parallel. The acid rechargeable cell unit includes at least one acid rechargeable cell, and the alkaline rechargeable cell unit includes at least two serially connected alkaline rechargeable cells. The acid rechargeable cell unit has an electric potential and a capacity close to or equal to those of the alkaline rechargeable cell unit, so that a resonance damping effect is produced between the acid rechargeable cell unit and the alkaline rechargeable cell unit.

Abstract: A magnetoelectric device includes at least one reluctance component, at least one damping capacitor, and a switching circuit. The reluctance component includes a capacitive and inductive magnetic core unit having a loop-shaped first segment and a second segment connected to the first segment, and at least one coil wound around and loosely coupled to the magnetic core unit. The damping capacitor cooperates with the coil to form a resonant circuit. The switching circuit makes and breaks electrical connection between the coil and a DC power source so that an eddy current flowing through the resonant circuit may be generated for storing energy in the damping capacitor.

Abstract: A switched reluctance motor device includes first and second winding components wound around a stator one on top of the other, multiple damping capacitors, a capacitor battery unit and a switching circuit. The first winding component has multiple first winding portions coupled in series to form a close loop. The second winding component has multiple second winding portions coupled in a star configuration and cooperating with the damping capacitors to form multiple resonant circuits. The switching circuit switches one first winding portion from a magnetizing state to a demagnetizing state, and induces generation of a resonant current in the corresponding resonant circuit to charge the capacitor battery unit.

Abstract: An acid/alkaline hybrid resonance battery device with damping function is formed of a plurality of similar battery cells connected in either series or parallel. Every battery cell includes an acid rechargeable cell unit and an alkaline rechargeable cell unit, which are electrically connected in parallel. The acid rechargeable cell unit includes at least one acid rechargeable cell, and the alkaline rechargeable cell unit includes at least two serially connected alkaline rechargeable cells. The acid rechargeable cell unit has an electric potential and a capacity close to or equal to those of the alkaline rechargeable cell unit, so that a resonance damping effect is produced between the acid rechargeable cell unit and the alkaline rechargeable cell unit.

Abstract: An electrolyte conveyance device for flow battery includes a first permanent magnet direct current (PMDC) motor, a second PMDC motor, a power-output shaft, a first screw rod conveyance unit, and a second screw rod conveyance unit. The power-output shaft is a common power-output shaft of the first and second PMDC motors for driving the first and second screw rod conveyance units to operate at the same time, so as to convey a positive and a negative electrolyte, respectively, from positive and negative electrolyte tanks to a battery cell of the flow battery. The first and second PMDC motors serve as filters on a charging and a discharging circuit of the flow battery, and are driven by the electrical energy of removed surges to operate for conveying the electrolytes without consuming the electrical energy stored in the flow battery.

Abstract: A dynamic inductor system capable of storing usable electrical energy includes a rotor, a stator, a three-phase winding set, and a damping circuit. The damping circuit includes three freewheeling diode sets. Each of the three freewheeling diode sets has a first freewheeling diode and a second freewheeling diode. When the rotor rotates around the stator, the three-phase winding set generates a current passing through the first freewheeling diode of one of the freewheeling diode sets to charge the first damping capacitor, and a current passing through the second freewheeling diode of another one of the freewheeling diode sets to charge the second damping capacitor.

Abstract: A magnetoelectric device includes reluctance components, damping modules and a driving module. Each reluctance component includes a magnetic core unit having a loop-shaped first segment and a second segment connected to the first segment, first to third coils wound around and loosely coupled to the first segment, a first capacitor connected between the second and third coils, and a second capacitor connected to the third coil in parallel. Each damping module receives electrical energy from a respective reluctance component, and releases electrical energy to a DC power source. The driving module connects the DC power source to each first coil in such a way that a respective AC voltage is generated across each first coil.

Abstract: A damping charging device includes a power output unit connectable to an electrical energy generating device to regulate a voltage of electrical energy output by the electrical energy generating device and then output a voltage-regulated electric power; a control circuit maintaining the electric power output by the power output unit in a constant-current and constant-voltage state; a damping inductor connected to an anode of a capacitor battery to be charged; and a high-frequency oscillation switch connected to a cathode of the capacitor battery. The damping inductor includes a silicon steel core having inductance that increases with increased frequency and an amorphous silicon core having inductance that increases with decreased frequency.

Abstract: An electrical energy storage device with damping function is a capacitor-cell battery formed of a plurality of capacitor cells connected in either series or parallel. Each of the capacitor cells includes a supercapacitor and a pseudocapacitor. The supercapacitor is a non-polarized capacitor internally having a separator, and the pseudocapacitor is a polarized electrochemical capacitor. The supercapacitor and the pseudocapacitor are electrically connected in parallel. The supercapacitor has a capacity close to or equal to that of the pseudocapacitor. When charging the capacitor-cell battery, the supercapacitor in every capacitor cell produces a polarization effect, so that electrical energy is charged thereinto as a result of voltage. And, due to a potential balance between the supercapacitor and the pseudocapacitor, the electrical energy charged into the supercapacitor is rapidly transformed into electric current that flows into and is stored in the pseudocapacitor.