Abstract:
PURPOSE: A method for controlling a charged power distribution of an electric vehicle of a noncontact electromagnetic inductive charging method is provided to improve the energy efficiency of a system by preventing an overcharge current which is inputted to a battery. CONSTITUTION: It is determined whether power is supplied from a regulator(S203). If the power is not supplied from the regulator, a regenerative braking function is on(S204). Regenerative braking energy is supplied(S205). A battery is charged(S206). If the power is supplied from the regulator, the regenerative braking function is off(S207). A battery is charged by supplying the collected electromagnetic inductive energy to a driving motor.
Abstract:
PURPOSE: A device for cooling and heating a battery pack of a noncontact electromagnetic inductive charging method and a method for generating power by recovering waste heat from the battery pack using the same are provided to improve the efficiency of a system by effectively recovering waste heat from a battery. CONSTITUTION: A battery pack(1) supplies and stores power. A thermoelectric element(2) is installed in the battery pack. The thermoelectric element changes heat generated from the battery pack into electric energy. A DC power supply unit is connected to the thermoelectric element. The DC power supply unit supplies DC power.
Abstract:
PURPOSE: A connecting structure between a drive motor and a transmission of a non-contact electromagnetic inductive charging type electric vehicle is provided to improve output efficiency by absorbing a shock generated between a drive motor and a transmission. CONSTITUTION: A coupling unit(300) absorbs a shock generated between a motor shaft of a drive motor and a transmission shaft when the power is transmitted. A coupling unit(300) includes a motor shaft connection part(310), a connection link(320), and a coupling ring(330). The motor shaft connection part is connected to the motor shaft of the drive motor. The connection link is coupled with the motor shaft connection part so as to transmit the torque of the motor shaft connection part to the transmission shaft without the shock. The coupling ring is formed to couple the connection link with the motor shaft connection part.
Abstract:
PURPOSE: A magnetic field shielding device for a non-contact electromagnetic inductive charging electric vehicle is provided to minimize an electromagnetic wave and a magnetic field generated between a current collecting device and a power supply device from being leaked to the outside, thereby increasing current collecting efficiency. CONSTITUTION: A current collecting device(5) is installed in the lower part of the frame of a non-contact electromagnetic inductive charging electric vehicle. The current collecting device generates inductive power by magnetic fields of a power supply device which is embedded in a power supply road(1). A magnetic field shielding device for a non-contact electromagnetic inductive charging electric vehicle comprises a fixing bracket(13), a shielding member(11), an operating member(14), and an actuator. The fixing bracket is fixed to the lower frame of the vehicle. The shielding member is vertically installed in the lower part of the fixing bracket to prevent an electromagnetic wave and a magnetic field generated between the current collecting device and the power supply road from being leaked to the outside. One side of the actuator is coupled with the operating member to rotate first and second link members each other.
Abstract:
PURPOSE: A magnetic field shielding device for a non-contact electromagnetic inductive charging electric vehicle is provided to minimize the influence of an electromagnetic wave and a magnetic field to people. CONSTITUTION: A current collecting device(5) is installed in the lower part of the frame of a non-contact electromagnetic inductive charging electric vehicle. The current collecting device generates inductive power by magnetic fields of a power supply device which is embedded in a power supply road(1). A magnetic field shielding device(10) for a non-contact electromagnetic inductive charging electric vehicle comprises a shielding cover(11) and a magnetic object(12). The metallic shielding cover is installed on the current collecting device. The magnetic object is installed on the inner side of the shielding cover to prevent an electromagnetic wave and a magnetic field generated between the current collecting device and the power supply road from being leaked to the outside.
Abstract:
PURPOSE: A power supply road structure for an electric vehicle of a non-contact magnetic induction charging type is provided to satisfy functions for a waterproof property, magnetic field nonintervention, durability, crack resistance, and construction time reduction. CONSTITUTION: A power supply road structure for an electric vehicle of a non-contact magnetic induction charging type comprises polymer concrete(1) and cement concrete(2). The polymer concrete for a base layer includes a superior waterproof property and a superior crack resistant property. The polymer concrete is applied to an upper layer. The cement concrete is applied to a lower layer.
Abstract:
본 발명의 철도 차량에 설치되는 대용량 집전장치의 협폭 집전코어 장치는, 중앙에 소정 깊이의 홈이 형성되고, 상기 홈의 양측 상단부에 동일한 폭을 갖는 판형 구조의 코일 권선부; 및 상기 코일 권선부의 양 끝 하단부에 상기 코일 권선부의 내측 방향으로 소정 길이만큼 돌출되어 형성되는 내측 날개부를 포함한다. 본 발명에 의하면, 철도 차량의 하부에 설치되는 대용량 집전장치의 코어의 폭을 감소시킴으로써, 집전장치의 코어의 폭 감소로 인하여 집전장치를 차량의 하부에 설치시 따르는 제약을 줄일 수 있으며, 이러한 집전장치의 코어를 좌우 편차가 없는 철도 차량에 적용하여 집전장치의 출력을 유지할 수 있는 효과가 있다.
Abstract:
Disclosed are a high power collection and supply system and a high power collection device therefor. The high power collection and supply system comprises a supply device for supplying power in a magnetic induction manner using a supply core for receiving power from supply power mounted therein and supplying a route of magnetic flux generated by a current flowing a supply cable connected to the supply power and a supply unit including the supply cable winding the supply core; and a collection device which includes a collection core to which the magnetic flux is induced and a collection cable branched into n numbers to wind the collection core and receives the induced electromotive force formed from the supply device using a collection unit magnetically coupled to the supply unit by the magnetic flux. [Reference numerals] (130) Battery; (330) Current collector circuit; (AA) Width direction; (BB) Length direction
Abstract:
본 발명은 차도 급전 장치 설치 비용, 전기 에너지 비용 등의 경제적 측면을 고려하여 가장 효율적인 급전 및 집전 기반시설(infrastructure)을 구축하는 것이 가능하도록 한 주행모드를 고려한 급전 및 집전 기반 시설 구축 방법에 관한 것으로, 전체 운행 예정 구간을 여러 개의 급전 장치 설치 후보 구간으로 나누는 단계;나누어진 모든 후보 구간의 각각에 대하여 주행 부하, 급전 시간, 전력 전달량을 산출하는 단계;해당 후보 구간의 산출된 전력 전달량을 기준값과 비교하는 단계;해당 후보 구간의 산출된 전력 전달량이 기준값보다 크면 해당 후보구간에서 확보할 수 있는 충전 시간을 기준 시간과 비교하는 단계;상기 기준값과 기준 시간을 만족하는 구간을, 전기 에너지 비용, 급전 장치 설치 비용을 기준으로 적합도를 판정하여 급전 장치 설치구간을 � �정하는 단계;를 포함한다. 급전 장치, 집전 장치, 전력 배분 장치, 전력 전달량, 주행 모드