Abstract:
Supercapacitor/ultracapacitor technology is applied to hand-held remote-control devices, thereby providing a unit that does not require batteries. In terms of hardware, a device according to the invention includes a hand-held enclosure having a plurality of operator controls supported thereon, a wireless control signal generator, and electronic circuitry interconnecting the operator controls to wireless control signal generator. The circuitry causes the generator to transmit a wireless signal in response to the operator controls so as to affect the operation of the appliance. The device further includes a source of electrical energy to power the circuitry, the source of electrical energy including a supercapacitor or ultracapacitor, and an input to receive externally applied energy to recharge the supercapacitor or ultracapacitor. The input to receive externally applied energy converts mechanical or electrical energy into direct current (DC). Depending upon the embodiment, the energy generator system may be integral to, or separate from, the housing of the unit. A mechanical input includes a miniature generator in electrical communication with the supercapacitor or ultracapacitor for recharging purposes. The input itself may comprise a crank supported on the housing, with a gear train mechanically coupling the crank to the generator, a turnable dial supported on the housing and a spring mechanism coupling the dial to the generator, or a lever arm supported on the housing and a ratchet mechanism coupling the lever arm to the generator.
Abstract:
Disclosed is a near-infrared meter reading device, configured to communicatively couple with an infrared communicator in an electric meter, comprising a main body, on one end of which being disposed with a data port. Also disclosed is an electric meter connected between a power grid line and a utility user's load, comprising said near-infrared reading device and a meter housing fitted with the near-infrared reading device, in which is disposed with a processor and an infrared communicator electrically connected thereto; in the meter housing a plurality of iron cylinders are set, and in the near-infrared reading device a plurality of magnetic cylinders are set accordingly, the orientations of said iron cylinders and magnetic cylinders are aligned with each other and may be attracted together. The present invention employs a central symmetry design without request of aligning the infrared emitter with a receiver of the meter for near-infrared communication, thus availing of communication in any emitting angle. The circuitry of the invention can compatibly meets any requirement of near-infrared communication in both IEC standard and ANSI standard.
Abstract:
A remote controller (1) capable of power generation includes: a main body (10); an operation panel (11); operation buttons (12) provided on the operation panel (11), to be exposed to the outside of the remote controller (1); and a power generator (14) having a piezoelectric device that generates an electromotive force when deformed. The operation panel (11) can be rotated with respect to the main body (10) by an operation force applied to any of the operation buttons (12). The power generation device of the power generator (14) generates an electromotive force when deformed by the force applied from the operation panel (11) rotated by the operation force.
Abstract:
The instant invention provides a self-contained switch wherein an energy generating means that is either electro-magnetic or piezoelectric, supplies power to the switch and to the circuitry so that the switch can control other appliances on a remote control switch.
Abstract:
The invention concerns an apparatus (1) comprising at least an element (3), such as a key, for controlling a function, a multiplying-gear including a motion input wheel (12) and a motion output wheel (13), and means for storing and restoring electric power. The invention is characterised in that: said motion input wheel (12) comprises means (28, 29, 35, 36, 41, 45) to be urged in engagement with each said element (3) when said element (3) starts its displacement such that said displacement drives in rotation said input wheel (12), those same means (28, 29, 35, 36, 41, 45) enabling said input wheel to be disengaged from each said element (3), at the end of said element (3) displacement, such that said end of displacement does not stop the wheel (12) rotation; said motion output wheel (13) comprises a permanent magnet which, over its periphery, forms an alternation of North and South magnetic poles; the device comprises at least a coil (42) placed in the proximity of the motion output wheel (13).
Abstract:
A remote control device for remotely controlling a toilet device is provided. The remote control device includes a casing, a power generation device, buttons, and a link mechanism. The casing forms a contour of the remote control device. The power generation device is housed in the casing and is capable of generating a power by being pressed. The buttons is provided on a surface of the casing and each is configured to activate a function of the toilet device. The link mechanism is configured to move so as to press the power generation device when one of the buttons is pressed. The buttons is supported on the casing by an elastic member so that, when one of the buttons is pressed to cause motion of the link mechanism, one other of the buttons not pressed is not affected by the motion of the link mechanism.
Abstract:
A wireless transmitting device 1 using electric power supplied from a power generating element 100 which can generate the electric power by utilizing mechanical energy externally applied includes an electric storage element 3 for storing the electric power generated by the power generating element 100; and a wireless transmitting unit 4 for performing a wireless transmitting operation with using the electric power supplied from the electric storage element 3. The wireless transmitting unit 4 is capable of setting a power consumption amount consumed at one time of the wireless transmitting operation. The wireless transmitting device 1 is configured to set timing when the wireless transmitting unit 4 consumes the electric power and the power consumption amount of the wireless transmitting unit 4 according to electromotive force of the power generating element 100.
Abstract:
A facility comprising systems, methods, and techniques for collecting data indicative of energy consumption and/or energy production by energy systems and devices and providing the data to interested users and devices in real-time is described. The facility may comprise an energy gateway device coupled to one or more monitored devices, one or more energy data extraction servers, and one or more client computers. The energy gateway devices and energy data extraction servers are coupled to a network and are configured to collect energy consumption and/or energy production data from one or more devices and provide an indication of the collected data in real-time or near real-time. The facility may collect current energy consumption or production rates, predicted energy consumption or production levels over a future period of time, and/or amounts of energy that has been consumed or produced by the device over a previous period of time.