450 results about "Fan coil unit" patented technology

There are provided a contactless power transmission device and an electronic device having the same. The contactless power transmission device includes: a flexible substrate; a coil unit formed in the flexible substrate and including a coil part formed to have a wiring pattern form and having a plurality of coil strands connected in parallel with each other to thereby form a single coil pattern; and a circuit unit formed in the flexible substrate and electrically connected to the coil unit.

A power feeding coil unit includes a power feeding coil, and an auxiliary coil. The auxiliary coil is arranged not to interlink with a magnetic flux that interlinks with a power receiving coil that is arranged to face the power feeding coil during power feeding. An axial direction of the auxiliary coil is nonparallel to an opposing direction of the power feeding coil and the power receiving coil. A direction of circulation of a magnetic flux generated by the auxiliary coil is opposite to a direction of circulation of a magnetic flux generated by the power feeding coil.

To provide coil units, electronic instruments and the like, which can radiate heat generated in a coil into a space outside a protective member, while the number of components does not increase.

A coil unit 100 has a coil 110, and a protective member 120 that contacts a transmission surface of the coil 110 and covers at least the side of the transmission surface of the coil 110. The protective member 120 is composed of a resin material with an inorganic material added therein. The protective member 120 is also used as a heat radiation plate that dissipates heat generated in the coil 110 and radiates the heat.

A coil unit includes a coil formed by winding a coil wire, a wiring substrate, and a magnetic substance for receiving magnetic lines of force generated by the coil. The wiring substrate includes a connection terminal connected to both ends of the coil, an external connection terminal, and a wiring pattern for connecting the connection terminal and the external connection terminal. No circuit element other than the coil is mounted on the wiring substrate.

The invention discloses a low-temperature refrigeration air conditioner and a wind speed control method thereof. The low-temperature refrigeration air conditioner comprises a wind speed control deviceof an outdoor unit fan. The wind speed fan control device comprises a temperature detection unit, a fan control unit and the outdoor unit fan, wherein the temperature detection unit detects the temperature of a condenser of the air conditioner so as to obtain a simulated condensation temperature; the fan control unit generates control signals of the rotation speed change and on-off of the fan according to the simulated condensation temperature; and the outdoor unit fan responds to the control signals of the fan control unit and generates corresponding outdoor unit wind speed. The method for controlling the wind speed of the low-temperature refrigeration air conditioner controls the rotation speed change and on-off of the fan by simulating the condensation temperature of the condenser so as to provide different wind speeds for an outdoor unit. Because of simulating a pressure signal by detecting a temperature signal, the air conditioner and the method avoid direct contact between a wind speed control system and a refrigerant system so as to avoid leakage.

A dehumidifier unit for pre-conditioning air delivered to a multiplicity of separate refrigeration air conditioner units and especially ductless systems where the compressor-condenser unit is separate from the fan-coil unit, and assisted by heat pipe transfer of heat from air dehumidified through a desiccant wheel and by heat of compression from the condenser of one compressor-condenser unit, and with a heater to maintain the temperature of regeneration air through the wheel, one dehumidifier unit pre-conditioning air for a multiplicity of refrigeration air conditioners or fan-coil units.

A linear motor control apparatus has: a plurality of coil units; a plurality of position detecting units for detecting positions of a plurality of trucks which move over the plurality of coil units; a plurality of deviation calculating units for operating deviation information as differences between the detected truck positions and a target position of the detected truck; a plurality of position control units for operating current control signals based on the deviation information; a plurality of current control units for supplying driving currents to the coil units based on the current control signals; and a switching unit for switching the position control units to which the deviation information is transmitted or switching the current control units to which the current control signals are transmitted.

An inductive module includes an electrically insulating basic substrate unit having opposite first and second trace-forming sides, a ferromagnetic core unit embedded in the basic substrate unit and having horizontal sides substantially parallel to and respectively spaced apart from the first and second trace-forming sides, and a coil unit. The coil unit includes first and second conductive vias respectively formed in the basic substrate unit adjacent to vertical sides of the core unit, and respectively spaced apart from the vertical sides, and first and second conductive traces, each of which is disposed on a corresponding one of the first and second trace-forming sides, and interconnects electrically a corresponding pair of the first and second conductive vias. The conductive traces and the conductive vias of the coil unit cooperate to form an electric current path that substantially winds around the core unit.

The invention discloses a wireless power supply device which comprises a power supply connecting unit for connecting a fixed power supply, a shunt unit connected with the power supply connecting unit, a frequency regulating unit, a main coil unit, an electric appliance transformation unit and a charging interface, wherein the shunt unit divides the current of the power supply into multiple branches connected in parallel; the frequency regulating unit and the main coil unit which are mutually connected are arranged on at least one branch connected in parallel; the electric appliance transformation unit and the charging interface mutually connected are arranged on at least one branch connected in parallel; the frequency regulating unit converts the received current into the alternating current with specific frequency and transmits the alternating current to an induction coil unit; the alternating current with the specific frequency in the induction coil unit generates a magnetic field which changes with the specific frequency; and the electric appliance transformation unit converts the received current into the direct current required by an electric appliance and transmits the converted direct current to the electric appliance through the charging interface. The wireless power supply device has the advantages that the charging efficiency of the electric appliance can be enhanced; multiple electric appliances are simultaneously charged by utilizing a fixed power supply socket; the use efficiency of the socket is enhanced; and the wireless power supply device can be used by users conveniently.

An inductor element and an integrated electronic component that facilitate achieving a higher Q value are provided. The inductor element includes a substrate, a coil unit spaced from the substrate, and a plurality of conductive columns. The coil unit includes a plurality of spiral coils each constituted of a spiral-shaped coil lead. The spiral coils are disposed such that their winding directions are the same, and that the coil lead of each spiral coil includes a portion extending between the coil lead of at least one of the other spiral coils. End portions of the spiral coils are fixed to the substrate via the conductive columns. The integrated electronic component of the invention includes such inductor element.

A miniature motor includes a base having a layout layer with two faces spaced along an axis. The layout layer includes a coil unit. The base further includes an outer layer provided on one of the faces of the layout layer. A shaft seat is provided on the base. A rotor includes a shaft and a permanent magnet. The shaft is coupled to the shaft seat and rotatable about the axis. The permanent magnet is aligned with the coil unit. An air gap is formed between the permanent magnet and the outer layer of the base. The coil unit is integrated into the base such that the coil unit is outside of the air gap. The axial height of the miniature motor is reduced, and the structure of the miniature motor is simplified.

A parametric design method for a fan coil unit based on BIM (Building Information Modeling) includes steps of: determining a basic sample; parametrically modeling; setting pipe connection locations and connection sizes of a two-pipe fan coil and a four-pipe fan coil; setting component visibility; completing control settings of left-right one-click selection for the fan coil; arranging an air pipe behind an air outlet of the fan coil; producing air duct flexible connectors; producing diffusers; adding parameter controls of a “yes or no” type to a return air box, a lower return air flange, and a back to return air flange; completing production of pipes and connectors, and naming. In a heating and ventilation BIM design of building engineering, with the above method, efficiencies of designing, modeling and plotting are obviously increased.