Abstract: A plug member of a gas valve, having an axial bore, a first bore and a second bore located in a radial direction thereof to respectively communicate with the axial bore, and a first guiding slot and a second guiding slot recessed into an outer peripheral surface thereof. The first bore is larger than the second bore, and communicates with one end of the first guiding slot, while another end thereof is near the second bore. The first guiding slot becomes narrower from the first end to the second end. The second guiding slot has one end communicating with the second bore, and another end located between said first end and said second end.

Abstract: A plug member of gas valve has an axial bore, a first bore, and a second bore, wherein the first bore and the second bore are located in a radial direction of the plug member, and communicate with the axial bore, respectively. A diameter of the first bore is larger than that of the second bore. A first guiding slot and at least one first oil groove are recessed into the outer peripheral surface of the plug member, wherein the first guiding slot has a first end communicating with the first bore, and a second end near the second bore without physically communicating with the second end. The at least one first oil groove is near the second end of the first guiding slot without physically communicating with the first guiding slot or the second bore. Whereby, the first oil groove provides space for receiving lubricant.

Abstract: A method of ensuring the safety of exhaust of a water heater includes the following steps: A. start the blower and detect a rotational speed of a motor thereof; B. determine a first range based on the detected rotational speed; C. start the blower and detect the rotational speed of the motor when the water heater is restarted again; D. keep supplying gas to the burner for combustion when the rotational speed detected in step C is within the first range. During operation, a second range is determined by detecting the rotational speed of the motor after an outlet water temperature reaches a corresponding constant temperature range; the rotational speed is continuously detected, and the gas supply is stopped if the detected rotational speed is out of the second range. Thereby, the result of the method would be more accurate regardless of the actual installed status of the exhaust pipe.

Abstract: A roasting machine is provided, including a base, a heating device, a body, and a flow guiding device. The heating device is received inside the base to generate a hot air flow. The main body is provided on the base, and has a roasting room and a flow passageway, wherein the flow passageway communicates with the heating device. The flow guiding device includes a first diversion block and a plurality of guide vanes, wherein the first diversion block is received inside the roasting room; the guide vanes are received inside the flow passageway and under the first diversion block. Each of the guide vanes is inclined, and the guide vanes surround around an axis which passes through the center of the first diversion block. Whereby, the flow guiding device is capable of changing the flowing direction of the hot air flow to effectively stir the ingredients in the roasting room.

Abstract: A method for controlling a gas-fired appliance is presented, wherein the gas-fired appliance includes a combustor, at least one flow-regulating valve, and a solenoid valve which are all interconnected, and adaptive to low or no power supplied to the gas-fired appliances, including the steps of: using the solenoid valve to block fuel gas, determining whether the power returns to normal, and if not, maintaining the solenoid valve block, and if so, closing the flow-regulating valve to thereby block the fuel gas such that the fuel gas flow is paused when the solenoid valve is open during a next ignition try.

Abstract: A method for wireless control of multiple electric appliances including an electronic device has a screen showing a plurality of first images corresponding to the electric appliances, wherein each of the first images activates showing of a user interface for the corresponding electric appliance on the screen when selected, the method comprising: A. setting a set of connection information in the electronic device, wherein the connection information designates at least one of the electric appliances and actions thereof; B. creating and showing a second image on the screen according to the connection information; and C. selecting the second image, so as to make the electronic device control the designated at least one electric appliance to perform the corresponding actions according to the connection information such that by selecting the second image, multiple electric appliances can be controlled simultaneously.

Abstract: A home appliance includes a controlled assembly, a control module, and a signal converter. The control module is electrically connected to the controlled assembly, and the control module has a port for receiving an electrical signal. The control module controls the controlled assembly according to the electrical signal received through the port. The signal converter receives a wireless control signal, and converts the wireless control signal into the electrical signal to be transmitted to the port. The signal converter is selected from a plurality of signal converters which respectively convert signals of different types. While assembling, the signal converter is connected to the port, which makes the control module and the connected signal converter constitute a control device of the home appliance. Whereby, the inventory pressure of control devices can be reduced for manufacturers.

Abstract: A method of controlling a remote controlled system includes the steps: A. measuring a specific physical quantity with a detector; B. transmitting a signal to the relay apparatus; C. receiving the signal by the relay apparatus, and transmitting the detector ID code corresponding to the detector at the near end and the home appliance ID codes corresponding to the home appliances at the near end to the electronic device; D. obtaining an interactive link information by matching the corresponding relations in the database based on the received detector ID code and the received home appliance ID codes; E. sending the interactive link information to the relay apparatus; and F. transmitting a control command to the relevant home appliances base on the received interactive link information, whereby the relevant home appliances are controlled to perform a corresponding operation.

Abstract: A method of managing energy consumption which is applied to a wireless control system is provided, wherein the wireless control system includes a plurality of appliances and a relay device. The method includes the steps below: first, obtain an amount of energy consumption from a start time point to a predetermined time point in an energy monitoring period; next, compare the amount of energy consumption with a second threshold during the energy monitoring period, which is lower than a first threshold; finally, if the amount of energy consumption exceeds the second threshold, determine whether to start an energy conservation mode; if the energy conservation mode starts, the relay device sends an energy conservation command to at least one of the appliances to control said appliance to consume less energy. Whereby, in the energy conservation mode, the energy consumed by the appliances would be reduced without stopping the energy supply.

Abstract: A gas-burning appliance includes a combustor and a flow guide device engaged with the combustor. The combustor has a gas outlet. The flow guide device includes a separator and two stop plates. The separator has an opening. Each of the stop plates is located at the opening, and a top edge thereof is higher than a top surface of the separator. The combustor is located below the separator with the gas outlet corresponding to a space between the stop plates. The flow guide device has at least one first air inlet, which is located below the separator, and communicates with the space between the stop plates. A gas fireplace includes a firebox, a translucent shield, and the gas-burning appliance. A separator divides the firebox into an air chamber, which receives the combustor, and a combustion chamber. Whereby, the visibility of flame and the combustion efficiency could be improved.

Abstract: A gas fireplace includes a firebox, a translucent cover provided on the firebox, and a separate assembly. The separate assembly is provided in the firebox, and divides the firebox into an air chamber and a combustion chamber which corresponds to the translucent cover. An exhaust passage is formed between the separate assembly and the translucent cover, and communicates the air chamber and the combustion chamber, wherein an inner width of the exhaust passage gradually reduces from the air chamber toward the combustion chamber. During the combustion, the exhaust passage guides cold air to flow through the semi-enclosed air chamber, and to evenly blow into the translucent cover, which forms an even air curtain on a surface of a bottom portion of the translucent cover to block out the heat. Whereby, the temperature of the translucent cover and the bottom portion of the combustion chamber could be lowered.

Abstract: A gas appliance includes a burning device, an igniting assembly, at least one additional device, and a modular control device. A manufacturing method of the modular control device includes steps below. First, provide a main circuit module which controls the igniting assembly. Second, provide a plurality of additional circuit modules, wherein at least one of the additional circuit modules corresponds to the at least one additional device. Each of the additional circuit modules is detachably connected to the main circuit module. Finally, select at least one of the additional circuit modules which corresponds to the at least one additional device, and connect the additional circuit modules to the main circuit module. Thus, the main circuit module and the selected at least one additional circuit module constitute the modular control device to satisfy a specific kind of gas appliance. Whereby, the manufacturing method lowers the inventory pressure of the control devices.

Abstract: A gas fireplace includes a furnace, a burner, and an air guiding device, wherein the air guiding device divides an inside of the furnace into a first chamber and a second chamber; the burner is provided in the second chamber; an air outlet of the furnace communicates with the first chamber; the air guiding device has a passageway communicating the first chamber and the second chamber, wherein a width of the passageway gradually narrows from the second chamber to the first chamber. Whereby, the hot air generated while the burner is burning gas enters the first chamber from the second chamber through the air guiding device, and then can be smoothly exhausted to outside.

Abstract: A remote control kit includes a magnetic holder and a remote control, wherein the magnetic holder includes a magnet and a non-slip member which covers the magnet. The remote control includes a case and a ferromagnetic member therein. The magnetic holder is fixed on a wall where the remote control is ready to be placed. The ferromagnetic member of the remote control is made of a material selected form the group consisting of iron, cobalt, and nickel, and therefore the remote control can be attached onto the magnetic holder via magnetic force.

Abstract: A home appliance includes a controlled assembly, a control module, and a signal converter. The control module is electrically connected to the controlled assembly, and the control module has a port for receiving an electrical signal. The control module controls the controlled assembly according to the electrical signal received through the port. The signal converter receives a wireless control signal, and converts the wireless control signal into the electrical signal to be transmitted to the port. The signal converter is selected from a plurality of signal converters which respectively convert signals of different types. While assembling, the signal converter is connected to the port, which makes the control module and the connected signal converter constitute a control device of the home appliance. Whereby, the inventory pressure of control devices can be reduced for manufacturers.

Abstract: A circuit structure of a gas valve controls a first driver and a second driver, which respectively drive a main valve and a safety valve. The circuit structure includes a power switching circuit, a control circuit, a protection circuit, an abnormal voltage detection circuit, a first valve switching circuit, a second valve switching circuit, and a processor which is electrically connected to the aforementioned circuits. The processor receives abnormal signals outputted by the abnormal voltage detection circuit, and outputs signals to control the power switching circuit, the control circuit, the protection circuit, the first valve switching circuit, and the second valve switching circuit to control the first driver and the second driver. The main valve and the safety valve can be opened or closed in this way.

Abstract: A Wi-Fi/radio frequency (RF) converting device includes a Wi-Fi transceiver, a multiplexing converting module, an RF transceiver, and an RF extension device. The Wi-Fi transceiver receives a Wi-Fi control signal from a control signal generator, wherein the Wi-Fi control signal contains at least one command. The multiplexing converting module receives the Wi-Fi control signal from the Wi-Fi transceiver, and converts the Wi-Fi control signal into a first wireless control signal or a second wireless control signal. The RF transceiver is electrically connected to the multiplexing converting module, and is connected to at least one electric appliance through RF signals. The RF transceiver receives the first wireless control signal from the multiplexing converting module, and transmits the RF control signal to the electric appliance. The RF extension device transmits the second wireless control signal, which corresponds to at least one another electric appliance, to the at least one another electric appliance.

Abstract: A method of remotely controlling electrical appliances includes the steps of: inputting ID codes of a plurality of electrical appliances into a remote control device; selecting one of the electrical appliances and a corresponding operating command on the remote control device; generating a Wi-Fi signal to carry the first packet; transmitting the Wi-Fi signal to a repeater; converting the first packet carried thereby into a second packet; generating a RF signal to carry the second packet; transmitting the RF signal to the electrical appliances; comparing a ID code kept in a second ID code field of the second packet to the ID codes of the electrical appliances. Finally, the electrical appliance which has the matched ID code performs an operation according to an operating command in a second data field of the second packet.

Abstract: A method of providing operating options of an electric appliance is applied in a wireless system, which includes a portable device, an electric appliance, and a relay apparatus. The portable device and the relay apparatus are connected to each other within either a near-end network or a far-end network. The electric appliance communicates with the relay apparatus, and has a plurality of operating options which can be selected to operate the electric appliance. If the portable device and the relay apparatus are connected within the near-end network, all of the operating options are displayed on the portable device for selection; if it's within the far-end network, a part of the operating options are disabled on the portable device for selection.

Abstract: A Wi-Fi/radio frequency (RF) converting device includes a Wi-Fi transceiver, a multiplexing converting module, and a RF transceiver. The Wi-Fi transceiver receives a Wi-Fi control signal from a control signal generator. The multiplexing converting module receives the Wi-Fi control signal from the Wi-Fi transceiver and converts the Wi-Fi control signal into a RF control signal. The RF transceiver receives the RF control signal from the multiplexing converting module and sends the RF control signal to a plurality of electric elements. An RF extension device may be provided to share the signal transmission between the electric elements and the Wi-Fi/RF converting device.