55results about How to "Smooth ignition" patented technology

A micro pilot for a gas hot water heater is provided. The micro pilot provides a flame that is substantially smaller than a typical pilot in a hot water heater during standby operation of the burner. Just prior to allowing gas to flow to the burner upon a call for heat, a pilot flame of sufficient size to ensure ignition of the burner is provided. In one embodiment this larger pilot flame is produced by providing an additional amount of bleed gas to the pilot to increase flame size. In another embodiment, bleed gas is provided to a separate booster pilot, which is ignited by the micro pilot. The flame from the booster pilot is then used to ignite the main burner. This design allows for the micro pilot to be positioned closer to the flame trap of a flammable vapor resistant hot water heater to ensure smooth ignition of any such vapor.

The invention relates to an automatic ignition system of a chlorine hydride synthesis furnace and a control method of the automatic ignition system. The automatic ignition system comprises an ignition gun, a flame monitor, a chlorine inlet pipeline, a hydrogen inlet pipeline and a nitrogen inlet pipeline, wherein the ignition gun and the flame monitor are arranged on the side edges of the opening of the chlorine hydride synthesis furnace; the chlorine inlet pipeline, the hydrogen inlet pipeline and the nitrogen pipeline are simultaneously and parallelly connected in series with the bottom of the opening of the chlorine hydride synthesis furnace; the air inlet of the ignition gun is connected in series with an ignition air pipeline; the hydrogen inlet of the ignition gun is connected in series with an ignition hydrogen pipeline; and the input end of the ignition hydrogen pipeline is simultaneously connected with the those of the hydrogen inlet pipeline and the nitrogen inlet pipeline. The automatic ignition system provided by the invention has the advantages as follows the structure is compact; the operation is safe and reliable; the system doesn't need to be in direct contact with hydrogen when the furnace is ignited, can automatically detect and finish the whole ignition process so long as an ignition key is pressed, and thus is very safe and convenient.

The invention relates to a low-nitrogen-emission combustion chamber and a gas turbine including the combustion chamber. The combustion chamber comprises a combustion chamber head part and a combustion chamber cylinder connected up and down; the combustion chamber head part includes a secondary gas mechanism, a main gas mechanism encircled at the external of the secondary gas mechanism, and an air inlet formed above the secondary gas mechanism and the main gas mechanism; the combustion chamber cylinder includes an inner flame cylinder for respectively communicating with the secondary gas mechanism, the main gas mechanism and the air inlet, and an outer flame cylinder encircled at the external of the inner flame cylinder and communicating with the air inlet; and a combustion chamber outlet is formed in the bottom of the inner flame cylinder. Compared with the prior art, the combustion chamber can prominently reduce the nitrogen oxide emission of a micro gas turbine combustion chamber, improves the combustion efficiency, and realizes wide-load, low-emission and high-efficiency stable operation under 40-100%; and the gas flows in a main gas pipe and a secondary gas pipe are adjusted, so that the simple cycle and the bring-back thermal cycle can be flexibly converted, and the economy is excellent.

The invention discloses an ethanol cold starting device and a cold starting method. The device comprises an engine cylinder cover, a heater, a cold starting signal lamp, a solenoid valve, a water sensor and a heater temperature sensor, wherein, the heater is installed at the position near to the spark plug in the cylinder cover combustion chamber; the heater, the solenoid valve, the cold starting signal lamp and the battery as well as the key switch are connected in a circuit in series, the engine electric controlling unit ECU judges whether to use the device through the temperature fed back by the water temperature sensor. When the temperature fed back by the water temperature sensor is below-15degrees below zero centigrade, the ECU can switch on the solenoid valve. When the key switch is closed, the circuit is switched on, and the heater can heat the self temperature to more than 700 centigrade within 10 seconds through the electricity of the battery and heat the air in the cylinder, to reach the purpose of smooth ignition under low temperature. Through the above device and method, the problem of the cold starting of high proportion ethanol gasoline is well solved, and thereby to promote the emission and the economical efficiency to be improved.

This invention relates to nanometer oil-saving burning device of high efficiency of environment protection. The character is in that the materials used are silica gel, soot carbon and nanometer far IR material which has nanometer titanium oxide, silicon oxide, ferric oxide, zinc oxide, aluminum oxide, magnesia, composite ceramics powder. The oil-saving device of this invention utilizes the resonance theory of the latest nanometer technology so as to thin the oil and gas molecule and to reduce the resistance when conducting electricity. This can efficiently improve the burning efficiency of oil, electricity and gas so as to recover the horsepower, lower the oil consumption, reduce the waste gas and lower the noise.

An apparatus for releasable attachment to a fishing rod, said apparatus including: a barrel having a first end and a releasably sealed first region; wherein the first region of the barrel includes a space within the barrel substantially bounded by a second end of the barrel and a protrusion disposed inside the barrel; and a means of selectably adjusting the volume of the first region including adjusting the position of the protrusion along a length of the barrel; and wherein when the protrusion is disposed inside the barrel, it extends radially-inwardly of the barrel in a substantially transverse orientation to an elongate axis of the barrel; and a means of controllably feeding a propellant into the releasably sealed first region; and a means of expanding the propellant whereby the said expansion of the propellant causes a projectile disposed within the barrel to be propelled outwardly of the barrel via the first end.

The invention relates to an engine starting and stopping running control method. A starting control method comprises the steps that A, whether an engine starting signal is received or not is judged; B, a bent axle is driven to reversely rotate within a certain angle range, and a pressure reduction device is made to act; C, the bent axle is driven to forwards rotate, an engine is made to be started, whether the rotation speed of the bent axle is larger than the engine starting threshold rotation speed or not is judged, if the rotation speed of the bent axle is larger than the engine starting threshold rotation speed, the step D is executed, if the rotation speed of the bent axle is not larger than the engine starting threshold rotation speed, the step C is executed, whether the time of driving exceeds the preset time or not is judged, if the time of driving exceeds the preset time, driving is stopped, the step A is executed, and if the time of driving does not exceed the preset time, the step C is executed; and D, driving is stopped, and a power generation mode is executed. A stopping running control method comprises the steps that A, the angle of the bent axle is detected before the engine stops running, and whether the spontaneous reverse rotation action exists or not is judged, wherein if the spontaneous reverse rotation action exists, the step B is executed, and if the spontaneous reverse rotation action does not exist, the step C is executed; B, the spontaneous reverse rotation action is controlled, the bent axle reversely rotates within a certain angle range, and control is stopped after the pressure reduction device acts; and C, the bent axle is driven to forwards rotate within a certain angle range, then the bent axle is driven to reversely rotate within a certain angle range, and control is stopped after the pressure reduction device acts.

The invention provides a pressure regulating valve for an oil supply line of an engine. The pressure regulating valve provided by the invention comprises a valve body, a valve plug and an iron core coil assembly, wherein the valve body is provided with a through channel; the valve plug is used for regulating the opening degree of the channel; the iron core coil assembly is used for operating the valve plug to regulate the opening degree of the channel; the magnetic force of the iron core coil assembly is controlled by the ignition switch of the engine; when the engine is ignited, the opening degree of the channel of the valve body is regulated to the minimum; and when the engine is started completely, the channel is completely started by the valve plug under the magnetic action of the iron core coil assembly. Compared with the existing pressure regulating device for the oil supply line of the engine, the pressure regulating valve provided by the invention is additionally arranged in the oil supply line of the engine, so that at the ignition stage of the engine, the opening degree of the oil supply line is regulated to the minimum by the pressure regulating valve, thus the pressure in the oil supply line increases instantly, high-pressure oil is provided for the ignition of the engine, and the engine can be ignited smoothly.

The invention relates to iron and steel smelting equipment, in particular to a heat accumulating type fuel gas and fuel coal steel scrap melting furnace which solves the problem of steel scrap smelting. The technical scheme is as follows: the Heat accumulating type fuel gas and fuel coal steel scrap melting furnace comprises a base, a furnace body and a charging channel. The base is located belowthe furnace body, the charging channel is arranged above the furnace body and communicates to the furnace body, a tap hole is formed in the lower part of the furnace body, a heating device is arrangedon the side face of the furnace body and communicates to the furnace body through a nozzle spray head, and a high voltage electronic burning torch is arranged in front of the nozzle spray head. According to the system, steel scrap is added intermittently and is heated continuously to be melted, and molten steel is discharged intermittently. According to the heat accumulating type fuel gas and fuel coal steel scrap melting furnace, the steel scrap can be melted with a low cost: the cost is saved by 400-500 yuan/ton compared with that of directly using an electric furnace.

The invention aims to provide a shock wave combustion-supporting pre-combustion chamber structure of a gas engine and belongs to the technical field of engines. The shock wave combustion-supporting pre-combustion chamber structure comprises a gas injection valve, a gas injection valve mounting seat, a pre-combustion chamber and a spark plug. The gas injection valve is mounted on the gas injectionvalve mounting seat through a gas valve pressing plate; a fuel gas inlet is formed in the gas injection mounting seat; one end of the pre-combustion chamber is connected with an outlet of the gas injection valve, a pre-combustion chamber spray hole outlet is formed in the other end of the pre-combustion chamber, and the diameter of the middle of the pre-combustion chamber is smaller than that of the two ends of the pre-combustion chamber; the spark plug is installed in the middle of the pre-combustion chamber, and a spark plug lead is led out through a cylinder cover inner through hole. According to the shock wave combustion-supporting pre-combustion chamber structure, multi-stage reflection superposition of gas jet shock waves in the pre-combustion chamber is achieved, mixing of gas and the air is promoted, combustion flames are promoted to be sprayed into a main combustion chamber, and the ignition stability of the gas engine and the heat efficiency of the whole engine are improved.

The invention discloses a digital ignition control method of a small-size four-stroke engine, and belongs to the technical field of engine ignition control. The digital ignition control method comprises the following steps that 1, the time for a piston inside the small-size four-stroke engine to continuously operate two circles is obtained, the first-circle operation time of the piston is denoted as T1, and the second-circle operation time of the piston is denoted as T2; 2, the difference value between T1 and T2 is obtained; and 3, if the difference value in the step 2 is a positive number, the second circle corresponding to T2 is judged to be an ignition circle, the first circle corresponding to T1 is judged to be a non-ignition circle, and a digital igniter is made to ignite in T2, if the difference value in the step 2 is a negative number, the first circle corresponding to T1 is judged to be an ignition circle, the second circle corresponding to T2 is judged to be a non-ignition circle, and the digital igniter is made to ignite in T1. According to the digital ignition control method of the small-size four-stroke engine, the ignition circle and the non-ignition circle are judged through the difference between the two circles of continuous operation of the piston, the purpose that ignition is conducted only within the ignition circle in the cycling operation process of the small-size four-stroke engine is achieved, and the operation principle of the engine is met.

A discharge lamp operating device includes a voltage application unit that applies to a discharge lamp an alternating-current (AC) voltage for operation of the discharge lamp, and a frequency setting unit that sets a frequency of the AC voltage to a first frequency for ignition of the discharge lamp and sets the frequency of the AC voltage to a second frequency during operation of the discharge lamp after the ignition. In the discharge lamp operating device, the second frequency is lower than the first frequency.

The invention discloses an automatic ignition type welding and cutting torch. The automatic ignition type welding and cutting torch comprises a torch body, a torch nozzle, an ignition device and a direct current discharge device arranged on the torch body. The output end of the torch body is provided with a torch nozzle connection screw thread, and the torch nozzle is arranged on the torch nozzleconnection screw thread. The ignition device comprises an insulating tube arranged on the torch nozzle in a sleeving mode, and first penetrating holes are separately formed in the two opposite side walls of the insulating tube. The axes of the first penetrating holes are parallel to the axis of the insulating tube, and the first penetrating holes are internally provided with spray points. The positive and negative poles of the direct current discharge device are separately and electrically connected to the spray points through wires in a one-to-one correspondence mode, and the spray points candischarge and ignite at one end, away from the torch nozzle connection screw thread, of the torch nozzle. By arranging an insulator, the spray points is insulated from the torch body and the torch nozzle, and the two spray points separately serve as the positive and negative poles of the direct current discharge device, so that electric sparks can be generated between the two spray points for ignition, the ignition can avoid the burn hazard to operators, and the ignition can still be smoothly performed in the case of strong wind outside.

The invention discloses an ignition system for smoke sprayers and belongs to the technical field of the smoke sprayers. The ignition system comprises a power supply, an ignition switch, an igniter, an oil tank, a carburetor, a sparking plug, an oil spray nozzle, a combustion chamber and an air pump, wherein the igniter and the air pump are electrically connected with the power supply respectively through the ignition switch, the igniter is electrically connected with the sparking plug, the air pump is respectively connected with the oil tank and the carburetor through air pipes, and check valves are respectively arranged on main paths of the air pipes and branch paths connected with the oil tank. The oil tank is connected with the oil spray nozzle through an oil supply pipe, and an oil supply valve is arranged on the oil supply pipe. The carburetor is connected with the combustion chamber, and the sparking plug and the oil spray nozzle are arranged on a connection pipe between the carburetor and the combustion chamber. By means of the air pump, pressurization of the oil tank is achieved, and air required by ignition is provided. Fuel oil is sprayed out stably under action of positive pressure, mixed fuel oil and the sparking plug are matched accurately, the success rate of ignition is high, and ignition operation is convenient and efficient. Meanwhile, continuous and stable operation of the smoke sprayers is achieved.

The invention provides a sparking plug of an ethyl alcohol-gasoline flexibly proportioned fuel engine. A metal casing is positioned at the front end of a sparking plug body, a central electrode is located in the metal casing, an insulator is located between the central electrode and the metal casing, a side electrode is welded on one side of a front port of the metal casing, precious metal electrodes are welded on one side of the side electrode and at the top of the central electrode, and the side of the side electrode is near the central electrode. The horizontal width of the side electrode is longer than the vertical length of the side electrode, so that heat in an engine cylinder can be well transmitted, and the side electrode itself can be protected from being ablated by high temperatures; the side electrode is shorter than ordinary engine sparking plugs, and heat conduction effects of the side electrode are better; and the precious metal electrodes are located on the side electrode and the central electrode respectively, the size and the width of the precious metal electrodes are the same, and heat lost during ignition of the sparking plug is reduced.