CN202267134U - Gas heating stove - Google Patents

Abstract

A gas heater includes a controller having an instruction unit that gives command signals from the outside, and a control unit that receives the signals given by the instruction unit and executes them; a burner group consisting of a plurality of burners arranged in an array; an ignition induction electrode that receives instructions from the control unit to generate sparks and perform flame induction functions; a mother burner that is adjacent to one of the burners and maintains a gap with the ignition induction electrode; and a control valve group having a plurality of control valves that receive instructions from the control unit and are actuated, and supplying gas to the mother burner and the burner group through a delivery system. In this way, at least two stages of firepower can be generated, which can effectively expand the heat coverage area and improve the heat energy utilization efficiency.

Description

gas heater

technical field

The utility model relates to a gas heater, in particular to a gas heater for heating with a plurality of control valves capable of supplying gas to a plurality of burners to generate at least two sections of firepower to expand the coverage area of heat energy and improve the utilization efficiency of heat energy.

Background technique

The ignition devices used in existing gas heaters are roughly divided into two types: piezoelectric ignition devices and electronic ignition devices. The ignition switch used in the former has a throttling function, which can adjust the firepower. But because the piezoelectric ignition device must turn the switch knob manually to ignite, it is not very convenient to operate the gas appliance, and it is also difficult to accurately produce a throttling effect, that is, the firepower is not easy to grasp.

As for gas heaters using electronic ignition devices, the way to adjust the flow rate is to use two control valves to open individually or simultaneously to generate throttling control of three flow rates, thereby obtaining three-stage firepower to supply heating needs. Because this kind of gas heater uses electronic control, it is more convenient and accurate than the gas heater using piezoelectric ignition in terms of operation and firepower adjustment.

However, whether it is a gas heater using piezoelectric ignition or electronic ignition, the flame is generated by the only burner, so the thermal energy coverage area is small and the thermal energy utilization efficiency is low.

Contents of the invention

In order to solve the above-mentioned problems and shortcomings, the purpose of this utility model is to provide an improved gas heater, which can expand the coverage area of heat energy and improve the utilization efficiency of heat energy.

To achieve the above object, the utility model takes the following technical solutions:

A gas heater, comprising a controller, a command unit that gives command signals from the outside, and a control unit that receives and executes the signals given by the command unit; a burner group, composed of a plurality of burner arrays; an ignition The induction electrode receives instructions from the control department to generate sparks and perform flame induction functions; a female burner is adjacent to one of the burners and maintains a gap with the ignition induction electrode; and a control valve group has multiple The control valve is actuated by receiving instructions from the control unit, and supplies air to the main nozzle and the burner group through a delivery system.

The burner group includes the first, second and third burners, the control valve group includes the main fire valve, the first and the second main fire valve, and the delivery system includes the main fire pipe, the first and the second pipeline; the two ends of the mother fire pipe are respectively connected to the gas outlet of the mother fire valve and the mother nozzle; one end of the first pipeline is connected to the gas outlet of the first main fire valve, and the other end is provided with a second A nozzle supplies air to the first burner; one end of the second pipeline is connected to the gas outlet of the second main fire valve, and the other end is provided with a second and a third nozzle to supply air to the second and second respectively. Three burner gas supply.

The burner group includes first and second burners, the control valve group includes a main fire valve, first and second main fire valves, and the delivery system includes a main fire pipe, first and second pipelines; The two ends of the mother fire pipe are respectively connected to the gas outlet of the mother fire valve and the mother nozzle; one end of the first pipeline is connected to the gas outlet of the first main fire valve, and the other end is provided with a first nozzle to The first burner supplies air; one end of the second pipeline is connected to the air outlet of the second main fire valve, and the other end is provided with a second nozzle to supply air to the second burner.

The burner group includes the first, second and third burners, the control valve group includes the main fire valve, the first and the second main fire valve, and the delivery system includes the main fire pipe, the first, the second and the third pipeline; the two ends of the female fire pipe are respectively connected to the gas outlet of the female fire valve and the female nozzle; one end of the first pipeline is connected to the gas outlet of the female fire valve, and the other end is provided with The first nozzle supplies air to the first burner; one end of the second pipeline is connected to the gas outlet of the first main fire valve, and the other end is provided with a second nozzle to supply air to the second burner; One end of the third pipeline is connected to the gas outlet of the second main fire valve, and the other end is provided with a third nozzle to supply gas to the third burner.

The burner group includes first, second and third burners, the control valve group includes a main fire valve and a first main fire valve, and the delivery system includes a main fire pipe, first and second pipelines; The two ends of the mother fire pipe are respectively connected to the gas outlet of the mother fire valve and the mother nozzle; one end of the first pipeline is connected to the gas outlet of the mother fire valve, and the other end is provided with a first nozzle to the said mother fire valve. Gas supply to the first burner; one end of the second pipeline is connected to the gas outlet of the first main fire valve, and the other end is provided with second and third nozzles to supply gas to the second and third burners respectively .

The burner group includes first and second burners, the control valve group includes a main fire valve and a first main fire valve, and the delivery system includes a main fire pipe, first and second pipelines; the main fire The two ends of the pipe are respectively connected to the gas outlet of the mother fire valve and the mother nozzle; one end of the first pipeline is connected to the gas outlet of the mother fire valve, and the other end is provided with a first nozzle to the first combustion gas supply to the device; one end of the second pipeline is connected to the gas outlet of the first main fire valve, and the other end is provided with a second nozzle to supply gas to the second burner.

When the control unit receives the command signal of switching from low fire to medium fire or from medium fire to low fire, the closed control valve is delayed for a period of time before closing.

The controller further includes a remote control receiving unit.

The conveying system further includes a fire pipe, which crosses the burner group and is adjacent to the mother fire nozzle, and is connected to the gas outlet of the mother fire valve.

In another embodiment, the gas heater includes a controller with an instruction unit that gives command signals from the outside, and a control unit that receives and executes the signals given by the instruction unit; a burner group consisting of a plurality of burners Arrangement composition; an ignition induction electrode, adjacent to one of the burners, and receives instructions from the control department to generate sparks and perform flame induction functions; and a control valve group, with multiple control valves receiving instructions from the control department actuated and supplies air to the burner bank through a delivery system.

The burner group includes first, second and third burners, the control valve group includes first and second main fire valves, the delivery system includes first and second pipelines; the first pipe One end of the pipeline is connected to the gas outlet of the first main fire valve, and the other end is provided with a first nozzle to supply gas to the first burner; one end of the second pipeline is connected to the outlet of the second main fire valve The other end of the air port is provided with second and third nozzles to supply air to the second and third burners respectively.

The burner bank includes first, second and third burners, the control valve bank includes first, second and third main fire valves, and the delivery system includes first, second and third lines ; One end of the first pipeline is connected to the gas outlet of the first main fire valve, and the other end is provided with a first nozzle to supply gas to the first burner; one end of the second pipeline is connected to the first The gas outlet of the second main fire valve, the other end is provided with a second nozzle to supply gas to the second burner; one end of the third pipeline is connected to the gas outlet of the third main fire valve, and the other end is provided with a second nozzle Three nozzles feed the third burner.

The burner group includes first and second burners, the control valve group includes first, second and third main fire valves, and the delivery system includes first, second and third pipelines; the One end of the first pipeline is connected to the gas outlet of the first main fire valve, and the other end is provided with a first nozzle to supply gas to the first burner; one end of the second pipeline is connected to the second main fire valve. The gas outlet of the valve, the other end is provided with a second nozzle to supply gas to the second burner; one end of the third pipeline is connected to the gas outlet of the third main fire valve, and the other end is connected to the second pipeline to the gas outlet of the second burner. The second burner is supplied with gas.

When the control unit receives the command signal of switching from low fire to medium fire or from medium fire to low fire, the closed control valve is delayed for a period of time before closing.

The controller further includes a remote control receiving unit.

The conveying system further includes a female fire pipe, one end of which is connected to the gas outlet of the first main fire valve, and the other end is provided with a female nozzle with a certain gap with the ignition sensing electrode to release gas For the main fire to ignite into the mother fire for detection.

The conveying system further includes an ignition pipe, which crosses the burner group and is adjacent to the ignition induction electrode, and is connected to the gas outlet of the first main fire valve.

The beneficial effects of the utility model are: the utility model has the effect of the conventional gas heater in that it has a plurality of control valves that can act independently or synchronously, and the combustion of one burner, two burners or more than two burners at the same time Air is supplied by the device to generate at least two stages of firepower, which can effectively expand the coverage area of heat energy and improve the efficiency of heat energy utilization.

As for the technical content and other purposes and characteristics of the present utility model, it can be fully understood by referring to the detailed description of the following embodiments in conjunction with the drawings.

Description of drawings

Fig. 1 is a plan view of the first embodiment of the utility model.

Fig. 2 is a plan view of the second embodiment of the utility model.

Fig. 3 is a plan view of the third embodiment of the utility model.

Fig. 4 is a plan view of the fourth embodiment of the utility model.

Reference numerals: 10, 10a, 10b, 10c, gas heater; 20, controller; 21, command unit; 22, control unit; 23, power button; 24, temperature rise button; 25, temperature drop button; 26, receiving unit; 30. Burner group; 31. First burner; 32. Second burner; 33. Third burner; 40. Ignition induction electrode; 50. Female nozzle; 60. Control valve group; 61. Valve seat; 62, mother fire valve; 63, first main fire valve; 64, second main fire valve; 65, air inlet; 66, air outlet; 67, air outlet; 68, air outlet; 70, delivery system; 71, 72, the first pipeline; 73, the second pipeline; 74, the third pipeline; 75, the first nozzle; 76, the second nozzle; 77, the third nozzle; 78, the ignition pipe.

Detailed ways

Fig. 1 is the plane view of the gas heater 10 of the utility model, which can be used for explaining the technical content of the utility model. The gas heater 10 includes a controller 20 , a burner group 30 , an ignition induction electrode 40 , a female burner 50 , a control valve group 60 , and a delivery system 70 . in:

The controller 20 includes a command unit 21 and a control unit 22 . The command part 21 is an input device for giving command signals to the gas heater 10 from the outside. It has a power key 23 for enabling and closing the gas heater 10; a temperature rise key 24 for adjusting the firepower upward; and a temperature drop key 25, Used to adjust the fire down. The control unit 22 judges the command signal from the command unit 21 , and then issues commands to the operation objects, namely, the ignition sensing electrode 40 and the control valve group 60 . The controller 20 can also include a remote control receiving unit 26, which is used to decode the data code transmitted by a remote control transmitter (not shown) and send it to the control unit 22 for execution, so that the gas heater 10 can be turned on, off and the firepower can be adjusted. It can also be operated by wireless remote control.

The burner group 30 is a device for fully mixing gas and air to promote combustion reactions. In this embodiment, the burner group 30 is composed of a first burner 31, a second burner 32 and a third burner 33, which can burn independently or synchronously to generate three stages of firepower. This design is more efficient than a single burner. It can expand the coverage area of heat energy and improve the utilization efficiency of heat energy.

The ignition sensing electrode 40 receives instructions from the control unit 22 to generate sparks and perform flame sensing functions. When the gas heater 10 is used for indoor heating, the ignition sensing electrode 40 is also used for oxygen deficiency detection. It should be noted that one ignition electrode and one sensing electrode can also be used to respectively perform ignition and flame sensing, and at this time, the latter also performs the task of oxygen deficiency detection.

The main burner 50 is adjacent to the first burner 31 and maintains a proper gap with the ignition induction electrode 40 to release gas for ignition by the spark generated by the ignition induction electrode 40 to become the main fire.

The control valve group 60 includes a valve seat 61 , a main fire valve 62 , a first main fire valve 63 and a second main fire valve 64 . The valve seat 61 provides a gas passage (not shown), this gas passage has an air inlet 65 to connect the gas source, and three gas outlets 66, 67, 68 are respectively controlled by the main fire valve 62 and two main fire valves 63 , controlled by 64.

The conveying system 70 includes a main fire pipe 71, a first pipeline 72, a second pipeline 73 and a plurality of nozzles 75-77. One end of the female fire pipe 71 is connected to the gas outlet 66 controlled by the female fire valve 62, and the other end is connected to the female burner 50, so as to transport the gas released when the female fire valve 62 is opened to the female burner 50 for the ignition induction electrode 40 to generate The spark ignited to become the mother fire. One end of the first pipeline 72 is connected to the air outlet 67 controlled by the first main fire valve 63 , and the other end is connected to the first nozzle 75 to supply air to the first burner 31 . One end of the second pipeline 73 is connected to the air outlet 68 controlled by the second main fire valve 64 , and the other end is connected to the second nozzle 76 and the third nozzle 77 to supply air to the second burner 32 and the third burner 33 respectively. The apertures of the second nozzle 76 and the third nozzle 77 are larger than the aperture of the first nozzle 75, so that when the first main fire valve 63 is opened, a small amount of gas needed to produce a small fire can be supplied to the first burner 31, and the second main fire valve When the fire valve 64 is opened, the second and third burners 32, 33 are supplied with the medium amount of gas required for medium fire, and when the first and second main fire valves 63, 64 are opened synchronously, the first to third burners 31- 33 to supply the large quantities of gas needed to create a large fire.

When the control unit 22 receives the command signal for the On operation of the power key 23, it will execute this signal, that is, on the one hand, it will command the mother fire valve 62 to open, so that the gas can be released from the mother burner 50 through the mother fire pipe 71, and on the one hand, it will be supplied. The high-voltage current is sent to the ignition sensing electrode 40, causing it to discharge and generate sparks to ignite the mixture of gas and air to form a master fire, and then the ignition sensing electrode 40 feeds back the detected flame signal to the control part 22, so that the control part 22 stops outputting high voltage The current is sent to the ignition sensing electrode 40, and at the same time, the first main fire valve 63 is commanded to open to supply gas to the first burner 31, and the above-mentioned main fire is ignited into a small fire to supply heating needs. When the temperature increase key 24 is pressed, the first main fire valve 63 is closed, and the gas supply to the first burner 31 is stopped, and the second main fire valve 64 is opened, and the second and third burners 32, 33 are supplied to produce the required fire. of gas. When the temperature raising key 24 is pressed again, the second main fire valve 64 remains in the open position, the first main fire valve 63 is opened, and simultaneously the first to third burners 31-33 are supplied with the gas required for large fire. Conversely, when pressing the cooling key 25, the firepower can be adjusted downwards.

If the main fire cannot be ignited within a certain safe time, the power supply and gas will be automatically turned off, and it must be restarted to enable it. For the sake of safety, the gas heater 10 is set in the mode of low-fire start-up, but it can also be started with medium-fire, high-fire or low-fire-to-medium-fire mode depending on the needs. As long as the program stored in the control unit 22 is changed, the boot mode can be changed.

Again, when the ignition sensing electrode 40 has a large resistance or no flame due to lack of oxygen around the main flame, the detection signal will be sent to the control unit 22 to automatically turn off the power supply and gas to ensure safety.

In order to make the gas supplied to the second and third burners 32, 33 which are far away from the main fire can be ignited smoothly, so in a preferred embodiment, the conveying system 70 further includes an ignition pipe 78, the ignition The pipe 78 spans the burner group 30 and is adjacent to the female burner 50 , and is connected to the gas outlet 66 of the female fire valve 62 . When ignited, the gas released from the squib 78 is also ignited by the parent fire to ignite the gas supplied to the first to third burners 31-33. The mother fire and the flame on the pilot tube 78 will remain on for oxygen deficiency detection and ignition purposes until the gas heater 10 is turned off.

In the absence of the fire pipe 78, the first main fire valve 63 can be delayed for a period of time before being closed when the control unit 22 receives a command signal for adjusting from a small fire to a medium fire, so as to delay extinguishing by the first burner 31. The flame ignites the second burner 32 , and then the second burner 32 ignites the third burner 33 . Conversely, when the control unit 22 receives the command signal for lowering the fire from medium fire to low fire, it delays the closing of the second main fire valve 64, so as to ignite the first combustion fire with the delayed extinguishing flames of the second and third burners 32 and 33. Device 31. When turning high fire or high fire to medium fire as for middle fire, because the second main fire valve 64 still remains on the valve position, so there is no need to delay closing.

Fig. 2 shows another different type of gas heater 10a of the present invention. The difference between this embodiment and the above embodiment is that the burner group 30 is only composed of the first and second burners 31, 32, and the rest are identical, so the same parts as the above embodiment are marked with the same symbols, and The previous descriptions for the above embodiments are also applicable to this embodiment. In this embodiment, the first pipeline 72 supplies air to the first burner 31 through the first nozzle 75, the second pipeline 73 supplies air to the second burner 32 through the second nozzle 76, and the second nozzle 76 The hole diameter is larger than that of the first nozzle 75 . In this way, when the first main fire valve 63 is opened, the first burner 31 can be supplied with the gas needed for low fire; when the second main fire valve 64 is opened, the second burner 32 can be supplied with the gas needed for medium fire; When the first and second main fire valves 63 and 64 are opened synchronously, they supply air to the first and second burners 31 and 32 at the same time, so as to generate relatively large firepower and supply heating needs.

Also, on the basis of the second embodiment, the control unit 22 can be changed to have a two-stage fire control function. At this time, the aperture of the second nozzle 76 can be smaller than, equal to or larger than that of the first nozzle 75 . Thus, when the first main fire valve 63 is opened, the first burner 31 can be supplied with the gas needed to produce a small fire, and when the first and second main fire valves 63, 64 are opened synchronously, the first and second Burners 31, 32 supply air to produce the desired high fire. In this embodiment, the second main fire valve 64 does not act independently, but only opens synchronously with the first main fire valve 63 .

Though above-mentioned embodiment all has an independent mother fire valve 62 to supply the combustion gas needed for ignition and ignition by mother fire pipe 71 and pilot pipe 78, also can slightly change conveying system 70, make this mother fire valve 62 can simultaneously to the second A burner 31 feeds gas, that is to say, it doubles as the main fire valve. Fig. 3 is a gas heater 10b according to the above changes. In this embodiment, the burner group 30 is also composed of first, second and third burners 31, 32, 33, and the control valve group 60 includes a main fire valve 62, a first main fire valve 63 and a second main fire valve. The valve 64 and the delivery system 70 include a main fire pipe 71 , a first pipeline 72 , a second pipeline 73 and a third pipeline 74 . The two ends of the mother fire pipe 71 are respectively connected to the air outlet 66 controlled by the mother fire valve 62 and the mother nozzle 50; one end of the first pipeline 72 is connected to the air outlet 66 controlled by the mother fire valve 62, and the other end is connected to The first burner 31 supplies gas; one end of the second pipeline 73 is connected to the gas outlet 67 controlled by the first main fire valve 63, and the other end supplies gas to the second burner 32 through the second nozzle 76; the third pipeline 74 One end is connected to the air outlet 68 controlled by the second main fire valve 64 , and the other end supplies air to the third burner 33 through the third nozzle 77 . The present embodiment can produce seven stages of firepower at most, and the accompanying drawings are also exemplified by three stages of firepower: low fire, medium fire, and high fire.

Fig. 4 is an embodiment similar to Fig. 3 . Compared with the third embodiment, the gas heater 10c disclosed in this embodiment only lacks the second main fire valve 64, in which the main fire valve 62 supplies gas to the main burner 50, the fire pipe 78 and the first burner 31. , the first main fire valve 63 simultaneously supplies air to the second and third burners 32 , 33 via the second and third nozzles 76 , 77 of the second pipeline 73 . In this way, three sections of firepower of different sizes can also be produced. The third burner 33 and the third nozzle 77 in this embodiment can also be omitted according to requirements.

In addition, the gas heaters 10, 10a, 10b, and 10c disclosed in Fig. 1 to Fig. 4 all light the main fire first, use the main fire to ignite the gas released from the fire pipe 78, and then use the flame of the fire pipe 78 to ignite and supply The combustion gas to the burner group 30 forms the main fire; as for the embodiment without the fire pipe 78, the main fire can be ignited by means of delaying closing of the above-mentioned main fire valve. But the utility model can also slightly change the above-mentioned embodiment of lighting the main fire first, to form a gas heater that directly ignites the main fire, for example: omit the main fire pipe 71 and the main burner 50 in Fig. The spark generated by 40 directly ignites the gas in the ignition pipe 78, and then uses the flame of the ignition pipe 78 to ignite the gas supplied to the burner group 30 to generate the main fire required for heating. According to the same principle, other different embodiments of directly lighting the main fire can also be deduced from the above-mentioned embodiment of igniting the main fire first. Because the embodiment of the direct-point main fire is replaced by the diagram of the embodiment of the mother fire earlier, so the above-mentioned mother fire valve 62, the first main fire valve 63 and the second main fire valve 64 are in the direct-point main fire. In the embodiment, their corresponding names are respectively the first main fire valve, the second main fire valve and the third main fire valve, and will be described here. Also, if the gas heater that directly lights the main fire is to be the same as the embodiment of first lighting the main fire, there is a resident main fire for the ignition induction electrode 40 to detect the lack of oxygen, then the previously omitted main fire tube can be retained 71 and the female burner 50, the female fire pipe 71 is connected to the gas outlet 66 controlled by the first main fire valve 62, so that a detection mother fire is provided at the mother burner 50, so that the ignition induction electrode 40 is used in the detection. When the impedance of the fire flame increases due to lack of oxygen around or the flame cannot be sensed, the detection signal can be added to the control unit 22 to automatically shut off the power supply and gas to ensure safety. When the gas heater with the direct main fire is equipped with the main fire pipe 71 and/or the pilot pipe 78, no matter the fire is adjusted to any firepower, the first main fire valve 62 is always kept at the open position to continuously provide the main fire pipe 78. 71 and ignition pipe 78 gas supply. Similarly, the gas heater that directly lights the main fire can also be as mentioned above. In order to omit the fire pipe 78, when the small fire turns to medium fire or the medium fire turns to small fire, the main fire valve that should be closed is delayed for a while before closing, so as to use The burner that goes out later ignites the other burners.

Of course, the above-mentioned embodiments can be changed without departing from the scope of the present utility model, so all matters contained in the above description and shown in the accompanying drawings should be regarded as illustrative rather than limiting the application of the present utility model patent scope.

Claims (18)

1. combustion gas radiator is characterized in that it comprises:

A controller has the instruction department that gives command signal from the outside, and receives the signal that instruction department gives and the control part of carrying out;

A sets of burners is made up of a plurality of burner arrangement;

An igniting induction electrode receives the instruction of control part, to produce the function of spark and the induction of post flame;

Female nozzles are close to one of them burner, and keep a gap with the igniting induction electrode; And

A control valve group has instruction and start that a plurality of control valves receive control parts, and through an induction system to female nozzles and sets of burners air feed.

2. combustion gas radiator according to claim 1; It is characterized in that; Said sets of burners comprises first, second and the 3rd burner, and said control valve group comprises major fire valve, first and second main fire valves, and said induction system comprises primary fire pipe, first and second pipelines; The two ends of this primary fire pipe connect gas outlet and female nozzles of said major fire valve respectively; One end of said first pipeline connects the gas outlet of said first main fire valve, and the other end is provided with first nozzle to the said first burner air feed; One end of said second pipeline connects the gas outlet of said second main fire valve, and the other end is provided with the second and the 3rd nozzle respectively to the said second and the 3rd burner air feed.

3. combustion gas radiator according to claim 1 is characterized in that said sets of burners comprises first and second burners, and said control valve group comprises major fire valve, first and second main fire valves, and said induction system comprises primary fire pipe, first and second pipelines; The two ends of this primary fire pipe connect gas outlet and female nozzles of said major fire valve respectively; One end of said first pipeline connects the gas outlet of said first main fire valve, and the other end is provided with first nozzle to the said first burner air feed; One end of said second pipeline connects the gas outlet of said second main fire valve, and the other end is provided with second nozzle to the said second burner air feed.

4. combustion gas radiator according to claim 1; It is characterized in that; Said sets of burners comprises first, second and the 3rd burner, and said control valve group comprises major fire valve, first and second main fire valves, and said induction system comprises primary fire pipe, first, second and the 3rd pipeline; The two ends of this primary fire pipe connect gas outlet and female nozzles of said major fire valve respectively; One end of said first pipeline connects the gas outlet of said major fire valve, and the other end is provided with first nozzle to the said first burner air feed; One end of said second pipeline connects the gas outlet of said first main fire valve, and the other end is provided with second nozzle to the said second burner air feed; One end of said the 3rd pipeline connects the gas outlet of said second main fire valve, and the other end is provided with the 3rd nozzle to said the 3rd burner air feed.

5. combustion gas radiator according to claim 1 is characterized in that, said sets of burners comprises first, second and the 3rd burner, and said control valve group comprises the major fire valve and first main fire valve, and said induction system comprises primary fire pipe, first and second pipelines; The two ends of this primary fire pipe connect gas outlet and female nozzles of said major fire valve respectively; One end of said first pipeline connects the gas outlet of said major fire valve, and the other end is provided with first nozzle to the said first burner air feed; One end of said second pipeline connects the gas outlet of said first main fire valve, and the other end is provided with the second and the 3rd nozzle respectively to the said second and the 3rd burner air feed.

6. combustion gas radiator according to claim 1 is characterized in that said sets of burners comprises first and second burners, and said control valve group comprises the major fire valve and first main fire valve, and said induction system comprises primary fire pipe, first and second pipelines; The two ends of this primary fire pipe connect gas outlet and female nozzles of said major fire valve respectively; One end of said first pipeline connects the gas outlet of said major fire valve, and the other end is provided with first nozzle to the said first burner air feed; One end of said second pipeline connects the gas outlet of said first main fire valve, and the other end is provided with second nozzle to the said second burner air feed.

7. according to each described combustion gas radiator in the claim 1 to 6, it is characterized in that said control part makes and saidly just closes when the control valve of closing postpones a period of time when receiving little fire and change moderate heat or moderate heat and change the command signal of little fire.

8. according to each described combustion gas radiator in the claim 1 to 6, it is characterized in that said controller comprises a remote control receiving element again.

9. according to each described combustion gas radiator in the claim 2 to 6, it is characterized in that said induction system comprises an ignition tube again, this ignition tube is across said sets of burners and be close to female nozzles, and connects the gas outlet of said major fire valve.

10. combustion gas radiator is characterized in that it comprises:

A controller has the instruction department that gives command signal from the outside, and receives the signal that instruction department gives and the control part of carrying out;

A sets of burners is made up of a plurality of burner arrangement;

An igniting induction electrode is close to one of them burner, and receives the instruction of control part, to produce the function of spark and the induction of post flame; And

A control valve group has instruction and start that a plurality of control valves receive control parts, and through an induction system to the sets of burners air feed.

11. combustion gas radiator according to claim 10 is characterized in that said sets of burners comprises first and second burners, said control valve group comprises first and second main fire valves, and said induction system comprises first and second pipelines; One end of said first pipeline connects the gas outlet of said first main fire valve, and the other end is provided with first nozzle to the said first burner air feed; One end of said second pipeline connects the gas outlet of said second main fire valve, and the other end is provided with second nozzle to the said second burner air feed.

12. combustion gas radiator according to claim 10 is characterized in that, said sets of burners comprises first, second and the 3rd burner, and said control valve group comprises first and second main fire valves, and said induction system comprises first and second pipelines; One end of said first pipeline connects the gas outlet of said first main fire valve, and the other end is provided with first nozzle to the said first burner air feed; One end of said second pipeline connects the gas outlet of said second main fire valve, and the other end is provided with the second and the 3rd nozzle respectively to the said second and the 3rd burner air feed.

13. combustion gas radiator according to claim 10 is characterized in that, said sets of burners comprises first, second and the 3rd burner, and said control valve group comprises first, second and the 3rd main fire valve, and said induction system comprises first, second and the 3rd pipeline; One end of said first pipeline connects the gas outlet of said first main fire valve, and the other end is provided with first nozzle to the said first burner air feed; One end of said second pipeline connects the gas outlet of said second main fire valve, and the other end is provided with second nozzle to the said second burner air feed; One end of said the 3rd pipeline connects the gas outlet of said the 3rd main fire valve, and the other end is provided with the 3rd nozzle to said the 3rd burner air feed.

14. combustion gas radiator according to claim 10 is characterized in that said sets of burners comprises first and second burners, said control valve group comprises first, second and the 3rd main fire valve, and said induction system comprises first, second and the 3rd pipeline; One end of said first pipeline connects the gas outlet of said first main fire valve, and the other end is provided with first nozzle to the said first burner air feed; One end of said second pipeline connects the gas outlet of said second main fire valve, and the other end is provided with second nozzle to the said second burner air feed; One end of said the 3rd pipeline connects the gas outlet of said the 3rd main fire valve, and the other end connects second pipeline to the said second burner air feed.

15., it is characterized in that said control part makes and saidly just closes when the control valve of closing postpones a period of time according to each described combustion gas radiator in the claim 10 to 14 when receiving little fire and change moderate heat or moderate heat and change the command signal of little fire.

16., it is characterized in that said controller comprises a remote control receiving element again according to each described combustion gas radiator in the claim 10 to 14.

17. according to each described combustion gas radiator in the claim 11 to 14; It is characterized in that; Said induction system comprises a primary fire pipe again; This primary fire pipe one end connects the gas outlet of said first main fire valve, and the other end is provided with the female nozzles that keep certain interval with said igniting induction electrode, supplies main fire to ignite into detecting with female fire to disengage combustion gas.

18. according to each described combustion gas radiator in the claim 11 to 14; It is characterized in that; Said induction system comprises an ignition tube again, and this ignition tube is across said sets of burners and be close to said igniting induction electrode, and connects the gas outlet of said first main fire valve.

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