A heating device based on intelligent control of biomass combustion

Abstract

The present invention relates to the technical field of heating equipment, and specifically to a heating device based on intelligent control of biomass combustion. The device mainly comprises a carrier plate box provided on a hot oil circulation pipeline on the intelligent control heating device, and a temperature monitoring and control auxiliary component, a heating impurity removal component and an auxiliary structure provided on the carrier plate box. The three cooperate to monitor the temperature of the heating circulation oil circuit and perform timely temperature control. The impurities in the circulating heating oil circuit are filtered. The heating oil is filtered by the cooperation of a loading pipe and a filter pipe body in the heating impurity removal component. When the temperature in the heating circulation oil circuit decreases, the temperature is detected by a monitor, and then the temperature is increased by the cooperation of a heater, a heating coil and an auxiliary structure to ensure the quality of the heating work. The device can better meet the actual work needs.

Description

Technical Field

[0001] The present invention relates to the technical field of heating equipment, and in particular to a heating device based on intelligent control of biomass combustion. Background Art

[0002] The existing Chinese patent document with announcement number CN108224776A discloses a thermal oil electric heater, which points out that the existing thermal oil electric heater has low thermal efficiency in long-term use; the thermal oil is easy to coke in the heating tank, which damages the heater; the temperature control accuracy is low and the energy consumption is high. Its solution includes an oil storage shell, an oil pump and an electric heater. The oil storage shell defines an oil cavity filled with thermal oil, the electric heater is arranged in the oil cavity, the oil inlet of the oil pump is connected to the oil cavity, the oil storage shell is provided with a thermal oil return port connected to the oil cavity, and the electric heater surrounds the outer periphery of the oil inlet of the oil pump; its solution heats the thermal oil by using an electric heating coil heater, thereby improving the heat transfer efficiency; the thermal oil electric heater uses electrical energy as a heating energy source, which is clean and pollution-free; the temperature of the thermal oil is measured in real time by a temperature measuring device to control the operation of the electric heater, thereby improving the temperature control accuracy of the thermal oil electric heater, so that the temperature of the oil outlet can be controlled within plus or minus 1 degree.

[0003] The above-mentioned scheme and the thermal oil electric heating heating device in the prior art circulate the hot oil by setting up corresponding circulating oil pipes. During the recycling process, the hot oil temperature will be affected to a certain extent, which has a negative effect on the subsequent heating work; furthermore, there is a lack of a suitable filtering mechanism for impurities in the circulating oil to ensure the normal heating of the circulating oil; improvement and optimization are needed.

[0004] To this end, the present invention proposes a heating device based on biomass combustion intelligent control to solve the above problems. Summary of the invention

[0005] The purpose of the present invention is to provide a heating device based on biomass combustion intelligent control to solve the problems raised in the above background technology.

[0006] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: a heating device based on intelligent control of biomass combustion, comprising a heating device main body, a first conveying pipe, a second conveying pipe, a connecting pipe body, a bearing plate box, a temperature monitoring and control auxiliary component, a heating and impurity removal component and an auxiliary structure; one end of the connecting pipe body is fixedly connected to the first conveying pipe through a flange, the other end of the connecting pipe body is fixedly connected to one end of the second conveying pipe through a flange, the other end of the second conveying pipe is connected and arranged on the heating device main body, the other end of the first conveying pipe is connected and arranged on the heating device main body, a bearing plate box is arranged on the connecting pipe body, the bearing plate box is connected and arranged with the temperature monitoring and control auxiliary component, the heating and impurity removal component is arranged in the bearing plate box, and the heating and impurity removal component is connected and arranged with the auxiliary structure.

[0007] Preferably, the temperature monitoring and control auxiliary component includes a monitor, a heater, and a heating coil; the monitor is connected to the connecting tube body, the heater is fixed on the carrier plate box, and the heater is connected to the heating coil, and the heating coil is embedded in the carrier plate box.

[0008] Preferably, the heating ring is arranged at the side of the pipe opening connecting the pipe body.

[0009] Preferably, the heating and impurity removal component includes a control motor, a bearing movable plate, an installation port, a loading through slot, a limit installation retaining groove, a water inlet pipe, a water outlet pipe, a loading pipe, a limit installation retaining ring, an annular groove, a fixed disc, a filter tube body, and a curved filter hole; the control motor is fixedly arranged on the bearing disc box, and the control motor is connected to the bearing movable plate, the bearing movable plate is movably arranged in the bearing disc box, the bearing movable plate is symmetrically penetrated with a loading through slot, the installation port is arranged on the bearing disc box, a limit installation retaining groove is arranged at a notch position of one end of the loading through slot, the installation port is connected to the water inlet pipe, the bottom side of the bearing disc box is connected with the water outlet pipe, the loading pipe is placed in the loading through slot, and a limit installation retaining ring is fixedly arranged at one end of the loading pipe, a fixed disc is fixedly arranged on the inner side wall of the loading pipe, the filter tube body is equidistantly arranged on the fixed disc, the curved filter holes are equidistantly arranged on the side wall of the filter tube body, and an annular groove is arranged on the limit installation retaining ring.

[0010] Preferably, the loading slot is arranged in a cylindrical shape, and the loading slot corresponds to the setting position of the pipe mouth of the connecting pipe body, the mounting port corresponds to the setting position of the loading slot, and two loading slots are symmetrically arranged in the loading movable plate; when the loading slot passes through the pipe mouth position of the connecting pipe body, the center lines of the two are on the same straight line.

[0011] Preferably, the water outlet pipe and the water inlet pipe are arranged in the same number of groups, and the two are arranged symmetrically, and the water outlet pipe and the loading slot are arranged correspondingly, and the water inlet pipe and the loading slot are arranged correspondingly; when the loading slot passes through the water inlet pipe and the water outlet pipe, the center lines of the three are on the same straight line.

[0012] Preferably, the position of the limit installation retaining ring corresponds to that of the limit installation retaining groove, and the two are adapted to be snap-connected; the number of groups of the loading tubes and the loading through grooves is the same, and one loading tube is placed in one loading through groove.

[0013] Preferably, one end of the filter tube body is connected to the fixed disc, and the curved filter hole is configured as a through groove, and the shape of the through groove is configured as a curved shape.

[0014] Preferably, the auxiliary structure includes a thermally conductive ring, a support bar, a thermally conductive connecting wire, and a thermally conductive wire loop; the thermally conductive ring and the annular slot are set in corresponding positions and have the same number of groups, the thermally conductive ring is adapted to be snap-connected in the annular slot, a support bar is set on the inner side of the thermally conductive ring, a thermally conductive connecting wire is set on the bottom side of the support bar, and a thermally conductive wire loop is set at the bottom end of the thermally conductive connecting wire.

[0015] Preferably, the heat-conducting ring corresponds to the setting position of the heating ring; when the heat-conducting ring moves to the pipe mouth position connected to the tube body, the heat-conducting ring contacts the heating ring; the heat-conducting wire ring is arranged in a circular mesh shape, and the heat-conducting wire ring corresponds to the setting position of the filter tube body, the setting number of groups is the same, and the diameter of the circular heat-conducting wire ring is set equal to the inner diameter of the filter tube body.

[0016] Compared with the prior art, the present invention has the following beneficial effects:

[0017] The intelligent controlled heating device designed in the present invention mainly arranges a carrier plate box on the hot oil circulation pipeline of the intelligent controlled heating device, and arranges a temperature monitoring and control auxiliary component, a heating impurity removal component and an auxiliary structure on the carrier plate box, and the three cooperate to monitor the temperature of the heating circulation oil circuit and perform timely temperature control processing; secondly, impurities in the circulating heating oil circuit are filtered; the heating oil is filtered by the coordinated use of the loading tube and the filter tube body in the heating impurity removal component; and when the temperature in the heating circulation oil circuit decreases, it is detected by a monitor, and then the temperature is increased by the cooperation of the heater, the heating coil and the auxiliary structure to ensure its heating work quality; it can better meet the actual work needs. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a schematic diagram of the structure connection of the intelligent control heating device of the present invention;

[0019] Figure 2 For the present invention Figure 1A magnified schematic diagram of the local structural connection;

[0020] Figure 3 It is a top view of the structural connection between the carrier tray box, the temperature monitoring and control auxiliary component, and the heat supply and impurity removal component of the present invention;

[0021] Figure 4 It is a bottom view of the structural connection between the carrier tray box, the temperature monitoring and control auxiliary component, and the heat supply and impurity removal component of the present invention;

[0022] Figure 5 It is a schematic diagram of the left side of the internal structure connection of the carrier disk box of the present invention;

[0023] Figure 6 For the present invention Figure 5 A magnified schematic diagram of the local structural connection;

[0024] Figure 7 It is a schematic diagram of the right side of the internal structure connection of the carrier disk box of the present invention;

[0025] Figure 8 For the present invention Figure 7 A magnified schematic diagram of the local structural connection;

[0026] Fig. 9 A top view of the connection between the loading pipe and the auxiliary structure of the present invention;

[0027] Fig.10 A bottom view of the connection between the loading pipe and the auxiliary structure of the present invention;

[0028] Fig.11 It is a schematic diagram of the local structural connection of the filter tube body of the present invention.

[0029] In the figure: the heating device body 1, the first delivery pipe 2, the second delivery pipe 3, the connecting pipe body 4, the bearing plate box 5, the monitor 601, the heater 602, the heating coil 603, the control motor 701, the bearing movable plate 702, the installation port 703, the loading slot 704, the limit installation retaining groove 705, the water inlet pipe 706, the water outlet pipe 707, the loading pipe 708, the limit installation retaining ring 709, the annular groove 710, the fixed disc 711, the filter tube body 712, the curved filter hole 713, the heat conductive ring 801, the support bar 802, the heat conductive connecting wire 803, and the heat conductive wire ring 804. DETAILED DESCRIPTION

[0030] The technical solutions in the embodiments of the present invention are described clearly and completely below. The embodiments of the present invention and all other embodiments obtained by ordinary technicians in the field without creative work are within the scope of protection of the present invention.

[0031] Example 1: Please refer to Figure 1-Figure 11A heating device based on intelligent control of biomass combustion, comprising a heating device body 1, a first delivery pipe 2, a second delivery pipe 3, a connecting pipe body 4, a bearing plate box 5, a temperature monitoring and control auxiliary component, a heating impurity removal component and an auxiliary structure; one end of the connecting pipe body 4 is fixedly connected to the first delivery pipe 2 through a flange, the other end of the connecting pipe body 4 is fixedly connected to one end of the second delivery pipe 3 through a flange, the other end of the second delivery pipe 3 is connected and arranged on the heating device body 1, the other end of the first delivery pipe 2 is connected and arranged on the heating device body 1, a bearing plate box 5 is arranged on the connecting pipe body 4, the bearing plate box 5 is connected and arranged with the temperature monitoring and control auxiliary component, the heating impurity removal component is arranged in the bearing plate box 5, and the heating impurity removal component is connected with the auxiliary structure. Structural connection setting; the present invention mainly arranges a carrier plate box 5 on the hot oil circulation pipeline on the intelligent control heating device, and arranges a temperature monitoring and control auxiliary component, a heating impurity removal component and an auxiliary structure on the carrier plate box 5, and the three cooperate to monitor the temperature of the heating circulation oil circuit and perform timely temperature control; secondly, the impurities in the circulating heating oil circuit are filtered; the heating oil is filtered by the cooperation of the loading tube 708 and the filter tube body 712 in the heating impurity removal component; and when the temperature in the heating circulation oil circuit decreases, it is detected by the monitor 601, and then the heater 602, the heating coil 603 and the auxiliary structure are cooperated to increase the temperature to ensure the quality of its heating work.

[0032] Example 2: Based on Example 1, please refer to Figure 5-Figure 11 The temperature monitoring and control auxiliary components here include a monitor 601, a heater 602, and a heating coil 603; the monitor 601 is connected to the connecting tube body 4, the heater 602 is fixedly set on the carrier plate box 5, and the heater 602 is connected to the heating coil 603, and the heating coil 603 is embedded in the carrier plate box 5; the heating coil 603 here is set at the side of the pipe mouth of the connecting tube body 4.

[0033] The heat supply and impurity removal components here include a control motor 701, a bearing movable disk 702, a mounting port 703, a loading slot 704, a limit mounting retaining slot 705, a water inlet pipe 706, a water outlet pipe 707, a loading pipe 708, a limit mounting retaining ring 709, an annular slot 710, a fixed disc 711, a filter tube body 712, and a curved filter hole 713; the control motor 701 is fixedly arranged on the bearing disk box 5, and the control motor 701 is connected to the bearing movable disk 702, and the bearing movable disk 702 is connected to the bearing movable disk 702. The movable plate 702 is movably arranged in the bearing plate box 5, and a loading slot 704 is symmetrically arranged in the bearing movable plate 702. When the loading slot 704 passes through the pipe opening position of the connecting pipe body 4, the center lines of the two are on the same straight line; the mounting port 703 is arranged on the bearing plate box 5, and a limited mounting retaining groove 705 is arranged at the slot position of one end of the loading slot 704. The mounting port 703 is connected to the water inlet pipe 706, and the bottom side of the bearing plate box 5 is connected to the water outlet pipe 707. The water outlet pipe 707 here The number of sets of pipes 707 and water inlet pipes 706 is the same, and the two are symmetrically arranged, and the water outlet pipe 707 corresponds to the setting position of the loading slot 704, and the water inlet pipe 706 corresponds to the setting position of the loading slot 704; when the loading slot 704 passes through the positions of the water inlet pipe 706 and the water outlet pipe 707, the center lines of the three are on the same straight line; the loading pipe 708 is placed in the loading slot 704, and a limited mounting retaining ring 709 is fixedly arranged at one end of the loading pipe 708, and the loading pipe 708 A fixed disc 711 is fixedly provided on the inner wall, a filter tube body 712 is equidistantly provided on the fixed disc 711, curved filter holes 713 are equidistantly provided on the side wall of the filter tube body 712, and an annular clamping groove 710 is provided on the limit installation retaining ring 709; the limit installation retaining ring 709 here corresponds to the setting position of the limit installation retaining groove 705, and the two are adapted to be clamped; the loading tube 708 and the loading through groove 704 are set in the same number of groups, and one loading through groove 704 is placed in one loading through groove 704.

[0034] In this embodiment, when the hot oil passes through the position of the connecting pipe body 4, a loading pipe 708 is set on the supporting movable disk 702 in the supporting disk box 5, and a filter tube body 712 is set in the loading pipe 708 to filter impurities in the oil, so as to ensure the heating performance of the oil circulation; furthermore, the loading slot 704 here is set to be cylindrical, and the loading slot 704 corresponds to the setting position of the pipe mouth of the connecting pipe body 4, the installation port 703 corresponds to the setting position of the loading slot 704, and there are two loading slots 704 symmetrically set in the supporting movable disk 702; by controlling the motor 701 to drive the rotation of the supporting movable disk 702, the loading slot 704 on the supporting movable disk 702 can be replaced Use; its purpose is to replace another loading tube 708 to continue filtering work when replacement and maintenance work is needed, so as to ensure the continuity of its work and have a positive effect on the efficiency of its heating work; furthermore, a water inlet pipe 706 is arranged at the installation port 703, and a water outlet pipe 707 is arranged at the corresponding position on the bottom side of the carrier plate box 5, that is, the loading tube 708 and the filter tube body 712 inside the loading tube 708 can also be cleaned to take away impurities; the water inlet pipe 706 is detachably arranged here, and it is arranged at the position of the installation port 703, which is convenient for the subsequent replacement and inspection of the water inlet pipe 706 on the one hand; on the other hand, it can also provide convenience for the replacement of the loading tube 708 at a later time.

[0035] In this embodiment, reference Fig.11 Here, one end of the filter tube body 712 is connected to the fixed disc 711, and the curved filter hole 713 is set as a through groove, and the shape of the through groove is set to be curved, which can improve its filtering performance and avoid impurity filtering omission as much as possible.

[0036] Example 3: Based on Example 2, please refer to Fig. 9 The auxiliary structure here includes a heat-conducting ring 801, a support bar 802, a heat-conducting connecting wire 803, and a heat-conducting wire loop 804; the heat-conducting ring 801 corresponds to the setting position of the annular slot 710 and has the same number of settings. The heat-conducting ring 801 is adapted and snap-connected in the annular slot 710, a support bar 802 is provided on the inner side of the heat-conducting ring 801, a heat-conducting connecting wire 803 is provided on the bottom side of the support bar 802, and a heat-conducting wire loop 804 is provided at the bottom end of the heat-conducting connecting wire 803.

[0037] The auxiliary structure provided in this embodiment is mainly used in conjunction with the temperature monitoring and control auxiliary component to perform temperature control work, which is detected by the monitor 601, and then the heater 602, the heating coil 603 and the auxiliary structure cooperate to perform heating work to ensure the quality of its heating work; the heat-conducting ring 801 here corresponds to the setting position of the heating coil 603; when the heat-conducting ring 801 moves to the pipe mouth position of the connecting pipe body 4, the heat-conducting ring 801 contacts the heating coil 603; the heating coil 603 conducts heat to the heat-conducting ring 801, and the heat-conducting ring 801 then passes through the support bar 802 and the heat-conducting connecting wire 803 to the heat-conducting wire coil 804, and the heat-conducting wire coil 804 corresponds to the setting position of the filter tube body 712, the setting number of groups is the same, and the diameter of the circular heat-conducting wire coil 804 is equal to the inner diameter of the filter tube body 712, and the heat-conducting wire coil 804 is placed in the filter tube body 712, and the oil passing through is heated and temperature-controlled by the heat-conducting wire coil 804.

[0038] Here, the heat conductive wire ring 804 is set as a circular mesh, which is convenient for heating and temperature control of the oil on the one hand, and the circular mesh heat conductive wire ring 804 also has a certain filtering and impurity removal effect on the oil passing through the filter tube body 712, and is used in conjunction with the filter tube body 712 to further improve its performance in filtering impurities.

[0039] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A heating device based on biomass combustion intelligent control, characterized in that: The heat supply device comprises a heat supply device body (1), a first delivery pipe (2), a second delivery pipe (3), a connecting pipe body (4), a carrier plate box (5), a temperature monitoring and control auxiliary component, a heat supply and impurity removal component and an auxiliary structure; one end of the connecting pipe body (4) is fixedly connected to one end of the first delivery pipe (2) via a flange, and the other end of the connecting pipe body (4) is fixedly connected to one end of the second delivery pipe (3) via a flange; the other ends of the first delivery pipe (2) and the second delivery pipe (3) are both connected to the heat supply device body (1); a carrier plate box (5) is arranged on the connecting pipe body (4); the carrier plate box (5) is connected to the temperature monitoring and control auxiliary component; the heat supply and impurity removal component is arranged in the carrier plate box (5) and is connected to the auxiliary structure; The temperature monitoring and control auxiliary component comprises a monitor (601), a heater (602), and a heating coil (603); the monitor (601) is connected to the connecting tube body (4); the heater (602) is fixedly arranged on the carrier plate box (5) and connected to the heating coil (603); the heating coil (603) is embedded in the carrier plate box (5); The heat supply and impurity removal component comprises a control motor (701), a supporting movable disk (702), a mounting opening (703), a loading slot (704), a position-limiting mounting retaining groove (705), a water inlet pipe (706), a water outlet pipe (707), a loading pipe (708), a position-limiting mounting retaining ring (709), an annular groove (710), a fixed disc (711), a filter tube body (712), and a curved filter hole (713); the control motor (701) is fixedly arranged on the supporting disk box (5) and connected to the supporting movable disk (702); the supporting movable disk (702) is movably arranged in the supporting disk box (5); the loading slot (704) is symmetrically arranged in the supporting movable disk (702); the mounting opening (703) is arranged on the supporting disk box (5); the mounting opening (711) is provided on the supporting disk box (5); 03) corresponding to the setting position of the loading slot (704), a limited position mounting retaining groove (705) is set at the notch position of one end of the loading slot (704), the mounting opening (703) is connected to the water inlet pipe (706), the bottom side of the carrier disc box (5) is connected to the water outlet pipe (707), the loading tube (708) is placed in the loading slot (704), and a limited position mounting retaining ring (709) is fixedly set at one end of the loading tube (708), a fixed disc (711) is fixedly set on the inner side wall of the loading tube (708), a filter tube body (712) is equidistantly set on the fixed disc (711), and a curved filter hole (713) is equidistantly set on the side wall of the filter tube body (712), and an annular groove (710) is set on the limited position mounting retaining ring (709); The auxiliary structure comprises a heat-conducting ring (801), a support bar (802), a heat-conducting connecting wire (803), and a heat-conducting wire loop (804); the heat-conducting ring (801) and the annular slot (710) are arranged at corresponding positions and have the same number of groups, the heat-conducting ring (801) is adapted and snap-fitted in the annular slot (710), the inner side of the heat-conducting ring (801) is provided with a support bar (802), the bottom side of the support bar (802) is provided with a heat-conducting connecting wire (803), and the bottom end of the heat-conducting connecting wire (803) is provided with a heat-conducting wire loop (804); The heat-conducting ring (801) and the heating ring (603) are arranged at corresponding positions; when the heat-conducting ring (801) moves to the position of the pipe mouth connected to the pipe body (4), the heat-conducting ring (801) contacts the heating ring (603).

2. According to claim 1, a biomass combustion-based intelligent control heating device is characterized in that: The heating ring (603) is arranged at the side of the pipe opening of the connecting pipe body (4).

3. According to claim 1, a biomass combustion-based intelligent control heating device is characterized in that: The loading through slot (704) is arranged in a columnar shape, and the loading through slot (704) corresponds to the position of the pipe opening of the connecting pipe body (4), and two loading through slots (704) are symmetrically arranged in the supporting movable plate (702); when the loading through slot (704) passes through the position of the pipe opening of the connecting pipe body (4), the center lines of the two are on the same straight line.

4. The intelligent control heating device based on biomass combustion according to claim 1 is characterized in that: The water outlet pipe (707) and the water inlet pipe (706) are arranged in the same number of groups and are symmetrically arranged. The water outlet pipe (707) and the loading slot (704) are arranged at corresponding positions, and the water inlet pipe (706) and the loading slot (704) are arranged at corresponding positions. When the loading slot (704) passes through the water inlet pipe (706) and the water outlet pipe (707), the center lines of the three are on the same straight line.

5. The intelligent control heating device based on biomass combustion according to claim 1 is characterized in that: The position of the limit installation retaining ring (709) corresponds to that of the limit installation retaining groove (705), and the two are adapted to be snap-connected; the number of groups of the loading tubes (708) and the loading through grooves (704) is the same, and one loading tube (708) is placed in one loading through groove (704).

6. The intelligent control heating device based on biomass combustion according to claim 1 is characterized in that: One end of the filter tube body (712) is connected to the fixed disc (711), and the curved filter hole (713) is configured as a through groove, the shape of which is configured as a curved shape.

7. The intelligent control heating device based on biomass combustion according to claim 1 is characterized in that: The heat conductive wire loop (804) is arranged in a circular mesh shape, and the heat conductive wire loop (804) and the filter tube body (712) are arranged at corresponding positions and have the same number of groups, and the diameter of the circular heat conductive wire loop (804) is arranged to be equal to the inner diameter of the filter tube body (712).

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