CN214194016U - Superconductor asphalt thermal equipment - Google Patents

Superconductor asphalt thermal equipment Download PDF

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Publication number
CN214194016U
CN214194016U CN202023022573.4U CN202023022573U CN214194016U CN 214194016 U CN214194016 U CN 214194016U CN 202023022573 U CN202023022573 U CN 202023022573U CN 214194016 U CN214194016 U CN 214194016U
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electric heating
heat
chamber
superconductor
pipe
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赵建坤
周荣生
张新为
卢红苗
王刚
王振东
马四海
张强
刘恒
李广通
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Beijing Zhongrong Technology Co ltd
Highway Maintenance Co Ltd of CSCEC Road and Bridge Group Co Ltd
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Beijing Zhongrong Technology Co ltd
Highway Maintenance Co Ltd of CSCEC Road and Bridge Group Co Ltd
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Abstract

The utility model provides a superconductor asphalt thermal equipment, belonging to the technical field of asphalt pavement construction and maintenance, comprising a tank body, a superconducting heat pipe and an electric heating chamber, wherein the bottom in the tank body is provided with a heat preservation chamber; the superconducting heat pipes are arranged in a row and are arranged in the tank body, and the lower ends of the superconducting heat pipes extend into the heat-preserving heat chamber; the electric heating chambers are arranged in the heat preservation chambers, the number of the electric heating chambers is the same as the number of rows of the superconducting heat pipes, and the electric heating chambers are mutually independent; the lower ends of the superconducting heat pipes in the same line are sealed in an electric heating chamber, and each electric heating chamber is internally provided with an electric heating pipe. The utility model provides a superconductor pitch thermotechnical equipment, jar body bottom set up the heat preservation hot chamber, set up independent electric heating chamber in the heat preservation hot chamber, and independent electric heating chamber seals electric heating pipe, and what make the heat that electric heating pipe gived off more concentrated is transmitted to the heating part acting by superconducting heat pipe, has reached that the heat runs off for a short time, and the purpose that the calorific value high-usage has reduced the cost of pitch heating.

Description

Superconductor asphalt thermal equipment
Technical Field
The utility model belongs to the technical field of bituminous paving construction and maintenance, more specifically say, relate to a superconductor pitch thermotechnical equipment.
Background
Asphalt heating is an important component of asphalt concrete pavement construction and road maintenance. The construction quality of the asphalt pavement is restricted, and the maintenance cost of the pavement is also restricted; and is also closely related to the labor intensity of practitioners, construction environment and surrounding ecological environment. For decades, extensive scientific and technical workers and related experts and scholars have made continuous efforts around the subject.
From firewood chopping, steam, coal, fuel oil, natural gas and heat conducting oil in the eighties of the last century to the heating of asphalt by superconductor equipment of today. Each time the asphalt heating technology is improved, considerable social and economic benefits are obtained to different degrees.
Brief introduction of superconducting heat pipe: superconducting heat pipes are a new type of heat transfer element that has been developed in the last decade. The heating principle is that a special medium is filled in a closed metal tube, and the heat carrying capacity of the medium is large. After heating, high-energy physical change is generated immediately, and heat is transferred rapidly. The superconducting heat pipe technology utilizes electricity to heat the superconducting heat pipe and then transfers heat to asphalt, breaks through the traditional heat transfer mode of taking water and oil as media, can realize long-distance and rapid transmission of a large amount of heat through a tiny sectional area without external power, and thus, the aims of high efficiency, energy conservation, low consumption and environmental protection are realized. By using the superconductive heat pipe technology, the heat transfer speed can reach 80-100 cm/s, which is thousands times of that of silver, copper and aluminum, the pipe is vacuum and pressureless, the heat loss is reduced, and the heat value utilization rate is improved.
The existing equipment for heating asphalt by adopting a superconducting heat pipe still has the problem of low heat value utilization rate.
SUMMERY OF THE UTILITY MODEL
An object of the utility model is to provide a superconductor pitch thermal equipment aims at solving the problem that the calorific value utilization ratio is low that present superconductor pitch thermal equipment exists.
In order to achieve the above object, the utility model adopts the following technical scheme: provided is superconductor asphalt thermal equipment, which comprises: the heat insulation device comprises a tank body, a superconducting heat pipe and an electric heating chamber, wherein a heat insulation chamber is arranged at the bottom in the tank body; the superconducting heat pipes are arranged in the tank body in a row, and the lower ends of the superconducting heat pipes extend into the heat-preservation chamber; the electric heating chambers are arranged in the heat-preservation chambers, the number of the electric heating chambers is the same as the number of rows of the superconducting heat pipes, and the electric heating chambers are mutually independent; the lower end of the superconducting heat pipe on the same line is sealed in one electric heating chamber, and each electric heating chamber is internally provided with an electric heating pipe.
As another embodiment of the application, a partition plate is arranged at the bottom of the tank body, and the heat-preservation hot chamber is arranged below the partition plate; baffles connected with the partition plates are arranged on two sides of the lower end of each row of the superconducting heat pipe, and a bottom plate is arranged between the two baffles; the baffle, the bottom plate and the partition plate at the lower end of each row of the superconducting heat pipes respectively form the electric heating chambers which are independent of each other.
As another embodiment of the present application, both ends of each of the baffles are respectively connected to an inner wall of the tank body.
As another embodiment of the present application, the tank body is provided with communication holes corresponding to each of the electric heating chambers, the communication holes are communicated with the electric heating chambers and are disposed at the same end of the electric heating chambers, and the electric heating pipes are inserted into the electric heating chambers through the communication holes.
As another embodiment of this application, through-hole department is equipped with the connecting pipe, the connecting pipe with the outer wall fixed connection of the jar body, electric heating pipe's outer end with the connecting pipe is connected.
As another embodiment of the application, the bottom and the surrounding inner wall of the heat-preservation hot chamber are provided with heat-absorption heat-preservation layers.
As another embodiment of the application, the heat absorption and insulation layer is any one of an aluminum oxide plate, a micro-nano heat insulation plate, a foamed cement block and expanded perlite.
As another embodiment of the application, waterproof boards are arranged on the upper side and the lower side of the outer end of the electric heating pipe, a waterproof wire slot is formed between the waterproof boards, a distribution box is arranged below the waterproof wire slot, and the wiring of the electric heating pipe is distributed along the waterproof wire slot and is connected with the distribution box; the waterproof wire groove is also provided with a buckle plate for protecting the wiring.
As another embodiment of the application, the superconductor asphalt thermal equipment further comprises an oil fume purification device.
The utility model provides a superconductor pitch thermotechnical equipment's beneficial effect lies in: compared with the prior art, the utility model discloses superconductor pitch thermotechnical equipment, jar body bottom set up the heat preservation hothouse, set up independent electric heating chamber in the heat preservation hothouse, and independent electric heating chamber is sealed up electric heating pipe, and what make electric heating pipe give off is more concentrated is transmitted to the heating part acting by superconducting heat pipe, has reached that the heat runs off for a short time, and the purpose that the calorific value high-usage has reduced the power consumptive expense of heating, has reduced pitch heating cost.
Drawings
In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required for the embodiments or the prior art descriptions will be briefly described below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and it is obvious for those skilled in the art to obtain other drawings without creative efforts.
Fig. 1 is a schematic view of an internal structure of a superconductor pitch thermal apparatus provided in an embodiment of the present invention;
FIG. 2 is a schematic side view of the superconductor pitch thermal apparatus shown in FIG. 1;
fig. 3 is an external structural schematic diagram of the superconductor pitch thermal apparatus provided in fig. 1.
In the figure: 1. a tank body; 2. a superconducting heat pipe; 3. a partition plate; 4. a keel; 5. an electrically heated chamber; 6. a baffle plate; 7. a support leg; 8. an electric heating tube; 9. a heat preservation hot chamber; 10. an asphalt pump; 11. an oil outlet; 12. an oil fume purification device; 13. an oil filling port; 14. a connecting pipe; 15. buckling the plate; 16. a waterproof sheet; 17. distributing grooves; 18. the distribution box.
Detailed Description
In order to make the technical problem, technical solution and advantageous effects to be solved by the present invention more clearly understood, the following description is given in conjunction with the accompanying drawings and embodiments to illustrate the present invention in further detail. It should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.
Referring to fig. 1 to fig. 3, the superconducting asphalt thermal equipment provided by the present invention will now be described. The superconductor asphalt thermal equipment comprises a tank body 1, a superconducting heat pipe 2 and an electric heating chamber 5, wherein a heat preservation chamber 9 is arranged at the bottom in the tank body 1; the superconducting heat pipes 2 are arranged in rows and installed in the tank body 1, and the lower ends of the superconducting heat pipes extend into the heat preservation chamber 9; the electric heating chambers 5 are arranged in the heat preservation chamber 9, the number of the electric heating chambers is the same as the number of the rows of the superconducting heat pipes 2, and the electric heating chambers are mutually independent; the lower ends of the superconducting heat pipes 2 in the same row are sealed in an electric heating chamber 5, and an electric heating pipe 8 is arranged in each electric heating chamber 5.
The utility model provides a superconductor pitch thermotechnical equipment compares with prior art, and 1 bottom of the jar body sets up heat preservation hot chamber 9, sets up independent electric heating chamber 5 in heat preservation hot chamber 9, and independent electric heating chamber 5 seals electric heating pipe 8, and what make the heat that electric heating pipe 8 gived off more concentrated is transmitted to the heating part acting by superconductive heat pipe 2, and it is little to have reached the heat loss, and the purpose that the calorific value utilization ratio is high reduces the power consumptive expense of heating.
Wherein, set up oiling mouth 13 on jar body 1, the lower part sets up oil-out 11, and the outside sets up pitch pump 10, and the outside of superconductive heat pipe 2 sets up the fin, improves heat radiating area, is conventional technique.
Herein, the top of the tank body 1 is provided with a round hole or a square hole with the diameter of 50 cm, a round pipe with the height of 30 cm is welded on the hole, and a rain-proof cover is additionally arranged to serve as the oil injection port 13. The lower part of the outer side of one end of the tank body 1, which is provided with an oil outlet 11, is welded with a pump seat, and an asphalt pump 10 is arranged on the pump seat and is connected with the oil outlet 11 through an oil outlet pipe.
The number of the electric heating tubes 8 in each electric heating chamber 5 may be two, and the two are designed according to the heat value, the power of the electric heating tubes 8, and the like.
As for the outer shape of the can body 1, various shapes can be designed, for example: rectangular parallelepiped, circular, polygonal, etc.
The utility model provides a superconductor pitch thermotechnical equipment, main advantage is as follows:
(1) compact structure, and integrates asphalt storage, heating and conveying.
(2) The energy is saved, more than 90% of asphalt mixing plants in production and use natural gas as a heat source, and superconductor asphalt thermal engineering equipment can use electricity as the heat source. And the off-peak electricity production can be selected, thereby saving precious energy for the country.
(3) The asphalt heating cost is low. The super-conductor asphalt thermal equipment adopts the asphalt heating technology of the super-conductor heat pipe 2, and the heat value utilization rate reaches more than 95 percent.
(4) The quality of the hot asphalt is guaranteed. Because the temperature is uniformly raised up and down, left and right by three-dimensional heating, stirring disturbance is not needed, and the problems of low local temperature of asphalt and aging of local asphalt are avoided.
(5) The pipeline is simple and practical. The 2 paths of the superconducting heat pipe and the heating unit are completely arranged in the tank, so that the factors of rust, artificial damage and the like are avoided, the service life is prolonged, and the service life reaches 10 ten thousand hours.
(6) Saving labor and time. The equipment is used for heating (90 #30 tons of matrix asphalt) to 130 ℃ at normal temperature (20-30 ℃) for 15 hours, and the time can be customized and can be long or short. The set target time can be achieved by adjusting the power. The heating costs per ton of bitumen are the same. By utilizing the existing automatic control technology, the asphalt heating can be fully automatic without manual watching.
(7) Is environment-friendly. Because of adopting the electric heat source and the advanced heat conducting element and the process design, no harmful gas is generated in the heating process to be discharged, the oil fume purification device 12 is arranged at the exhaust port of the equipment, no harmful gas is discharged in the heating process, and the heat value utilization rate reaches more than 95 percent.
As a specific embodiment of the superconductor pitch thermal equipment provided by the present invention, please refer to fig. 1 to 2, a partition plate 3 is disposed at the bottom of a tank body 1, and a heat preservation chamber 9 is disposed below the partition plate 3; baffles 6 connected with the partition plate 3 are arranged on two sides of the lower end of each row of the superconducting heat pipes 2, and a bottom plate is arranged between the two baffles 6; the baffle 6, the bottom plate and the partition 3 at the lower end of each row of the superconducting heat pipes 2 respectively form independent electric heating chambers 5.
The specific embodiment about the installation of the superconducting heat pipe 2 is as follows: a plurality of parallel keels 4 are welded on the bottom of the tank body 1 upwards by 100 cm, two ends of each keel 4 are horizontally welded with two sides of the tank body 1, supporting legs 7 are welded on each keel 4 by 50 cm, and the supporting legs 7 are perpendicular to the bottom of the tank body 1 and are firmly welded. The distance between every two keels is 22 cm. Set up width 25 centimetres baffle 3, overlap on two fossil fragments 4, overlap joint portion and 4 planes full weld of fossil fragments to with jar body 1 both sides wall full weld, superconductive heat pipe 2 sets up on baffle 3. The width of the partition board 3 can be an integer multiple of the distance between the keels 4, that is, one partition board 3 can be lapped on three, four and other keels 4. The height of the heat preservation chamber 9, the arrangement distance of the keels 4, the width of the partition plate 3 and the like are flexibly arranged and are not limited to specific numerical values.
In the embodiment, the superconducting heat pipe 2 is connected with the partition plate 3 in advance, when the superconducting heat pipe 2 and the partition plate 3 are installed in the tank body 1, the superconducting heat pipe 2 and the partition plate 3 are used as a standardized unit module, and only the keel 4 is arranged in the tank body 1 for supporting, so that the installation is simple and convenient.
As a specific implementation manner of the embodiment of the present invention, please refer to fig. 1 to 2, both ends of each baffle 6 are respectively connected to the inner wall of the tank body 1.
Referring to fig. 1 and 2, a tank 1 is provided with a communication hole corresponding to each electric heating chamber 5, the communication hole is communicated with the electric heating chamber 5 and is disposed at the same end of the electric heating chamber 5, and an electric heating pipe 8 is inserted into the electric heating chamber 5 through the communication hole. The installation of the electric heating tube 8 is facilitated through the arranged communication hole, and the part connected with the tank body 1 is still sealed after the electric heating tube 8 is installed, so that the sealing performance of the electric heating chamber 5 is ensured.
As a specific implementation manner of the embodiment of the present invention, please refer to fig. 2, the connection hole is provided with a connection pipe 14, the connection pipe 14 is fixedly connected with the outer wall of the tank body 1, and the outer end of the electric heating pipe 8 is connected with the connection pipe 14. The connection of the connection pipe 14 includes two connection methods: firstly, the connecting pipe 14 can be connected through a flange arranged on the outer wall of the tank body 1, and the corresponding flange is arranged on the connecting pipe 14; secondly, one end of the connecting pipe 14 is inserted into the tank body 1 and is flush with or slightly shorter than the inner wall of the tank body 1, and the other end is exposed outside the tank body 1 and is directly connected with the tank body 1 in a full welding way.
A connection pipe 14 is provided to facilitate the installation of the electric heating tube 8. The outer end of the electric heating tube 8 is provided with a thread structure which is screwed and fixed with the internal thread of the connecting tube 14.
As a specific implementation manner of the embodiment of the present invention, please refer to fig. 1 to 2, the bottom and the surrounding inner wall of the heat preservation chamber 9 are provided with a heat absorption and preservation layer. Heat absorbing and storing materials such as aluminum oxide plates, heat storing blocks and the like are paved in the large heat preservation chamber 9, and the materials absorb and store heat which cannot be timely conveyed away by the superconducting heat pipe 2. After the asphalt is heated and the power is cut off, the heat stored by the materials is slowly released to keep the temperature of the equipment. The off-peak electricity production is selected, so that precious energy is saved for the country.
As a specific implementation manner of the embodiment of the present invention, please refer to fig. 1 to 2, the heat absorption and insulation layer is any one of an aluminum oxide plate, a micro-nano heat insulation plate, a foamed cement block, and expanded perlite, but not limited to the embodiments listed herein, and since the types of the heat insulation materials are many, the heat insulation and heat storage functions can be performed by selecting the appropriate heat insulation materials.
As a specific implementation manner of the embodiment of the present invention, please refer to fig. 2 to 3, waterproof boards 16 are respectively disposed on upper and lower sides of an outer end of the electric heating tube 8, a waterproof wire slot is formed between the waterproof boards 16, a distribution box 18 is disposed below the waterproof wire slot, and a connection wire of the electric heating tube 8 is disposed along the waterproof wire slot and connected to the distribution box 18; the waterproof wire casing is also provided with a buckle plate 15 for protecting the wiring. Wherein, the waterproof plate 16 is a stainless steel plate. The buckle plate is made of stainless steel plates, aluminum plates and the like and is clamped with the waterproof wire slot.
The specific installation mode is as follows: the center line of the flange of the electric heating pipe 8 is upwards 15 cm, a waterproof plate 16 with the width of 20 cm is welded along the length direction of the same row of exposed electric heating pipes 8, the waterproof plate 16 with the width of 20 cm is welded downwards 15 cm in parallel, the length of the waterproof plate exceeds the length of one row of electric heating pipes 8, a buckle plate 15 is arranged between the two waterproof plates 16, and the waterproof wire casing is completed. The lower waterproof board 16 is provided with a wire hole through which a wire is led into the distribution box 18. A distributing groove 17 is welded and installed on the tank body 1 below the distributing box 18, and an electric wire in the distributing groove 17 is connected with a distribution control cabinet.
As another embodiment of the present application, referring to fig. 1 to fig. 3, the superconductor asphalt thermal equipment further includes an oil fume purification device 12. A square opening of 20 multiplied by 20 cm is reserved at the position 131 m away from the oil filling opening at the top of the tank body 1, a square flange connecting disc is welded at the square opening and is connected with the oil fume purification device 12, and the breathing opening is manufactured. The lampblack purification device 12 is made of an existing product and is purchased with a proper model, and the detailed explanation is omitted.
The effect of the superconductor pitch thermal equipment provided by the present embodiment is illustrated by comparison and data analysis.
At present, more than 90% of asphalt mixing plants used and in production in the market use heat-conducting oil asphalt heating technology, and 5% of production enterprises use superconducting heat pipe asphalt heating technology.
The following three aspects of the supporting equipment facilities in the production and use of the superconductor asphalt thermal equipment and the heat-conducting oil asphalt heating equipment, the early investment, the production operation and the maintenance cost and the like are compared in detail. The heat conducting oil asphalt heating technology has large market occupation. However, the disadvantages of this type of device are also evident, for example, (1) the heating times are too long, such as: the natural temperature (20-30 ℃) is increased to 100 ℃ and needs 48 hours or even longer time; (2) the heat value utilization rate is low. The heat conducting oil circulates in the pipeline after being heated, and the scaling phenomenon of the hot oil on the inner wall of the pipeline is more serious along with the prolonging of the service time, so that the heat conduction of the heat conducting oil is directly influenced. The use and maintenance costs are high. In the circulation process of the heat conduction oil, the heat conduction of the heat conduction oil is influenced by the scaling inside the circulation pipeline, and the heat utilization rate can only be maintained between 34 and 45 percent; (3) the pipeline needs to be cleaned regularly, cleaning fluid and labor cost need about 3000-5000 yuan, after new heat conduction oil is added and supplemented, the heat conduction oil needs to be dehydrated by system circulation, the time is 48 hours in short time, even the time is longer, the heat conduction oil boiler works continuously for 48 hours, and the gas cost expenditure is as follows: the gas consumption of 100 ten thousand kilocalories of gas-fired boilers per hour is 117.6 cubic meters per hour, and the gas consumption per cubic meter is calculated according to 2.8 yuan per cubic meter: the consumption of natural gas in 48 hours is 117.6 cubic meters/hour multiplied by 48 hours which is 5644.8 cubic meters, the gas cost is 5644.8 cubic meters multiplied by 2.8 yuan/cubic meter which is 15805.4 yuan, and the use cost is increased; (4) the capital investment of facilities is large due to the early-stage matched equipment. The method comprises the steps of a heat conduction oil boiler, a hot oil circulating pipeline, manufacturing and installation, a hot oil circulating pump, heat conduction oil, a natural gas pressure reducing station, manufacturing and installation of pipelines and the like. The supporting equipment facilities are in place, and the heat conducting oil heating equipment is in normal production and operation. (5) The production cost of asphalt heating is increased, and the production cost of the asphalt material is also increased. The natural gas can generate toxic and harmful gases such as carbon dioxide and the like during combustion, and the asphalt heating cost is increased by purchasing the emission indexes of the toxic and harmful gases every year. (see attached Table 1 for details)
Figure BDA0002838296020000081
The superconducting asphalt thermal equipment is used for heating asphalt, and the following achievements can be obtained (the data are shown in the attached table 2 in detail):
(1) simple corollary equipment and facilities. The super-conductor asphalt thermal equipment adopts a super-conductor heat pipe asphalt heating technology and is independent asphalt heating equipment. The oil unloading and conveying machine carried by the machine in production can complete the oil unloading and conveying functions. Only one item of matched equipment and facilities saves investment by more than 30 ten thousand yuan compared with heat-conducting oil asphalt heating equipment.
The superconductor asphalt thermal equipment can be produced by 1 machine or by connecting a plurality of machines in parallel. The oil unloading and conveying mechanism is simple in structure, can move and walk, and is convenient to use. The operation cost of pipeline maintenance and the like is saved.
Figure BDA0002838296020000091
(2) The heating cost of the asphalt is reduced by 30-50%; the heating time is shortened and can be customized. The heat conducting oil asphalt heating equipment generally uses natural gas as a heat source to heat asphalt. The heat conducting oil is in a pipeline arranged in the asphalt tank, and the purpose of heating the asphalt is achieved through forced circulation of a hot oil pump. Taking heating 200 tons of asphalt as an example (100-130 ℃), 10 hours or even longer time is generally needed, and the cost of consumed fuel gas is as follows; the gas consumption per hour of a 100 ten thousand kilocalories gas boiler is 117.6 cubic meters per hour. The price of natural gas is calculated as 2.8 yuan/cubic meter: 117.6 cubic meters/hour × 10 hours × 2.8 yuan/cubic meter 3292.8 yuan; 3292.8 yuan/200 ton/16.5 yuan/ton, and the cost of manpower, electricity, maintenance and the like is not included here. The heating cost of the asphalt from 100 ℃ to 130 ℃ is 16.5 yuan/ton per ton.
The heating power of the complete machine of the superconductor asphalt thermal equipment is 132 kilowatts/hour, the temperature of 30 tons of asphalt is raised from 100 ℃ to 130 ℃, and the electric energy is 576 kilowatts/hour in the process of temperature rise. Calculating according to the step electricity price and the peak electricity price of 1.03 yuan kilowatt/hour: 576 kw/hr × 1.03 kw/hr 593.28 yuan, 593.28 yuan/30 ton 19.8 yuan/ton, and the heating cost per ton of asphalt is 19.8 yuan. This is the net heating cost. If the power is leveled to 0.73 yuan kilowatt/hour, the calculation is as follows: 576 kilowatts/hour x 0.73 kilowatts/hour is 420.5 yuan. 420.5 yuan/30 ton is 14 yuan/ton, valley current is 0.43 yuan kilowatt/hour, and calculation is carried out: 576 kilowatt/hour x 0.43 yuan kilowatt/hour is 247.7 yuan, 247.7 yuan/30 ton is 8.2 yuan/ton, and the heating cost of each ton of asphalt is 8.2 yuan, so that the heating cost of the asphalt is lower. After the temperature rise of the asphalt is finished, the special external heat preservation design of the superconductor asphalt thermal equipment enables partial heat stored in the bottom space of the equipment to be preserved for 10 hours without losing the temperature.
After the asphalt reaches the set temperature, the heat conduction oil of the asphalt heating equipment still continues to circularly work to prevent the temperature of the asphalt from decreasing, and the cost is as follows: the heat value of natural gas is generally 8500 kilocalories per cubic meter, the heat conducting oil boiler is 100 kilocalories, and the calculation formula is as follows: 100 kilocalories per hour/8500 kilocalories per cubic meter 117.6 cubic meters per hour. 2.8 yuan per cubic meter of natural gas: 117.6 m/hr 2.8 yuan/m 329.3 yuan, 329.3 yuan per hour for system operation.
The successful research and development of the superconductor asphalt thermal equipment is a revolution of the existing heat transfer oil heating technology. The asphalt heating technology instead of heat-conducting oil is bound to be moved into the industries of construction engineering, traffic engineering, road transportation, petroleum exploitation, petrochemical industry and the like, and great social and economic benefits are brought into play.
The above description is only exemplary of the present invention and should not be taken as limiting the scope of the present invention, as any modifications, equivalents, improvements and the like made within the spirit and principles of the present invention are intended to be included within the scope of the present invention.

Claims (9)

1. The superconductor pitch thermal equipment is characterized by comprising:
the bottom in the tank body is provided with a heat preservation hot chamber;
the superconducting heat pipes are arranged in the tank body in a row, and the lower ends of the superconducting heat pipes extend into the heat-preservation chamber; and
the electric heating chambers are arranged in the heat-preservation chambers, the number of the electric heating chambers is the same as that of the rows of the superconducting heat pipes, and the electric heating chambers are mutually independent; the lower end of the superconducting heat pipe on the same line is sealed in one electric heating chamber, and each electric heating chamber is internally provided with an electric heating pipe.
2. The superconductor pitch thermal apparatus of claim 1, wherein a partition is disposed at the bottom of the tank, and the heat-preservation chamber is disposed below the partition; baffles connected with the partition plates are arranged on two sides of the lower end of each row of the superconducting heat pipe, and a bottom plate is arranged between the two baffles; the baffle, the bottom plate and the partition plate at the lower end of each row of the superconducting heat pipes respectively form the electric heating chambers which are independent of each other.
3. The superconductor pitch thermal apparatus of claim 2, wherein both ends of each baffle are connected to the inner wall of the tank, respectively.
4. The superconductor pitch thermal apparatus of claim 1, wherein the tank body is provided with a communication hole corresponding to each of the electric heating chambers, the communication hole is communicated with the electric heating chamber and is disposed at the same end of the electric heating chamber, and the electric heating pipe is inserted into the electric heating chamber through the communication hole.
5. The superconductor pitch thermal apparatus of claim 4, wherein a connection pipe is disposed at the connection hole, the connection pipe is fixedly connected to the outer wall of the tank, and the outer end of the electric heating pipe is connected to the connection pipe.
6. The superconductor pitch thermal apparatus of claim 1, wherein the bottom and surrounding inner walls of the thermal chamber are provided with heat absorbing and insulating layers.
7. The superconductor asphalt thermal engineering equipment according to claim 6, wherein the heat absorption and insulation layer is any one of an alumina plate, a micro-nano heat insulation plate, a foamed cement block and expanded perlite.
8. The superconductor asphalt thermal equipment according to claim 1, wherein waterproof boards are respectively arranged on the upper side and the lower side of the outer end of the electric heating pipe, a waterproof wire slot is formed between the waterproof boards, a branch box is arranged below the waterproof wire slot, and the wiring of the electric heating pipe is arranged along the waterproof wire slot and is connected with the branch box; the waterproof wire groove is also provided with a buckle plate for protecting the wiring.
9. The superconductor pitch thermal apparatus of claim 1, further comprising an oil fume purification device.
CN202023022573.4U 2020-12-15 2020-12-15 Superconductor asphalt thermal equipment Active CN214194016U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN117563377A (en) * 2024-01-17 2024-02-20 中建路桥集团有限公司 Superconducting asphalt fume purifying system and method

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN117563377A (en) * 2024-01-17 2024-02-20 中建路桥集团有限公司 Superconducting asphalt fume purifying system and method
CN117563377B (en) * 2024-01-17 2024-05-10 中建路桥集团有限公司 Superconducting asphalt fume purifying system and method

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