Conduction oil sampler

Abstract

The utility model provides a heat-conducting oil sampler, which belongs to heat-conducting oil furnace system corollary equipment and comprises a vortex tube, a cold air pipeline and a sampler shell, the cold air pipeline is positioned in the sampler shell, and two ends of the cold air pipeline penetrate out of corresponding side wall end surfaces of the sampler shell; one end of the cold air pipeline is connected with the vortex tube; an air inlet of the vortex tube is communicated with a compressed air inlet pipeline; the side wall of the sampler shell is provided with a hot oil inlet pipeline and a cold oil outlet pipeline, and the hot oil inlet pipeline and the cold oil outlet pipeline are positioned on different sides; the hot oil inlet pipeline and the cold oil outlet pipeline are respectively provided with a cold oil outlet block valve and a hot oil inlet block valve; and fins are arranged on the outer wall of the cold air pipeline part in the sampler shell. The vortex tube rapid refrigeration principle is adopted, high-temperature heat conduction oil is rapidly cooled, and the sampling and cooling time of the high-temperature heat conduction oil is shortened.

Description

TECHNICAL FIELD

[0001] The utility model belongs to the heat conducting oil furnace system supporting equipment, concretely relates to a heat conducting oil sampler. BACKGROUND

[0002] The heat conducting oil furnace heat supply system is a heat supply system taking heat conducting oil as heat supply medium, has the characteristics of high heat supply temperature, low system pressure, high heat efficiency and high automation, and has wide application in the petroleum and natural gas industry and the chemical industry. Since the heat conducting oil furnace system operates at high temperature of heat conducting oil, the highest temperature can reach 400 DEG C, in order to prevent the coking and metamorphic change of heat conducting oil, according to the relevant requirements, the first heat conducting oil sampling inspection needs to be carried out within 3 months of the operation of the heat conducting oil furnace system, and at least once a year thereafter. When the heat conducting oil sampling inspection is carried out, a small amount of high-temperature heat conducting oil needs to be discharged from the operating heat conducting oil furnace system, and according to the relevant requirements, the discharged high-temperature heat conducting oil should not be water-cooled, but should be air-cooled and sealed to below 50 DEG C, so as to be bottled and inspected.

[0003] The current heat conducting oil sampling cooler generally adopts a cooling cylinder or coil structure, discharges the high-temperature heat conducting oil into the cooling cylinder or coil, and cools it by natural ventilation or fan blowing. Since the heat transfer coefficient of the outer wall of the cooling cylinder or coil and the air is low, the heat conducting oil sampling cooling time is long, usually several hours, and the heat conducting oil sampler is heavy.

[0004] It is found through retrieval that the boiler heat conducting oil sampler and sampling method disclosed in the publication No. CN106017988B belong to the boiler technical field. It solves the problems of inconvenience and low safety of the existing boiler heat conducting oil sampling. The boiler heat conducting oil sampler comprises a cooling cylinder, a sampling pipe and an oil return pipe, the cooling cylinder comprises a core cylinder for cooling heat conducting oil and a hole plate arranged outside the core cylinder, a plurality of ventilation holes are formed in the hole plate, one end of the sampling pipe is provided with an oil guide valve, the other end is provided with a sampling valve, the sampling pipe and the core cylinder are connected in communication through a vertically arranged connecting pipe, one end of the oil return pipe is connected to the top end of the core cylinder, the oil return pipe is in communication with the core cylinder, and the other end of the oil return pipe is provided with an oil return valve. When sampling, the high-temperature heat conducting oil in the boiler is first transported into the core cylinder for static air cooling, and when the cooling is completed, the sampling valve on the sampling pipe is opened, and the heat conducting oil can be sampled. The sampler and the sampling method are convenient to operate and safe. The invention adopts natural air cooling mode for heat conducting oil cooling and sampling, that is, the high-temperature heat conducting oil is placed in the core cylinder 4 in the middle of the cooling cylinder 1, and natural air cooling is carried out through the ventilation holes 51 on the outer wall of the cooling cylinder 1.

[0005] The application discloses a kind of air-cooled heat conducting oil cooling sampler, including cooling coil, the inlet end of the cooling coil is equipped with liquid inlet valve, the outlet end of the cooling coil is equipped with liquid outlet valve, the cooling coil outlet is communicated with sampling bottle, the top end of the cooling coil is communicated with exhaust pipe, exhaust valve is installed on the exhaust pipe, and exhaust fan is installed on the front side of the cooling coil.The technical solution is combined with the way of cooling coil and exhaust fan, the heating area of heat conducting oil is increased by cooling coil, and the rapid natural cooling of heat conducting oil is realized by exhaust fan, which avoids the sharp cooling of heat conducting oil by traditional water cooling method, and ensures the accuracy of detection data in later period.The application uses fan blowing method to cool heat conducting oil, and high-temperature heat conducting oil is placed in cooling coil 2, and exhaust fan 3 is used to forcibly blow and cool heat conducting oil.

[0006] The existing heat conducting oil sampler is naturally cooled or forced air-cooled, which cannot realize the rapid cooling of high-temperature heat conducting oil and cannot reduce the cooling time of high-temperature heat conducting oil sampling. Practical new type content

[0007] In order to overcome the problem that the existing high-temperature heat conducting oil is slowly cooled and the sampling cooling time is long, the utility model provides a kind of heat conducting oil sampler, and the utility model uses the principle of vortex tube rapid refrigeration, realizes the rapid cooling of high-temperature heat conducting oil, and reduces the sampling cooling time of high-temperature heat conducting oil.

[0008] The technical scheme adopted by the utility model is as follows:

[0009] A kind of heat conducting oil sampler, including vortex tube, cold air pipeline and sampler shell, the cold air pipeline is located in sampler shell, and the both ends of cold air pipeline are worn out the side wall end face of corresponding sampler shell;One end of cold air pipeline is connected with vortex tube;The gas inlet of vortex tube is communicated with compressed gas inlet pipeline;The side wall of sampler shell is provided with hot oil inlet pipeline and cold oil outlet pipeline, and hot oil inlet pipeline and cold oil outlet pipeline are located in different sides;Cold oil outlet shut-off valve and hot oil inlet shut-off valve are respectively arranged on hot oil inlet pipeline and cold oil outlet pipeline;The outer wall of the part of cold air pipeline in sampler shell is provided with fin.

[0010] The hot oil inlet pipeline is located at the tangential position of the shell near the pipeline cold air outlet of cold air pipeline in sampler shell, and the cold oil outlet pipeline is located at the tangential position of the shell near the other end face in sampler shell.

[0011] The vortex tube cold air outlet of vortex tube is communicated with cold air pipeline;The hot air outlet of vortex tube is communicated with atmosphere.

[0012] The gas inlet of vortex tube is communicated with compressed gas inlet pipeline through compressed gas inlet ball valve.

[0013] The compressed gas inlet ball valve is connected with the sampler shell and the compressed air pipeline flange or welded at both ends.

[0014] The hot oil inlet cutoff valve is connected with the sampler shell by flange or welding at one end and connected with the hot oil inlet pipeline by flange or welding at the other end; the cold oil outlet cutoff valve is connected with the sampler shell by flange or welding at one end and connected with the cold oil outlet pipeline by flange or welding at the other end.

[0015] The vortex tube is connected with the cold air pipeline through a flange connector.

[0016] The cold air pipeline passes through the left and right sections of the sampler shell and is sealingly connected with the left and right sections of the sampler shell at both ends.

[0017] The sampler shell is in a cylindrical shape, a cuboid shape or a polyhedral structure.

[0018] The fins are multiple and uniformly distributed on the outer wall of the cold air pipeline.

[0019] The utility model discloses the beneficial effect:

[0020] The utility model discloses a sampler, which comprises a sampler shell, a compressed gas inlet ball valve, a hot oil inlet cutoff valve, a cold oil outlet cutoff valve, a vortex tube, a cold air pipeline and fins.

[0021] Compared with the traditional fan, the coil forced cooling sampler or the natural cooling sampler, the utility model is light in weight, small in size and convenient and small. DRAWINGS

[0022] Figure 1 It is the front view of the heat conducting oil sampler.

[0023] Figure 2 It is the left view of the heat conducting oil sampler.

[0024] Figure 3 It is the right view of the heat conducting oil sampler.

[0025] The utility model will be further described in detail below with reference to the drawings.

[0026] In the drawings, the reference signs are:

[0027] 1, vortex tube; 2, hot air outlet; 3, vortex tube cold air outlet; 4, flange connector; 5, compressed gas inlet ball valve; 6, compressed gas inlet pipe; 7, cold air pipe; 8, fin; 9, pipe cold air outlet; 10, sampler housing; 11, cold oil outlet shut-off valve; 12, cold oil outlet pipe; 13, hot oil inlet pipe; 14, hot oil inlet shut-off valve. DETAILED DESCRIPTION

[0028] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of the present application.

[0029] Various structural schematic diagrams according to the disclosed embodiments of the present application are shown in the drawings. These diagrams are not drawn to scale, in which some details are exaggerated for the purpose of clear expression, and some details can be omitted. The shapes of various regions, layers and their relative size and positional relationship shown in the drawings are only exemplary, and in actuality, there can be deviations due to manufacturing tolerances or technical limitations, and regions / layers with different shapes, sizes and relative positions can be additionally designed by those skilled in the art according to actual needs.

[0030] Embodiment 1:

[0031] In order to overcome the problem of long sampling cooling time caused by slow cooling of existing high-temperature heat-conducting oil, the present application provides a heat-conducting oil sampler as shown in Figures 1-3 The present application uses the principle of vortex tube rapid refrigeration to achieve rapid cooling of high-temperature heat-conducting oil and reduce the sampling cooling time of high-temperature heat-conducting oil.

[0032] A heat-conducting oil sampler includes a vortex tube 1, a cold air pipe 7 and a sampler housing 10. The cold air pipe 7 is located in the sampler housing 10, and both ends of the cold air pipe 7 pass through the corresponding side wall end face of the sampler housing 10. One end of the cold air pipe 7 is connected to the vortex tube 1. The air inlet of the vortex tube 1 is in communication with the compressed gas inlet pipe 6. The sampler housing 10 is provided with a hot oil inlet pipe 13 and a cold oil outlet pipe 12 on the side wall, and the hot oil inlet pipe 13 and the cold oil outlet pipe 12 are located on different sides. The cold oil outlet shut-off valve 11 and the hot oil inlet shut-off valve 14 are respectively arranged on the hot oil inlet pipe 13 and the cold oil outlet pipe 12. The outer wall of the part of the cold air pipe 7 located in the sampler housing 10 is provided with fins 8.

[0033] The utility model discloses, adopted the form of vortex tube 1 with cold air pipeline 7 connection, through vortex tube 1 quick refrigeration principle, cold air is sent into cold air pipeline 7, and the hot oil of hot oil import pipeline 13 comes through the fin 8 on cold air pipeline 7 and carries out heat exchange, and the cold oil after heat exchange is discharged from cold oil export cut -out valve 11 and cold oil export pipeline 12, thereby realizes high -temperature heat -conducting oil quick cooling.

[0034] Compared with the fan coil sampler, the cooling time is reduced by more than 50%, and compared with the natural cooling sampler, the cooling time is reduced by more than 90%. Compared with the traditional fan, the forced cooling sampler or the natural cooling sampler is light in weight, small in size, convenient and small in size.

[0035] The utility model discloses a vortex tube refrigeration principle realizes heat -conducting oil quick cooling sampling, and the sampler provided by the utility model does not have any rotating fan and other power consumption equipment, does not increase the power consumption, and the failure rate is low, and the maintenance cost is low.

[0036] The utility model discloses a vortex tube 1 including the body, vortex tube cold air outlet 3, hot air outlet 2 and compressed gas import, and the passage of hot air outlet 2 is greater than the passage of vortex tube cold air outlet 3.

[0037] Embodiment 2:

[0038] Based on the basis of embodiment 1, preferably, the hot oil import pipeline 13 is located at the tangential position of the shell of the sampler shell 10 close to the pipeline cold air outlet 9 of the cold air pipeline 7, and the cold oil export pipeline 12 is located at the tangential position of the shell of the sampler shell 10 close to the other end surface.

[0039] Preferably, the vortex tube cold air outlet 3 of the vortex tube 1 is communicated with the cold air pipeline 7, and the hot air outlet 2 of the vortex tube 1 is communicated with the atmosphere.

[0040] Preferably, the gas inlet of the vortex tube 1 is communicated with the compressed gas import pipeline 6 through the compressed gas import ball valve 5.

[0041] In the utility model, the vortex tube 1 includes the body, vortex tube cold air outlet 3, hot air outlet 2 and compressed gas import, and the passage of hot air outlet 2 is greater than the passage of vortex tube cold air outlet 3. The compressed gas import is communicated with the compressed gas import pipeline 6 through the compressed gas import ball valve 5; the vortex tube cold air outlet 3 is communicated with the inlet of the cold air pipeline 7; the pipeline cold air outlet 9 of the cold air pipeline 7 is communicated with the atmosphere; the hot air outlet 2 of the vortex tube 1 is also communicated with the atmosphere.

[0042] Preferably, the compressed gas inlet ball valve 5 is flanged or welded to the sampler housing 10 and the compressed air pipe 6 at both ends.

[0043] Preferably, the hot oil inlet cutoff valve 14 is flanged or welded to the sampler housing 10 at one end and to the hot oil inlet pipe 13 at the other end; the cold oil outlet cutoff valve 11 is flanged or welded to the sampler housing 10 at one end and to the cold oil outlet pipe 12 at the other end.

[0044] Preferably, the vortex tube 1 is connected to the cold air pipe 7 through the flange connector 4.

[0045] In the utility model, the components are connected through flanges, and can also be directly welded to ensure the overall connection strength.

[0046] Preferably, the cold air pipe 7 passes through the left and right sections of the sampler housing 10 and is sealingly connected to the left and right sections of the sampler housing 10 at both ends.

[0047] In the utility model, the positions where the cold air pipe 7 is connected to the sampler housing 10 are sealingly treated or directly welded to ensure that the sampler housing 10 does not leak oil.

[0048] Preferably, the sampler housing 10 is in the shape of a cylinder, a cuboid or a polyhedral structure.

[0049] Preferably, the fins 8 are multiple and uniformly distributed on the outer wall of the cold air pipe 7.

[0050] In the utility model, the fins 8 are welded to the cold air pipe 7 to enhance the heat exchange effect between the cold air and the hot oil.

[0051] In the utility model, as shown in Figure 1 , Figure 2 and Figure 3 , the vortex tube 1 is connected to the cold air pipe 7 through the flange connector 4, the cold air pipe 7 passes through the left and right sections of the sampler housing 10 and is sealingly connected (or welded) to the left and right sections of the sampler housing 10. The cold air pipe 7 is connected to the fins 8 in the part of the cold air pipe 7 that passes through the sampler housing 10, and the fins 8 are welded to the cold air pipe 7 to enhance the heat exchange effect between the cold air and the hot oil.

[0052] In the utility model, as shown in Figure 2 , the sampler housing 10 preferably adopts a cylindrical structure, the hot oil inlet pipe 13 is located at the tangential position of the sampler housing 10 close to the cold air outlet, and the cold oil outlet pipe 12 is located at the tangential position of the sampler housing 10 close to the other end surface.

[0053] In the utility model, the hot oil import cut-off valve 14 one end and the sampler shell 10 adopt flange or welding connection, the other end and the hot oil import pipeline 13 adopt flange or welding connection. The cold oil export cut-off valve 11 one end and the sampler shell 10 adopt flange or welding connection, the other end and the cold oil export pipeline 12 adopt flange or welding connection. The compressed gas import ball valve 5 one end and the sampler shell 10 adopt flange or welding connection, the other end and the compressed air pipeline 6 adopt flange or welding connection. The hot air export 2 of vortex tube 1 is straight through atmosphere, and the cold air export 9 of cold air pipeline 7 is straight through atmosphere.

[0054] In the utility model, the sampler shell 10 can also adopt other shape structures, such as cuboid or polyhedral structure, and can be selected and determined according to requirements.

[0055] The specific use process of the utility model is:

[0056] In the compressed air import pipeline 6, 0.6~1.0MPa compressed air is passed in, and the compressed air enters vortex tube 1, and is separated into cold and hot air through the high-speed rotation separation effect in vortex tube 1. The cold air temperature can reach-20~-40 DEG C, and the hot air temperature can reach 100~120 DEG C. The hot air is discharged into atmosphere through the hot air export 2 of vortex tube 1. The cold air enters cold air pipeline 7 through vortex tube cold air export 3 and flange connecting piece 4, and then enters the sampler shell 10 through cold air pipeline 7, and the cold capacity of the cold air in the sampler shell 10 is exchanged with 200 DEG C high-temperature heat transfer oil through fin 8, and the cold air after heat exchange is discharged into atmosphere through pipeline cold air export 9.

[0057] In the utility model, the hot oil above 100 DEG C can be exchanged. Preferably, 200 DEG C hot heat transfer oil is passed through hot oil import pipeline 13 and hot oil import cut-off valve 14, and enters the sampler shell 10, and forms rotating vortex in the sampler shell 10, and is exchanged with-20~-40 DEG C cold air through fin 8, and the 40 DEG C cold oil after heat exchange is discharged through cold oil export cut-off valve 11 and cold oil export pipeline 12, and the heat transfer oil at 200 DEG C is rapidly cooled to below 50 DEG C.

[0058] In the description of the utility model, it should be explained that, unless there are definite provisions and limitations, the terms "mounting", "connection", "connection" should be understood in a broad sense, for example, can be fixed connection, or detachable connection, or integrally connected, can be mechanical connection, or electrical connection, can be directly connected, or indirectly connected through intermediate medium, can be the communication inside two elements. For ordinary skilled in the art, the specific meaning of the above terms in the utility model can be understood according to the specific circumstances.

[0059] It should also be understood that the terminology used in the disclosure of the present application is for the purpose of describing particular embodiments only and is not intended to be limiting of the present application. As used in the description of the present application and the appended claims, the singular forms "a", "an" and "the" are intended to include the plural forms as well, unless the context clearly indicates otherwise.

[0060] The above examples are only illustrative of the present application and do not constitute a limitation on the scope of protection of the present application. Any design identical or similar to the present application falls within the scope of protection of the present application. The device structure and method steps not described in detail in the present application are prior art, and will not be further described in the present application.

Claims

1. A heat transfer oil sampler, characterized in that: The sampler includes a vortex tube (1), a cold air duct (7), and a sampler housing (10). The cold air duct (7) is located inside the sampler housing (10), and both ends of the cold air duct (7) extend out of the corresponding side wall end face of the sampler housing (10). One end of the cold air duct (7) is connected to the vortex tube (1). The air inlet of the vortex tube (1) is connected to the compressed gas inlet duct (6). The sampler housing (10) has a hot oil inlet duct (13) and a cold oil outlet duct (12) on its side wall, which are located on different sides. The hot oil inlet duct (13) and the cold oil outlet duct (12) are respectively equipped with a cold oil outlet shut-off valve (11) and a hot oil inlet shut-off valve (14). The outer wall of the cold air duct (7) located inside the sampler housing (10) is provided with fins (8).

2. The heat transfer oil sampler according to claim 1, characterized in that: The hot oil inlet pipe (13) is located at the tangent of the cold air outlet (9) of the sampler housing (10) near the cold air outlet (7), and the cold oil outlet pipe (12) is located at the tangent of the sampler housing (10) near the other end face.

3. The heat transfer oil sampler according to claim 1, characterized in that: The vortex tube (1) has a cold air outlet (3) connected to a cold air pipe (7); and a hot air outlet (2) connected to the atmosphere.

4. A heat transfer oil sampler according to claim 1, characterized in that: The air inlet of the vortex tube (1) is connected to the compressed gas inlet pipe (6) through the compressed gas inlet ball valve (5).

5. A heat transfer oil sampler according to claim 4, characterized in that: The two ends of the compressed gas inlet ball valve (5) are respectively connected to the sampler housing (10) and the compressed gas inlet pipe (6) flange or welded.

6. A heat transfer oil sampler according to claim 1, characterized in that: The hot oil inlet shut-off valve (14) is connected to the sampler housing (10) by a flange or welding at one end, and to the hot oil inlet pipe (13) by a flange or welding at the other end; the cold oil outlet shut-off valve (11) is connected to the sampler housing (10) by a flange or welding at one end, and to the cold oil outlet pipe (12) by a flange or welding at the other end.

7. A heat transfer oil sampler according to claim 1, characterized in that: The vortex tube (1) is connected to the cold air duct (7) via a flange connector (4).

8. A heat transfer oil sampler according to claim 1, characterized in that: The two ends of the cold air duct (7) pass through the left and right sections of the sampler housing (10) respectively, and are sealed to the left and right sections of the sampler housing (10).

9. A heat transfer oil sampler according to claim 1, characterized in that: The sampler housing (10) is cylindrical, cuboid, or polyhedral in shape.

10. A heat transfer oil sampler according to claim 1, characterized in that: The fins (8) are multiple and are evenly distributed on the outer wall of the cold air duct (7).

Images