A water supply pipeline system in a concrete production route

Abstract

The present invention discloses a water supply pipeline system in a concrete production route, the pipeline system comprises a water pool, a first main pipeline, a second main pipeline, a secondary pipeline, a first waterway pipeline, and a second waterway pipeline; the first main pipeline, the second main pipeline, and the secondary pipeline are all provided with a water supply pump; one end of the first main pipeline, the second main pipeline, and the secondary pipeline are all connected to the water pool, the other ends of the first main pipeline and the secondary pipeline are all connected to the first waterway pipeline through a T-shaped tee, and the second main pipeline is connected to the first waterway pipeline and the second waterway pipeline through an F-shaped tee. The present invention discloses a water supply pipeline system in a concrete production route, effectively and reasonably designs pipelines, reduces maintenance costs, saves costs while facilitating maintenance, and improves production efficiency.

Description

Technical Field

[0001] The invention relates to the field of water supply pipelines in concrete production routes, and in particular to a water supply pipeline system in a concrete production route. Background Art

[0002] The water supply system in the concrete production route is an important part of the production route. In the existing production, if a water pump has a problem during the production process, the production must be stopped for maintenance, causing production delays. In serious cases, the quality of the produced concrete will be unqualified, materials will be wasted, and great economic losses will be caused. Summary of the invention

[0003] In order to solve the above problems, the present invention discloses a water supply pipeline system in a concrete production route, which effectively and reasonably designs the pipeline, reduces the maintenance cost, and saves costs and improves production efficiency while facilitating maintenance.

[0004] In order to achieve the above purpose, the present invention provides the following technical solutions:

[0005] A water supply pipeline system in a concrete production route, the pipeline system comprising a water tank, a first main pipeline, a second main pipeline, an auxiliary pipeline, a first water pipeline, and a second water pipeline; the first main pipeline, the second main pipeline, and the auxiliary pipeline are all provided with water supply pumps; one end of the first main pipeline, the second main pipeline, and the auxiliary pipeline are all connected to the water tank, the other ends of the first main pipeline and the auxiliary pipeline are connected to the first water pipeline through a T-type tee, and the second main pipeline is connected to the first water pipeline and the second water pipeline through an F-type tee.

[0006] Furthermore, valves are provided on the first main pipeline and the second main pipeline.

[0007] Furthermore, on the first water pipeline, a valve is provided between the first main pipeline and the auxiliary pipeline, and a valve is provided between the second main pipeline and the auxiliary pipeline.

[0008] Furthermore, the valves are all selected from the group consisting of ball valves, check valves and stop valves.

[0009] Furthermore, the valves on the first main pipeline and the second main pipeline are both arranged between the water supply pump and the first water pipeline.

[0010] The present invention also discloses a method for using a water supply pipeline system on a concrete production route, which is convenient for maintenance, ensures smooth production and reduces delays. The method comprises the following steps:

[0011] Open the valves of the first main pipeline and the second main pipeline, and turn on the water pumps of the first main pipeline and the second main pipeline; close the valve on the first water pipeline; the first main pipeline flows to the first water pipeline, and the second main pipeline flows to the second water pipeline; the first water pipeline and the second water pipeline are supplied with water respectively;

[0012] If the water pump on the first main pipeline fails, close the valve on the first main pipeline; and open the water pumps of the auxiliary pipeline and the second main pipeline; open the valve on the first water pipeline between the first main pipeline and the auxiliary pipeline, and close the valve between the second main pipeline and the auxiliary pipeline; so that the auxiliary pipeline flows to the first water pipeline, the second main pipeline flows to the second water pipeline, and the first water pipeline and the second water pipeline are supplied with water respectively;

[0013] If the water pump on the second main pipeline fails, close the valve on the second main pipeline; and open the water pumps of the first main pipeline and the auxiliary pipeline; open the valve between the second main pipeline and the auxiliary pipeline; close the valve on the first water pipeline located between the first main pipeline and the auxiliary pipeline, so that the first main pipeline flows to the first water pipeline, the auxiliary pipeline flows to the second water pipeline, and the first water pipeline and the second water pipeline supply water respectively.

[0014] The present invention has the following beneficial effects:

[0015] 1. Effectively guarantee the continuous production and reduce time delays. 2. Sufficient time is left for the maintenance of water pumps. 3. Greatly reduce concrete quality problems and material waste caused by untimely water supply. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 is a system diagram of the present invention;

[0017] Water tank 1, first main pipeline 2, second main pipeline 3, auxiliary pipeline 4, first water pipeline 5, second water pipeline 6, 1# pump 7, 2# pump 8, 3# pump 9, T-type tee 10, F-type tee 11, 1# valve 12, 2# valve 13, 3# valve 14, 4# valve 15. DETAILED DESCRIPTION

[0018] The present invention will be further explained below in conjunction with the accompanying drawings and specific embodiments. It should be understood that the following specific embodiments are only used to illustrate the present invention and are not used to limit the scope of the present invention.

[0019] Yongji Group has rectified the water supply system at its own concrete production site, such as Figure 1A water supply pipeline system in a concrete production route shown in the figure includes a water tank 1, a first main pipeline 2, a second main pipeline 3, a secondary pipeline 4, a first water pipeline 5, and a second water pipeline 6; a 1# pump 7 is provided on the first main pipeline, a 2# pump 8 is provided on the second main pipeline, and a 3# pump 9 is provided on the secondary pipeline; one end of the first main pipeline, the second main pipeline, and the secondary pipeline are all connected to the water tank, and the other ends of the first main pipeline and the secondary pipeline are connected to the first water pipeline through a T-type tee 10, and the second main pipeline is connected to the first water pipeline and the second water pipeline through an F-type tee 11.

[0020] The first main pipeline is provided with a 1# valve 12, and the second main pipeline is provided with a 2# valve 13. The valves on the first main pipeline and the second main pipeline are both arranged between the water supply pump and the first water pipeline.

[0021] On the first water pipeline, a 3# valve 14 is provided between the first main pipeline and the auxiliary pipeline, and a 4# valve 15 is provided between the second main pipeline and the auxiliary pipeline.

[0022] The valves are all one of ball valves, check valves and stop valves.

[0023] The method for reasonably regulating water supply using the system of the present invention is:

[0024] Open the 1# valve of the first main pipeline and the 2# valve of the second main pipeline, and open the 1# pump of the first main pipeline and the 3# pump of the second main pipeline; close the 3# valve and the 4# valve on the first water pipeline; the first main pipeline flows to the first water pipeline, and the second main pipeline flows to the second water pipeline; the first water pipeline and the second water pipeline are supplied with water respectively;

[0025] If the 1# pump on the first main pipeline fails, close the 1# valve on the first main pipeline; open the 2# pump on the secondary pipeline and the 3# pump on the second main pipeline; open the 3# valve on the first water pipeline located between the first main pipeline and the secondary pipeline, and close the 4# valve between the second main pipeline and the secondary pipeline; so that the secondary pipeline flows to the first water pipeline, the second main pipeline flows to the second water pipeline, and the first water pipeline and the second water pipeline are supplied with water respectively;

[0026] If the 3# pump on the second main pipeline fails, close the 2# valve on the second main pipeline; and open the 1# pump of the first main pipeline and the 2# pump of the auxiliary pipeline; open the 4# valve on the first water pipeline located between the second main pipeline and the auxiliary pipeline; close the 3# valve on the first water pipeline located between the first main pipeline and the auxiliary pipeline, so that the first main pipeline flows to the first water pipeline, the auxiliary pipeline flows to the second water pipeline, and the first water pipeline and the second water pipeline supply water respectively.

[0027] Working principle: In order to explain the working principle clearly, Figure 1. The present invention connects the water supply pipelines to the network, so that no matter whether the 1# pump or the 3# pump fails, it can be manually switched to the 2# pump, which ensures the continuation of production and provides sufficient time for the repair and maintenance of the water pump. During normal production, the 1# pump and the 3# pump are working, and the 3# and 4# valves are closed. When the 1# pump fails, turn off the 1# valve, start the 2# pump, open the 3# valve, and keep the 4# valve closed, so that the 1# waterway continues to work. When the 3# pump fails, turn off the 2# valve, start the 2# pump, open the 4# valve, and keep the 3# valve closed, so that the 2# waterway continues to work.

[0028] Advantages after the transformation: 1. Effectively guarantee the continuous production and reduce time delays. 2. Leave ample time for the maintenance of the water pump. 3. Greatly reduce concrete quality problems and material waste caused by untimely water supply.

[0029] The technical means disclosed in the scheme of the present invention are not limited to the technical means disclosed in the above-mentioned implementation mode, but also include technical schemes composed of any combination of the above-mentioned technical features. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principle of the present invention, and these improvements and modifications are also regarded as the protection scope of the present invention.

Claims

1. A water supply pipeline system in a concrete production route, characterized in that: The water supply pipeline system includes a water pool, a first main pipeline, a second main pipeline, a secondary pipeline, a first water pipeline, and a second water pipeline; the first main pipeline, the second main pipeline, and the secondary pipeline are all provided with a water supply pump; one end of the first main pipeline, the second main pipeline, and the secondary pipeline are all connected to the water pool, the other ends of the first main pipeline and the secondary pipeline are connected to the first water pipeline, and the other end of the second main pipeline is connected to the first water pipeline and the second water pipeline, valves are provided on the first main pipeline and the second main pipeline, a valve is provided on the first water pipeline between the first main pipeline and the secondary pipeline, and a valve is provided between the second main pipeline and the secondary pipeline, the valves on the first main pipeline and the second main pipeline are all arranged between the water supply pump and the first water pipeline, the other ends of the first main pipeline and the secondary pipeline are connected to the first water pipeline through a T-type tee, and the other end of the second main pipeline is connected to the first water pipeline and the second water pipeline through an F-type tee.

2. A water supply pipeline system in a concrete production route as claimed in claim 1, characterized in that: The valves are all one of ball valves, check valves and stop valves.

3. A method for using a water supply pipeline system in a concrete production route as claimed in claim 1 or 2, characterized in that: The method of use comprises the following steps: opening the valves of the first main pipeline and the second main pipeline, and turning on the water pumps of the first main pipeline and the second main pipeline; closing the valve on the first water pipeline; the first main pipeline flows to the first water pipeline, and the second main pipeline flows to the second water pipeline; the first water pipeline and the second water pipeline are supplied with water respectively; If the water pump on the first main pipeline fails, close the valve on the first main pipeline; and open the water pumps of the auxiliary pipeline and the second main pipeline; open the valve on the first water pipeline between the first main pipeline and the auxiliary pipeline, and close the valve between the second main pipeline and the auxiliary pipeline; so that the auxiliary pipeline flows to the first water pipeline, the second main pipeline flows to the second water pipeline, and the first water pipeline and the second water pipeline are supplied with water respectively; If the water pump on the second main pipeline fails, close the valve on the second main pipeline; and open the water pumps of the first main pipeline and the auxiliary pipeline; open the valve between the second main pipeline and the auxiliary pipeline; close the valve on the first water pipeline located between the first main pipeline and the auxiliary pipeline, so that the first main pipeline flows to the first water pipeline, the auxiliary pipeline flows to the second water pipeline, and the first water pipeline and the second water pipeline supply water respectively.

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