Branch water replenishing device for heat supply pipe network

Abstract

The utility model relates to the technical field of heat exchange station equipment, in particular to a branch water replenishing device for a heat supply pipe network, which not only can enable calcium and magnesium ions of tap water to generate insoluble precipitates, prevent the calcium and magnesium ions from generating precipitates or modifying the calcium and magnesium ions in a pipeline and prolong the service life of the pipe network, but also can heat soft water and ensure the water temperature in the heat supply pipe network. Comprising a heating mechanism; the heating device further comprises a filtering mechanism, a stirring mechanism, a water supplementing mechanism and a detection mechanism, the filtering mechanism is installed on the heating mechanism and separates soft water and hard water, the stirring mechanism is installed on the heating mechanism and stirs the water, and the water supplementing mechanism is installed on the heating mechanism and quantitatively conveys hot water into a heat supply pipe network branch. The detection mechanism is installed on the water supplementing mechanism and conducts temperature and pressure detection on the heat supply pipe network branches.

Description

Technical Field

[0001] This utility model relates to the technical field of heat exchange station equipment, and in particular to a branch water supply device for a heating pipeline network. Background Technology

[0002] Central heating systems are generally closed pressurized systems, and leaks are very common due to various reasons such as loose pipe welds or pipe aging.

[0003] Existing heating network branch water supply devices, such as the automatic energy-saving constant pressure water supply device for heating networks disclosed in utility model patent application number 201821495473.3, mainly include a water supply component and a constant pressure component. The water supply component includes a boiler and a heating network, with the heating network connected to the boiler. The heating network is divided into two sections, front and rear. A first pressure transmitter and a second pressure transmitter monitor the water pressure of the front and rear sections of the heating network, respectively. In use, hot water is drawn from the boiler by the first water supply pump, then flows along the front section of the heating network to the second water supply pump, and then the second water supply pump discharges the hot water to the rear section of the heating network. As the hot water flows through the heating network, it exchanges heat with the outside through the heating network.

[0004] However, most existing water supply devices directly replenish the heating network with tap water, which not only leads to a decrease in network temperature, failing to meet heating requirements, but also causes scale and rust to form inside the pipes due to hard water, reducing the service life of the pipes. Utility Model Content

[0005] To solve the above-mentioned technical problems, this utility model provides a heating network branch water supply device that can not only generate insoluble precipitates of calcium and magnesium ions in tap water, preventing them from forming precipitates or altering the pipes and extending the service life of the pipe network, but also heat soft water to ensure the water temperature in the heating network.

[0006] This utility model discloses a heating network branch water replenishment device, comprising a heating mechanism; it also includes a filtration mechanism, a stirring mechanism, a water replenishment mechanism, and a detection mechanism. The filtration mechanism is installed on the heating mechanism to separate soft and hard water; the stirring mechanism is installed on the heating mechanism to stir the water; the water replenishment mechanism is installed on the heating mechanism to quantitatively deliver hot water to the heating network branch; and the detection mechanism is installed on the water replenishment mechanism to detect the temperature and pressure of the heating network branch. Tap water is delivered to the filtration mechanism, and sodium phosphate is added to cause calcium and magnesium ions in the tap water to form insoluble precipitates. The precipitated soft water is then delivered to the heating mechanism for heating. The stirring mechanism is activated to stir the water, accelerating the formation of insoluble precipitates of calcium and magnesium ions in the filtration mechanism, while simultaneously ensuring that the soft water in the heating mechanism is heated evenly. The detection mechanism detects the temperature and pressure of the heating network branch. Hot water heated to a specified temperature in the heating mechanism is delivered to the detection mechanism for replenishment.

[0007] Preferably, the heating mechanism includes a heating base, a heating cylinder, a water inlet pipe, a hinge, a sealing cover, and a handle. The bottom end of the heating base is connected to the ground, and the bottom end of the heating cylinder is connected to the top end of the heating base. The heating cylinder has an internal cavity. The bottom end of the water inlet pipe communicates with the inside of the top end of the heating cylinder. The hinge is installed on the heating cylinder, the sealing cover is installed on the hinge, and the handle is installed on the sealing cover. The water inlet pipe is connected to tap water, which is then delivered to the filtration mechanism. The handle is then pulled to open the sealing cover, and sodium phosphate is injected into the cavity of the heating cylinder. This causes the calcium and magnesium ions in the tap water to form insoluble precipitates, turning the water into soft water, which is then delivered to the cavity of the heating cylinder through the filtration mechanism. The heating base heats the soft water.

[0008] Preferably, the filtration mechanism includes a baffle, an inclined baffle, a connecting pipe, and a valve. The baffle is installed in the cavity of the heating base and divides the cavity into upper and lower parts. The inclined baffle is installed in the upper cavity of the heating base. The connecting pipe is installed on the inclined baffle and communicates with the lower cavity of the heating base. The valve is installed on the connecting pipe. After the calcium and magnesium ions in the tap water precipitate, the valve is opened, and soft water enters below the baffle through the connecting pipe. The inclined baffle prevents the precipitate from entering the connecting pipe.

[0009] Preferably, a filter screen is installed at the connection between the inclined baffle and the connecting pipe; by setting the filter screen, sediment is prevented from entering the connecting pipe, ensuring the water softening effect and preventing impurities from entering the heating network.

[0010] Preferably, the stirring mechanism includes a motor, a reducer, a drive shaft, and multiple sets of stirring rods. The bottom end of the motor is connected to the top end of the heating base, and the bottom end of the reducer is also connected to the top end of the heating base. The drive shaft is rotatably installed in the cavity of the heating base and longitudinally connected to the reducer. All sets of stirring rods are mounted on the drive shaft. When the motor is started, it drives the drive shaft to rotate through the reducer. The drive shaft then drives the multiple sets of stirring rods to rotate. The multiple sets of stirring rods stir the tap water above the partition, accelerating the precipitation of calcium and magnesium ions. At the same time, the multiple sets of stirring rods stir the soft water below the partition, making the soft water heat up more evenly.

[0011] Preferably, the water replenishment mechanism includes a water replenishment pipe, a metering valve, and a check valve. The water replenishment pipe is installed on the heating cylinder and communicates with the interior of the heating cylinder cavity. The metering valve is installed on the water replenishment pipe, and the check valve is installed on the water replenishment pipe. When the operator opens the metering valve, the hot water in the cavity of the heating cylinder is transported to the testing mechanism through the water replenishment pipe for water replenishment. The check valve is used to prevent the hot water in the testing mechanism from flowing back.

[0012] Preferably, the detection mechanism includes a branch pipe, a sleeve, a thermometer, and a pressure gauge. The branch pipe is connected to the heating network, the sleeve is installed on the branch pipe and is connected to the inside of the water supply pipe, the thermometer is installed on the sleeve, and the pressure gauge is installed on the sleeve. Hot water in the water supply pipe is supplied to the branch pipe through the sleeve. The thermometer detects the temperature in the branch pipe, and the pressure gauge detects the pressure in the branch pipe, which facilitates timely water replenishment and temperature adjustment.

[0013] Compared with the prior art, the beneficial effects of this utility model are as follows: tap water is transported to the filtration mechanism, sodium phosphate is added to cause calcium and magnesium ions in the tap water to form insoluble precipitates, the precipitated soft water is transported to the heating mechanism for heating, the stirring mechanism is activated to stir the water, accelerate the formation of insoluble precipitates of calcium and magnesium ions in the filtration mechanism, and at the same time ensure that the soft water in the heating mechanism is heated evenly, the detection mechanism detects the temperature and pressure of the heating network branches, and the hot water heated to the specified temperature in the heating mechanism is transported to the detection mechanism for replenishment. Attached Figure Description

[0014] Figure 1 This is a front view structural diagram of the present invention;

[0015] Figure 2 This is an isometric structural diagram of the heating mechanism of this utility model;

[0016] Figure 3 This is a cross-sectional isometric structural diagram of the filtration mechanism and stirring mechanism of this utility model;

[0017] Figure 4 This is a partially enlarged isometric structural diagram of the water replenishment mechanism and the detection mechanism of this utility model.

[0018] The attached diagram is labeled as follows: 01, heating mechanism; 11, heating base; 12, heating cylinder; 13, water inlet pipe; 14, hinge; 15, sealing cover; 16, handle; 02, filtration mechanism; 21, partition; 22, inclined partition; 23, connecting pipe; 24, valve; 03, stirring mechanism; 31, electric motor; 32, reducer; 33, drive shaft; 34, stirring rod; 04, water supply mechanism; 41, water supply pipe; 42, metering valve; 43, check valve; 05, detection mechanism; 51, branch pipe; 52, sleeve; 53, thermometer; 54, pressure gauge. Detailed Implementation

[0019] To facilitate understanding of this utility model, a more complete description will be given below with reference to the accompanying drawings. This utility model can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to make the disclosure of this utility model more thorough and complete.

[0020] Example 1

[0021] This utility model discloses a water supply device for a branch of a heating network, comprising a heating mechanism 01; it also includes a filtration mechanism 02, a stirring mechanism 03, a water supply mechanism 04, and a detection mechanism 05. The filtration mechanism 02 is installed on the heating mechanism 01 to separate hard and soft water; the stirring mechanism 03 is installed on the heating mechanism 01 to stir the water; the water supply mechanism 04 is installed on the heating mechanism 01 to quantitatively deliver hot water to the branch of the heating network; and the detection mechanism 05 is installed on the water supply mechanism 04 to detect the temperature and pressure of the branch of the heating network. The heating mechanism 01 includes a heating base 11, a heating cylinder 12, a water inlet pipe 13, a hinge 14, a sealing cover 15, and a handle 16. The bottom end of the heating base 11 is connected to the ground, and the heating cylinder 12... The bottom end is connected to the top end of the heating base 11. The heating cylinder 12 has an internal cavity. The bottom end of the water inlet pipe 13 communicates with the top end of the heating cylinder 12. The hinge 14 is installed on the heating cylinder 12, the sealing cover 15 is installed on the hinge 14, and the handle 16 is installed on the sealing cover 15. The filter mechanism 02 includes a partition 21, an inclined partition 22, a connecting pipe 23, and a valve 24. The partition 21 is installed in the cavity of the heating base 11 and divides the cavity of the heating base 11 into upper and lower parts. The inclined partition 22 is installed in the upper cavity of the heating base 11. The connecting pipe 23 is installed on the inclined partition 22 and communicates with the lower cavity of the heating base 11. The valve 24 is installed on the connecting pipe 23. It also includes an inclined partition. A filter screen is installed at the connection between pipe 22 and connecting pipe 23; the stirring mechanism 03 includes a motor 31, a reducer 32, a drive shaft 33, and multiple sets of stirring rods 34. The bottom end of the motor 31 is connected to the top end of the heating base 11, the bottom end of the reducer 32 is connected to the top end of the heating base 11, the drive shaft 33 is rotatably installed in the cavity of the heating base 11 and longitudinally connected to the reducer 32, and multiple sets of stirring rods 34 are all installed on the drive shaft 33; when it is working, firstly, the water inlet pipe 13 is connected to tap water, and the tap water is delivered to the cavity of the heating cylinder 12 and located above the partition plate 21. Then, the handle 16 is pulled to open the sealing cover 15, and the sodium phosphate agent is injected into the cavity of the heating cylinder 12. The motor 31 is then started. The motor 31 drives the transmission shaft 33 to rotate via the reducer 32. The transmission shaft 33 drives multiple sets of stirring rods 34 to rotate. The multiple sets of stirring rods 34 stir the tap water above the partition 21 to accelerate the precipitation of calcium and magnesium ions. After the calcium and magnesium ions in the tap water precipitate, the valve 24 is opened, and soft water enters below the partition 21 through the connecting pipe 23. By setting the inclined partition 22 and the filter screen, sediment is prevented from entering the connecting pipe 23, ensuring the water softening effect and preventing impurities from entering the heating network. The heating base 11 heats the soft water, and at the same time, the multiple sets of stirring rods 34 stir the soft water below the partition 21 to make the soft water heat more evenly. Hot water is replenished into the detection mechanism 05 through the water replenishment mechanism 04.

[0022] Example 2

[0023] like Figures 1 to 4 As shown, this utility model discloses a branch water supply device for a heating network, based on embodiment 1. The water supply mechanism 04 includes a water supply pipe 41, a metering valve 42, and a check valve 43. The water supply pipe 41 is installed on the heating cylinder 12 and communicates with the interior of the cavity of the heating cylinder 12. The metering valve 42 is installed on the water supply pipe 41, and the check valve 43 is installed on the water supply pipe 41. The detection mechanism 05 includes a branch pipe 51, a sleeve 52, a thermometer 53, and a pressure gauge 54. The branch pipe 51 is connected to the heating network. Sleeve 52 is installed on branch pipe 51 and is internally connected to water supply pipe 41. Thermometer 53 and pressure gauge 54 are installed on sleeve 52. During operation, firstly, inlet pipe 13 is connected to tap water, which is then supplied to the cavity of heating cylinder 12 and positioned above partition 21. Then, handle 16 is pulled to open sealing cover 15, allowing sodium phosphate reagent to be injected into the cavity of heating cylinder 12. Motor 31 is then started, and motor 31, via reducer 3... 2 drives the drive shaft 33 to rotate, which in turn drives multiple sets of stirring rods 34 to rotate. The stirring rods 34 stir the tap water above the partition 21, accelerating the precipitation of calcium and magnesium ions. After the calcium and magnesium ions in the tap water precipitate, the valve 24 is opened, and soft water enters below the partition 21 through the connecting pipe 23. By setting the inclined partition 22 and the filter screen, sediment is prevented from entering the connecting pipe 23, ensuring the water softening effect and preventing impurities from entering the heating network. The heating base 11 heats the soft water, and at the same time, the multiple sets of stirring rods 34 stir the soft water below the partition 21, making the soft water heat more evenly. The operator opens the metering valve 42, and the hot water in the cavity of the heating cylinder 12 is transported to the branch pipe 51 through the water supply pipe 41 for water replenishment. By setting the check valve 43, the hot water in the branch pipe 51 is prevented from flowing back. The thermometer 53 detects the temperature in the branch pipe 51, and the pressure gauge 54 detects the pressure in the branch pipe 51, facilitating timely water replenishment and temperature adjustment.

[0024] The electric motor 31 and the reducer 32 of this utility model are commercially available. Technical personnel in this industry only need to install and operate them according to the accompanying instruction manual, without requiring any creative work from those skilled in the art.

[0025] The above description is only a preferred embodiment of the present utility model. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the technical principles of the present utility model, and these improvements and modifications should also be considered within the protection scope of the present utility model.

Claims

1. A branch water supply device for a heating network, comprising a heating mechanism (01); characterized in that, It also includes a filtration mechanism (02), a stirring mechanism (03), a water replenishment mechanism (04), and a detection mechanism (05). The filtration mechanism (02) is installed on the heating mechanism (01) and separates soft and hard water. The stirring mechanism (03) is installed on the heating mechanism (01) and stirs the water. The water replenishment mechanism (04) is installed on the heating mechanism (01) and quantitatively delivers hot water to the heating network branch. The detection mechanism (05) is installed on the water replenishment mechanism (04) and performs temperature and pressure detection on the heating network branch.

2. The heating network branch water supply device as described in claim 1, characterized in that, The heating mechanism (01) includes a heating base (11), a heating cylinder (12), a water inlet pipe (13), a hinge (14), a sealing cover (15), and a handle (16). The bottom end of the heating base (11) is connected to the ground, the bottom end of the heating cylinder (12) is connected to the top end of the heating base (11), the heating cylinder (12) has a cavity inside, the bottom end of the water inlet pipe (13) is connected to the top end of the heating cylinder (12), the hinge (14) is installed on the heating cylinder (12), the sealing cover (15) is installed on the hinge (14), and the handle (16) is installed on the sealing cover (15).

3. A heating network branch water supply device as described in claim 2, characterized in that, The filter mechanism (02) includes a partition (21), an inclined partition (22), a connecting pipe (23), and a valve (24). The partition (21) is installed in the cavity of the heating base (11) and divides the cavity of the heating base (11) into upper and lower parts. The inclined partition (22) is installed in the upper cavity of the heating base (11). The connecting pipe (23) is installed on the inclined partition (22) and communicates with the lower cavity of the heating base (11). The valve (24) is installed on the connecting pipe (23).

4. A heating network branch water supply device as described in claim 3, characterized in that, It also includes a filter screen installed at the connection between the inclined partition (22) and the connecting pipe (23).

5. A heating network branch water supply device as described in claim 2, characterized in that, The stirring mechanism (03) includes a motor (31), a reducer (32), a drive shaft (33), and multiple stirring rods (34). The bottom end of the motor (31) is connected to the top end of the heating base (11), the bottom end of the reducer (32) is connected to the top end of the heating base (11), the drive shaft (33) is rotatably installed in the cavity of the heating base (11) and longitudinally connected to the reducer (32), and multiple stirring rods (34) are all installed on the drive shaft (33).

6. A heating network branch water supply device as described in claim 2, characterized in that, The water replenishment mechanism (04) includes a water replenishment pipe (41), a metering valve (42) and a check valve (43). The water replenishment pipe (41) is installed on the heating cylinder (12) and communicates with the cavity inside the heating cylinder (12). The metering valve (42) is installed on the water replenishment pipe (41) and the check valve (43) is installed on the water replenishment pipe (41).

7. A heating network branch water supply device as described in claim 6, characterized in that, The testing mechanism (05) includes a branch pipe (51), a sleeve (52), a thermometer (53), and a pressure gauge (54). The branch pipe (51) is connected to the heating network. The sleeve (52) is installed on the branch pipe (51) and is connected to the inside of the water supply pipe (41). The thermometer (53) is installed on the sleeve (52), and the pressure gauge (54) is installed on the sleeve (52).

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