Sundry blocking and collecting device
By installing a debris blocking collection device on the dust removal pipeline, the debris collector with a cylindrical structure and a filter barrel with a variable diameter structure, combined with a pneumatic valve and a blocking net or barrier plate, the problem of light debris entering the dust collector in the ore is solved, efficient interception and collection of debris is achieved, and the performance and service life of the dust collector are improved.
Patent Information
- Application Number
- CN202420471862.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-03-12
- Publication Date
- 2025-03-11
- Estimated Expiration
- 2034-03-12
AI Technical Summary
Lightweight debris mixed in ore, such as plastic bags and sunshade nets, are prone to entering the dust collector, resulting in blockage of ash discharge channels, poor pneumatic conveying and dust collector failure, affecting production continuity and equipment life.
A debris blocking collection device is designed, including a debris collection assembly installed on a dust removal pipe, a debris collector with a cylindrical structure and a filter barrel with a variable diameter structure, control air flow through a pneumatic valve, and a blocking net or barrier plate is provided in the debris collector to intercept light debris.
Effectively intercept and collect light debris from raw ore in the mine production process, reduce debris entering the dust collector, improve the use efficiency and life of the dust collector, reduce maintenance costs, and reduce environmental pollution.
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Figure CN222585891U_ABST
Abstract
Description
Technical Field
[0001] The utility model belongs to the technical field of dust removal, and in particular relates to a debris blocking and collecting device. Background Art
[0002] During the production process, due to various reasons, such as open-pit mining, transportation and processing of ore, the raw ore produced is often inevitably mixed with various debris, such as plastic bags, sunshade nets, etc. The presence of these debris not only affects the purity of the ore, but also brings many difficulties to the subsequent processing and use.
[0003] When these impurities-containing ores are transported to the user manufacturers, they usually use dust collectors to purify the air in the production environment during the production process to ensure the normal operation of the production line and the health of employees. However, various impurities mixed in these raw ores, especially lightweight and easily floating items such as plastic bags and sunshade nets, are easily sucked into the dust collector.
[0004] Once these debris enter the dust collector, they tend to block the dust discharge channel of the dust collector, causing poor conveying of the pneumatic dust conveying device and even causing dust collector failure. This not only affects the continuity and stability of the production line, increases the maintenance cost of the equipment, but also may cause secondary pollution to the environment.
[0005] Therefore, in response to this problem, it is necessary to develop a device that can effectively remove light debris mixed in the ore, so as to reduce or avoid the debris entering the dust collector, thereby improving the use efficiency and life of the dust collector and ensuring the smooth operation of the production line. Utility Model Content
[0006] In view of the problems existing in the prior art, the utility model provides a debris blocking and collecting device which can reduce or prevent debris from entering a dust collector, thereby improving the use efficiency and life of the dust collector.
[0007] The utility model is implemented as follows: a debris blocking and collecting device comprises a debris collecting assembly installed on a dust removal pipeline, the debris collecting assembly comprises a debris collector, the debris collector is a cylindrical structure, the lower end of which is a dust-containing air inlet, and a first pneumatic valve connected to the dust removal pipeline is installed on the dust-containing air inlet; the upper end is a dust-containing air outlet, and a second pneumatic valve connected to the dust removal pipeline is installed on the dust-containing air outlet;
[0008] A debris discharge port is provided near the dusty air inlet; the debris discharge port is connected to the filter barrel, and a third pneumatic valve is provided between the debris inlet and the debris discharge port of the filter barrel; a fourth pneumatic valve is installed at the debris outlet of the filter cartridge;
[0009] An air cannon backblowing inlet is provided near the dust-laden air outlet end, an air cannon backblowing valve is installed on the air cannon backblowing inlet, and the air cannon backblowing valve is connected to the air cannon; a debris blocking component is provided below the air cannon backblowing inlet in the debris collector, which allows the airflow to carry dust through and blocks light debris.
[0010] Further preferably, the filter barrel is of a variable diameter structure, and the debris discharge outlet of the filter barrel and the debris inlet of the filter barrel are of equal diameter structures and are smaller than the outer diameter of the filter barrel body.
[0011] Further preferably, the debris discharge outlet of the filter barrel and the debris inlet of the filter barrel are connected to the filter barrel body in a conical transition.
[0012] Further preferably, a front tee and a rear tee are installed on the dust removal duct, and a debris collection component is installed between the two bypasses of the front tee and the rear tee.
[0013] Further preferably, the debris blocking component is a blocking net.
[0014] Further preferably, the debris blocking member is a blocking net having a mesh number of 4 to 6.
[0015] Further preferably, a baffle plate with flow holes is provided on its surface.
[0016] Further preferably, the pore ratio of the flow holes provided on the baffle plate is 85%.
[0017] Advantages and technical effects of the utility model: The utility model has the following significant advantages:
[0018] Effectively remove debris: By setting up debris collection components, it is possible to effectively intercept and collect lightweight debris such as plastic bags and sunshade nets mixed in the raw ore during the mining production process, thereby preventing these debris from entering the dust collector, reducing the blockage of the dust collector's ash discharge channel and the poor pneumatic conveying of dust.
[0019] Flexible design: The debris collection component adopts a cylindrical structure and is connected to the dust removal pipeline through a pneumatic valve, making the installation and removal of the device simple and quick. At the same time, the debris collection component can be flexibly installed between the front tee and the rear tee of the dust removal pipeline to adapt to different production environments and process requirements.
[0020] Efficiently handle debris: Through the design of a reasonable debris discharge port and filter barrel structure, the intercepted debris can be efficiently collected and processed. The filter barrel adopts a variable diameter structure to increase the accumulation capacity of debris, and the conical transition connection helps to discharge debris smoothly.
[0021] Improve dust collector performance: Since light debris is reduced from entering the dust collector, the utility model can significantly improve the use efficiency and life of the dust collector, and ensure the continuity and stability of the production line.
[0022] Reduce maintenance costs: By reducing the failure rate of the dust collector, the utility model can reduce the maintenance cost of the equipment and reduce the downtime in the production process, thereby improving the economic benefits of the enterprise.
[0023] Environmental protection: The utility model reduces secondary pollution to the environment by effectively intercepting and collecting debris, and meets the environmental protection requirements of modern industrial production.
[0024] Scalability: The debris blocking component can adopt different designs, such as a blocking net or a blocking plate with flow holes, to meet the needs of different materials and impurity characteristics, so that the utility model has strong scalability and adaptability.
[0025] In summary, the utility model realizes the effective interception and collection of debris in the raw ore in the mining production process through the design of the debris blocking and collecting device, improves the performance and service life of the dust collector, reduces maintenance costs, and reduces environmental pollution, with significant economic and environmental benefits. BRIEF DESCRIPTION OF THE DRAWINGS
[0026] Figure 1 This is a schematic diagram of the structure of Embodiment 1 of the present utility model;
[0027] Figure 2 1. It is a schematic diagram of the structure of a debris collector;
[0028] Figure 3 It is a schematic diagram of the filter barrel structure;
[0029] Figure 4 It is a structural schematic diagram of embodiment 2 of the present utility model.
[0030] In the figure, 10, debris collector; 101, dusty air inlet; 102, first pneumatic valve; 103, dusty air outlet; 104, second pneumatic valve; 105, debris discharge outlet; 106, air cannon backblowing inlet; 20, filter barrel; 201, debris inlet; 202, third pneumatic valve; 203, debris outlet; 204, fourth pneumatic valve; 30, air cannon backblowing valve; 40, debris blocking member; 50, front tee; 60, rear tee. DETAILED DESCRIPTION
[0031] In order to make the purpose, technical solution and advantages of the utility model more clear, the utility model is further described in detail in combination with the embodiments below. It should be understood that the specific embodiments described here are only used to explain the utility model, and are not used to limit the utility model.
[0032] Example 1, please refer to Figures 1 to 3 A debris blocking and collecting device comprises a debris collecting assembly 1 installed on a dust removal pipeline, the debris collecting assembly comprises a debris collector 10, the debris collector is a cylindrical structure, the lower end of which is a dust-laden air inlet 101, and the dust-laden air inlet is provided with a first pneumatic valve 102 connected to the dust removal pipeline; the upper end is a dust-laden air outlet 103, and the dust-laden air outlet is provided with a second pneumatic valve 104 connected to the dust removal pipeline;
[0033] A debris discharge port 105 is provided near the dusty air inlet end; the debris discharge port is connected to the filter barrel 20, and a third pneumatic valve 202 is provided between the debris inlet 201 of the filter barrel and the debris discharge port; a fourth pneumatic valve 204 is installed at the debris outlet 203 of the filter cartridge;
[0034] An air cannon back-blowing inlet 106 is provided near the dust-laden air outlet end, on which an air cannon back-blowing valve is installed, which is connected to the air cannon 30; a debris blocking component 40 is provided below the air cannon back-blowing inlet in the debris collector for allowing airflow to carry dust through and blocking light debris.
[0035] Further preferably, the filter barrel is of a variable diameter structure, and the debris discharge outlet of the filter barrel and the debris inlet of the filter barrel are of equal diameter structures and are smaller than the outer diameter of the filter barrel body.
[0036] Further preferably, the debris discharge outlet of the filter barrel and the debris inlet of the filter barrel are connected to the filter barrel body in a conical transition.
[0037] Further preferably, the debris blocking component is a blocking net.
[0038] Further preferably, the debris blocking member is a blocking net having a mesh number of 4 to 6.
[0039] Further preferably, a baffle plate with flow holes is provided on its surface.
[0040] Further preferably, the pore ratio of the flow holes provided on the baffle plate is 85%.
[0041] Example 2, please refer to Figure 4 The dust removal pipeline is provided with a front tee 50 and a rear tee 60, and debris collection components are provided between the two bypasses of the front tee and the rear tee.
[0042] In order to explain the principle of the present invention in detail, the technical features and advantages are described in detail below:
[0043] The cylindrical structure of the debris collector 10:
[0044] Advantages: The cylindrical structure provides sufficient space for dust-laden air to fully flow and contact the debris blocking member 40, thereby effectively intercepting and collecting light debris.
[0045] Dust-laden air inlet 101 and first pneumatic valve 102:
[0046] Advantages: The flow of dust-laden air entering the debris collector is controlled by a pneumatic valve to ensure that the inlet can be quickly and accurately closed when necessary. The first pneumatic valve 102 mainly serves to cut off the airflow, so as to facilitate air cannon blowing and manual removal of debris.
[0047] Dust-laden air outlet 103 and second pneumatic valve 104:
[0048] Advantages: The outlet flow of air treated by the debris blocking component is controlled by a pneumatic valve to ensure the stable operation of the dust removal system.
[0049] Debris discharge port 105 and filter barrel 20:
[0050] Advantages: The debris discharge port is designed to quickly discharge the intercepted light debris into the filter barrel. At the same time, the design of the filter barrel can further filter and collect these debris. After the third pneumatic valve is closed, it is prevented from re-entering the dust removal pipeline.
[0051] Variable diameter structure of filter barrel:
[0052] Advantages: The variable diameter structure makes the filter barrel more compact while maintaining sufficient capacity, which is beneficial to reducing the floor space and improving space utilization. It also makes the air flow velocity drop rapidly when passing through the large diameter, allowing light debris to sink better, and is also beneficial to the service life of the filter barrel.
[0053] Debris blocking member 40:
[0054] Advantages: The debris blocking component can effectively intercept light debris and prevent it from entering the dust removal system, thereby protecting the normal operation of the dust collector and extending its service life.
[0055] Front tee 50 and rear tee 60:
[0056] Advantages: The tee design allows the dust removal duct to be easily installed and removed from the debris blocking collection device. At the same time, by installing the debris collection component between the front and rear tees, a one-for-one configuration can be achieved to improve production continuity.
[0057] Blocking net as debris blocking component:
[0058] Advantages: The blocking net has a simple structure and can effectively block light debris while allowing airflow and dust to pass smoothly, reducing resistance and improving dust removal efficiency.
[0059] Baffle plate and flow hole:
[0060] Advantages: The flow holes can ensure smooth airflow and filter and intercept light debris.
[0061] In summary, this debris blocking and collection device achieves effective interception and collection of lightweight debris through carefully designed technical features, protects the normal operation of the dust removal system, and improves production efficiency and environmental protection performance.
[0062] Method of using the above debris blocking and collecting device
[0063] 1. Installation and connection
[0064] Installation location selection: During the production process, select an appropriate location on the dust removal pipeline to install the debris blocking and collecting device. It is usually recommended to use one for backup and one for use, that is, install the device on the dust removal pipeline between the front tee and the rear tee.
[0065] Component assembly: Assemble the debris collector, filter barrel, pneumatic valve and other components according to the design drawings; ensure that all connecting parts are firm and reliable without leakage.
[0066] Connect with dust removal pipeline: Connect the debris collector with the dust removal pipeline through the first pneumatic valve and the second pneumatic valve. Make sure the connection is well sealed to prevent air leakage.
[0067] 2. Operation and Adjustment
[0068] Preparation before starting: Check whether the debris blocking and collecting device and its connecting parts are intact, and confirm that all pneumatic valves are in the closed state.
[0069] When the dust removal system is working normally, open the pneumatic valves: open the first pneumatic valve and the second pneumatic valve on one of the branches at the same time; let the dusty air mixed with light debris enter the debris collector through one branch, and then close the third pneumatic valve, the fourth pneumatic valve and the air cannon back-blowing valve; in addition, close all pneumatic valves and air cannon back-blowing valves on the other branch;
[0070] After the dust-laden gas passes through the debris blocking component, various plastic debris in the dust-laden gas mixed with light debris is blocked in the debris collector. The remaining dust-laden gas enters the dust removal pipeline through the dust-laden air outlet and the second pneumatic valve, and then enters the dust collector for dust removal.
[0071] Debris collection: Under the action of dust removal negative pressure, light debris is blocked by the debris blocking component and intercepted on the lower surface of the debris blocking component.
[0072] Debris back-blowing collection, when all kinds of plastic debris are sucked in too much and the debris blocking component is blocked, the pressure difference transmitter alarms. At the same time, the PLC control system controls the first and second pneumatic valves to close. At the same time, the first and second pneumatic valves of the other branch are opened at the same time. At this time, the debris collector on the left starts to clean up; the PLC control system controls the third pneumatic valve on the closed branch to open and close, and starts the air cannon back-blowing valve and opens the air cannon for back-blowing. Compressed air blows the debris off the debris blocking component and enters the filter barrel through the debris inlet of the filter barrel. The dust filter bag in the filter barrel will collect the debris, so the debris is left inside the filter barrel and the compressed air escapes. When there are a lot of debris inside the filter barrel, close the first, second, and third pneumatic valves of the branch, and open the fourth pneumatic valve for cleaning. In order to ensure the normal production process, the two branches are used alternately, the closed branch is used for cleaning, and the open branch ensures continuous dust removal.
[0073] In summary, the utility model realizes the effective interception and collection of debris in the raw ore in the mining production process through the design of the debris blocking and collecting device, improves the performance and service life of the dust collector, reduces maintenance costs, and reduces environmental pollution, with significant economic and environmental benefits.
[0074] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.
Claims
1. A debris blocking and collecting device, comprising a debris collecting assembly installed on a dust removal pipeline, the debris collecting assembly comprising a debris collector, the debris collector being a cylindrical structure, the lower end of which is a dust-laden air inlet, a first pneumatic valve connected to the dust removal pipeline is installed on the dust-laden air inlet; the upper end is a dust-laden air outlet, a second pneumatic valve connected to the dust removal pipeline is installed on the dust-laden air outlet; A debris discharge port is provided near the dusty air inlet; the debris discharge port is connected to the filter barrel, and a third pneumatic valve is provided between the debris inlet and the debris discharge port of the filter barrel; a fourth pneumatic valve is installed at the debris outlet of the filter cartridge; An air cannon backblowing inlet is provided near the dust-laden air outlet end, an air cannon backblowing valve is installed on the air cannon backblowing inlet, and the air cannon backblowing valve is connected to the air cannon; a debris blocking component is provided below the air cannon backblowing inlet in the debris collector, which allows the airflow to carry dust through and blocks light debris.
2. The debris blocking and collecting device according to claim 1, characterized in that: The filter barrel is a variable diameter structure, and the debris discharge outlet of the filter barrel and the debris inlet of the filter barrel are equal diameter structures and are smaller than the outer diameter of the filter barrel body.
3. The debris blocking and collecting device according to claim 1, characterized in that: The debris discharge outlet of the filter barrel and the debris inlet of the filter barrel are connected with the filter barrel body in a conical transition.
4. The debris blocking and collecting device according to claim 1, characterized in that: A front tee and a rear tee are installed on the dust removal pipeline, and debris collection components are installed between two bypasses of the front tee and the rear tee.
5. The debris blocking and collecting device according to claim 1, characterized in that: The debris blocking component is a blocking net.
6. The debris blocking and collecting device according to claim 5, characterized in that: The debris blocking component is a blocking net with a mesh number of 4 to 6.
7. The debris blocking and collecting device according to claim 3, characterized in that: A baffle plate with flow holes on its surface.
8. The debris blocking and collecting device according to claim 7, characterized in that: The pore ratio of the flow holes provided on the baffle plate is 85%.
Citation Information
Cited By
Method for removing light impurities in dust in dust removal process
CN118356738A