The swing-type stone multi-head polishing machine is a piece of equipment commonly used in the stone processing industry. It has multiple polishing heads and operates in a swinging manner. This kind of machine can efficiently polish large areas of stone in a short time, making the surface smoother and brighter.



We need to consider the following aspects when choosing a suitable multi-head stone polishing machine:

1. Machine specifications and dimensions: Stone multi-head polishing machines of different specifications are suitable for stones of different sizes. You need to choose the right size based on your processing needs to ensure it can handle your stone products.
   
   
2. Number of polishing heads: Different stone multi-head polishing machines are equipped with different numbers of polishing heads, usually 2, 4, 6 or even more. The greater the number of polishing heads, the better the polishing effect may be, but the price will also be higher. You need to make a choice based on your budget and polishing requirements.
   
   
3. Machine performance and functionality: In addition to the number of polishing heads, you should also consider the machine’s performance and functionality. For example, some polishing machines are equipped with frequency conversion speed adjustment function, which can adjust the polishing speed according to different materials to obtain better polishing results. There are also some machines with automated control systems that can improve production efficiency.
   
   
4. Quality and reliability: Choosing a well-known brand and a manufacturer with a good reputation can ensure the quality and reliability of the machine. You can check product reviews and customer feedback to find experienced manufacturers to ensure that the machine you buy is of high quality and stable performance.
   
   
5. After-sales service and technical support: After purchasing a machine, after-sales service and technical support are very important. Ensure that the manufacturer provides timely after-sales service and technical support, which can help you solve problems encountered during use and ensure the normal operation of the machine.
   
   SMT is a professional stone cutting & polishing machine manufacturer. We have various types of stone cutting machines and stone polishing machines. We will provide you with the stone cutting and polishing machine that best suits you. We have professional engineers and sales and after-sales teams to provide you with professional services. Welcome to choose our swing-type stone multi-head polishing machine.
   

To determine the loading capacity of an Angle Steel Tower antenna pole, a comprehensive structural analysis considering various factors is essential. Here's a structured approach:

1. Material Properties

• Steel Grade: Identify the steel grade (e.g., ASTM A36, A572) to determine yield strength (Fy​), ultimate tensile strength (Fu​), and modulus of elasticity (E).

• Corrosion Considerations: Account for environmental factors that may reduce material thickness over time.

2. Geometric Properties

• Member Dimensions: Cross-sectional area (A), moment of inertia (I), radius of gyration (r), and slenderness ratio (KL/r
  

• KL/r

  KL/r) for each angle member.

• Tower Configuration: Height, base width, bracing pattern, and leg spacing influence stability and load distribution.

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3. Load Types and Calculations

• Dead Load: Weight of the tower, antennas, and permanent fixtures.

• Live Load: Temporary loads (e.g., maintenance equipment).

• Environmental Loads:

  • Wind Load: Calculated using wind speed (e.g., ASCE 7 or TIA-222), exposure category, drag coefficient (Cd​), and projected area.

  • Ice Load: Adds weight and increases wind surface area; relevant in cold climates.

  • Seismic Load: Considered in earthquake-prone regions using seismic coefficients.

• Dynamic Loads: Vibrations from antennas or wind-induced oscillations.

4. Structural Analysis

• Axial Capacity: For compression members, check buckling using Euler's formula  (

  Pcr=π2EI(KL)2Pcr​=(KL)2π2EI​) and yielding (Py=FyA Py​=Fy​A).

• Combined Stresses: Use interaction equations (e.g., AISC) for members under axial load and bending moments.

• Connections: Verify bolt/weld capacities for shear, tension, and bearing.

5. Design Codes and Safety Factors

• Relevant Standards: TIA-222 (telecom structures), ASCE 7 (environmental loads), AISC (steel design).

• Load Combinations: Apply code-specified combinations (e.g., 1.2D + 1.6W).

• Safety Factors: Incorporate factors of safety (e.g., 1.67 for AISC LRFD) to ensure reliability.

• 

6. Example Calculation Outline

• Wind Load Example:

  Fw=0.00256⋅Kz⋅Kzt⋅Kd⋅V2⋅Cd⋅AFw​=0.00256⋅Kz​⋅Kzt​⋅Kd​⋅V2⋅Cd​⋅A

  Where VV is wind speed (mph), KzKz​ is exposure coefficient, CdCd​ is drag coefficient, and AA is projected area.

• Member Check: For a 50x50x5 mm angle (A=480 mm2A=480mm2, r=9.8 mmr=9.8mm), if KL/r=100KL/r=100, critical stress FcrFcr​ is calculated per AISC.

7. Software and Professional Input

• Use structural analysis software (e.g., STAAD.Pro, SAP2000) for complex geometries.

• Consult a licensed engineer for code compliance and final validation.

Key Considerations:

• Foundation Design: Ensure the base can resist overturning moments and shear forces.

• Dynamic Effects: Address potential resonance from wind or equipment.

• Maintenance: Regular inspections to detect corrosion or damage.

Conclusion:

The loading capacity is a function of material strength, geometric efficiency, applied loads, and adherence to design codes. A detailed analysis balancing these factors ensures the tower's safety and functionality. Always involve a structural engineer for critical application. 

Learn more at www.alttower.com

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• Designing a 4-legged angle steel tower involves various considerations to ensure structural integrity, stability, and safety. Here are some key design conditions that are typically analyzed in the design process:
•  

• Load Analysis:

  • Dead Loads: Consider the weight of the tower structure itself, including all components such as steel angles, bolts, platforms, and antennas.
  • Live Loads: Evaluate the loads imposed by equipment, antennas, ice, wind, and any other dynamic loads the tower may experience during its service life.
  • Environmental Loads: Account for wind loads, seismic forces, ice loads, and any other environmental factors that may impact the tower's stability.

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• Material Selection:

  • Choose appropriate angle steel sections based on their mechanical properties, including yield strength, tensile strength, and stiffness, to ensure the tower can withstand the calculated loads.
  • Consider factors such as corrosion resistance, weldability, and availability of the materials.
  •  

• Geotechnical Analysis:

  • Conduct a soil analysis to determine the soil bearing capacity at the tower site, which influences the foundation design.
  • Evaluate the soil conditions to ensure the tower foundation can adequately support the applied loads.
  •  

• Foundation Design:

  • Design a suitable foundation system based on the soil conditions and the loads imposed by the tower.
  • Ensure the foundation can distribute the loads effectively to prevent settlement or instability.
  •  

• Structural Analysis:

  • Perform structural analysis using software tools to assess the tower's response to various loading conditions.
  • Check the tower members for stresses, deflections, buckling, and other structural performance criteria.
  •  

• Connection Design:

  • Design connections between tower members, including bolted or welded connections, to ensure they can transfer loads effectively.
  • Consider factors such as connection detailing, material compatibility, and ease of fabrication and erection.

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• Stability Analysis:

  • Assess the tower's stability against overturning, sliding, and buckling under different loading conditions.
  • Ensure that the tower design meets stability requirements to prevent structural failure.
  •  

• Code Compliance:

  • Ensure that the tower design complies with relevant design codes and standards, such as local building codes, industry standards, and engineering guidelines.
  •  

• Safety Factors:

  • Apply appropriate safety factors to account for uncertainties in loading conditions, material properties, and other design parameters.
  • Verify that the tower design provides an adequate level of safety for its intended use.
  •  

• By carefully analyzing these design conditions and factors, engineers can develop a robust and safe 4-legged angle steel tower design that meets structural requirements, performance criteria, and safety standards for its intended application.

Learn more at www.alttower.com

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When designing the height of an angle steel communication tower, a comprehensive approach is required to balance technical, structural, regulatory, and environmental factors. Below is a structured overview of key considerations:

1. Purpose and Coverage Requirements

• Antenna Functionality: Ensure the height accommodates the required elevation for antennas (e.g., cellular, TV, microwave) to achieve optimal signal coverage and line-of-sight (LOS) for microwave links.

• Terrain and Obstacles: Account for natural or man-made obstructions (e.g., hills, buildings, trees) that may necessitate greater height for clear signal propagation.

2. Regulatory and Zoning Constraints

• Aviation Regulations: Adhere to height restrictions near airports (e.g., FAA guidelines in the U.S.) to avoid interference with flight paths.

• Local Zoning Laws: Comply with municipal regulations on maximum structure heights and environmental impact assessments (EIA) for tall towers.

• Permitting: Secure necessary permits, which may involve public consultations for visually intrusive structures.

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3. Structural Design and Integrity

• Wind and Seismic Loads: Calculate wind pressure using local wind speed data (e.g., ASCE 7 standards) and consider seismic activity for dynamic load analysis.

• Foundation Design: Ensure the foundation (e.g., deep piles, reinforced concrete) can handle increased overturning moments and shear forces from greater heights.

• Material Strength: Use appropriately graded steel sections and bracing systems to resist buckling, sway, and torsional stresses.

• Dynamic Stability: Address natural frequency and vibration risks (e.g., vortex shedding) to prevent resonance.

4. Environmental and Climatic Factors

• Wind and Ice Loads: Incorporate regional wind zones and ice accumulation risks, which add structural weight and wind drag.

• Temperature Effects: Allow for thermal expansion/contraction in design tolerances.

• Corrosion Resistance: Apply protective coatings (e.g., galvanization) to mitigate corrosion from moisture, salt, or pollution.

5. Economic Considerations

• Cost-Benefit Analysis: Balance height-related costs (materials, foundation, transportation) against coverage benefits.

• Transportation and Logistics: Consider limitations on steel section sizes due to road transport regulations and crane availability.

6. Safety and Maintenance

• Lightning Protection: Install grounding systems and lightning rods, especially for taller towers.

• Climbing Safety: Design safe access (e.g., ladders, platforms) and fall-protection systems for maintenance.

• Ice Shedding: Implement measures to prevent ice buildup or safely shed ice to avoid hazards.

7. Future Expansion and Flexibility

• Modular Design: Allow for future height extensions or additional antenna mounts without structural retrofitting.

• Load Redundancy: Reserve capacity for new equipment (e.g., 5G antennas) and evolving technologies.

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8. Aesthetic and Social Impact

• Visual Blending: Use camouflage (e.g., lattice designs, paint schemes) in sensitive areas (urban, scenic) to reduce visual intrusion.

• Community Feedback: Engage stakeholders early to address concerns about aesthetics or property values.

9. Installation and Lifespan

• Erection Feasibility: Plan for construction challenges (e.g., crane reach, assembly sequencing) for very tall towers.

• Durability: Ensure a design lifespan (typically 25–50 years) with minimal maintenance through robust materials and coatings.

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Design Factor Integration Example:

A tower in a coastal urban area might prioritize corrosion-resistant materials, strict height limits due to nearby airports, and aesthetic blending with surroundings. Meanwhile, a rural microwave relay tower would emphasize LOS clearance, wind/ice loads, and minimal foundation costs.

By systematically addressing these factors, engineers can optimize tower height for functionality, safety, compliance, and cost-effectiveness.

Learn more at www.alttower.com

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Flake Sorter, also known as plastic color separator, is a good helper that can handle a variety of plastics. Whether it is plastic particles or transparent, PP, PE, PET, ABS, PVC, HDPE milk bottle materials, etc., as long as you have a need, it can help you get it done. Through intelligent sorting technology, it can accurately remove impurities and heterogeneous particles in mixed plastics, greatly improve the purity of recycled materials, and is the "secret weapon" for reducing costs and increasing efficiency in the plastic recycling industry.

Working principle

The working principle of this machine is actually very simple, but there is high technology hidden behind it:

Photoelectric detection technology: The equipment quickly scans the surface color and shape of plastic particles through a high-resolution CCD camera or laser sensor.

Intelligent analysis system: Use AI algorithms to compare color, transparency or material differences in real time. For example, red PP fragments are mixed into transparent PET bottle flakes, and the system will identify and mark them within milliseconds.

Accurate sorting execution: Through high-speed airflow nozzles or robotic arms, heterogeneous or heterogeneous particles are blown away from the main material flow to ensure the purity of the final product.

Why Do You Need A Flake Sorter?

Double Efficiency: One machine can process 3-8 tons of materials per hour, replacing 20 sorting workers and working 24 hours a day.

Profit Increase: The price of pure plastic after sorting is 30%-50% higher than that of mixed materials

Environmental Compliance: Meet the strict standards of the EU, the United States, etc. for recycled plastics

Summary

In general, the flake sorter is a very practical device, especially for those companies that need to handle plastics of multiple colors. It is simply a lifesaver. It can not only improve production efficiency, but also ensure product quality, which is really killing two birds with one stone.

A small workshop upgrade tool: low-cost equipment (about 100,000-300,000 yuan) can achieve automated sorting.

Standard for large factories: with assembly lines, it can handle complex mixed materials (such as automotive plastics and electronic waste).

Plastic recycling and manufacturing industries demand high-purity material outputs, and HTsorter’s advanced plastic colour sorting machine series is at the forefront of this technological revolution. Combining CCD imaging, laser plastic sorting machine for impurity removal, and AI-driven precision, our machines redefine efficiency in plastic processing. Here’s an in-depth look at their working principles and industry-leading features.  

 1. Core Technology of HTsorter’s  Plastic Color Sorting Machine  

HTsorter integrates three cutting-edge technologies to achieve unparalleled sorting accuracy:  

①High-Resolution CCD Imaging:  

   - Utilizes 5000+ pixel CCD sensors to detect color variations as subtle as 0.01mm, ideal for separating mixed-color PET, PVC, and PP flakes.  

   - Dual visible-light cameras capture multi-angle images for precise color differentiation (e.g., distinguishing light blue from transparent PET).  

②Laser-Based Impurity Detection:  

   - Employs spectral analysis and infrared lasers to identify non-plastic contaminants like metals, glass, or organic residues, achieving 99.9% impurity removal.  

③AI-Driven Sorting Algorithms:  

   - Combines deep learning and 3D modeling to analyze material texture, shape, and density, enabling simultaneous sorting of complex mixtures (e.g., unwashed vs. cleaned bottles).  

2. Step-by-Step Workflow  

 Stage 1: Material Feeding  

Mixed plastics enter through a vibrating feeder, ensuring uniform distribution for accurate detection.  

 Stage 2: Multi-Sensor Scanning  

- Color Sorting: CCD cameras identify color deviations (e.g., green vs. clear PET).  

- Impurity Detection: Lasers detect foreign materials invisible to the human eye.  

- Material Analysis: AI algorithms classify plastics by polymer type (PET, PP, ABS, etc.).  

 Stage 3: Real-Time Ejection  

Defective particles are removed by high-speed air valves, with a response time of <1 millisecond.  

 Stage 4: Output Segregation  

Purified plastics and rejected waste are collected separately, ready for recycling or reuse.  

 3. Key Applications of HTsorter’s Machines  

1. Recycled Plastic Purification:  

   - Sort mixed post-consumer plastics (e.g., bottles, caps, and flakes) into monochromatic streams.  

   - Achieve food-grade PET purity for bottle-to-bottle recycling.  

2. Industrial Scrap Processing:  

   - Remove contaminants from automotive or electronic waste plastics.  

3. Quality Control in Manufacturing:  

   - Ensure raw material consistency for injection molding (e.g., ABS/PP pellets).  

 4. HTsorter’s Competitive Advantages  

- Multi-Material Compatibility: Handles PET, PVC, PP, and hybrid materials (e.g., metal-plastic composites).  

- Global Certifications: ISO 9001 and ISO 14001 certified, trusted by clients in 80+ countries.  

- Smart Maintenance: Modular design and self-diagnostic systems reduce downtime.  

 5. Market Leadership & Innovation  

HTsorter ranks among Europe’s top recycled plastic sorting machine providers, with solutions tailored to emerging regulatory demands (e.g., EU circular economy targets). Our laser plastic sorting machine for impurity removal series addresses critical challenges like:  

- Microplastic Contamination: Detect particles as small as 0.3mm.  

- Cost Efficiency: Reduce labor costs by 30–50% compared to manual sorting.  

Why Choose HTsorter?  

- Custom Solutions: From desktop models to large-scale industrial systems.  

- End-to-End Support: 24/7 technical service and spare parts supply.  

As global plastic consumption continues to rise, scientific classification has become the first line of defense to solve the recycling problem. Unsorted mixed plastics not only reduce the recycling value, but also pollute the recycling chain - for example, PVC impurities may release chlorine during the melting process, destroying the performance of other plastics. The use of best plastic recycling sorting equipment for waste management can accurately separate different polymers to ensure the quality of recycled raw materials while reducing energy waste by more than 30%. This technological upgrade directly promotes the circular economy from concept to large-scale practice.

As the main consumer of plastics, the manufacturing industry urgently needs systematic changes. Industrial plastic sorting solution for manufacturing plants integrates near-infrared sorting and airflow screening technology through modular design, which can process scraps and defective products in real time at the end of the production line. Taking the recycling of automotive injection molded parts as an example, the equipment can distinguish between materials such as ABS and PP, allowing 95% of waste to re-enter the production cycle. This closed-loop management not only reduces the cost of raw material procurement, but also helps factories meet stringent regulations such as the EU Plastic Strategy and create sustainable supply chain barriers.

Technological innovation is reshaping industry standards. The AI-powered plastic waste sorting system for sustainable recycling uses a million-level image database to train algorithms that can identify fragment color, transparency, and even surface wear. Compared with traditional photoelectric sorting, the AI system has a 40% higher recognition accuracy for complex mixed waste, especially when dealing with multi-layer composite packaging, it can peel off the aluminum foil and PE layers, breaking through the bottleneck of traditional recycling technology. This intelligence has opened up a new path for processing special plastics such as electronic waste and medical devices.

As a pioneer in intelligent sorting technology, HTsorter provides full-scenario solutions from municipal waste stations to multinational factories. Our best plastic recycling sorting equipment is equipped with multispectral sensors and AI decision engines, with an average daily processing capacity of 50 tons and a sorting purity of up to 99.2%. For manufacturing customers, HTsorter's industrial plastic sorting solution supports data exchange with ERP systems to achieve real-time optimization of waste output and recycling efficiency.

Today, when the carbon neutrality goal forces industrial upgrading, plastic sorting has long surpassed environmental protection issues and has become the core competitiveness of enterprises to reduce costs and increase efficiency. Choosing HTsorter’s AI-powered systems means obtaining verifiable carbon footprint reduction data, recycled materials that meet global certification standards, and future-oriented technology iteration capabilities - the real engine of green industrial transformation.

Plastic sorting: the cornerstone of efficient recycling

Plastics must be recycled separately because different polymers (such as PET, HDPE, PVC) have very different chemical properties and melting points. Mixed recycling will cause the quality of recycled materials to drop sharply or even become unusable. For example, unsorted PET bottles and HDPE toy fragments can form fragile and brittle composite materials after melting. This is exactly the key to industrial plastic sorting machine cost analysis - HTsorter uses near-infrared (NIR) spectroscopy and AI algorithms to accurately identify plastic types and ensure sorting purity of up to 99%, avoiding material waste and secondary pollution.

Balance between cost and performance of automated equipment

Traditional manual sorting is inefficient and costly, while automatic plastic recycling machine price list shows that high-end equipment is often beyond the budget of small and medium-sized enterprises. HTsorter breaks the deadlock through modular design: our equipment starts at only 60% of similar products and supports phased upgrades (such as from basic sorting to multi-layer plastic identification). For example, the standard version of the sorter (300kg/h processing capacity) can reduce annual operating costs by 35%, and the investment payback period is shortened to 18 months, which is particularly suitable for recyclers in emerging markets.

How to choose the top plastic sorter manufacturers and suppliers?

When looking for the best plastic sorter manufacturers and suppliers, you need to pay attention to technical strength, after-sales support and industry reputation. HTsorter stands out with the following advantages:

Patented technology: The world's only NIR-AI fusion system that supports the sorting of black plastics (such as automotive parts);

Flexible pricing: Provide leasing, installment payment and other solutions to match customer cash flow needs;

Global service network: With technical centers in Germany, China and the United States, ensure that faults are responded to within 48 hours.

HTsorter: An innovative engine to promote the circular economy

As an industry benchmark, HTsorter is committed to solving the problem of plastic pollution through intelligent sorting technology. Our equipment has helped 200+ customers around the world increase recycling rates to 90% while reducing energy consumption by 30%. Whether it is optimizing industrial plastic sorting machine cost analysis or customizing automatic plastic recycling machine price list, HTsorter will help you achieve the dual goals of environmental protection and profitability with technological innovation and customer-first philosophy.

Stainless steel magnetic pumps are known for being leak-free. They are efficient and environmentally safe. These pumps are used in many industries, including chemical, pharmaceutical, petroleum, electroplating, and food processing.

This article introduces the stainless steel magnetic drive pump materials, such as 304, 316L, and 2205. It aims to improve the understanding of their characteristics and uses.

1. stainless steel magnetic drive pump materials - Austenitic stainless steel: 304 (ASTM A276) and 316L (ASTM A479)

Chemical composition：

304 stainless steel: 18% chromium, 8% nickel, ≤0.08% carbon

316L stainless steel: 16% chromium, 10% nickel, 2% molybdenum

Corrosion resistance：

304:

Acid and alkali resistant, but weak in high chloride or strong acid environments.

Performs well in neutral/weakly acidic media (such as tap water, kitchen detergents), but is prone to rust in chloride-rich environments (seawater, salt water).

316L:

Chloride resistance up to 1000 ppm (10 times higher than 304).

Excellent corrosion resistance in acidic, alkaline, brine and chloride-rich media.

Processing performance：

304: High plasticity, suitable for complex pump components.

316L: Higher strength and hardness, suitable for demanding mechanical applications.

Temperature range：

304: Suitable for low temperature environments.

316L: Stable under high temperature conditions.

Application：

304: Food processing, chemical laboratories, environmental equipment (neutral media, standard temperature).

316L: Petroleum, chemical and pharmaceutical industries (corrosive media, high temperature environment).

2. stainless steel magnetic drive pump materials - duplex stainless steel (2205/2507)

Chemical composition：

2205: 21% chromium, 2.5% molybdenum, 4.5% nickel-nitrogen alloy. High strength and impact toughness, but difficult to bend/form.

2507: Higher chromium/molybdenum content for greater strength, hardness, and thermal conductivity.

Corrosion resistance：

2205:

Excellent performance in marine/atmospheric environments, but not suitable for temperatures above 300°C or below -50°C.

2507:

Excellent resistance to pitting, crevice, and uniform corrosion, especially in chloride-rich environments.

Stable in high temperature/oxidizing environments.

Machinability：

2205: Relatively easy to machine.

2507: Requires advanced technology due to high strength/hardness.

Applications：

2205: Chemical and marine industries (moderate corrosion resistance).

2507: Offshore, petrochemical (high corrosion/high strength requirements).

3. stainless steel magnetic drive pump materials - special coating technology: Hastelloy C276

Chemical composition：

The main elements are nickel (Ni), chromium (Cr), molybdenum (Mo), iron (Fe), tungsten (W), titanium (Ti) and aluminum (Al). These elements help reduce intergranular corrosion.

Corrosion resistance：

Excellent resistance to chloride corrosion.

High thermal stability and heat resistance.

Processing performance：

Excellent weldability and cold/hot processing.

Application：

Chemical, petroleum and offshore engineering (suitable for chloride-rich environments).

Choosing the right material for a stainless steel magnetic pump requires a combination of performance and operational requirements. For customized solutions or technical assistance, please contact [Changyu Pump Valve] (changyupump.com). We provide complete services from material analysis to on-site simulation.

After working in the industry for many years, many companies still confuse mortar pumps and slurry pumps. They think these pumps are the same equipment used to transport coarse-grained materials, just with different names.

But is there really not much difference between mortar pumps and slurry pumps? Far from it. Such inquiries often reveal critical technical knowledge gaps in industrial applications.

1. The Difference between mortar pumps and slurry pumps 1: Material composition

Mortar pump：

Wear-resistant material: ultra-high molecular weight polyethylene (UHMWPE)

Molecular chain is 10 times longer than standard polyethylene

Corrosion resistance reaches the highest standard of ASTM G65

Applicable to extreme media (pH 1-14), such as desulfurization slurry, hydrochloric acid solution

Rely on the elastic deformation of polymer materials to buffer wear

Temperature range: -50℃ to 80℃

Slurry pump：

Wear-resistant material: high chromium alloy (Cr26-28%)

Hardness: HRC 60-65

Resistant to particle impact ≥7 Mohs hardness

Flow channel width: 1.5 times wider than mortar pump

Can accommodate solids with a diameter of ≤50mm

Rely on metal hardness to achieve direct wear resistance

Temperature resistance: up to 150°C

2. The Difference between mortar pumps and slurry pumps 2: Design principle

Mortar pump: uses mechanical drive (compressed air starts the piston/impeller) to accurately transport mortar and other mixtures to the construction site.

slurry pump: Using centrifugal pump technology, it can quickly separate and efficiently transport mud containing solid impurities.

3. The Difference between mortar pumps and slurry pumps 3: Application scenario

3.1. Mortar pump

Applicable to low viscosity, small particle materials:

Corrosive media: acid/alkaline liquid, smelting slurry, dilute sulfuric acid, wastewater

Particle limit: diameter ≤2mm, concentration ≤30%

Typical use:

Desulfurization system circulating slurry (pH 2-5, particles ≤ 0.5mm)

Chemical corrosion-resistant transportation (such as hydrofluoric acid, chlor-alkali solution)

Building mortar spraying (cement particles ≤ 0.5mm)

3.2. slurry pump

Handling high-viscosity media containing large solids:

Non-corrosive slurry: ore dressing slurry, sand and gravel mixture, sludge

Particle limit: diameter ≤ 50mm, concentration ≤ 60%

Typical uses:

Mine tailings transportation (iron slag: 10-30mm particles)

Coal washing plant sludge (coal gangue hardness ≥ 6 Mohs)

River dredging (sand and gravel mixture with 40% solid content)

4. The Difference between mortar pumps and slurry pumps 4: Performance characteristics

As shown in the figure above, the performance difference between mortar pumps and slurry pumps is very obvious:

Mortar pump: high head, large flow, corrosion resistance-optimized for corrosive environments.

Mud pump: sturdy structure, stable operation under extreme wear conditions-the first choice for high wear environments.

Through comprehensive comparison, The Difference between mortar pumps and slurry pumps is clear at a glance. If you need further help in selecting industrial pumps, please feel free to contact Changyu Pumps and Valves. Our team is always ready to answer your questions with expertise and enthusiasm.