From Waste Tires to Gold Dust: How Old Rubber Makes New Money Do you know tire? Of course you do. In today's fast-moving world, cars, trucks, and trains are everywhere. Tires of all shapes and sizes either carry us to far-off places or bring distant goods right to us here. But did you know that besides rolling down the road, these tires can actually be crushed into powder and used to make other useful items? Before turning this trash into treasure, however, tires have to go through a specific process. Simply put, it’s all about making big things smaller. The whole tire is first cut into small blocks, then repeatedly crushed and screened into powders of different sizes. But there has other important parts inside. To support heavy vehicles and passengers, tires are built with steel wires inside. So, to get clean rubber powder, the thick steel wire around the tire's rim must be removed first. There are two ways to turn a tire into rubber blocks. The first way is by using ring rolling machine and comprehensive tire block making machine. The second way is by using tire puller and rotating net tire shredder machine. Comparing the two, the first method is much faster and more efficient. Once we have the rubber blocks, a conveyor belt moves them into a buffer silo. From there, they go into the rubber grinder machine to be crushed. The crushed pieces land on a vibrating screen for sorting. Pieces that are small enough drop right through the mesh, while the oversized ones are sent back into the grinder for another round. This cycle repeats until every piece is the right size. That is the integrated rubber grinder and recirculating system. Remember the steel wire we mentioned before? Aside from the thick rim wire, there are also tiny, steel wires mixed into the rubber bits. To separate over 95% steel wire from the rubber powder, the properly sized material passes through a magnetic steel wire separator, which uses magnets to pull out these tiny wires. The material then goes through a second round of screening and magnetic separation to make sure it's 100% pure. Finally, a fiber separator removes any leftover fabric strings, and the finished rubber powder is ready to be bagged up. This gives us the exact rubber powder we need. If a buyer needs the powder to be extra pure, a dust collection system can be added to trap airborne dust during the process, making the final product even cleaner. So, what is the return rate of the whole line? Using the Chinese market as an example. One ton of steel-belted tires costs around 2,000 RMB. A production line that makes 1 to 1.2 tons of rubber powder per hour costs about $95,000 USD. If you run the machines 8 hours a day, 25 days a month, you will produce about 8.8 tons a day and roughly 2,640 tons a year. One ton of scrap tires yields about 65% rubber powder. With the current market price of rubber powder at 3,200 RMB per ton, that powder brings in 2,080 RMB per ton of tires. On top of that, the 25% of steel wire re...

"Breathing New Life into Used Tires: The Industrial Miracle of Eco-Tech"In our daily lives, tires are everywhere—from city streets to household vehicles—they silently shoulder the responsibility of safety. But have you ever wondered what happens when a tire reaches the end of its life? Landfills, incineration, or careless disposal not only occupy vast amounts of land but can also cause environmental pollution and safety hazards. At our company, used tires are not waste—they are treasures waiting to be reborn. Through advanced Shears, high-efficiency Balers, and professional rubber powder and granulate production lines, we transform discarded tires into high-value industrial products, achieving true "turning waste into wealth," giving every tire a renewed life. From Tire to Industrial Treasure: Every Step is Remarkable Cutting & Baling: The First Industrial MagicUsed tires are bulky and structurally complex. Direct crushing is inefficient and may damage equipment. Our Shears act like industrial “magic scissors,” capable of:• Precisely cutting tires into standard-sized pieces• Improving production efficiency and reducing labor costs Next, the Baler neatly compresses the cut tires for easy storage and transport, making the entire industrial recycling process more efficient and organized. Grinding & Separation: Precision Processing for Premium QualityThe cut tires move into the grinding stage, where advanced separation technology completely separates steel, fibers, and rubber, producing high-purity rubber powder and granules. Products of different particle sizes can meet a variety of industrial needs: • Ultrafine rubber powder is used for modified asphalt, enhancing road wear resistance and crack prevention• Medium-sized granules are ideal for sports surfaces, providing safety and comfort for tracks, basketball courts, and playgrounds• Coarse granules or powders are used in industrial products, such as molded parts, shock-absorbing pads, vibration-damping materials, and even rubber-plastic composites Particle Size Particle Appearance Characteristics Typical Applications Picture   >5 mm   Coarse granules, chunked   High mechanical strength, distinct texture   Running tracks, basketball courts, landscaping, road shock-absorbing mats   1-5mm   Medium-coarse granules   Moderate size, easy to mix   Artificial turf infill, non-slip surfaces, some rubber-modified roads   0.5-1 mm   Medium-fine granules   Fine particles, partially mixable with composites   Rubber-modified asphalt, plastic compounding, sealing materials   0.1-0.5 mm   Fine powder   High surface area, excellent dispersibility   Recycled rubber products, gaskets, shoe soles, rubber-modified coatings   Why Choose Us• State-of-the-art core equipment: Shears + Balers + Rubber Powder/Granulate Lines provide an all-in-one, high-efficiency solutio...

Turnkey Metal Chips Recycling Solution: Shredding and Briquetting MachineStop Equipment Jams. Turn Tangled Metal Chips into High-Value Briquettes.The ultimate turnkey metal chips recycling solution designed for CNC machining waste. Automate your shredding and briquetting process to maximize smelting yield and recover expensive cutting fluids. Briquetting machines can process scrap metal such as steel chips, iron chips, brass chips, copper chips, and aluminum chips. However, if the material to be processed is metal shavings in long strips or spiral shapes, it is necessary to use a suitable shredder along with the briquetting machine. This is because directly processing excessively long scrap metal with a briquetting machine is ineffective, makes production difficult, and can damage the machine.     Specific production process: 1. Feed the metal shavings into the shredder to shred them, reducing their size for subsequent compression by the briquetting machine. 2. The shredded scrap metal falls onto a conveyor belt below, which transports it to the feeding box of the briquetting machine. 3. The briquetting machine compresses the shredded scrap metal into cylindrical briquetters. The diameter of the briquetter can be designed. 4. The briquetting machine's push cylinder ejects the briquetter.   Automated Workflow Operates: Size Reduction: Feed tangled, chaotic shavings into the heavy-duty industrial metal shredder. It aggressively tears the long spirals into uniform, small particles safe for compression. Automated Transfer: The shredded scrap falls directly onto an integrated, heavy-duty conveyor belt, which transports the material continuously into the compaction equipment. High-Density Compaction: The premium metal briquetting press exerts extreme hydraulic pressure, compressing the shredded scrap into solid, furnace-ready cylindrical blocks (customizable diameters available). Fluid Recovery & Ejection: During compaction, valuable cutting fluids are squeezed out and collected for reuse. The push cylinder then automatically ejects the finished, smoke-free briquette. (Note: If your incoming material consists strictly of small, uniform chips, the shredding step can be bypassed, feeding directly into the briquetter.)                        Industrial Metal Shredder                                                               Metal Briquetting Press Why Invest in a Teyun Integrated System? Maximize Smelting Yield: High-density briquettes sink instantly in the furnace, preventing metal oxidation and material burn-off. Recover Cutting Fluids: Squeeze out and collect expensive industrial oils during compaction, driving down your operational costs. Zero Manual Intervention: From shredding to final ejection, the entire PLC-...

I. Safety Operating Procedures for Alligator shear   1. Pre-operation Inspection:   Personal Protective Equipment: Wear a safety helmet, protective glasses (face shield), cut-resistant gloves, impact-resistant and puncture-resistant safety shoes, hearing protection, and work clothes.   Equipment Inspection: Check the hydraulic oil level, hydraulic lines for leaks, blades for damage and cracks, all fasteners for secure fasteners, and the electrical system for proper functioning.   Work Area: Clear the work area, ensuring the ground is stable and unobstructed. Non-operators must maintain a safe distance. Set up clear warning signs.   2. Precautions During Operation:   Correct Material Feeding: Place the material to be cut (rebar, structural steel, scrap steel, etc.) as close as possible to the root of the blade shaft (where the shearing force is greatest). Ensure the material is placed stably to prevent bouncing or slipping during cutting.   Strictly Prohibited from Using Beyond the Scope of Application: Never cut materials not clearly defined for use, such as sealed containers (risk of explosion), flammable and explosive materials, live electrical wires and cables, or excessively thick solid steel plates. The maximum shearing capacity (diameter/thickness/material) specified by the equipment must be adhered to.   Process Control:   When starting the shear, hands and all parts of the body must be kept away from the blade and the material clamping device.   When shearing long strips of material, auxiliary equipment or personnel must be used to stabilize the end to prevent injury from swaying after shearing.   If material gets stuck, the machine must be stopped and the pressure released before any action can be taken.   Maintain focus and avoid operating while fatigued.   3. After Operation:   Fully open the blade and stop the machine.   Clean up the blade and surrounding debris and impurities.   Park the equipment on a safe, level surface.   II. Daily Maintenance and Care of Alligator Shears System maintenance can greatly extend the equipment's lifespan and reduce malfunctions.   1. Daily Maintenance:   Cleaning: After work, clean dust, metal shavings, and oil from the equipment, especially the blades, cylinder piston rod, and sensor areas.   Inspection:   Inspect the blades for wear and chipping.   Check all hydraulic joints and pipelines for oil leaks.   Check electrical wiring for damage.   Check all lubrication points (such as the cutter shaft pins) for the need for grease.

Horizontal baler is a heavy-duty industrial machine used to compress loose materials (such as cardboard, paper, plastics, textiles, or non-ferrous metal scraps) into dense, uniform bales for efficient handling, storage, and transportation. The machine operates primarily via a hydraulic system that drives a pressing head to compact material within a large chamber. Due to the significant forces involved and the presence of moving parts, strict adherence to safety procedures is paramount to prevent serious injury or equipment damage. The following outlines the essential safety protocol for its operation.   Safety Operating Procedures   I. Pre-operation Safety Inspection   Personal Protective Equipment (PPE)   Operators must wear the following: a safety helmet, cut-resistant gloves, safety glasses, and impact-resistant safety shoes.   Long hair must be secured under a cap. Clothing should be close-fitting; scarves, neckties, or garments with loose cuffs are strictly prohibited during operation.   Equipment Status Check   Visually inspect all hydraulic lines and connections for signs of damage, wear, or leakage.   Check electrical wiring, control switches, and emergency stop buttons to ensure they are intact and functional.   Verify that all mechanical/hydraulic locking devices on the packing chamber doors (both front and side) are in good working order and provide a secure lock.   Examine the interior of the compression chamber (feed hopper) and remove any foreign objects or residual hard material.   Confirm the hydraulic oil level is within the designated normal range.   Conduct a no-load test cycle. Observe all machine functions—main ram pressure, door opening/closing, and strapping mechanism—to ensure smooth operation without unusual noises.   II. Safety Regulations During Operation   Loading Stage   Ensure the machine is completely stopped with all moving parts in their neutral or home position.   Before opening any access door, confirm that both the main compression ram and the pre-compression ram (if equipped) are fully retracted to a safe position.   Never place hands, feet, or any part of the body inside the compression chamber.   Do not process flammable, explosive, corrosive, or excessively hard materials (e.g., untreated steel castings, large bearings) that could damage the equipment.   Distribute material as evenly as possible across the chamber to prevent one-sided loading. Strictly avoid overloading beyond the machine's rated capacity.   Any material longer than the feed hopper must be cut down or pre-treated before loading.   Door Closure & Compression Stage   After loading, the operator must visually confirm that all personnel are clear of the machine before closing and securing the chamber door.   Once closed, double-check that all doors are positively locked. This is a critical safety step.   During...

A metal shredder is an industrial machine designed to reduce large metal objects into smaller, manageable pieces for recycling and processing. These powerful machines play a crucial role in the metal recycling industry, transforming scrap metal into valuable raw materials that can be reused in manufacturing.   How Metal Shredders Work   Metal shredders operate using a series of rotating shafts equipped with cutting blades or hammers. When scrap metal enters the machine, these blades tear, cut, and shred the material through a combination of high torque and impact force. The process typically involves multiple stages: pre-shredding to break down large items, followed by fine shredding to achieve the desired particle size. Most modern shredders feature hydraulic systems that can generate immense pressure, allowing them to process everything from car bodies and appliances to construction materials and industrial waste.   Types of Metal Shredders   There are several types of metal shredders designed for different applications. Horizontal shaft shredders are common for processing large volumes of mixed scrap, while vertical shaft shredders are often used for specific materials like aluminum cans or electronic waste. Shear shredders use scissor-like cutting action for clean cuts, and hammer mills employ swinging hammers to pulverize materials. The choice of shredder depends on factors such as the type of metal, desired output size, and production capacity requirements.   Applications and Benefits   Metal shredders are essential in scrap yards, recycling facilities, and manufacturing plants. They prepare materials for further processing, such as magnetic separation to remove ferrous metals or eddy current separation for non-ferrous metals. The shredded material can be melted down and reformed into new products, significantly reducing the need for virgin materials and lowering energy consumption. This process helps conserve natural resources, reduce landfill waste, and minimize the environmental impact of metal production.   Key Features and Safety   Modern metal shredders incorporate advanced safety features, including emergency stop systems, overload protection, and automatic reversal mechanisms to prevent jams. Many are equipped with monitoring systems that track performance metrics and detect potential issues before they cause downtime. The efficiency of these machines continues to improve with technological advancements, making metal recycling more cost-effective and environmentally sustainable than ever before.

Key Considerations (Demand Analysis)   1. Raw Material Characteristics   Metal Type: Is it thin, light scrap steel, sheet metal, can bodies (e.g., car shells, corrugated steel sheets), or heavy, heavy scrap steel, structural steel, reinforcing bars, or scrapped car parts? Different materials have vastly different densities and strengths.   Shape and Dimensions: The maximum initial dimensions (length, width, height) and thickness of the raw material; whether it is tangled.   Pre-treatment: Has it been crushed or sheared? This directly affects baling density and efficiency.   2. Output and Efficiency Requirements   Daily/Hourly Processing Capacity (tons): This is a core indicator determining the equipment scale (main cylinder pressure, bale size).   Work Schedule: Single shift, double shift, or continuous production? This affects equipment durability design and hydraulic system cooling capacity.   3. Finished Bale Requirements   Bale Size (Length x Width x Height): Must conform to the standards of downstream steel mills or transportation companies.   Bundle density (tons/cubic meter): High-density bales (typically over 2.2 tons/cubic meter for heavy-duty machines) are easier to transport and smelt, but also command higher prices.   Bundle weight: Ideal weight range for each bale.   4. Power and Supporting Facilities   Available power supply: Three-phase 380V is standard, but higher power models may require higher voltage or a transformer.   Plant conditions: Installation space (length, width, height, especially pit depth), foundation load-bearing capacity, overhead crane lifting capacity.   Hydraulic oil cooling: Water-cooled or air-cooled? Depends on local climate and workload.     Core Component Parameters   Main System Pressure (tons): The most critical parameter determining the final compression force. Higher pressure results in higher packing density.   Gate Size (Internal Cavity Dimensions): Determines the maximum size of raw materials that can be placed inside and the size of the finished bale.   Compression Chamber Dimensions: The actual size of the compressed bale; must be considered in conjunction with the goblet size.   Main Cylinder Diameter and Stroke: Affects compression force and compression speed.   Door Locking Mechanism: Must be robust and reliable to ensure safety under high pressure. Hydraulic locks are more advanced and secure than mechanical locks.   Pressure Head Structure: A separate design for "pre-compression" and "main compression" improves efficiency; volume is compressed first, then high-pressure forming occurs.   Control Method: PLC (Programmable Logic Controller) automatic control is the modern standard, more stable, intelligent, and easier to maintain than relay control.

In the bustling heart of modern industry, where efficiency and sustainability are no longer ideals but necessities, a powerful yet often overlooked machine is making a profound impact: the metal briquetting machine. These robust pieces of equipment are the cornerstone of a circular economy for metals, transforming what was once considered messy, hazardous, and low-value waste into a clean, profitable, and reusable resource.   At its core, a metal briquetting machine is a hydraulic press that applies immense pressure to loose metal scraps—often referred to as "swarf" or "turnings"—and compacts them into dense, uniform blocks known as briquettes. This simple act of compression is a game-changer. The raw material, which can range from aluminum and copper to steel, cast iron, and even titanium, is typically generated in vast quantities by machining operations like milling, turning, and drilling. In its loose form, this scrap is problematic. It takes up valuable floor space, poses safety hazards due to sharp edges, can be a fire risk when saturated with flammable cutting fluids, and is inefficient and costly to transport.   The briquetting process elegantly solves these challenges. By compressing the material, these machines achieve a dramatic volume reduction, often by a factor of 10:1 or more. This immediately frees up factory space, simplifying housekeeping and improving the overall work environment. The resulting briquettes are dry, solid, and easy to handle. They can be stacked neatly on pallets, stored safely outdoors, and transported with standard logistics, drastically reducing haulage costs.   However, the benefits extend far beyond mere convenience. The economic and environmental advantages are substantial.   From Cost Center to Revenue Stream   For manufacturing facilities, metal scrap was traditionally a cost—money had to be spent on its collection, handling, and disposal. A briquetting machine flips this model. By converting scrap into high-density briquettes, the material becomes a highly desirable commodity for metal recyclers and foundries. Briquettes are more efficient to melt in furnaces because of their high mass-to-surface-area ratio, leading to less oxidation and metal loss (yield). Consequently, recyclers pay a premium price for briquetted metal compared to loose, oily turnings. This transforms a waste stream into a significant source of secondary income, often providing a rapid return on investment for the briquetting machine itself.   A Pillar of Green Manufacturing   In an era of heightened environmental awareness, briquetting is a clear win for sustainability. First, it promotes the recycling of valuable raw materials, reducing the need for energy-intensive primary metal production. Recycling aluminum, for instance, requires only about 5% of the energy needed to produce it from ore. Second, many modern briquetting systems incorporate an integral extraction process that sque...