The global recycling industry demands robust, reliable, and highly efficient machinery to handle ever-increasing volumes of industrial and commercial waste. Whether your facility processes end-of-life vehicles, industrial metal offcuts, or everyday recyclables like cardboard and PET bottles, investing in the right equipment is critical for your bottom line. At Teyun Machinery, we engineer professional-grade compaction solutions designed to drastically reduce waste volume, slash transportation costs, and optimize your valuable stock space. Our equipment is manufactured to meet rigorous international standards, ensuring seamless operation for clients worldwide. Maximizing ROI with Heavy-Duty Solutions When dealing with massive volumes of ferrous and non-ferrous metals, standard pressing equipment simply cannot deliver the necessary density. Our heavy-duty hydraulic metal baler machine range is built for the harshest industrial environments. Offering capacities from 150 tons up to a staggering 2000 tons, these machines deliver unmatched compressive force to handle structural steel, copper wire, and aluminum extrusions. For automotive recycling centers, managing bulky, irregular vehicle shells is a notorious logistical headache. Our specialized car baler is specifically designed to solve this problem. After tires and motors are removed, this powerful machine compresses stripped car bodies into dense, uniform, and easily stackable blocks, instantly transforming your scrap yard's workflow and maximizing payload for outbound freight. Tailored Equipment for Diverse Waste Streams We understand that no two recycling facilities are exactly the same. Depending on your material throughput and space constraints, we offer a diverse range of operational designs. Facilities requiring continuous, high-volume processing of scrap metals benefit immensely from a heavy-duty horizontal baler. These machines support automated feeding systems, ensuring your production line never stops. Alternatively, if your facility handles lighter, looser materials such as waste paper, plastics, or used clothing, a space-saving vertical baler provides the perfect balance of high bale density and a compact, factory-friendly footprint. Engineering Excellence and Global Reliability What sets a premium scrap metal baling machine apart is the precision of its engineering and its adaptability to your specific workflow. We offer multiple bale discharge methods—including side push out, front push out, turn out, and manual handling—ensuring seamless integration into your existing processing line. Whether you require fully automatic operation for peak productivity or manual controls for specific sorting tasks, our equipment delivers uncompromising performance. Car Baler for recycling&baling the waste car body or car shell Frequently Asked Questions (FAQ) Q1: What types of materials can your machines process? A: Our equipment is highly versatile. We offer specialized models for he...

What is an alligator shear? The alligator shear is also known as the ‘Crocodile shearing machine’, which is widely used for cold shearing various shapes of steel and various metal structures into small pieces and qualified charge. This shearing process makes the transportation and recycling more convenient. The scrap metal alligator shear is a necessary equipment for waste metal recycling plants, scrapped car dismantling plants, smelting and casting industries. The process principle of the alligator shearing machine is to extract the hydraulic oil in the hydraulic oil tank through the motor, and the reversing action of the reversing valve is used to drive the oil cylinder to run and cut into small pieces of metal scrap. The alliagtor shear consists of shearing frame (cast iron), blade, pressure plate, protective cover, operating table (automatic electric operation box), electrical system, reversing solenoid valve, oil pump, motor, oil tank, air cooling, shearing cylinder, pressure material grease cylinder.   The features of the alligator shear The alligator shear powered by the hydraulic cylinder, which is easy to operate and easy to maintain. The length of the working blade: 400mm, 600mm, 700mm, 800mm, 1000mm and 1200mm. The alligator shear with the blade ≥700mm is especially suitable for cutting scrapped cars. We also support customized alligator shear, tell us your requirements. Small size, light weight, low inertia, low noise, stable action, convenient operation, flexibility, large shearing section, and convenient adjustment of the scissors. Safe operation and easy to achieve overload protection.     How to choose an suitable alligator shear? The following tips for your reference: Ensure what kind of the materials to cut. Ensure the blade size the alligator shear you need. Ensure the capacity of the alligator shear you need for one hour. Consider the service the machine.

The alligator shear, named for its resemblance to the jaws of an alligator, is a heavy-duty mechanical tool widely used in the metal recycling and fabrication industries. This robust equipment is designed to cut through various ferrous and non-ferrous metals with high efficiency and precision, making it indispensable in scrap metal handling and production line operations.   The core structure of an alligator shear consists of a fixed lower jaw and a movable upper jaw, powered by either hydraulic or mechanical systems. The hydraulic model, more common in modern applications, delivers a powerful cutting force—ranging from several tons to hundreds of tons—enabling it to shear thick metal plates, rods, pipes, and even bulky scrap components. Unlike other cutting tools, its jaw design allows for gradual and controlled cutting, which reduces material deformation and ensures clean, uniform cuts.   In metal recycling yards, alligator shears play a crucial role in reducing the size of scrap metal, facilitating transportation and melting processes. They efficiently process end-of-life machinery parts, automotive components, and construction debris, transforming waste into reusable raw materials. In manufacturing plants, these shears are used for precision cutting of metal blanks, preparing materials for further shaping, welding, or assembly.   Safety is a key priority when operating alligator shears. Operators must adhere to strict guidelines, including wearing protective gear and ensuring the work area is clear of obstacles. Modern models are equipped with safety features such as emergency stop buttons and interlock systems to prevent accidents.   With their durability, versatility, and high performance, alligator shears remain a cornerstone tool in metal processing. They not only enhance work efficiency but also promote sustainable waste management, contributing to the circular economy within the metal industry.

In the demanding world of metal fabrication, efficiency, precision, and safety are paramount. The Tiger Shearing Machine stands as a formidable piece of equipment designed to meet these exacting standards. This powerful machine is engineered for the clean, straight-line cutting of sheet metal, plates, and other metal forms, serving as a cornerstone technology in workshops, manufacturing plants, and steel service centers globally.   At its core, the Tiger Shearing Machine operates on a simple yet highly effective principle. The metal workpiece is securely clamped onto a robust table. A moving upper blade, driven by a powerful mechanical or hydraulic system, then descends with immense force against a fixed lower blade. This scissor-like action shears the metal along a straight line, producing a clean edge with minimal deformation. The "gap" between these two precisely ground blades is adjustable, allowing operators to tailor the machine for different material thicknesses and types, from thin mild steel to thicker stainless plates.   What sets the Tiger Shearing Machine apart are its advanced features that enhance performance and usability. Modern models are often equipped with CNC (Computer Numerical Control) systems. This allows operators to program the back gauge—a critical fence that positions the metal—for repetitive cuts with microscopic accuracy. This automation drastically reduces human error, material waste, and setup time. Furthermore, built-in safety mechanisms are integral. These include two-handed operation controls, light curtains, and physical guards that ensure the operator's hands are clear before a cut is initiated, creating a secure working environment.   The applications of this machine are extensive. It is indispensable for creating precise blanks for subsequent processes like punching, bending, or welding. Whether preparing components for machinery, architectural frameworks, automotive parts, or household appliances, the shearing machine provides the first, critical cut. Its ability to handle various metals makes it exceptionally versatile.   The primary advantages of utilizing a Tiger Shearing Machine are clear. It delivers unmatched productivity through rapid, consistent cutting cycles. The superior cut quality minimizes the need for secondary edge finishing. Enhanced operator safety is a fundamental design priority. Finally, the remarkable versatility in handling different dimensions and grades of metal makes it a highly cost-effective, long-term investment for any serious metalworking operation.   In conclusion, the Tiger Shearing Machine is far more than a simple cutter; it is a symbol of controlled power and technological refinement in industrial manufacturing. By seamlessly blending raw force with digital precision and rigorous safety standards, it empowers industries to shape the modern world, one precise cut at a time.

Gantry shear is a heavy-duty industrial machine used for cutting large metal plates, sheets, and structural components. It features a gantry-style frame with a moving upper blade that shears material against a fixed lower blade. Commonly employed in metal fabrication, steel processing, and recycling operations, gantry shears are valued for their high precision, powerful cutting capacity, and ability to handle sizable workpieces. Safe and efficient operation relies on strict adherence to standardized procedures and preventive safety measures.   1. Safe Operating Procedures During Operation   Standardized Material Loading When loading materials using overhead cranes, lifting devices, or loading trolleys, all lifting safety regulations must be strictly followed to ensure stable and secure hoisting. During manual loading, personnel must coordinate and use appropriate tools—such as magnetic chucks or hooks—to prevent cuts and injuries. Never place hands or any part of the body under the upper blade or in areas where material may shift or tip.   Precise Positioning Use the equipment’s scales, stop gauges, or CNC programming system to accurately set cutting dimensions. When adjusting material position, always use proper tools (e.g., pry bars). Do not push or support material directly with hands.   Safe Start-up and Monitoring Operators must stand in a safe location, typically in front of the control panel, with no body parts entering the cutting zone. Initiate the cutting cycle only after confirming that all personnel have cleared the danger area. Maintain full attention during cutting and continuously monitor material behavior. If misalignment, jamming, unusual noise, or vibration occurs, immediately press the emergency stop button.   Safe Material Discharge and Stacking After shearing, wait for the machine to come to a complete stop, the upper blade to return to its highest position, and the clamping device to fully release before removing the workpiece. Sort finished workpieces and scrap edges, placing them in designated racks or containers. Stack materials neatly and securely to prevent slipping or falling. Remove scrap promptly.   Prohibited Behaviors (Highest Priority)   Do not shear material that exceeds the equipment’s rated capacity in thickness or strength.   Do not shear multiple pieces of different specifications or materials simultaneously.   Never place hands, arms, or tools between the upper and lower blades, under the clamping device, or near any moving parts.   Do not perform maintenance, cleaning, adjustment, or measurement while the machine is operating.   Do not remove, bypass, or disable any safety guards or devices.   Do not leave the operating station unattended while the equipment is running.   2. Post-Operation and Maintenance Safety   Standardized Shutdown After operation, stop the machine in a safe position (upper blade fully raised),...

The gantry shearing machine represents a pivotal advancement in industrial metal processing, combining precision engineering with high-efficiency operation. Unlike traditional mechanical shears, this equipment features a gantry-style frame structure that spans the material processing area, providing exceptional stability and cutting accuracy. Its design typically incorporates a fixed lower blade and a moving upper blade that descends vertically, creating a clean shear action across the entire width of the metal sheet. This configuration allows for processing large-format materials with minimal distortion, making it indispensable in industries requiring high-volume, high-precision sheet metal cutting.   One of the machine's most significant advantages lies in its versatility. Modern gantry shears can handle various materials including mild steel, stainless steel, aluminum, and copper alloys, with thickness capacities ranging from 1mm to over 20mm depending on the machine's power rating. The integration of CNC (Computer Numerical Control) systems has further revolutionized its operation, enabling programmable cutting sequences, automatic back gauge positioning, and real-time monitoring of cutting parameters. Operators can input cutting dimensions through a user-friendly interface, and the machine executes complex cutting patterns with repeatable accuracy down to ±0.1mm.   Safety features constitute another critical aspect of gantry shearing machines. Advanced models incorporate photoelectric safety curtains, two-hand operation controls, and emergency stop systems to protect operators during high-risk operations. The hydraulic or servo-electric drive systems ensure smooth, controlled blade movement, reducing noise levels and vibration compared to mechanical counterparts. Additionally, modern designs emphasize energy efficiency through variable-speed motors and regenerative braking systems that recover energy during deceleration.   In practical applications, gantry shears serve as primary equipment in shipbuilding, automotive manufacturing, construction material production, and heavy machinery fabrication. Their ability to process large plates with minimal material waste contributes significantly to cost efficiency in mass production environments. The machine's robust construction, typically featuring welded steel frames and hardened tool steel blades, ensures long service life even under continuous operation. As Industry 4.0 concepts gain traction, these machines are increasingly equipped with IoT connectivity for predictive maintenance, remote diagnostics, and production data analytics, further enhancing their operational value in smart manufacturing ecosystems.   The evolution of gantry shearing technology continues to address industry demands for higher throughput, improved material utilization, and reduced setup times. With ongoing innovations in blade materials, control systems, and automation integration, these machi...

Horizontal baling machine is a crucial piece of equipment in modern waste management and recycling industries. Unlike vertical balers that compress materials from top to bottom, horizontal balers operate by compressing waste materials horizontally, typically using a hydraulic ram system. This design allows for continuous feeding and higher production capacity, making them particularly suitable for large-scale operations in recycling facilities, manufacturing plants, and waste processing centers.   The machine consists of several key components: a large rectangular chamber (baling box), a powerful hydraulic system, a feeding conveyor or hopper, and a bale tying mechanism. Waste materials such as cardboard, paper, plastics, textiles, or metal scraps are fed into the chamber through the hopper. Once the chamber is sufficiently filled, the hydraulic ram activates, applying immense pressure—often ranging from 50 to 200 tons—to compress the materials into dense, uniform bales. The compression cycle repeats until the desired bale size is achieved, after which the bale is automatically tied with wires or straps and ejected from the machine.   Horizontal balers offer significant advantages over other baling systems. Their continuous feeding capability enables uninterrupted operation, increasing throughput efficiency. The horizontal design allows for larger bale sizes (typically 1-2 meters in length), which reduces transportation costs by maximizing load capacity. These machines can handle various materials, from light corrugated cardboard to heavy metal scraps, with adjustable pressure settings to accommodate different material densities. Common applications include recycling centers processing municipal solid waste, paper mills handling waste paper, textile factories managing fabric scraps, and manufacturing plants dealing with packaging materials.   Modern horizontal balers incorporate advanced safety features such as emergency stop buttons, safety interlocks, and automatic shut-off systems to prevent accidents during operation. Regular maintenance of hydraulic systems, electrical components, and mechanical parts is essential for optimal performance. Operators require proper training to ensure safe handling and efficient operation. Environmental benefits include reducing waste volume by up to 90%, lowering landfill usage, and facilitating easier transportation and storage of recyclable materials.   In summary, horizontal baling machines play a vital role in sustainable waste management practices. Their robust design, high processing capacity, and versatility make them indispensable in industries committed to recycling and resource conservation. As environmental regulations tighten and recycling demands increase, these machines continue to evolve with improved automation, energy efficiency, and safety standards, contributing to a more circular economy.

I. Daily Pre-Start Inspection 1. Appearance and Structural Inspection Inspect the main components such as the scrap metal shredder body, cutter box, and frame for obvious deformation, cracks, or corrosion. Confirm that all bolts and nuts (especially the bolts securing the cutter shaft, blades, and motor) are tight. Check that safety devices such as the protective cover and safety doors are intact and reliably closed.   2. Blade Condition Inspection Inspect the blades through the inspection port for wear, chipping, or looseness. If severely worn blades are found (decreased cutting efficiency, larger output size), adjust or replace them promptly.   3. Electrical System Inspection Inspect the control cabinet wiring for looseness or aging. Confirm that the emergency stop button, limit switches, and other safety functions are working properly. Check the motor and reducer for abnormal noise or signs of overheating.   4. Lubrication System Inspection Check that the oil levels at bearings, gears, hydraulic system, and other lubrication points are normal. Check that the lubricating oil is clean; replace it immediately if contaminated or deteriorated.   5. Hydraulic System Inspection Check the hydraulic oil level and quality, and confirm there are no leaks in the pipelines. Test the smoothness of the hydraulic cylinder's pushing and pressing functions.   II. Monitoring During Operation 1. Monitoring Operating Status Pay attention to whether the equipment's operating sound is stable. If abnormal vibrations or impact sounds are heard, stop the machine immediately for inspection. Monitor the temperature rise of the motor, reducer, and bearings to ensure it is within the normal range (generally ≤60℃).   2. Observing Output Quality Periodically check the size of the shredded material. Uneven size may indicate blade wear or the need to adjust the gap.   3. Feeding Monitoring It is strictly forbidden to allow oversized materials (such as those that are too thick or too long) or non-metallic debris (such as concrete blocks or flammable materials) into the machine to avoid jamming or damaging the equipment.

In the demanding world of scrap metal recycling and industrial operations, efficiency, safety, and cost control are paramount. Metal baling machines emerge as indispensable tools, transforming loose, cumbersome scrap into dense, manageable packages. Their advantages significantly enhance operational workflows and profitability:   1.  Massive Volume Reduction & Space Savings: This is the most immediate and impactful benefit. Baling machines exert immense hydraulic pressure (often hundreds or thousands of tons) to crush and compress bulky scrap metal – think shredded cars, sheet metal offcuts, wire, cans, or turnings – into compact, rectangular bales. This drastically reduces the volume, sometimes by ratios of 10:1 or more. The result is vastly reduced storage footprint requirements, freeing up valuable factory or yard space for other activities and minimizing the sprawling, hazardous piles of loose scrap.   2.  Optimized Transportation & Logistics: Dense, uniform bales are exponentially easier and more cost-effective to handle, stack, and transport compared to loose scrap. They maximize payload capacity on trucks, railcars, and shipping containers, significantly reducing the number of trips required. This translates directly into substantial savings on freight costs, fuel consumption, and associated emissions. Bales are also stable and secure during transit, minimizing spillage and safety hazards.   3.  Enhanced Material Handling Efficiency: Bales are designed for mechanized handling. Forklifts and cranes can effortlessly move, stack, and load these uniform blocks. This eliminates the labor-intensive, slow, and often dangerous process of manually moving or shoveling loose, sharp, and heavy scrap metal. Loading and unloading times at processing facilities or mills are dramatically reduced, streamlining the entire supply chain.   4.  Improved Workplace Safety: Loose scrap metal presents significant hazards: sharp edges, protruding wires, instability causing collapses, and heavy lifting injuries. Baling mitigates these risks. The compact bales have fewer exposed sharp points, are stable when stacked, and can be handled mechanically, keeping workers at a safer distance from the material itself. This creates a significantly safer working environment.   5.  Increased Material Value & Marketability: Mills and foundries prefer dense, consistent bales. They are easier to feed into furnaces, melt more efficiently due to reduced surface oxidation, and often yield higher purity melt results. This consistency and ease of processing make baled scrap a more desirable commodity, potentially commanding better prices in the market compared to loose, mixed, or contaminated loads.   6.  Reduced Labor Costs: Automating the compaction process significantly reduces the manual labor required for gathering, moving, and loading scrap. While the machine requires operation, it replaces numero...

The scrap metal shearing machine, often nicknamed the "tiger shear" for its powerful cutting jaws, is a cornerstone piece of equipment in the metal recycling and scrap processing industry. Its primary function is to use immense hydraulic force to cut, compress, and densify various forms of ferrous and non-ferrous scrap—such as demolition steel, vehicles, appliances, and industrial waste—into clean, manageable pieces ideal for steel mills and foundries. This process is fundamental for efficient recycling, transforming bulky, low-density scrap into a high-quality furnace-ready raw material.   At its core, a scrap metal shear operates on a simple yet powerful principle. The machine typically consists of a large feed box, a hold-down cylinder, and a massive moving blade (the "jaw") that works against a fixed blade. The process is highly systematic:   1. Loading: Loose scrap is loaded into the machine's feed box or chamber.   2. Compaction & Holding: A powerful hydraulic hold-down cylinder descends to compress and firmly secure the material. This is critical for safety, preventing material from shifting or "kicking back" during the cut.   3. Shearing: The main hydraulic cylinders then drive the moving blade (often in an upward or horizontal motion) with tremendous force—often measuring in hundreds or thousands of tons—to shear through the metal against the stationary blade, much like a pair of giant scissors.   4. Ejection: After the cut, the hold-down releases, and the sheared, densified "log" or bale is ejected, ready for transport.   Modern shears are controlled by Programmable Logic Controllers (PLCs), enabling semi-automatic or fully automatic cycling for continuous, efficient operation.   Main Types and Key Advantages   Shears are broadly categorized by their structure and optimal use case:   • Alligator Shear: Named for its scissor-like, hinged jaw movement reminiscent of an alligator's bite. It is more compact and cost-effective, ideal for smaller yards processing lighter scrap like rebar, sheet metal, and structural beams.   • Guillotine Shear (or Box Shear): Features a large box-like feed chamber and a blade that moves vertically (like a historical guillotine) or horizontally within a solid "gate" or frame. It excels at processing heavier, bulkier materials like entire car bodies, large industrial equipment, and thick plate due to its greater chamber size and holding force.   The advantages of using a shear are transformative for the recycling workflow:   • Volume Reduction: Sheared scrap can occupy up to 70% less space, drastically cutting storage and transportation costs.   • Improved Quality: Produces clean, dense "furnace-ready" bundles that melt more efficiently in electric arc or basic oxygen furnaces, reducing energy consumption and impurities.   • Enhanced Safety & Environment: Replaces dangerous and pollutin...