Used Discharge for sale (2,504)

Condition: used, all stainless steel discharging height ± 1.450 mm 400V - 50 Hz Motor 0,55 kw Hodpfxezht Ets Abhjp mobile dimensions (l x w x h) : ± 1.450 x 1.350 x 2.900 mm

Condition: used, all stainless steel dimensions: ± 5.000 x 2.200 x 2.700 mm drum diameter: 1.300 mm net drum length 4.200 mm adjustable inclination angle easy to clean inlet height: ± 1.700 mm (adjustable if necessary) Hsdpfx Abezht Egjhjp discharge height: ± 1.000 mm power 3kW 400V, 50Hz 4 spray pipes Provided for extraction

Condition: ready for operation (used), Year of construction: 2016, operating hours: 4,439 h, travel distance X-axis: 800 mm, travel distance Y-axis: 600 mm, travel distance Z-axis: 310 mm, wire diameter (max.): 0.3 mm, overall weight: 4,200 kg, controller manufacturer: FANUC, controller model: 31i-WB, product length (max.): 2,900 mm, number of axes: 5, wire diameter (min.): 0.1 mm, This 5-axis FANUC ROBOCUT alpha C800iB was manufactured in 2016, featuring a large work area with X-axis travel of 800 mm, Y-axis travel of 600 mm, and Z-axis travel of 310 mm. It supports a maximum workpiece weight of 3000 kg and utilizes a CNC control FANUC 31i-WB for precise operations. If you are looking to get high-quality wire EDM capabilities, consider the FANUC ROBOCUT alpha C800iB machine we have for sale. Contact us for more information. • Work area / travels: • U-axis: 200 mm Hsdpfxjx Nr N Ae Abhjp • V-axis: 200 mm • Rapid traverse rates: • X-axis: 2000 mm/min • Y-axis: 2000 mm/min • Z-axis: 900 mm/min • U-axis: 450 mm/min • V-axis: 450 mm/min • Workpiece capacity: • Maximum workpiece dimensions: 1250 × 975 × 300 mm • Maximum workpiece weight: 3000 kg • Wire EDM parameters: • Maximum wire weight: 16 kg • Maximum taper angle: ±30° / 150 mm • Minimum positioning increment: 0.0001 mm • Machine data: • Permissible workpiece mass: 3000 kg • Electrical data: • Power supply: 3-phase, 50/60 Hz • Connected load: 13 kVA

Condition: ready for operation (used), Year of construction: 2017, operating hours: 6,417 h, travel distance X-axis: 600 mm, travel distance Y-axis: 400 mm, travel distance Z-axis: 400 mm, overall weight: 4,400 kg, number of axes: 4, This 4-axis AgieCharmilles FORM 30 was manufactured in 2017. It features a stroke of 600mm x 400mm x 400mm, with axis speeds up to 6 m/min. The machine can handle workpiece weights up to 1000kg and dimensions of 1000 x 700 x 400 mm. It includes a dielectric unit with a 750l capacity and a robust weight of 4400kg. Consider the opportunity to buy this AgieCharmilles FORM 30 die-sinking EDM machine. Contact us for more information about this machine. • Axis speed (X/Y/Z): 4 / 4 / 6 m/min • Position reading accuracy (X/Y/Z): 0.1 µm • C-axis (standard) rotation speed: 0–100 rpm Hedex Nr N Njpfx Abhop • Work tank size: 1200 x 800 x 500 mm • Worktable size: 800 x 600 mm • Max electrode weight: 100 kg • Max workpiece weight: 1000 kg • Workpiece dimensions: 1000 x 700 x 400 mm • Dielectric unit capacity: 750 l • Generator type: ISPG • User interface: AC FORM HMI • Power supply: 3 x 380 V, 3-phase, 50 Hz

Condition: used, Available quantity: 4 units “Removed from a production facility of an automotive supplier, professionally dismantled” Designation: DC high-voltage/insulation test module GH-200.11A Manufacturer: STAHL Prüftechnik Application: Checking and determining voltage and insulation strength Technical data: - Test voltage (setpoint specification): 100 ... 7500 V DC - Control deviation/measurement accuracy: 0.1 % ± 2 V of the setpoint Hedpfozg Ihgjx Abhjp - Rise rate (ramp): 50 V/s - 30 kV/s - Discharge internal resistance: 100 MΩ - Measurement range: 0 ... 7500 V DC - Output isolation: ± 1500 V max. voltage difference between HV 0 output and PE connection - Trigger current: 1 µA ... 10 mA - Measurement ranges: - Range 1: 0 ... 10 mA - Range 2: 0 ... 200 µA - Resolution: 1 nA - Measurement uncertainty: - Range 1 (10 µA to 10 mA): < 0.5 % of the measured value ± 0.5 µA - Range 2 (0.5 µA to 200 µA): < 1.0 % of the measured value ± 0.01 µA - Discharge energy: < 350 mJ Interfaces: - Ethernet (Modbus protocol) - Optional: Profinet, EtherCAT - Optional: 2-channel safety circuit Special features: - Safety current limited to 10 mA - Precise insulation measurements in the GΩ range through guard connection - Compact industrial design for installation in automated testing applications - Voltage supply with wide-range input

Condition: used, Year of construction: 2026, Special Price - Showroom Machine Garbsen Our Machine Concept WL 6 The Weima High-Performance - Shredders with their flexible application possibilities can process all types of wood-based materials (hardwood, softwood, chipboard, MDF materials, plywood, veneer scraps, etc.) into fuel chips, achieving enormous volume reduction of material for bulky items. Functionality: The machine is equipped with a large feed hopper and can be fed with a conveyor belt or by hand. This hopper can be adapted to individual needs and guarantees continuous and cost-effective material feeding without the need for manual assistance. The hydraulically controlled pusher supplies the wood waste to be shredded to the cutting area of the rotor and is automatically and load-dependently controlled. The internal pusher guides are made of highly abrasion-resistant plastic (polyamide) and can be adjusted. The hydraulic cylinders are suspended in a cardanic way to avoid lateral forces on the piston seals. The patented and profiled V-rotor made of solid steel has a diameter of 252 mm and operates with a rotor speed of 80 - 120 rpm. The concavely ground, aggressive, and 4-times reversible knives / cutting crowns are located in milled knife pockets on special knife holders; this patented system guarantees high throughput performance, low energy consumption, and optimum discharge of shredded material by reducing the cutting gap between counter knife and rotor for the first time. The screen located under the rotor determines chip size (10 - 100 mm ). A hydraulically opening screen basket is available upon request. Power transmission from the electric motors is via V-belts to a heavy-duty gearbox mounted on one end of the rotor shaft. Precise cut at high throughput with profiled V-rotor The specially developed by WEIMA V-rotor can be used universally and is made from solid material. Its aggressive material intake with up to two rows of knives guarantees high throughput with low power requirements. It can be equipped with hardened steel cutting knives with edge lengths of 30 mm and 40 mm. These can be turned several times in case of wear, which drastically reduces maintenance costs. Intuitive operation via Siemens PLC control with touch display To ensure that the electronics are optimally matched to the machine, we design, build, and wire our control cabinets ourselves. We use only high-quality components – for example from Siemens or Rittal. Intuitively operated touch surfaces guarantee quick adjustments. Functions such as setting the pusher stroke or stop ensure high throughput. The built-in overload protection also prevents defects on the machine. Technical Specification WL 6Feed opening 800 x 1,250 mmHopper capacity 0.9 m³Rotor length 800 mmRotor diameter 256 mmDrive power 22 kWRotor speed 90 rpmMax. number of knives 42 piecesKnife type and size concave / 40 x 40 mm, cutting crownsScreen perforation 10-60 mmPaint finish WEIMA Standard RAL 2022 / 7016Connection value 400 V +/- 5% / 50 HzWeight approx. 1,600 kgIncluding: - Control cabinet* (Rittal) incl. electrical control (Moeller/Siemens) and S Hedpfx Aoy D E Tdjbhjp

Condition: used, Year of construction: 2007, functionality: fully functional, 6-spindle Hainbuch Spanntop Axfix D22 ARTIS integrated process monitoring system Slide units - Slide unit 1.1: X-axis fixed, Z-axis NC-controlled - Slide unit 2.1: X-axis fixed, Z-axis NC-controlled - Slide unit 1.2: X-axis and Z-axis NC-controlled - Slide unit 2.2: X-axis and Z-axis NC-controlled - Slide unit 3.1: X-axis and Z-axis NC-controlled - Slide unit 3.2: X-axis and Z-axis NC-controlled - Slide unit 4.1: X-axis and Z-axis NC-controlled - Slide unit 4.2: X-axis and Z-axis NC-controlled - Slide unit 5.1: X-axis and Z-axis NC-controlled - Slide unit 5.2: X-axis and Z-axis NC-controlled Hodpsyymbzsfx Abhep - Slide unit 6.1: swiveling axis and Z-axis NC-controlled - Slide unit 6.2: X-axis and Z-axis NC-controlled Synchronization device, position 6.1 Part discharge via chute Workpiece conveyor belt at spindle position 6 High-pressure pump Fire extinguishing system Coolant cleaning system Hinged belt chip conveyor Flat loading magazine: IEMCA SIR MS 22/33 P

Condition: excellent (used), Year of construction: 2007, operating hours: 77,264 h, functionality: fully functional, number of spindles: 6, spindle speed (max.): 10,000 rpm, bar diameter (max.): 22 mm, Equipment: rotational speed infinitely variable, 6-spindle machine Hjdpsyymadofx Abhop Part discharge via chute at spindle position 6 Option for polygon turning Collet holders renewed Chip conveyor Magazine IEMCA SIR MS 22 C / 33 P

Condition: used, loading : max. 2000 to 2200 kg (depending on the product) all stainless steel vacuum pump not included Hedpfx Abszhk Aiohsp Lutetia control adjustable speed tilting system to discharge 1 water filter dimensions (l x w x h) : ± 3.600 x 1.550 x 1.990 mm

Condition: used, Year of construction: 2021, Suitable for the complete machining of rotationally symmetrical workpieces with cutting edges made of ultra-hard cutting materials. The workpieces can be picked up on the fly or between the centres (option). Accessories: Total enclosure HR workpiece magazine (round magazine) for up to 16 workpieces up to 130 mm in diameter, 20 kg, or up to 8 workpieces up to 230 mm in diameter, 20 kg. Magazine disk for 16/8 HSK63-A,E workpieces with a diameter of 130/230 mm, up to 20 kg. Adapter to the A axis for HSK63-A,E. Automatic fire extinguishing system. N282 extraction system with 600 m³/h air flow. Automatic cover flap. Automatic central lubrication. Measuring probe. Cooling unit for dielectric fluid including cooling unit. HSK-A63 test mandrel. Workpiece diameter: up to 320 mm workpiece length: up to 500 mm workpiece weight: up to 25 kg Holding mandrel: SK 50 Wire diameter: 0.1 - 0.25 mm Travel path X1-axis: 535 mm Travel stroke Y1 axis: 300 mm Travel stroke Z1-axis: 195 mm Travel stroke A1--axis: 360 ° Travel stroke C1-axis: 180 ° Connected load approx.: 5 kVA (400 V / 50 Hz) weight: 4100 kg Dimensions W x D x H approx.: 2549 x 3163 x 2709 mm Hedpfjzgunmjx Abhsp colour: RAL 7047 telegray 4, RAL 7045 telegray 1.

Condition: used, Year of construction: 2011, Suitable for the automatic machining of PCD-tipped milling cutters, shank tools, disc-shaped tools such as saws, milling cutters etc. using the wire-electro-erosion process. Accessories: Total enclosure Integrated loading system and tool magazine Automatic machining of up to 12 HSK 63 tools Program for erosion across the tool center at the cutting edge and for free erosion Hardware and software for DNC service Gripper fingers for workpiece automation SK40/HSK63-A,E/HSK63-B,F Adaptation to the A-axis on HSK63-A,E including 25 mm diameter test mandrel (HSK63 A,E system) Grinding mist extraction N 181 Cooling unit for dielectric fluid Automatic fire extinguishing system Measuring probes Machine lamp Automatic central lubrication Tailstock Cutter outside diameter: Max. 250 mm Cutting length: Max. 260 mm Shank tool diameter: 10-250 mm Tool weight: Max. 20 kg traverse: X-axis 275 mm Y-axis travel: 300 mm W-axis travel: 200 mm Rotation range A-axis: 360 ° Hsdpfxozgufxe Abhsp tool holder: ISO 50 E-axis swivel range: 120 ° Dimensions machine: W x D x H = 2535 x 2200 x 2280 mm Weight: about 4500 kg Connected load: 4.5 kW (400 V / 50Hz) colour: telegrey RAL 7045/7047

Condition: used, Year of construction: 2014, Suitable for the automatic machining of PCD-tipped milling cutters, shank tools, disc-shaped tools such as saws, milling cutters etc. using the wire-electro-erosion process. Accessories: Total enclosure Integrated loading system and tool magazine Automatic machining of up to 12 HSK 63 tools Program for erosion across the tool center at the cutting edge and for free erosion Hardware and software for DNC service Gripper fingers for workpiece automation SK40/HSK63-A,E/HSK63-B,F Adaptation to the A-axis on HSK63-A,E including 25 mm diameter test mandrel (HSK63 A,E system) Grinding mist extraction N 181 Cooling unit for dielectric fluid Automatic fire extinguishing system Measuring probes Machine lamp Automatic central lubrication Cutter outside diameter: Max. 250 mm Cutting length: Max. 260 mm Shank tool diameter: 10-250 mm Tool weight: Max. 20 kg traverse: X-axis 275 mm Y-axis travel: 300 mm W-axis travel: 200 mm Rotation range A-axis: 360 ° tool holder: ISO 50 E-axis swivel range: 120 ° Hodpfx Abezguflshsp Dimensions machine: W x D x H = 2535 x 2200 x 2280 mm Weight: about 4500 kg Connected load: 4.5 kW (400 V / 50Hz) colour: telegrey RAL 7045/7047

Condition: excellent (used), Year of construction: 2011, Control PC-NC Dialog Hodpfx Abozfx S Hshop Travel paths X/Y/Z: 1000/1510/700 mm C-axis 30-way electrode changer Hirschmann clamping system Support surface WxD 1140/1640 mm Load capacity 7500 kg Filter system Fire extinguishing system

Condition: used, Year of construction: 1999, Diesinking / EDM Travel distance X: 400 mm Travel distance Y :300 mm Travel distance Z: 300 mm table size X: 550 mm Hodpfozguidex Abhep table size Y: 470 mm max. workpiece size X: 700 mm max. workpiece size Y: 500 mm max. workpiece size Z: 250 mm max. electrode weight: 50 kg max. workpiece weight: 500 kg electrode changer: 20 - time generator: 50 Ampere drop tank Control CNC control: Mitsubishi 32-bit EDM control

Condition: new, functionality: fully functional, power: 55 kW (74.78 HP), Year of construction: 2026, Ball Mill for Powder and Mining Plant: Structure, Function, and Technical Details A ball mill is a key grinding machine widely used in mining, metallurgy, cement, chemical, and powder-making industries. It is designed to grind various ores and other materials into fine powder through impact and attrition between steel balls and the material inside a rotating cylindrical shell. In mining plants, ball mills are essential for ore beneficiation, preparing materials for flotation, magnetic separation, or leaching processes. In powder production, they ensure uniform particle size and high surface area for further processing. Working Principle The ball mill operates on a simple yet effective principle: as the cylindrical shell rotates around its horizontal axis, the grinding media (steel or ceramic balls) are lifted along the inner wall by centrifugal force and friction. When they reach a certain height, they fall freely, striking and grinding the material below. This repeated motion causes both impact and abrasion, reducing the material to the desired fineness. The grinding process can be performed in dry or wet conditions depending on the application. Structural Composition A standard ball mill consists of several main components: Feeding part: Equipped with a feeder or screw conveyor to ensure uniform material input. Discharging part: Can be grate type or overflow type, depending on the discharge method. Rotating part: The cylindrical shell made of steel plates, lined with wear-resistant liners. Transmission system: Includes motor, reducer, small transmission gear, and electrical control. Grinding media: Steel balls or ceramic balls of different diameters for efficient grinding. The internal liner design and ball size distribution are optimized to achieve maximum grinding efficiency and minimal energy consumption. Technical Details Typical Specifications: Feeding size: ≤25 mm Discharge size: 0.074–0.4 mm Capacity: 0.65–615 t/h (depending on model and material hardness) Cylinder speed: 18–38 r/min Power: 18.5–4500 kW Liner material: High manganese steel, rubber, or alloy steel Grinding media load: 30–45% of cylinder volume Operating Modes: Dry grinding: Suitable for materials that must remain moisture-free, such as cement clinker, limestone, and quartz. Wet grinding: Common in ore beneficiation, where water or slurry improves grinding efficiency and particle uniformity. Application in Mining Plants In mining operations, ball mills are used after crushing to further reduce ore size and liberate valuable minerals. They are integrated into grinding circuits with classifiers, hydrocyclones, and flotation systems. The ground material is classified by size, and oversized particles are returned to the mill for regrinding. This closed-circuit system ensures consistent product fineness and efficient energy use. Hjdpsq Nf U Ejfx Abhop Common Applications: Gold, copper, iron, and zinc ore grinding Cement clinker and slag processing Silicate and ceramic powder production Coal and mineral powder preparation Conclusion A ball mill is an indispensable piece of equipment in both powder production and mining beneficiation plants. Its ability to grind materials into fine, uniform particles makes it vital for downstream processes such as flotation, sintering, and chemical reactions.

Condition: new, functionality: fully functional, Year of construction: 2026, Dry and Wet Ball Mill: Structure, Operation, and Technical Details A ball mill is a fundamental grinding device used in mineral processing, cement manufacturing, chemical production, and other industrial applications. It works by rotating a cylindrical shell filled with grinding media—usually steel balls—causing impact and friction that reduce materials to fine powder. Based on the grinding environment, ball mills are classified into dry and wet types, each suited for specific materials and process requirements. Working Principle Both dry and wet ball mills operate on the same mechanical principle. The rotating cylinder, driven by a motor through a gear system, lifts the grinding media and material along the inner wall. As the rotation continues, the balls fall under gravity, striking and grinding the material. The difference lies in the presence or absence of a liquid medium during grinding. Dry Ball Mill A dry ball mill is used when the material must remain moisture-free or when water could affect product quality. It is commonly applied in cement clinker, limestone, quartz, and refractory material grinding. The discharge can be either grate type or overflow type, depending on the desired fineness. Technical Features: Feeding size: ≤25 mm Discharge size: 0.075–0.4 mm Capacity: 0.65–90 t/h Liner material: High manganese steel or wear-resistant alloy Drive system: Gear-driven or direct-coupled motor Dust control: Equipped with air exhaust and dust collector Advantages: Suitable for materials sensitive to moisture No drying process required after grinding Lower corrosion risk and simpler maintenance Easier material classification and separation Limitations: Dry grinding produces more dust and heat, requiring efficient ventilation and dust collection systems. Wet Ball Mill A wet ball mill operates with water or another liquid medium added to the material. The slurry formed during grinding improves efficiency by reducing friction and preventing excessive heat buildup. It is widely used in ore beneficiation, ceramics, and chemical industries. Technical Features: Hjdpfx Aoq Nx Alobhjp Feeding size: ≤25 mm Discharge size: 0.074–0.2 mm Capacity: 0.65–615 t/h Liner material: Rubber or high-chromium steel Discharge method: Overflow or grate type Auxiliary equipment: Classifier, pump, and thickener for slurry circulation Advantages: Higher grinding efficiency and finer particle size Reduced dust and noise levels Continuous operation suitable for beneficiation circuits Better control of particle uniformity Limitations: Requires drying if the final product must be in powder form and involves more complex slurry handling. The selection between dry and wet grinding depends on the material characteristics, downstream process, and environmental conditions. Dry mills are preferred for materials that must stay moisture-free, while wet mills are ideal for fine grinding and slurry-based processes. Conclusion Dry and wet ball mills share the same mechanical structure but differ in their grinding environment and application scope. The dry type offers simplicity and low maintenance for moisture-sensitive materials, while the wet type provides higher efficiency and finer output for mineral and chemical processing. Understanding their technical parameters and operational differences ensures optimal equipment selection, improved productivity, and reliable performance in industrial grinding operations.

Condition: used, Year of construction: 2008, functionality: fully functional, workpiece weight (max.): 250 kg, travel distance X-axis: 400 mm, travel distance Y-axis: 250 mm, travel distance Z-axis: 220 mm, total height: 2,000 mm, total length: 3,000 mm, total width: 2,300 mm, wire diameter (max.): 0.3 mm, workpiece height (max.): 215 mm, workpiece width (max.): 560 mm, workpiece length (max.): 800 mm, type of input current: AC, overall weight: 2,500 kg, input voltage: 400 V, positioning accuracy: 0.001 mm, Equipment: cooling unit, documentation/manual, CHMER A422S Wire EDM Machine Year of manufacture: 2008, used Travel in X: 400 mm Travel in Y: 250 mm Travel in Z: 220 mm Maximum workpiece size: 800 x 560 x 215 mm Hedszhvhwspfx Abhjp Maximum workpiece weight: 250 kg Travel in U x V: +/- 30 mm Maximum taper angle: +/- 14.5° / 80 mm Wire diameter: 0.15 to 0.3 mm Axis drive system: AC servo motors Glass scales in X and Y axes Achievable surface accuracy: RA 1.6 µm Anti-electrolysis generator CNC control: FANUC compatible 15“ TFT touch screen monitor Handheld remote control Automatic wire threading with thermal wire cutting, Threading without water jet in 6 seconds Dielectric cooler Block for automatic vertical and conical wire alignment Documentation in English Connection: 400 V, 3-phase, 13 kVA Dimensions (L x W x H): 230 x 300 x 200 cm Machine weight: 2,500 kg Optional Hirschmann clamping frame: € 2,000.00 Commissioning, price based on effort Basic training, price based on effort

Condition: used, Year of construction: 2008, functionality: fully functional, workpiece weight (max.): 250 kg, travel distance X-axis: 400 mm, travel distance Y-axis: 250 mm, travel distance Z-axis: 220 mm, total height: 2,000 mm, total length: 3,000 mm, total width: 2,300 mm, wire diameter (max.): 0.3 mm, workpiece height (max.): 215 mm, workpiece width (max.): 560 mm, workpiece length (max.): 800 mm, type of input current: AC, overall weight: 2,500 kg, input voltage: 400 V, positioning accuracy: 0.001 mm, Equipment: cooling unit, documentation/manual, CHMER A422S Wire EDM Machine Year of manufacture: 2008, used Travel in X: 400 mm Travel in Y: 250 mm Travel in Z: 220 mm Maximum workpiece size: 800 x 560 x 215 mm Maximum workpiece weight: 250 kg Travel in U x V: +/- 30 mm Maximum taper angle: +/- 14.5° / 80 mm Wire diameter: 0.15 to 0.3 mm Axis drive system: AC servo motors Glass scales in X and Y axes Achievable surface accuracy: RA 1.6 µm Anti-electrolysis generator CNC control: FANUC compatible 15” TFT monitor Handheld remote control Automatic wire threading with thermal wire cutting Threading without water jet in 6 seconds Dielectric cooler Block for automatic vertical and conical wire alignment Documentation in English A horizontal rotary axis (6th axis) is included. This was removed due to lack of need and was not in use. Connection: 400 V, 3-phase, 13 kVA Dimensions (L x W x H): 230 x 300 x 200 cm Machine weight: 2,500 kg Optional Hirschmann clamping frame: €2,000.00 Commissioning, price based on effort Hodpfx Abszhvhdohjp Basic training, price based on effort

Condition: ready for operation (used), Year of construction: 2017, operating hours: 28,500 h, travel distance X-axis: 400 mm, travel distance Y-axis: 300 mm, travel distance Z-axis: 220 mm, wire diameter (max.): 0.3 mm, overall weight: 2,700 kg, controller manufacturer: MITSUBISHI, controller model: D-CUBES, number of axes: 5, wire diameter (min.): 0.1 mm, This Mitsubishi MV1200S wire EDM machine was manufactured in 2017. It features an X-axis travel of 400 mm, Y-axis travel of 300 mm, and Z-axis travel of 220 mm. The machine is equipped with automatic wire threading and the Mitsubishi D-CUBES control system, ensuring efficient and stable production. If you are looking to get high-quality wire EDM capabilities, consider the Mitsubishi MV1200S machine we have for sale. Contact us for further details. • Control: Mitsubishi D-CUBES • Automatic wire threading: Yes • U/V travel: 120 / 120 mm • Maximum workpiece dimensions: 810 x 700 x 200 mm Hodpfx Abjzgg S Rshsp • Maximum taper angle: ±30° @ 87 mm, ±15° @ 200 mm • Condition: Regularly used and well maintained; very good technical condition • Operating hours: approx. 28,500 h • Inspection: Machine can be inspected under power • Documentation: Available

Condition: new, functionality: fully functional, fuel type: electric, Year of construction: 2026, Spring & Hydraulic Cone Crusher: Design, Operation, and Technical Insights Cone crushers are vital in mining, metallurgy, and aggregate production, designed for secondary and tertiary crushing of hard and medium-hard materials. Among the most common types are the spring cone crusher and the hydraulic cone crusher, each offering distinct advantages in structure, performance, and control. Spring Cone Crusher The spring cone crusher is a traditional design that uses mechanical spring systems for overload protection. When uncrushable material enters the crushing chamber, the spring mechanism allows the bowl liner to move downward, preventing damage to the crusher. Once the foreign object passes, the springs restore the original position, ensuring continuous operation. Structural Composition: Main frame and base assembly Hjdpfjtxhybjx Abhop Eccentric shaft and transmission system Fixed and moving cones (mantle and concave) Spring and adjustment mechanism Working Principle: Material is fed into the crushing chamber and compressed between the mantle and concave. The laminated crushing principle ensures that particles are crushed by both impact and pressure, producing uniform and well-shaped aggregates. Technical Highlights: Feed size: ≤300 mm Discharge size: 3–60 mm Capacity: 30–700 t/h Motor power: 75–400 kW Advantages: Simple structure, low maintenance cost, stable performance, and reliable overload protection. Applications: Widely used in crushing granite, basalt, iron ore, copper ore, and limestone. It is suitable for medium-scale operations where cost efficiency and durability are priorities. Hydraulic Cone Crusher The hydraulic cone crusher is an advanced evolution of the spring design, integrating hydraulic systems for improved automation, safety, and precision. It replaces the mechanical spring system with hydraulic cylinders that control the discharge opening and provide overload protection. Structural Composition: Main frame and eccentric assembly Hydraulic cylinders and control system Crushing chamber with optimized liner design Automatic lubrication and hydraulic adjustment units Working Principle: The hydraulic system adjusts the discharge opening and releases pressure automatically when uncrushable material enters. This prevents mechanical damage and allows the crusher to resume operation quickly. The combination of high-speed eccentric motion and optimized chamber geometry enhances crushing efficiency and product quality. Technical Highlights: Feed size: ≤320 mm Discharge size: 3–50 mm Capacity: 45–1200 t/h Motor power: 90–630 kW Advantages: Automatic cavity cleaning, precise control, high crushing ratio, and superior particle shape. Applications: Ideal for large-scale mining, aggregate production, and high-demand crushing lines requiring consistent output and minimal downtime. Comparative Overview Both crushers operate on the same compression principle but differ in control and automation. The spring cone crusher offers simplicity and cost-effectiveness, making it suitable for stable working conditions. The hydraulic cone crusher provides advanced control, faster adjustment, and higher efficiency, ideal for modern, large-capacity plants.

Condition: new, power: 55 kW (74.78 HP), Year of construction: 2026, A hammer crusher is a machine that uses high-speed rotating hammers to crush and break materials into smaller pieces. It is commonly used in various industries, including mining, cement, construction, metallurgy, and chemical processing. The basic principle of a hammer crusher involves a central rotor with hammers or blades that rotate and impact the material being crushed against a hard surface. Here are the key features and components of a typical hammer crusher: 1. Rotor: - The rotor is a central component of the hammer crusher. It usually consists of a shaft with multiple discs or hammers attached. - The rotor's rotation causes the hammers to swing outward, impacting the material. 2. Hammers: - Hammers are the striking or crushing elements attached to the rotor. They can be fixed or pivotally attached. - The material is crushed as the hammers impact it, generating kinetic energy. 3. Casing or Housing: - The casing or housing encloses the rotor and hammers, providing structural support and safety. - It also serves to contain the crushed material and direct it to the desired discharge point. 4. Grate Bars or Screens: - Positioned at the bottom of the crusher casing, grate bars or screens control the size of the crushed material by allowing smaller particles to pass through while keeping larger ones inside for further crushing. 5. Impact Plate: - Located near the bottom of the crusher, the impact plate absorbs the impact energy generated by the hammers and prevents excessive wear on the casing. Hedpfx Aeq I Nxdobhop 6. Drive System: - The hammer crusher is powered by a motor connected to the rotor through a drive belt or coupling. - The motor provides the necessary power to rotate the rotor, enabling the hammers to crush the material. 7. Adjustable Discharge: - Some hammer crushers feature an adjustable discharge, allowing users to control the size of the crushed material by adjusting the gap between the impact plate and the hammers. 8. Applications: - Hammer crushers are used for crushing a variety of materials, including coal, limestone, gypsum, aggregates, and various minerals. - They are commonly employed in the mining industry for primary and secondary crushing of ore. - In the cement industry, hammer crushers are used to crush limestone and other materials before they are mixed into the raw meal. 9. Maintenance and Safety: - Regular maintenance is essential to ensure the efficient operation of a hammer crusher. This includes checking and replacing worn hammers, inspecting the rotor, and lubricating moving parts. - Safety features, such as access doors and safety guards, are typically incorporated to prevent accidents during operation and maintenance. Technical Specifications (Typical MINGYUAN Series) Model Category,Max Feed Size,Capacity (t/h),Motor Power (kW),Rotor Speed (rpm) Small (PC-400), ≤100mm, 5 – 10, 11, "1,000" Medium (PC-800),≤200mm, 20 – 50, 55, 750 – 900 Heavy (PC-1200),≤350mm, 80 – 110, 132 – 160, 600 – 750 Heavy Hammer,"≤1,200mm", "500 – 1,000+ ","400 – 1,000" ,Variable

Year of construction: 2026, condition: new, ceramic ball mill ,Batch ball mill ,also called ceramic ball mill ,it is used for fine grinding of feldspar,quartz,clay,ore and so on.The ceramic ball mill is mainly used for material mixing, grinding,uniform product fineness,and saving power.It can be dry or wet.The machine can use different liner types according to production needs to meet different needs.The fineness of the grinding operation is controlled by the grinding time ceramic ball mill Working principle Hjdsvzx Auopfx Abhop when ball mill working,steel balls inside drum will rotate with the drum to some height,and then steel balls fall down with materials to reach the point of grinding. Working Principle of Ceramic ball mill ceramic ball mill ,Intermittent ball mill grinding operation is finished in the cylinder body. When the cylinder rotates, materials ascend to a certain height and then fall along a certain path due to the balls' gravity. Two forces are generated on the balls inside. One is the force on balls through tangent direction; the other is a opposite force in the contrast to the diameter of balls, as a result of the force generated when the balls slide down. These two forces will constitute a couple for the steel balls. The balls are squeezed between the cylinder and the adjacent steel balls, so the couple can make unequal-sized friction force. The balls will orbit along with the cylinder axis and then fall down, which can produce a strong impact force on the ores in the cylinder body and, as a result, the ores will be crushed. In conclusion, the ores in the cylinder body are mainly crushed by composite effect of peeling force, impact force and extrusion force. Ceramic ball mill also named Intermittent ball mill which adopts the wet intermittent operation, is used for fine grinding and mixing the material such as feldspar, quartz, clay ceramic raw materials. The discharging and the mud size can through through 1000 sieve pore. This machine is high milling machinery, materials should be Broken in the fineness of the state into the grinding mill to get the highest efficiency and economic benefits. The cement mill is key equipment for the grinding process of the cement clinker after the crushing process of it. It is mainly used in the cement silicate product industry. After long term design and manufacture of the cement mill, our company now has series of cement mill with various specifications to meet with different requirement from our customers. Features of Cement Mill Our company adopts suitable transmission methods according to different specifications. We have brim drive and center drive as transmission form. The cylinder adopts new type step lining to increase the grinding area. And it is easily repairable and changeable. The new designed separate-chambered structure adopts flexible lifting blade and fixed lifting blade and it is easily fixed and repaired. Technical Details We have different models and options for different requirements, please contact us for more info.

Condition: new, functionality: fully functional, power: 75 kW (101.97 HP), Year of construction: 2025, Impact Crusher: Structure, Operation, and Technical Specifications An impact crusher is a high-efficiency crushing machine widely used in mining, cement, construction, and recycling industries. It is designed to crush materials by utilizing the energy of impact rather than pressure, making it ideal for medium-hard and soft materials such as limestone, gypsum, coal, and concrete aggregates. Its ability to produce uniform, cubic-shaped particles makes it a preferred choice for aggregate production and fine crushing applications. Working Principle The impact crusher operates on a simple yet powerful principle: material is fed into the crushing chamber and struck by high-speed rotating blow bars mounted on a rotor. The kinetic energy from the rotor transfers to the material, causing it to break upon collision with the impact plates (also known as breaker plates). The crushed material rebounds within the chamber for secondary impacts until it reaches the desired size and exits through the discharge opening. The process involves: Primary Impact: Material is hit by blow bars and thrown against the impact plates. Secondary Impact: Rebounded fragments collide again with the rotor or other particles, achieving finer crushing and better shape. Structural Composition An impact crusher consists of several key components that ensure efficient operation and durability: Rotor Assembly: The core component, equipped with blow bars that deliver high-speed impact energy. Impact Plates (Aprons): Adjustable plates that control the crushing gap and final product size. Feed Inlet and Discharge Outlet: Designed for smooth material flow and uniform discharge. Frame and Housing: Heavy-duty welded structure providing stability and vibration resistance. Adjusting Device: Hydraulic or mechanical system for controlling the gap between rotor and impact plates. Safety Mechanism: Hydraulic opening system for easy maintenance and overload protection. Technical Highlights Feed size: ≤500 mm Discharge size: 0–60 mm (adjustable) Capacity: 30–800 t/h Motor power: 45–560 kW Rotor speed: 500–1500 rpm Performance Features: High Crushing Efficiency: The high-speed rotor and optimized chamber design ensure strong impact force and high reduction ratio. Excellent Particle Shape: Produces cubic, uniform aggregates suitable for concrete and asphalt production. Adjustable Output Size: Hydraulic or mechanical adjustment allows precise control of product size. Easy Maintenance: Replaceable blow bars and liners with quick access doors simplify servicing. Versatile Applications: Suitable for primary, secondary, and tertiary crushing in various industries. Types of Impact Crushers Horizontal Shaft Impact (HSI) Crusher: Uses a horizontal rotor to deliver impact energy. Ideal for soft to medium-hard materials and widely used in aggregate and recycling applications. Conclusion Hjdpfsv E Ddlox Abhsp The impact crusher combines high-speed impact energy with a robust structural design to deliver efficient, reliable, and versatile crushing performance. Its ability to produce well-shaped aggregates, adjustable output sizes, and low maintenance requirements make it indispensable in modern crushing systems. Whether in mining, construction, or recycling, the impact crusher remains a key machine for achieving high productivity and superior material quality.

Condition: new, functionality: fully functional, power: 260 kW (353.50 HP), fuel type: electric, color: dark red, overall weight: 42,000 kg, operation weight: 42,000 kg, chain condition: 100 %, axle configuration: 3 axles, Year of construction: 2026, The construction industry is moving away from the "build-demolish-dump" cycle and toward Urban Mining. At the heart of this shift is the Mobile Stone Crusher, a powerhouse designed to turn piles of jagged concrete and brick into high-quality recycled aggregate right on the job site. --- ## 1. The Engineering Logic: From Waste to Wealth In a traditional setup, demolition waste is hauled to a landfill—a process that is expensive, carbon-heavy, and wasteful. A mobile crusher flips the script. It brings the factory to the waste. By processing materials on-site, contractors save on transport costs and produce "Road Base" or "Sub-base" materials immediately. ### Key Components of a Mobile C&D Plant: Hsdpfx Aeq I Nviebhop * Vibrating Feeder: Uses a "Grizzly" bar system to pre-screen fines (dirt/sand) so the crusher only works on the big stuff. * Crushing Unit: Usually a Jaw Crusher (for primary compression) or an Impact Crusher (for better grain shape and higher reduction ratios). * Magnetic Separator: This is the "secret sauce" for C&D waste. It pulls out rebar and scrap metal that would otherwise contaminate the recycled aggregate. * Discharge Conveyor: Transports the finished product to a stockpile. --- ## 2. Technical Specifications & Performance When evaluating these machines, "Throughput" ($TPH$ or Tons Per Hour) is the metric that matters. For C&D recycling, the machine must handle unpredictable feed sizes and varied material hardness. ### Typical Technical Specifications Table | Feature | Specification Range | Why it matters | | --- | --- | --- | | Throughput | 100 – 500 $t/h$ | Determines project timeline efficiency. | | Max Feed Size | 500mm – 1,100mm | Dictates if you need a hydraulic breaker first. | | Power Source | Diesel-Electric or Hydraulic | Dual power (Electric) is better for urban noise/emissions. | | Crusher Type | Jaw or Impact | Impactors provide a more "cubic" final product. | | Mobility | Crawler Tracks | Essential for moving over uneven rubble piles. | --- ## 3. The "C&D" Specialization Recycling construction waste isn't just about "breaking rocks." It’s about cleaning material. Modern mobile units are equipped with: 1. Over-belt Magnets: Specifically designed to lift heavy steel reinforcement bars (rebar) out of the crushed concrete flow. 2. Dust Suppression: High-pressure misting systems to keep neighbors happy and workers healthy in tight urban environments. 3. Active Pre-screening: Removing sticky soil or asphalt fines before they enter the crushing chamber to prevent "plugging." > The Insight: Using a mobile crusher can reduce project carbon footprints by up to 40% simply by eliminating the "truck-in, truck-out" logistics of aggregate management. --- ## 4. Maintenance and Longevity Because C&D waste is highly abrasive (and often contains "surprises" like wood or plastic), maintenance is non-negotiable. * Jaw Plates: Must be flipped or replaced regularly to maintain the "Closed Side Setting" (CSS), which determines the size of your output. * Blow Bars: In impact crushers, these are the high-wear items that take the brunt of the force. --- Would you like me to compare the cost-effectiveness of Jaw vs. Impact crushers for a specific type of demolition project, or perhaps look into the environmental regulations regarding on-site crushing?

Condition: new, Year of construction: 2026, functionality: fully functional, power: 11 kW (14.96 HP), A triple pass rotary drum dryer is a type of industrial dryer that is used to reduce or remove moisture from a material. It gets its name from the three rotating drums through which the material passes, each with a different purpose in the drying process. This type of dryer is commonly used in the production of various bulk solids, including minerals, agricultural products, and biomass. Here are the key features and components of a triple pass rotary drum dryer: 1. Triple Pass Design: - The material being dried passes through three rotating drums or cylinders, hence the term "triple pass." Each drum serves a specific purpose in the drying process. 2. Material Flow: - The material enters the dryer and first passes through the innermost drum. After the initial drying phase, it moves to the middle drum and then to the outer drum, undergoing additional drying in each pass. 3. Heat Source: - Heat is typically provided by a combustion system, such as a burner or furnace, located at one end of the drum dryer. The hot gases generated by the combustion process flow through the rotating drums, transferring heat to the material. 4. Air Flow: - The dryer is designed to optimize air flow through the drums, ensuring efficient drying. In a triple pass design, the material and hot gases move counter-currently through the three drums, enhancing heat transfer and drying efficiency. 5. Lifting Flights or Lifters: - Lifters are internal components inside the drums designed to lift and cascade the material as it rotates. This movement promotes good heat transfer and uniform drying. Hodpfx Ajq Nfuzebhop 6. Retention Time: - The triple pass configuration allows for an extended retention time of the material in the drying system. This longer exposure to heat enhances the drying efficiency, making the triple pass rotary drum dryer suitable for materials with high moisture content. 7. Cooling Section: - After the material completes the three passes and reaches the end of the drum dryer, a cooling section may be included to reduce the temperature of the dried material before it is discharged. 8. Applications: - Triple pass rotary drum dryers are used in various industries, including agriculture (drying crops like grains), minerals (drying ores or concentrates), and biomass (drying wood chips or other organic materials). 9. Efficiency and Energy Consumption: - Triple pass rotary drum dryers are known for their high efficiency due to the extended drying time and effective heat transfer. However, they may have higher energy consumption compared to single or double pass dryers. When selecting a triple pass rotary drum dryer, it's essential to consider factors such as the type of material to be dried, required moisture reduction, and overall processing requirements. Proper design and operation are crucial to achieving optimal drying performance. Technical details We have different options for different requirements, please contact our team for more info.