Used Lutro Stationary Machine for sale (65,777)

Condition: good (used), Year of construction: 2013, functionality: fully functional, rotational speed (min.): 4,500 rpm, feed length Z-axis: 500 mm, fuel type: electric, fuel: electricity, throat depth: 500 mm, Model Year: 2013 Chuck Diameter: 12" Number of Axes: 2 Length: 500mm Swing Over Bed: 500mm Spindle Speed (RPM): 3000 Fedpfx Aox Nhx Tedcjph Processable Material Types: Steel, Aluminum, Titanium, Graphite, Copper, Invar, Composite, Delrin, Peek

Condition: good (used), Year of construction: 2013, functionality: fully functional, spindle speed (min.): 4,000 rpm, travel distance Z-axis: 500 mm, Year of manufacture: 2012 Chuck diameter: 10" Number of axes: 2 Turning length: 500 mm Swing diameter: 400 mm Fpodpsx Nmm Ajfx Adcsh Spindle speed (RPM): 4,000 Processable materials: Steel, Aluminium, Titanium, graphite, Copper, Invar, Composite, Delrin, Peek

Condition: good (used), Year of construction: 2010, spindle speed (min.): 1,500 rpm, travel distance Z-axis: 650 mm, Model Year: 2010 Chuck Diameter: 17" Number of Axes: 2 Length: 650mm Fpsdex N A A Tspfx Adcjh Spindle Bore Diameter: 650mm Spindle Speed (RPM): 1500 Machinable Materials: Steel, Aluminum, Titanium, Graphite, Copper, Invar, Composite, Derlin, Peek

Condition: good (used), Year of construction: 2013, functionality: fully functional, spindle speed (min.): 3,000 rpm, feed length Y-axis: 500 mm, Year of manufacture: 2013 Fsdpfx Ajx Nmuaedcoph Chuck diameter: 10" Number of axes: 3 Length: 500 mm Swing diameter: 400 mm Spindle speed (rpm): 3000 Machinable materials: Steel, Aluminum, Titanium, Graphite, Copper, Invar, Composite, Delrin, Peek

Condition: good (used), Year of construction: 2015, functionality: fully functional, turning diameter: 500 mm, travel distance Z-axis: 800 mm, Year of Manufacture: 2015 Chuck Diameter: Collet Fpedpfsx Nn Eyox Adcjh Number of Axes: 2 Length: With guide Throat Diameter: 35mm Spindle Speed (RPM): 4500 Machinable Material Types: Steel, Aluminum, Titanium, Graphite, Copper, Invar, Composite, Delrin, PEEK

Condition: good (used), Year of construction: 2007, functionality: fully functional, Model Year: 2007 Width: 1100 mm Length: 410 mm Height: 640 mm Number of Axes: 3 Tool Holder: BT50 Spindle Speed (rpm): 6,100 Processable Material Types: Steel, Aluminum, Titanium, Graphite, Copper, Invar, Composite, Delrin, Peek Fpsdpfx Adex Tt I Ujcjh

Condition: used, Year of construction: 2012, Model Year: 2012 Width: 1,050 mm Length: 515 mm Height: 600 mm Number of Axes: 3 Holder: BT40 Spindle Speed (RPM): 8,000 Fjdpfx Adsx Tuddjcjph Processable Materials: Steel, Aluminum, Titanium, Graphite, Copper, Invar, Composite, Delrin, Peek

Condition: good (used), Year of construction: 2007, functionality: fully functional, rotational speed (min.): 3,000 rpm, feed length Z-axis: 500 mm, fuel type: electric, fuel: electricity, throat depth: 500 mm, Chuck Diameter: 12" Spindle Bore: 500 mm Machinable Materials: Steel, Aluminum, Titanium, Graphite, Copper, Invar, Composite, Delrin, PEEK Fpsdpfsx Nnryex Adcoh

Condition: good (used), Year of construction: 2014, spindle speed (min.): 2,000 rpm, travel distance Z-axis: 500 mm, Year of manufacture: 2014 Fodpfsx Nwphex Adcoph Chuck diameter: 15'' Number of axes: 3 Length: 500 mm Swing diameter: 450 mm Spindle speed (RPM): 2000 Machinable material types: Steel, aluminium, titanium, graphite, copper, Invar, composite, Delrin, Peek

Condition: new, functionality: fully functional, Year of construction: 2026, control type: CNC control, degree of automation: automatic, actuation type: hydraulic, controller manufacturer: Shenzhen ICM Technology Development Co., Ltd., controller model: 880W02, pipe diameter (max.): 38 mm, pipe length (max.): 3 mm, tube wall thickness (max.): 2 mm, bending angle (max.): 190 °, bending radius (max.): 200 mm, bending radius (min.): 2 mm, mandrel length: 150 mm, number of axes: 2, table length: 3 mm, overall weight: 1,300 kg, total length: 3,900 mm, total width: 900 mm, total height: 1,400 mm, power: 4 kW (5.44 HP), input voltage: 400 V, input current: 20 A, input frequency: 50 Hz, type of input current: three-phase, oil tank capacity: 80 l, number of digital displays: 1, warranty duration: 36 months, Equipment: CE marking, documentation/manual, emergency stop, foot remote control, quick-change device, Full Automatic Pipe Bending Machine DW38CNC-3A-1S Equipped with a touchscreen and CNC control system; capable of storing up to 500 sets of parameter groups. Features a rebound compensation setting program, with built-in confidentiality protection for programs and processing data. Servo control is adopted for corner bending, pipe bending and material feeding functions. The operating system is protected by passwords and physical keys, and supports production quantity & runtime records for efficient production management. Comes with slow bending and slow core pulling functions. Fpodey Uuw Tspfx Adceh Fault messages are displayed on the screen to help operators troubleshoot problems promptly. Touchscreen This pipe bender is equipped with a Weinview industrial touchscreen for its operation interface, which delivers an intuitive operation experience and allows new operators to get started quickly. You can directly edit the pipe bending process parameters on the interface, such as feeding distance, rotation angle and bending angle, and separately set the running speed for each step. During operation, the interface displays real-time axis positions, bending progress and production cycle, and automatically counts total output and shift output to help you manage production efficiency effectively. It also supports manual single-step debugging, automatic continuous operation, program editing and equipment parameter setting. Different modes can be switched with one click, making it convenient for machine trial runs and mass production alike. Hydraulic solenoid valve manifold This integrated hydraulic solenoid valve manifold serves as the control center of the CNC pipe bender's hydraulic system. Adopting industrial-grade modular design, it integrates multiple solenoid valves to independently control the movements of the feeding axis, rotating axis, bending axis, as well as clamping, auxiliary pushing and other auxiliary mechanisms. Linked with the CNC system, it converts control commands into precise hydraulic power output, enabling smooth operation throughout pipe feeding, rotation and forming. Matched with high-pressure sealed hydraulic hoses, it maintains zero leakage and high stability under full-load operating conditions, delivering reliable performance for long-term mass production. Servo drive These four units are Mitsubishi servo drives equipped on our pipe bender, acting as the power core that governs key movements including material feeding, pipe rotation and pipe bending. Adopting Mitsubishi MR-JE series industrial-grade high-end servo drives, they feature high positioning accuracy and fast response. Both feeding distance and rotating angle can be controlled precisely with no deviation. With excellent stability, they rarely lose steps or malfunction during long-hour continuous operation. This ensures consistent bending precision for every pipe and a high finished product yield.

Condition: new, functionality: fully functional, Year of construction: 2026, control type: NC control, degree of automation: automatic, actuation type: hydraulic, controller manufacturer: Nanjing Estun, controller model: E21S, working width: 3,200 mm, cutting angle (min.): 0.5 °, stroke rate (min.): 15 1/min, stroke rate (max.): 15 1/min, sheet thickness (max.): 8 mm, sheet thickness aluminum (max.): 10 mm, sheet thickness brass (max.): 10 mm, sheet thickness copper (max.): 10 mm, sheet thickness steel (max.): 8 mm, sheet thickness stainless steel (max.): 4 mm, table height: 850 mm, back gauge adjustment: motor-driven, back gauge: 600 mm, back gauge speed R-axis: 40 mm/s, power: 7.5 kW (10.20 HP), input voltage: 400 V, input current: 30 A, input frequency: 50 Hz, type of input current: three-phase, control voltage: 400 V, oil tank capacity: 220 l, overall weight: 7,000 kg, total length: 3,950 mm, total width: 1,700 mm, total height: 2,150 mm, number of support arms: 3, warranty duration: 24 months, Equipment: CE marking, documentation/manual, emergency stop, finger protection, foot remote control, safety light barrier, type plate available, QC11K-8/3200 Guillotine shearing machine The frame adopts an all-steel welded structure, boasting sufficient strength and rigidity. Internal stresses are eliminated through normalizing and high-frequency vibration treatment to ensure the overall precision of the machine body. German large-scale floor-type boring and milling machines are employed for precision machining using a one-time processing method, guaranteeing exceptional machining accuracy. It features a hydraulic swing-type structure with an upper tool rest return device powered by nitrogen cylinders, enabling fast return speeds. The hydraulic system utilizes an integrated logic circuit controlled by sequence valves, ensuring stable operation, low noise, and straightforward maintenance. Tool rest movement is regulated by hydraulic valves for precise control. The material pressing device incorporates an integrated circuit and independent parallel clamping cylinders. When dealing with uneven sheet metal, the cylinders can expand and contract freely to securely clamp the material. The clamping force is adjustable according to the sheet material and thickness, preventing any damage to the sheet surface. Motorized adjustment allows for quick setting of the blade gap, offering simple operation to adapt to shearing requirements of different sheet thicknesses and materials. Control is achieved through a numerical control (NC) system, enabling fixed-stroke shearing operations. An optical line alignment device facilitates scribed line shearing for enhanced accuracy. The electrical control system is centralized and reliable, with the following key features: All power facilities are installed within the machine body, operated and controlled via buttons on the control panel. Fjdpfx Adey Uquhjcjph A foot switch is provided for direct and convenient operation of the shearing action. Core electrical components are sourced from Schneider for guaranteed quality and reliability. Circuit breakers are installed to protect the control circuit against short circuits. Motor thermal-magnetic circuit breakers provide protection against motor overload and short circuits. The hydraulic system is designed for safety and reliability: The hydraulic system manifold block is equipped with a direct-acting safety relief valve to ensure accurate pressure adjustment. A pipeline check valve is specially installed at the pump head to protect the oil pump from hydraulic shock. Both upper and lower blades are made of high-quality materials and undergo full heat treatment, ensuring sufficient hardness and a long service life. The ball-rolling worktable and front material supporting device facilitate easy feeding while preventing scratches on workpieces during operation. The CNC back gauge device is equipped with high-performance servo motors, drives, precision ball screws, and linear guides, achieving a positioning accuracy of ≤±0.1mm. For the CNC electrical system:The back gauge is controlled by the E21S simple CNC system. Users can directly input the desired values, and the back gauge automatically moves to the specified position upon confirmation. Transmission is achieved through a motor-driven precision lead screw and nut assembly, with digital display via a counter. Fine-tuning for free size correction is not configured to ensure shearing precision, with an error of ≤0.2mm per meter. Three front support arms are fixed on the worktable, providing convenient placement for shearing materials.

Condition: new, Year of construction: 2026, functionality: fully functional, power: 22 kW (29.91 HP), input voltage: 400 V, input current: 30 A, input frequency: 50 Hz, type of input current: three-phase, pressing force: 315 t, stroke length: 800 mm, operating speed: 120 mm/s, reverse speed: 100 mm/s, table width: 1,160 mm, table length: 1,260 mm, table height: 600 mm, ram plate width: 1,160 mm, ram plate length: 1,260 mm, distance table to ram: 1,250 mm, clearance between the columns: 1,160 mm, retraction force: 30 t, oil tank capacity: 510 l, total length: 2,000 mm, total width: 1,250 mm, total height: 3,500 mm, overall weight: 13,000 kg, Equipment: CE marking, documentation/manual, safety light barrier, YQ32-315T Hydraulic Press This series of presses are general-purpose hydraulic presses, widely used in machinery manufacturing, automotive, motor, electrical appliance, light industry and other industries. They are suitable for metal processing procedures including drawing, bending, flanging, cold extrusion and blanking. The machines also perform straightening, press fitting, as well as compression molding of powder products, abrasive products, plastic products and insulating materials. The working pressure, pressing speed and stroke can all be adjusted within the specified parameter range according to process requirements. Equipped with an independent power unit and electrical control system, the press adopts centralized push-button control and supports three operation modes: manual, semi-automatic and automatic. It is available with two pressing modes: pressure setting and stroke setting. Operation Sequence: Motor start → Main cylinder piston rapid no-load downstroke → Low-speed pressurization → Pressure holding (holding time adjustable) → Pressure relief → Slide return stroke → Work stop → Total stop Mainframe The mainframe adopts a vertical three-beam four-column structure, consisting of an upper beam, a slide, and a lower beam connected by four columns, which are fastened with nuts to form a closed rigid frame. All major structural components of the mainframe are fabricated from welded steel plates using CO₂ gas shielded welding. After welding, the entire frame undergoes vibration stress relief to eliminate internal residual stresses. Key components are machined on advanced equipment such as gantry milling machines, large floor-type boring and milling machines, and large precision lathes, ensuring high overall accuracy of the machine. The mainframe is pre-tensioned using hydraulic nuts. The slide is connected to the piston rod of the main cylinder and moves up and down guided by the columns. T-slots are provided on the lower surface of the slide and the upper surface of the movable worktable for die mounting. The columns are made of high-quality 45 carbon steel with hard chrome plating on the surface; the column guide sleeves are made of composite material, offering excellent wear resistance and self-lubricating properties. Fjdpfx Adey Uiyvjceph

Condition: new, functionality: fully functional, Year of construction: 2026, control type: PLC-controlled, degree of automation: automatic, actuation type: hydraulic, controller manufacturer: Siemens, controller model: PLC, number of rollers: 4, roller (bottom) diameter: 190 mm, roller (top) diameter: 210 mm, side roll diameter: 170 mm, roller diameter: 210 mm, roller length: 2,050 mm, working width: 2,000 mm, roller height adjustment: 700 mm, working height: 700 mm, sheet thickness (max.): 8 mm, sheet thickness steel (max.): 8 mm, sheet thickness stainless steel (max.): 5 mm, sheet thickness aluminum (max.): 10 mm, sheet thickness brass (max.): 15 mm, sheet thickness copper (max.): 15 mm, overall weight: 5,000 kg, total length: 4,600 mm, total width: 1,400 mm, total height: 1,700 mm, power: 5.5 kW (7.48 HP), input voltage: 400 V, input current: 30 A, input frequency: 50 Hz, number of digital displays: 1, warranty duration: 24 months, Equipment: cone bending device, documentation/manual, emergency stop, foot remote control, hardened rollers, W12-8X2000 Four-roller Plate Rolling Machine Fpodpfx Adoy Ugtaoceh This machine is equipped with plate end pre-bending and CNC rolling functions. It allows the metal plate to be fed in one single pass, completing pre-bending and roll forming of the workpiece without the need for turning over the plate. The upper working roller serves as the main drive roller, while the lower roller and two side rollers are hydraulically driven. Their lifting strokes are controlled by the CNC system, enabling automatic leveling with a synchronous display accuracy of ±0.1 mm. The tilting and resetting of the tilting bearing housing adopts a hydraulic transmission structure, and the upper roller is equipped with a balancing mechanism to facilitate the removal of the finished workpiece. The machine comes with a movable independent control console for flexible repositioning at any time, and is equipped with safety interlock devices to ensure safe and reliable operation. Working Roll Material The working rolls are made of 42CrMo high-strength premium alloy steel, manufactured through forging, rough machining, and quenching & tempering heat treatment, achieving a bulk hardness of HB 240–300. After finish machining, they undergo medium-frequency induction hardening, resulting in a surface hardness of HRC 47–58. The products comply with the JB/ZG4289-86 standard for roll steel, ensuring uniform roll rigidity with a controlled deflection of (1/700–1/1000)L. Note: L refers to the center distance between the two side frames. The entire production process strictly follows the standard manufacturing flow for rolls, fully guaranteeing the comprehensive mechanical properties of the working rolls. Working Roll Rotation & Drive System The upper roll is the driving roll of the four-roller rolling machine. It is fitted with an independent hydraulic motor directly coupled to the heavy-duty gear housing, with no intermediate gear transmission. This is the most energy-efficient drive design. The hydraulic motor is equipped with an instant braking device, enabling accurate positioning of the roll shaft during pre-bending operations. Double-row spherical roller bearing Excellent Self-aligning Performance The outer ring adopts a spherical structure, allowing the inner ring and roller assembly to deflect within an angle of 1.5°~3°. It can automatically compensate for misalignment caused by installation errors and shaft deflection, preventing seizure and abnormal wear. Heavy Load & Impact Resistance Line contact between rollers and raceways enables the bearing to withstand extremely high radial loads as well as bidirectional axial loads, perfectly suited for heavy-duty working conditions of rolling machine rolls. High Durability Made of high-strength bearing steel with quenching and other heat treatments. Combined with a well-designed lubrication system, it ensures long-term stable operation under harsh conditions and greatly reduces downtime for maintenance.

Condition: new, Year of construction: 2026, functionality: fully functional, power: 7.5 kW (10.20 HP), input voltage: 400 V, input current: 30 A, input frequency: 50 Hz, type of input current: three-phase, pressing force: 100 t, stroke length: 200 mm, operating speed: 140 mm/s, reverse speed: 130 mm/s, table width: 60 mm, table length: 3,200 mm, table height: 850 mm, throat depth: 500 mm, ram plate width: 50 mm, ram plate length: 3,200 mm, distance table to ram: 460 mm, clearance between the columns: 2,700 mm, retraction force: 10 t, oil tank capacity: 230 l, total length: 3,800 mm, total width: 1,800 mm, total height: 2,750 mm, overall weight: 7,300 kg, Equipment: CE marking, documentation/manual, safety light barrier, This machine tool is designed and manufactured with the latest technology, ensuring its strength, rigidity and safety performance. It adopts an integral high-quality steel plate welded structure with a heavy-duty and high-rigidity frame. The machine surface is coated with imported anti-rust primer and topcoat, keeping the equipment in good condition permanently. The machine tool is mainly composed of the frame, upper slide, backgauge system, slide block and synchronous control device, dies, hydraulic system, control system and other components. Fpedpsy Uc Nkefx Adcjh Product detail display Frame Section It adopts a frame-type structure, consisting of worktable vertical plates, left and right side plates, and connecting beams. It is integrally welded with steel plates, featuring high rigidity, high strength and excellent resistance to torsional deformation. Internal stress is eliminated through processes such as surface shot blasting, ensuring long-term stability of the overall machine precision. During bending, the deformation of the upper slide and worktable is minimal, which guarantees excellent straightness and angular consistency of workpieces. Die and Clamping Device It is composed of upper and lower dies, featuring high precision, premium quality and long service life. The upper die is mounted on the slide block, securely fixed by a precision quick-release clamping device. The lower die adopts a dual-V concentric design, allowing for fast and convenient die changeover, effectively reducing operator labor intensity, and significantly improving overall production efficiency.device. The lower die adopts dual V concentric design, enabling fast and convenient die change, reducing intensity and improving efficiency. Throat Opening Deflection Compensation Device A linear encoder is installed on each side of the machine to measure and feed back the precise distance between the slide block and the lower worktable. The encoders are connected to the worktable via C-frames, effectively eliminating the influence of frame throat deformation on the slide block position. Position data is fed back to the CNC system, which outputs signals to control the hydraulic proportional servo valves, ensuring accurate synchronization of the two cylinders. Backgauge System Adopts the latest Belgian-designed backgauge for exceptional precision and stability. Driven by servo motors and ball screws, it delivers high speed and outstanding positioning accuracy. The unique dual linear guide rail structure ensures excellent long-term repeatability. Multi-stage positioning expands the working range, offering superior value for investment. Modular design allows axis configuration from single-axis X to multi-axis options. Mechanical Compensation Device Adopts an integrated mechanical compensation wedge block, motor-driven for precise adjustment. It automatically fine-tunes the worktable alignment, offsetting deflection caused by bending forces. The system ensures consistent precision along the entire length of the workpiece. It provides reliable, repeatable adjustment, eliminating the need for manual correction, and significantly improving bending accuracy.

Condition: new, Year of construction: 2026, Creating a cheap portable or mobile sand making plant involves optimizing costs while maintaining functionality and efficiency. Here's a basic outline of components and considerations for designing a cost-effective portable sand making plant: 1. Portable Sand Making Machine: - Select a cost-effective sand making machine that meets your production requirements. Consider factors like capacity, efficiency, and maintenance costs. - Look for options that offer good performance at a lower initial investment. 2. Screening Equipment: - Choose a portable screening unit to separate the sand into different sizes. This is crucial for producing high-quality sand with the desired particle size distribution. - Consider modular screening units that are easy to transport and set up. 3. Conveyor Systems: - Utilize conveyors to transport raw materials between different components of the plant. Opt for simple and reliable conveyor systems. - Explore cost-effective conveyor options that are easy to maintain. 4. Hopper and Feeder: - Incorporate a hopper and feeder system to ensure a continuous flow of raw materials to the sand making machine. This helps optimize the production process. - Choose a design that minimizes material spillage and wastage. 5. Power Source: - Consider energy-efficient power sources to reduce operational costs. This could include using generators or connecting to the electrical grid, depending on the availability and cost of electricity in your location. 6. Chassis and Mobility: - Opt for a simple and robust chassis design that allows for easy transportation. Depending on your needs, choose between wheels or tracks for mobility. - Aim for a design that facilitates quick setup and dismantling to save time and labor costs. 7. Control System: - Implement a user-friendly control system that enables operators to monitor and adjust the sand making process efficiently. - Consider automation features that enhance control and reduce the need for constant manual intervention. Fpedpfx Aoq N Ud Ijdceh 8. Dust Control and Environmental Considerations: - Integrate effective dust control measures to comply with environmental regulations and ensure a safe working environment. - Explore environmentally friendly features to align with sustainability goals. 9. Modular Design: - Consider a modular design for easy customization and scalability. This allows you to adapt the plant to varying production needs over time. 10. Used Equipment: - Explore the possibility of using refurbished or used equipment to cut down on initial costs. Ensure that the used equipment is in good working condition and can meet your production requirements. Remember that while cost optimization is important, it's crucial to maintain the quality and efficiency of the sand making process. Additionally, compliance with environmental regulations should be a priority. Always consider the specific requirements of your project and seek professional advice if needed.

Condition: new, functionality: fully functional, Year of construction: 2025, For crushing dolomite and phonolite rocks, various types of rock crushing machines can be employed, depending on the characteristics of the rocks and the desired final product specifications. Here are some common types of crushers that may be suitable for processing dolomite and phonolite: 1. Jaw Crusher: - Jaw crushers are commonly used for primary crushing and can handle hard and abrasive materials. They are suitable for both dolomite and phonolite rocks. 2. Impact Crusher: - Impact crushers are versatile and suitable for both primary and secondary crushing. They work by impacting the material with hammers or blow bars, producing a high reduction ratio. Impact crushers can be effective for shaping the final product. 3. Cone Crusher: - Cone crushers are often used for secondary or tertiary crushing. They are suitable for processing harder rocks and can produce well-shaped and fine-grained aggregates. 4. Gyratory Crusher: Fpodpfx Ajq Nyuvodcjh - Gyratory crushers are used for large-scale primary crushing. They have a conical-shaped head and are well-suited for handling abrasive materials. However, they are less commonly used than jaw or cone crushers. 5. Vertical Shaft Impact (VSI) Crusher: - VSI crushers are suitable for shaping and producing artificial sand. They operate by throwing the material against a set of anvils or impellers to break it down into finer particles. 6. Hammer Crusher: - Hammer crushers are used for crushing softer materials and may be suitable for rocks like phonolite. They operate by applying force to the material, causing it to break along natural fault lines. 7. Roll Crusher: - Roll crushers are used for reducing the size of friable materials. They consist of two counter-rotating rolls that compress the material between them. 8. Screening Equipment: - After the initial crushing stage, screening equipment such as vibrating screens may be used to separate different sizes of crushed material. 9. Dust Suppression Systems: - Crushing operations can generate dust, and dust suppression systems are used to minimize environmental and health impacts. 10. Mobile Crushers: - Mobile crushers, including crawler mobile crushers, offer flexibility and mobility, allowing them to be used directly at the quarry or job site. When selecting a crusher for dolomite and phonolite rocks, consider factors such as the hardness of the material, the desired final product specifications, and the production capacity required. Additionally, it's important to integrate the crushing process into an overall plant design that may include screening, conveying, and washing equipment depending on the specific needs of the application.

Condition: new, functionality: fully functional, Year of construction: 2025, The VSI (Vertical Shaft Impactor) sand making machine is a type of crusher designed to accelerate the crushing of aggregate and produce cubical-shaped sand. It is widely used in the field of construction, mining, and other similar industries. Here are key features and information about VSI sand making machines: 1. Working Principle: - The VSI sand making machine operates on the principle of stone impacting stone or stone impacting iron. Material is fed into the center of the rotor, which accelerates to high speed to throw the material outward against a wear-resistant lining. 2. Rotor and Crushing Chamber: - The rotor is a crucial part of the VSI machine and is often designed with multiple pockets to facilitate material throwing and crushing. - The crushing chamber is lined with wear-resistant materials to endure the impact and abrasion during the crushing process. 3. Feedstock Control: - The feedstock (material to be crushed) can be controlled using a variable speed control system, allowing for adjustments to achieve the desired particle size. 4. Material Types: - VSI machines are suitable for processing various materials, including hard and abrasive materials such as rocks, ores, and minerals. 5. Cubical Shaping: - One of the significant advantages of VSI machines is their ability to produce cubical-shaped end products, which is desirable for high-quality concrete and asphalt production. 6. Adjustable Discharge: - The machine usually has an adjustable discharge opening, allowing for customization of the final product size. 7. Sand Production: - VSI sand making machines are primarily used to produce manufactured sand (M-sand) and crushed sand, which are essential components in the construction industry. 8. Maintenance: Fpjdpfx Ajq Nd U Hodceh - Regular maintenance is required to ensure optimal performance and extend the machine's lifespan. This includes checking wear parts, lubrication, and addressing any issues promptly. 9. Variations: - Different manufacturers may offer variations of VSI machines with unique features or specifications. Common variations include open rotor and closed rotor designs. 10. Environmental Considerations: - VSI sand making machines are generally considered environmentally friendly as they produce less dust and noise compared to traditional crushers. 11. Manufacturers: - Well-known manufacturers produce VSI sand making machines, and it's crucial to choose a reputable supplier with a track record of providing reliable equipment. When considering a VSI sand making machine, factors such as feed size, capacity, and the desired end product specifications should be taken into account. Additionally, check the reputation of the manufacturer, and consider customer reviews and feedback regarding the specific model you are interested in.

Condition: new, power: 110 kW (149.56 HP), Year of construction: 2025, Bauxite Crusher: Bauxite is an aluminum ore, and crushers or mills are used to break down the bauxite into smaller pieces for further processing. Jaw crushers, impact crushers, or cone crushers may be used for this purpose. Granite Crusher: Granite is a hard and durable natural stone. Crushers used for granite crushing typically include jaw crushers, impact crushers, and cone crushers. These crushers can handle the varying hardness of granite and produce different sizes of crushed products. Bentonite Crusher: Bentonite is a type of clay with excellent water-absorbing and plasticity properties. Crushers such as jaw crushers or cone crushers are used to break down the bentonite into a manageable size for further processing. Barite Crusher: Barite, also known as baryte, is a mineral consisting of barium sulfate. Crushers like jaw crushers and cone crushers are commonly used in the crushing process of barite. Impact crushers may also be used for shaping and processing finer particles. For each of these minerals, the selection of the appropriate crusher depends on factors such as the hardness of the material, the required final product size, and the specific characteristics of the deposit. It's also important to consider whether a primary crusher, secondary crusher, or even tertiary crusher is needed in the processing flow. Additionally, for certain applications, grinding mills may be employed after the initial crushing stage to further reduce the size of the particles. Grinding mills suitable for these minerals might include ball mills, Raymond mills, or vertical roller mills, depending on the specific requirements of the process. Fsdpfjq Nx Apjx Adcsph Remember that the choice of crushers and mills is often part of a larger mineral processing plant design, and the selection process should take into account the overall production requirements, mineral characteristics, and economic considerations.

Condition: new, Year of construction: 2025, A sand aggregate production plant is a facility where various types of aggregates (such as sand, gravel, crushed stone, or recycled concrete) are produced for use in construction and other applications. These plants typically include various stages of processing, from raw material extraction to the final product. Fpjdpjq Ngb Djfx Adcsh Here are the key components and processes typically involved in a sand aggregate production plant: 1. Raw Material Extraction: - Quarrying or Mining: Aggregates are often extracted from quarries, mines, or riverbeds. Depending on the type of aggregate, the extraction process may involve drilling, blasting, or dredging. 2. Primary Crushing: - Jaw Crusher or Gyratory Crusher: The extracted raw material is usually transported to the plant and fed into a primary crusher, where large rocks are broken down into smaller pieces. 3. Secondary Crushing: - Cone Crusher or Impact Crusher: The crushed material from the primary crusher may undergo further reduction in size through secondary crushing. 4. Screening: - Vibrating Screens: After crushing, the material is often screened to separate different sizes of aggregates. This process ensures that the final product meets the required specifications. 5. Washing: - Sand Washers: In some cases, especially for sand production, washing is done to remove impurities, clay, and fines from the aggregates, ensuring a cleaner and higher-quality product. 6. Grading and Sorting: - Classifiers or Graders: After washing and screening, the aggregates may go through additional processes to separate them based on size or quality. 7. Stockpiling: - Stockpiles: The final aggregates are usually stockpiled for storage before being transported to construction sites or other end-users. 8. Aggregate Storage and Handling: - Storage Bins or Silos: Larger production plants may have storage facilities, such as bins or silos, to store different types and sizes of aggregates before distribution. 9. Quality Control: - Laboratory Testing: Regular quality control testing is performed on aggregates to ensure they meet specifications for strength, size, gradation, and other properties. 10. Environmental Considerations: - Water Management: Some plants incorporate water management systems to recycle and reuse water used in the washing process, minimizing environmental impact. 11. Transportation: - Conveyors or Trucks: Aggregates are typically transported from the production plant to construction sites by conveyors, trucks, or other means.

Condition: new, Year of construction: 2025, Gravel and aggregate production equipment is used to crush, screen, and process stones, rocks, and other materials for the construction industry. This equipment is essential in producing various types of aggregates, including crushed stone, gravel, sand, and recycled concrete, which are used in the construction of roads, buildings, bridges, and other infrastructure projects. Here are some common types of equipment used in gravel and aggregate production: 1. Jaw Crusher: - Jaw crushers are primary crushers used to break down large rocks into smaller, more manageable pieces. They are essential for the initial stage of aggregate production. 2. Impact Crusher: - Impact crushers are used to crush rocks and stones with the help of impact force. They are suitable for shaping and producing fine aggregates. 3. Cone Crusher: - Cone crushers are often used for secondary and tertiary crushing in aggregate production. They produce well-shaped and finely graded aggregates. 4. Vertical Shaft Impact (VSI) Crusher: - VSI crushers are designed for shaping and producing high-quality artificial sand. They are suitable for processing materials with high abrasiveness. 5. Screens: - Vibrating screens are used to separate different sizes of aggregates. They classify the material based on particle size and ensure that the final products meet specified gradation requirements. 6. Scalping Screens: - Scalping screens are used to remove oversized materials before they reach the primary crusher. This helps to optimize the crushing process and prevent damage to the equipment. 7. Washing Equipment: - Washing equipment, such as sand screws or log washers, is used to remove impurities and fine particles from aggregates. This is particularly important for producing high-quality concrete sand. 8. Conveyors: - Conveyors are used to transport materials between different stages of the crushing and screening process. They play a crucial role in enhancing efficiency in material handling. 9. Stackers and Reclaimers: - Stackers are used to create stockpiles of processed aggregates, while reclaimers are used to retrieve the material from the stockpile. Both are essential for efficient material storage and handling. 10. Crushing Plants: Fpedpeq Nxz Defx Adcjh - Complete crushing plants include various types of crushers, screens, and conveyors integrated into a single system. These plants are designed to handle large volumes of material efficiently.

Condition: new, Year of construction: 2025, turning diameter over cross slide: 250 mm, turning length: 730 mm, turning diameter: 500 mm, spindle speed (max.): 1,800 rpm, CNC lathe machine CK 6150 with flat bed Fpodpfexdmgvsx Adcoh We offer a new CNC lathe machine model CK6150. We use this machine in our production and you can see it in operation before ordering. The CK 6150 lathe has a flat bed and hardening guides, which ensures a long period of operation of the equipment. The machine is equipped with a CNC system, the GSK CNC system is installed as standard. Optionally, the machine can be equipped with a Fanuc or Siemens CNC system. The machine can have a tool holder for 4-6 or 8 tools, depending on the customer's wishes. It is possible to install a hydraulic chuck on the machine, which will greatly simplify the process of installing parts on it and a hydraulic tailstock. The CK 6150 lathe can be equipped with additional supporting frame for more accurate manufacturing of long parts. Technical specifications: Model CK 6150 x 1000 Maximum workpiece diameter over bed 500 mm Maximum workpiece diameter over support 250 mm Maximum workpiece length 1000 mm Maximum turning length 730 mm Spindle bore diameter 82 mm Spindle speed 150-1800 rpm Engine power 7.5 kW Mechanical chuck (hydraulic optional) Chuck size 250 mm. 4-position tool holder (6 or 8 optional) Maximum tool size for tool holder 25x25 mm Machine weight 2700 kg Machine dimensions 2650×1700×1820 mm We can also supply lathes CK 6140, CK 6150 and CK 6160 with other dimensions of the working part: CK 6140 dimensions of the working part 550/750 mm CK 6150 dimensions of the working part 1000/1500/2000 mm CK 6160 dimensions of the working part 1000/1500/2000 mm CK 6152E dimensions of the working part 1000/1500/2000/3000 mm CK 6165E dimensions of the working part 1000/1500/2000/3000 mm CK 6165E dimensions of the working part 1000/1500/2000/3000 mm CK 6185E dimensions of the working part 1000/1500/2000/3000/4000 mm CK 61100E dimensions of the working part 1000/1500/2000/3000 mm CK 61125E dimensions of the working part 1000/1500/2000/3000 mm

Condition: ready for operation (used), functionality: fully functional, Year of construction: 2013, operating hours: 72,700 h, machine/vehicle number: A1220A1012, laser hours: 34,021 h, sheet thickness steel (max.): 25 mm, sheet thickness stainless steel (max.): 20 mm, sheet thickness aluminum (max.): 12 mm, working length: 3,000 mm, working width: 1,500 mm, Laser cutting system + LiftMaster + 4 Stopa storage towers No minimum price – guaranteed sale to the highest bidder! TECHNICAL DETAILS Control system: Sinumerik 840D SL Working area: 3,000 x 1,500 x 115 mm Speed: max. 140 m/min Accuracy: 0.1 mm Laser: CO2 laser TruFlow 5000 with optimized standby mode Laser power: 5000 W Sheet thickness, steel: max. 25 mm Sheet thickness, stainless steel: max. 20 mm Sheet thickness, aluminum: max. 12 mm STOPA storage system with 4 towers Year of manufacture: 2006 Load capacity: 3 t Sheet format: 1,250 x 2,500 mm Storage capacity: 63 t Storage height: 3,800 mm Storage locations: 21 MACHINE DETAILS Operating hours: 72,700 / 34,021 h Length: 9,300 mm Width: 4,600 mm Height: 2,200 mm Weight: 12,000 kg Voltage: 400 V 50 Hz Connected load: 105 kVA EQUIPMENT Torque drive in combination with linear direct drives Enclosed beam guidance Single cutting head strategy Cooling unit Automatic pallet changer in the longitudinal direction Wide longitudinal conveyor belt Position laser diode Spray system PierceLine FocusLine NitroLine PlasmaLine ControlLine ContourLine FastLine FlyLine AdjustLine Microweld Production plan Fast re-production Automatic shutdown Low-maintenance turbo radial fan Laser control TASC Fedpfx Adsy U Nf Sscoph Laser cutting head with 250 mm lens Universal cutting head quick-change system (UTI) with bus connection LensLine with condition monitoring CE marking Light curtains Multi-chamber extraction system Laser monitoring system Compact dust extraction system

Condition: used, Year of construction: 2003, operating hours: 23,000 h, travel distance X-axis: 1,000 mm, travel distance Y-axis: 950 mm, travel distance Z-axis: 1,000 mm, controller model: OSP-E100M, spindle speed (max.): 10,000 rpm, No minimum price – guaranteed sale to the highest bidder! Submitting a bid obligates you to collect the machine on time by the end of week 26 of 2026! TECHNICAL DETAILS Travel in X-axis: 1,000 mm Travel in Y-axis: 950 mm Travel in Z-axis: 1,000 mm Main spindle speed: 12,000 rpm Table width: 630 mm Table height: 630 mm NCB B-axis: 0.001 degrees MACHINE DETAILS Control system: OSP-E100M Dimensions (L x W x H): 6,500 x 3,460 x 3,280 mm Operating hours: approx. 23,000 h EQUIPMENT 2 APC pallet changing systems Fpjdezbamfepfx Adceh 100 ATC tool changer SK50 with tool ID Coolant system Mayfran Consept Renishaw preparation (receiver) Tool breakage monitoring installed in the magazine (special development) An optional tool package with 230 tools is available for the machine for €5,000. The seller can offer dismantling, transport securing, removal and loading for an additional charge of €7,850.

Condition: ready for operation (used), Year of construction: 2005, operating hours: 39,256 h, functionality: fully functional, travel distance X-axis: 780 mm, travel distance Y-axis: 560 mm, travel distance Z-axis: 560 mm, controller model: Heidenhain iTNC 530 , rotational speed (max.): 12,000 rpm, TECHNICAL DETAILS Travel range X-axis: 780 mm Travel range Y-axis: 560 mm Travel range Z-axis: 560 mm B-axis, infinitely adjustable: 150° (-120°/+30°) Rapid traverse rate (X / Y / Z): 50 m/min Feed rate: 20 - 15,000 mm/min Spindle speed (max.): 12,000 rpm Main spindle drive power: 28 / 19 kW Max. torque: 125 Nm Tool interface: SK 40 Number of pallets: 2 Pallet size: 630 x 500 mm Max. load: 400 kg Table speed range: max. 30 rpm Number of tool positions: 120 Max. tool diameter: 80 mm Max. tool diameter with free adjacent tool pocket: 160 mm Max. tool length: 315 mm Max. tool weight: 8 kg MACHINE DETAILS Control system: Heidenhain iTNC 530 Total power consumption: 64.2 kVA Fodpfx Aezcqa Sedcoph Dimensions & Weight Footprint: approx. 7.0 x 7.0 x 2.8 m Machine weight: approx. 12.0 t Operating Hours Operating hours: 39,256 h Power-on hours: 72,107 h EQUIPMENT Chip conveyor Coolant system High-pressure cooling 40 bar through-spindle coolant Paper band filter Pallet changer, 2 positions Tool breakage monitoring According to the seller, the spindle was presumably replaced. However, no service report is available to confirm this. The machine's data storage was renewed in January 2026. No CE declaration of conformity is available in DIN A4 or PDF format.

Condition: ready for operation (used), Year of construction: 2008, functionality: fully functional, travel distance X-axis: 450 mm, travel distance Y-axis: 650 mm, travel distance Z-axis: 460 mm, controller model: HEIDENHAIN ITNC 530, spindle speed (max.): 28,000 rpm, TECHNICAL DETAILS Number of axes: 5 Travel range, X-axis: 450 mm Travel range, Y-axis: 650 mm Travel range, Z-axis: 460 mm Swivel angle (A-axis): -10 / +110 ° Tool magazine Number of positions: 60 Maximum tool diameter: 80 mm Maximum tool length: 250 mm Maximum tool weight: 6 kg Tool holder and spindle Tool holder: HSK 63 Minimum spindle speed: 2 rpm Maximum spindle speed: 28,000 rpm Fsdpozaqhqsfx Adceph MACHINE DETAILS Operating time according to counter: 94,552 h Operating hours according to counter: 24,219 h Connection voltage: 400 V Spindle power: 38 / 28 kW Total power consumption: 70 kVA Dimensions & Weight Dimensions (L x W x H): 3,210 x 2,930 x 2,900 mm Machine weight: approx. 9,500 kg