Stainless steel tank Pressure vessel Tank

Condition: ready for operation (used), Year of construction: 1996, machine/vehicle number: 755T, functionality: fully functional, cutting length (max.): 3,050 mm, sheet thickness steel (max.): 8 mm, No minimum price – guaranteed sale to the highest bidder! Includes a second Siemens S5 control unit as a spare part! TECHNICAL DETAILS Steel sheet thickness: 8 mm Cutting length: 3,050 mm MACHINE DETAILS Hydraulic pressure: 250 bar Total weight: 10,000 kg EQUIPMENT Cybelec documentation Wiring diagram Bsdpfx Amjzd U R Nsnjdd Second Siemens S5 control unit (spare)

Condition: new, Year of construction: 2026, A superfine ball mill is a type of milling machine that is used to grind materials into very fine particles. This type of ball mill has some distinctive features that make it especially suitable for processing even the hardest materials with low contamination and minimal wear. It is commonly used in various industries, including pharmaceuticals, minerals, pigments, and chemicals, for producing micro powder or nanoparticles. Bdodpjq Nf Uwjfx Amnod Here are some key features and considerations for a superfine ball mill for micro powder: 1. High Grinding Efficiency: Superfine ball mills are designed to achieve high grinding efficiency by utilizing grinding media with a relatively small size, leading to a large surface area for grinding. 2. Precision Control: These mills often come with advanced control systems to regulate parameters like rotation speed, temperature, and grinding time, allowing precise control over the particle size distribution. 3. Specialized Design: The mill is typically designed with features to minimize contamination, such as using materials resistant to wear and corrosion. Some mills also have cooling systems to prevent overheating during the milling process. 4. Variety of Materials: Superfine ball mills can handle a wide range of materials, including both brittle and fibrous substances. They are often used for milling hard materials that require fine grinding, such as ceramics, minerals, or pigments. 5. Size Reduction to Micro or Nano Level: The primary goal of a superfine ball mill is to reduce particle size to the micro or even nano level. This is achieved by the intense grinding action that occurs within the mill. 6. Classifier System: Some superfine ball mills incorporate a classifier system to control the particle size distribution more precisely. This allows for the separation of fine particles from coarser ones during the milling process. 7. Batch or Continuous Operation: Depending on the specific design, these mills can operate in either batch or continuous mode, offering flexibility based on the production requirements. 8. Safety Measures: Safety features may be included, such as monitoring and control systems to prevent overloading, overheating, or other potential issues during operation. When selecting a superfine ball mill for micro powder production, it's important to consider the specific requirements of your application, the characteristics of the materials you're working with, and the desired final particle size distribution. Always follow the manufacturer's guidelines for operation, maintenance, and safety to ensure optimal performance and longevity of the equipment.

Condition: ready for operation (used), Year of construction: 2005, functionality: fully functional, machine/vehicle number: 796022, overall weight: 2,488 kg, load capacity: 420 kg, arm reach: 3,076 mm, controller model: KRC2, repeat accuracy: 0.06 mm, number of axes: 6, TECHNICAL DETAILS Rated load capacity: 420 kg Reach: 3,076 mm Repeatability (ISO 9283): ±0.06 mm Range of motion A1: ±185° A2: -40° / +110° A3: -184° / +60° Bdodpfxezduq No Amnjd A4: ±350° A5: ±118° A6: ±350° Speed at rated load capacity A1: 69 °/s A2: 69 °/s A3: 69 °/s A4: 77 °/s A5: 76 °/s A6: 120 °/s MACHINE DETAILS Controller: KRC2 Number of axes: 6 Mounting position: Floor Ambient temperature (storage/transport): -40 °C to 60 °C Weight: 2,488 mm EQUIPMENT Manipulator KRC2 control cabinet Complete cable set Teach pendant

Condition: ready for operation (used), Year of construction: 2004, functionality: fully functional, machine/vehicle number: 172087, turning diameter: 660 mm, spindle bore: 76 mm, spindle speed (max.): 5,000 rpm, controller model: MAZATROL Fusion 640 MT, spindle torque (max.): 349 Nm, TECHNICAL DETAILS Maximum turning diameter: 660 mm Main spindle Speed range: 35–5,000 rpm Power (10 min / continuous operation): 22 / 15 kW Maximum torque: 349 Nm Spindle bore: 76 mm Chuck diameter: 210 mm C-axis indexing: 0.0001° Bdodpfozgufrex Amned Sub-spindle Speed range: 35–5,000 rpm Power (10 min / continuous operation): 18.5 / 15 kW Maximum torque: 326 Nm Chuck diameter: 210 mm C-axis indexing: 0.0001° Cooling Coolant tank volume: 300 l Pump capacity: 20 l/min Pump pressure: 5 bar Compressed air requirement: 5 bar, 500 l/min MACHINE DETAILS Control model: MAZATROL Fusion 640 MT Total power consumption: 66 kVA Operating voltage: 400 V / 50 Hz EQUIPMENT Technical documentation Chip conveyor with cooling system 20-position tool magazine B-axis (positioning in 0.001° increments) C-axis Y-axis Milling spindle Angular positioning of the sub-spindle Synchronization of main and sub-spindle Tool setting system (Tool Eye) Interlock for the front door Complete cooling system Interface for IC memory card

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. 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. Bodpfx Amoq N Ud Ijnodd 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: ready for operation (used), functionality: fully functional, turning diameter over cross slide: 402 mm, turning length: 758 mm, turning diameter: 450 mm, spindle speed (max.): 3,000 rpm, turning diameter over bed slide: 582 mm, No minimum price – guaranteed sale to the highest bidder! TECHNICAL DETAILS Maximum turning diameter: 450 mm Maximum turning length: 758 mm Diameter of rotation over the bed: 582 mm Diameter of rotation over the cross slide: 402 mm Spindle speed: 3,000 rpm Maximum spindle torque: 351 Nm Distance between centers: 744 mm Bar diameter: 81 mm Chuck size: 260 mm (10") Bsdpfxozgt U Se Amnjdd Maximum bar diameter: 40 mm Axes: X, Z Number of tool positions in the tool changer: 12 Tool shank size: 25 × 25 mm Travel in the X-axis: 250 mm Travel in the Z-axis: 790 mm Rapid traverse rate in the X/Z direction: 30 m/min MACHINE DETAILS Control model: Hurco WinMax Spindle power: 22 kW Power supply: 400 V / 50 Hz (market-dependent) Machine weight: approx. 5,000 kg

Condition: ready for operation (used), Year of construction: 2008, functionality: fully functional, machine/vehicle number: X2S174, turning diameter over cross slide: 246 mm, turning length: 1,200 mm, spindle speed (max.): 2,700 rpm, turning diameter over bed slide: 400 mm, controller model: Fanuc 0i-TF Plus, No minimum price – guaranteed sale to the highest bidder! TECHNICAL DETAILS Swinging diameter over bed: 400 mm Swinging diameter over cross slide: 246 mm Swinging diameter in the steady rest area: 585 mm Spindle speed range: 1–2,700 rpm Distance between centers: 1,200 mm Spindle bore: 55 mm / 80 mm Spindle nose: D1-6 Camlock Chuck size: 250 mm Axes: X, Z MACHINE DETAILS Control model: Fanuc 0i-TF Plus Main motor power: 7.5 kW Bdsdpfx Aezgt Uremned Machine weight: approx. 2,200–2,500 kg EQUIPMENT Coolant system Manual tailstock Automatic lubrication of guideways and ball screws

Year of construction: 2012, condition: good (used), VMI 2400L high shear mixing vessel Bedpsrambyjfx Amnsdd 2012, Stainless, 2400l jacketed mixing vessel, top mounted agitation and scrape surface, central high shear mixing shaft, with centrifugal pump, 3Ph

Condition: ready for operation (used), Year of construction: 2018, functionality: fully functional, turning diameter: 460 mm, spindle speed (max.): 3,500 rpm, spindle bore: 86 mm, bar passage: 78 mm, controller model: Fanuc 32iTB iHMI, center width: 689 mm, CMZ turning and milling center including GL20II gantry loader! TECHNICAL DETAILS Turning diameter over bed: 760 mm Bedpozdrzxsfx Amnodd Turning diameter over cross slide: 600 mm Maximum turning diameter: 460 mm Distance between centers: 689 mm Travel distance tailstock: 640 mm Travel distance X-axis: 310 mm Travel distance Z-axis: 640 mm Travel distance Y-axis: +70/-50 mm Travel distance B-axis: 640 mm Rapid traverse rates: 30/30/15/30 m/min Spindle speed max.: 3,500 rpm ASA 8" A2 Spindle bearing outer diameter: 200 mm Spindle bearing inner diameter: 130 mm Spindle bore: 86 mm Bar passage: 78 mm Number of tool stations: 12, all driven, 12,000 rpm Tool holder: 25x25 (50) MACHINE DETAILS Operating hours: 43,712 h Total operating hours: approx. 35,000 h Control system: Fanuc 32iTB iHMI Dimensions & Weight Machine dimensions (L x W x H): 2,542 x 1,760 x 1,880 mm Machine weight: 6,500 kg EQUIPMENT Gantry loader

Condition: refurbished (used), Year of construction: 2013, functionality: fully functional, machine/vehicle number: 7600-101325, load capacity: 340 kg, arm reach: 2,800 mm, pivoting range: 360 °, warranty duration: 4 months, Equipment: documentation/manual, Robot with a 4-month warranty General overhaul included: - Cleaning: Thorough cleaning of the robot panel and surface. - Oil change: Changing the oils for all six axes. - Battery replacement: All internal batteries were replaced with new batteries. - Mechanical maintenance: Gears and counterweight were inspected and serviced after repeatability and weight tests. - Electronic maintenance: Drivers, electronic boards, teach pendant, and PC components were serviced. - Polishing and repainting: The robot was polished and repainted in the original color or a custom color upon request. TECHNICAL DETAILS Reach: 2800 x 3171 mm Payload: 340 kg Control: IRC5 Axis 1 – Rotation motion: +180° to -180° Axis 2 – Arm motion: +85° to -60° Axis 3 – Arm motion: +60° to -180° Axis 4 – Wrist motion: +300° to -300° Axis 5 – Bend motion: +100° to -100° Axis 6 – Turn motion: ±360° (standard), max. ±67 revolutions Dynamics (max. rotation speed per axis) Axis 1: 75°/s Axis 2: 60°/s Axis 3: 60°/s Axis 4: 100°/s Axis 5: 100°/s Axis 6: 160° °/s Position and Path Precision Position Accuracy (AP): 0.18 mm Repeatability (RP): 0.27 mm Stabilization Time (Pst at ±0.4 mm): 0.18 s Bedpfxezdrx Ro Amnjdd Path Accuracy (AT): 2.05 mm Path Repeatability (RT): 0.23 mm FEATURES - 6-axis industrial robot with a high payload class - Large swivel range on axis 6 with up to 67 revolutions - Precise path guidance with repeatability of less than 0.3 mm - High speed of the wrist axes for fast movements - Perfectly suited for heavy-duty handling and precise motion sequences

Condition: new, functionality: fully functional, power: 300 kW (407.89 HP), overall weight: 65,000 kg, tire size: 6*2, tire condition: 100 %, drive condition: 100 %, chain condition: 100 %, axle configuration: 3 axles, emission class: euro3, Year of construction: 2026, machine/vehicle number: V9638J96, Equipment: all wheel drive, hydraulics, onboard computer, Sand and Gravel Production Plant | MINGYUAN Heavy Industrial Equipment A sand and gravel production plant is an integrated system designed for producing high-quality construction aggregates, including sand, gravel, crushed stone, and artificial sand. MINGYUAN provides complete aggregate crushing and screening solutions for quarries, mining, construction, and infrastructure projects, ensuring efficient material processing and consistent output. General Introduction The MINGYUAN sand and gravel production line combines advanced crushing, screening, washing, and conveying equipment to process raw materials such as limestone, granite, basalt, river stone, and quartz into various sizes of construction sand and gravel aggregates. The plant typically includes jaw crushers, impact crushers, cone crushers, vibrating screens, sand washers, belt conveyors, and dust collectors, forming a complete and automated production system. It is widely used in road construction, concrete batching plants, building materials, and hydropower projects. Capacity range: 30–1000 tons per hour (customizable) Feed size: ≤800 mm depending on crusher type Output size: 0–5 mm (sand), 5–10 mm, 10–20 mm, 20–40 mm (gravel) Main equipment: Jaw crusher (PE/PEX series), cone crusher, impact crusher, VSI sand maker, vibrating feeder, vibrating screen, sand washing machine, belt conveyor, and control system Power configuration: Electric or diesel-driven options available Automation: PLC control with real-time monitoring and adjustable output ratio MINGYUAN Heavy Industrial Equipment Co., Ltd. provides complete sand and gravel production solutions with reliable performance, competitive price, and professional after-sales service for global customers in the mining, construction, and cement industries. Bedeq Nia Iopfx Amnsdd 2. Crushing and Screening: - The extracted raw materials often need to go through crushing and screening processes to reduce their size and separate them into different grades. - Crushers break down large rocks into smaller pieces, and screens sort the particles based on size. 3. Washing: - Washing is a common process to remove impurities such as clay, silt, and dust from the raw materials. This is particularly important for sand and gravel used in construction. 4. Grading and Sorting: - After washing, the materials may go through grading and sorting processes to separate them into different sizes and qualities. 5. Storage and Stockpiling: - Processed materials are often stored in stockpiles for further use. Adequate storage facilities are necessary to manage different grades of materials. 6. Conveying and Transportation: - Conveyor systems are used to transport materials between different stages of the production process. Transportation methods, such as trucks or conveyor belts, are used to move the final products to distribution points. Keywords Sand production line, gravel production plant, aggregate crushing plant, stone crusher, sand making machine, sand washer, vibrating screen, jaw crusher, cone crusher, impact crusher, VSI crusher, quarry equipment, mining machinery, construction aggregates, artificial sand, crushed stone, river gravel, limestone crusher, basalt crusher, granite crusher, sand washing plant, screening plant, conveyor system, MINGYUAN sand plant, aggregate processing equipment, stone crushing line, sand and gravel washing system, high-efficiency crusher, environmental sand plant, aggregate production line manufacturer.

Condition: ready for operation (used), Year of construction: 2005, functionality: fully functional, turning length: 81 mm, turning diameter: 99 mm, spindle speed (max.): 4,000 rpm, travel distance X-axis: 300 mm, travel distance Z-axis: 240 mm, No minimum price – guaranteed sale to the highest bidder! TECHNICAL DETAILS Maximum turning length: 81.3 mm Maximum turning diameter: 99.1 mm X-axis: 300 mm Z-axis: 240 mm Spindle head: A2-6 Spindle bore: 33 mm Speed (variable): 4,000 rpm Spindle motor power: 11 kW Bdjdpozfg E Iofx Amnjd Number of tools on the turret: 8 Number of driven tools: 10 MACHINE DETAILS Control: Fanuc 21iT Dimensions & Weight Machine dimensions (including chip conveyor): 290 x 235 cm Machine weight: 4,000 kg Dimensions of transformer station: 65 x 60 cm Weight of transformer station: 150 kg Overall dimensions (L x W x H): 2,600 x 2,300 x 2,400 mm Total weight: 3,900 kg EQUIPMENT Chip conveyor

Condition: ready for operation (used), Year of construction: 2009, functionality: fully functional, The system consists of the following components: Unwinding station with a lifting device for the rolls and a take-off device Film preheating station KVH 83 Thermoforming machine KMD52BFS TECHNICAL DETAILS Maximum forming area: 520 x 400 mm Minimum forming area: 260 x 250 mm Maximum tool dimensions: 540 x 420 mm Positive forming height: 120 mm Negative forming height: 120 mm Maximum film width: 570 mm Minimum film thickness: 200 µm Maximum film thickness: 1,200 µm Maximum speed: 45 cycles/minute Bdedpfx Amszfggljnjd MACHINE DETAILS Operating pressure: 6 bar Maximum air consumption: 50 Nl/cycle Heating power, upper heating: 15 kW Heating power, lower heating: 15 kW Vacuum pump: 100 m³/h Voltage: 3x 400 V AC + N + PE, 50/60 Hz Total connected load: approx. 80 – 90 kVA EQUIPMENT Forming station for combined forming and in-mold cutting with steel knives Stacking station, including counting and stack ejection A/B stacking function via a second ejector drive, pneumatically operated Winding station for skeleton waste, motorized Note: No molds are included in the scope of supply.

Condition: new, functionality: fully functional, Year of construction: 2026, Microsilica, also known as silica fume or condensed silica fume, is a byproduct of producing silicon metal or ferrosilicon alloys. Microsilica powder grinding mills are used to process microsilica powder for various applications, including the production of high-performance concrete, refractory materials, and other specialty products. Grinding mills play a crucial role in reducing microsilica particles to the desired fineness. Here are some key aspects related to microsilica powder grinding mills: 1. Mill Types: - Ball Mill: A traditional ball mill is commonly used for grinding microsilica. It relies on the impact and attrition forces to reduce particle size. It is effective for both wet and dry grinding. - Vertical Roller Mill (VRM): VRM technology is known for its energy efficiency and the ability to grind materials into a narrow particle size distribution. It is suitable for grinding microsilica. 2. Grinding Process: - The grinding process involves feeding microsilica particles into the grinding mill. The grinding media (balls or rollers) inside the mill crush and grind the microsilica particles into a fine powder. 3. Particle Size Distribution: - Controlling the particle size distribution is crucial for achieving the desired properties in the final product. The grinding mill should be equipped with mechanisms to control and monitor particle size distribution. 4. Mill Design and Components: - The design of the grinding mill, including the type of grinding media, liners, and the grinding chamber, influences the efficiency and performance of the milling process for microsilica. 5. Air Classification (Optional): - In some cases, air classification systems are integrated into the grinding process to separate fine particles from coarser ones, ensuring a more uniform product. Bjdoq Nxp Sepfx Amnsdd 6. Control Systems: - Advanced grinding mills often come with automated control systems to regulate various parameters such as feed rate, mill speed, and product fineness. 7. Material Handling: - Efficient material handling systems are essential to transport microsilica to and from the grinding mill. This may involve pneumatic or mechanical conveying systems. 8. Cooling Systems: - Grinding processes generate heat, and efficient cooling systems are often integrated to maintain the temperature within a controlled range. 9. Dust Collection: - Microsilica powder grinding can produce airborne dust. Dust collection systems are necessary to maintain a clean and safe working environment. 10. Quality Assurance: - Grinding mills for microsilica should be equipped with quality assurance features, such as in-line particle size analysis, to ensure consistency in the final product. When selecting a microsilica powder grinding mill, factors such as production capacity, energy efficiency, and the required particle size distribution should be considered. Additionally, mills should be chosen based on the specific characteristics of the microsilica being processed and the intended application of the final product.

Condition: ready for operation (used), functionality: fully functional, Year of construction: 2010, operating hours: 18,948 h, machine/vehicle number: A0215A0087, laser power: 2,000 W, sheet thickness steel (max.): 12 mm, travel distance X-axis: 3,000 mm, travel distance Y-axis: 1,500 mm, travel distance Z-axis: 75 mm, No minimum price – guaranteed sale to the highest bidder! A maintenance checklist from December 2025 is attached! The defects listed there have been completely rectified (see attached activity report from Trumpf)! TECHNICAL DETAILS Working area X-axis: max. 3,000 mm Working area Y-axis: max. 1,500 mm Working area Z-axis: max. 75 mm Speed X: max. 60 m/min Speed Y: max. 60 m/min Speed Z: max. 60 m/min Simultaneous speed X/Y: max. 85 m/min Sheet metal thickness, steel: max. 12 mm Sheet metal thickness, stainless steel: max. 6 mm Sheet metal thickness, aluminum: max. 5 mm Workpiece weight: max. 575 kg MACHINE DETAILS Control system: B&R Arnco Laser type: TruCoax 2000 Bjdozdp Ntspfx Amnedd Laser power: 2,000 W Dimensions and weight Footprint (L x W x H): 7,400 x 3,300 x 2,300 mm Transport width: 2,464 mm Weight: 9,000 kg Electrical connection: 65 kVA Operating hours (as of December 17, 2025) Operating hours, laser: 18,948 h Laser beam on-time: 3,635 h EQUIPMENT Closed machine frame with integrated laser head Motion unit for high-precision machining Drives with maintenance-free three-phase servo motors Sheet metal support accessible from both sides Enclosed beam guidance Fully integrated cooling unit Traveling extraction system Collection container for falling parts under the working area Positioning laser diode FocusLine