Used Dare Force for sale (5,960)

Condition: ready for operation (used), functionality: fully functional, machine/vehicle number: 13350686, pressing force: 400 t, stroke length: 150 mm, power: 7.5 kW (10.20 HP), number of cylinders: 10, cylinder diameter: 120 mm, TECHNICAL DETAILS Pressing force: 400 t Maximum pressing dimensions: 1,500 x 4,400 mm Maximum stroke: 150 mm Number of cylinders: 10 Cylinder diameter: 120 mm Plate material: Aluminium (solid) Plate thickness top and bottom: 90 mm MACHINE DETAILS Power: 7.5 kW Voltage: 380 V Dimensions & Weight Transport dimensions (L x W x H): 13,000 x 2,400 x 2,400 mm Total weight: 25,000 kg EQUIPMENT Itsdpfxsyuxh Uj Ahvod Infeed and outfeed conveyor Oil heated Oil boiler

Condition: like new (used), Year of construction: 2023, functionality: fully functional, machine/vehicle number: 630213235, pressing force: 60 t, filling opening width: 650 mm, filling opening length: 1,195 mm, bale weight: 550 kg, overall weight: 2,450 kg, The machine is in mint condition! Iedpfoyqw Sqox Ahvstd TECHNICAL DETAILS Pressing force: 594 kN / 60 t Specific pressing force: 45 N/cm² Cycle time in idle mode: 25 s Theoretical pressing output (idle): 32.5 m³/h Filling height: 1,115 mm Filling opening dimensions: 1,195 x 650 mm Bale dimensions: 1,200 x 1,200 x 1,100 mm Maximum bale weight: 550 kg Material to be pressed: Film, mixed paper, cardboard, die-cut waste MACHINE DETAILS Drive power: 4 kW Voltage: 400 V Frequency: 50 Hz Door design: Sliding door Door lock: Hydraulic Feeding type: Manual Consumables: Wire, loop wire Dimensions & Weight Dimensions (L x W x H): 1,780 x 1,568 x 2,985 mm Machine weight: 2,450 kg FEATURES HSM TCS (Torsion Control System) for press plate tilt monitoring Automatic start of pressing process Specifications, information and technical data as provided by the manufacturer. Therefore, no guarantee given by the seller for their accuracy.

Condition: like new (used), functionality: fully functional, machine/vehicle number: Geo Knight Maxi - Press, Year of construction: 2017, Please see PDF for detailed secifications: The Maxi Press AIR is an Automatic large format heat transfer press intended for more automated and higher pressure needs than the Manual version. The Maxi- AIR provides an oversized platen & a better production-oriented press with a single front loading table and high pressure pneumatic lifting system. This pressure system is powered by a dual air-bag, 10-ton, 20,000 lbs max force self leveling mechanism. The press is activated with a push of a button, and automatically releases at the end of the timing cycle. The front console features the Digital Knight control, regulating digital temperature and digital automatic timing control, as well as full air pressure regulation. Ideal applications that the Maxi- AIR has performed flawlessly include: large fabrics & piece goods, full-bleed printed sportswear, banners, fl oor mats, carpets, mouse pads, plastics, sheet metal and much more. Most importantly, the 20,000 lbs of regulated applied force allow for deep embedding of materials such as TILES into nomex padding for full bleed wrap-around printing, as well as larger embossing applications. The Maxi- AIR strongly supports the sublimation transfer process, as well as digitally produced transfers, hot and cold peel plastisol transfers and large format laminating processes. Isdpfxev Dm Ude Ahvjtd

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: Iedpfxsq Nf U Ee Ahvetd 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. 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.

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 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. Itjdpfxovzx Auj Ahvod 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 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. Isdpjv E Ddljfx Ahvetd

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: * 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? Itjdpfoq I Nvijx Ahved

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. Itsdpfxsq Nxp Se Ahved 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. 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: new, Year of construction: 2026, power: 300 kW (407.89 HP), Ball Mill for Mining & Fine Powder Making: A ball mill is a fundamental grinding device widely used in mining, metallurgy, cement, and chemical industries. It is designed to grind 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, while in powder-making industries, they ensure uniform particle size and high surface area for further processing. Working Principle The ball mill operates on the principle of impact and friction. As the cylindrical shell rotates around its horizontal axis, the grinding media—usually 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 breaks down the material into fine particles. The process can be carried out in dry or wet conditions depending on the application. Structural Composition A standard ball mill consists of several main components: Feeding part: Ensures uniform material input through a feeder or screw conveyor. 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 or ceramic balls of various 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 Itsdpfxeq Ngafs Ahvsd 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: Used 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 and Powder Production 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. In fine powder production, ball mills are used to produce materials such as silicate, ceramic powder, refractory materials, and chemical raw materials. The uniform particle size achieved by ball milling enhances product quality and performance in downstream applications. Conclusion A ball mill is an indispensable piece of equipment for both mining and fine powder making. Its ability to grind materials into fine, uniform particles makes it vital for ore beneficiation and industrial powder production. With flexible configurations, high efficiency, and reliable operation, modern ball mills provide a cost-effective and energy-efficient solution for large-scale grinding, ensuring consistent quality and productivity across diverse applications.

Condition: new, pressure 55 t hole diameter in sheet thickness Ø 40 in 10 mm throat 500 mm stroke 60 mm 38 /min. engine output 5 kW 20x20 mm 28x11 mm Overall size 1500x1100x2000 mm weight of the machine ca. 1.150 kg Itodpfeyv Nxhox Ahved Accessories / equipment: - punching table

Condition: new, pressure 55 t Itodpfx Aheyv Nl Usvjd hole diameter in sheet thickness Ø 40 in 10 mm throat 750 mm stroke 60 mm 38 Hub/min engine output 5 kW weight of the machine ca. 1.885 kg Overall size 1500x1100x2000 mm Accessories / equipment: - punching table

Condition: new, 500 kN hole diameter in sheet thickness Ø 27 in 13 / Ø 28 in 10 mm no. of strokes 23 Hub/min throat 130 mm stroke 30 mm total power requirement 3 kW weight of the machine ca. 295 kg Overall size 1100x900x1550 mm Standard equipment: - punching table Iodpsyv Nc Hefx Ahvstd

Condition: used, Year of construction: 1995, pressure 110 t Ø 40x20 mm 750 no. of strokes 28 Hub/min work height max. 990 mm Isdpfx Asyv N Rqjhvstd Machine No. 9557 weight of the machine ca. 3.400 kg dimensions of the machine ca. 2300x1300x2300 mm

Condition: used, Year of construction: 1996, 10 mm Punching force 55 to 40x10 mm flat steel 300x15 oder 200x20 mm Iodpfxoyv N Iio Ahvjtd L-beam 90° 120x120x10 mm L-beam 45° 70x70x7 mm 40 mm square edge steel 40 mm 37 /min. throat 250 mm weight of the machine ca. 1.800 kg

Condition: used, Year of construction: 1989, pressure 50 t throat 610 mm total power requirement 7,5 kW machine weight ab. 1700 kg dimensions 1500 x 650 x 1700 mm Itjdpfx Ahsyv Nvaovjd

Condition: used, pressure 40 t throat 175 mm work height max. 1055 mm Ijdpfx Aoyv Nuijhvstd stroke 30 mm sheet thickness - max. 8 mm total power requirement 4 kW weight of the machine ca. 1020 kg dimensions 910 x 670 x 1930 mm

Condition: used, Year of construction: 2006, Pressing force 100 t Iodpoyv Nrzofx Ahvetd diameter 40 mm throat 760 mm total power requirement 8,5 kW weight 3.600 kg Accessories / equipment: - punching table

Condition: excellent (used), Year of construction: 1999, functionality: fully functional, Euromac horizontal bending machine Digibend 360, 36 tons press force, with tools Itodpeyv Nlzsfx Ahvjd

Condition: used, Year of construction: 2000, Pressing force 28 t Itedpoyv Nnpofx Ahvjd X-axis 2000 mm Y-axis 1000 mm machine weight ab. 11000 kg

Condition: used, Year of construction: 2000, pressure 100 t throat 620 mm Ijdpjyv Ncysfx Ahvetd stroke 0-100 mm hole diameter in sheet thickness 40 in 20 mm no. of strokes 49 Hub/min total power requirement 15 kW weight of the machine ca. 3.500 kg

Condition: excellent (used), Year of construction: 1995, Manufacturer: ROVETTA Model: SC2-630 Year: 1995 Condition: Used Stock number: 0393 Pressing force: 630 t Number of pressing points: 2 Ram stroke: 152 mm Ram adjustment: 203 mm Iodpfx Ahsyv I N Ssvstd Table size: 1,830 x 1,220 mm Ram size: 1,830 x 1,220 mm Usable front opening: 1,880 mm Strokes/min: 25-60 Main motor power: 58 kW

Condition: like new (used), Year of construction: 2015, clamping force: 1,200 kN, Engel E-Victory 170H/50V/120 combi (2015) 2k machine Robot Engel Viper 20 Linear CC300 controll Clamping force: 1200 kN Opening stroke: 505 mm Ejector stroke: 130 mm Ejector force: 39.8 kN Pump drive power: 21.361 kW Injection unit 1 Screw diameter: 25 mm Max. swept volume: 59 cm³ Screw speed max: 400 r/min Screw speed max (current): 400 r/min Itjdpoxyi Rvefx Ahvod Injection rate: 109 cm³/s Injection rate (increased): 109 cm³/s Specific injection pressure: 2400 bar Specific injection pressure (increased): 2400 bar Injection unit 2 Screw diameter: 20 mm Max. swept volume: 25 cm³ Screw speed max: 450 r/min Injection rate: 104 cm³/s Specific injection pressure: 2400 bar Machine with conveyor. Working hours : 41.427 h

Condition: excellent (used), Year of construction: 2015, Engel VIPER 20 (2015) X axis demolding stroke - 700 mm Y axis traverse stroke - 1500 mm Itedpfsxy Rarsx Ahvod Z axis traverse stroke - 2360 mm X axis reach from fixed platen - 925 mm C axis pneumatic swivel axis - yes Nominal payload - 25 kg IMM clamping force - 55-340 US tons

Condition: ready for operation (used), Year of construction: 2007, operating hours: 91,708 h, clamping force: 8,000 kN, screw diameter: 135 mm, displacement volume: 8,870 cm³, total length: 11,810 mm, total width: 3,200 mm, total height: 2,900 mm, Clamping force: 8000 kN Tie bar spacing h x v: 1170 x 1000 mm Platen size h x v: 1550 x 1520 mm Min. mold height: 500 mm Max. mold height: 1100 mm Max. daylight: 2100 mm Opening stroke: 1600 mm Screw diameter: 135 mm Shot volume: 8870 ccm Injection pressure: 1640 bar Equipment Screen text in German Screen text in English CEE socket 16A CEE socket 16A CEE socket 16A Compact Flash drive Hydraulic core pull 1x Machine including handling Machine including safety enclosure Machine with water manifold EUROMAP 12 interface Handling interface USB interface Mold heater 16x Handling Technical Data Type of handling: Linear Brand: ENGEL Model: ERC 64/1-F Handling weight: 25 kg Ijdeyv E Hbepfx Ahvetd X-axis: 1300 mm Y-axis: 2200 mm Z-axis: 4760 mm Machine dimensions LxWxH: 11.81 m x 3.2 m x 2.9 m Total weight: 56,000 kg

Condition: used, Year of construction: 2004, operating hours: 76,000 h, total height: 2,480 mm, total width: 2,330 mm, total length: 9,830 mm, screw diameter: 70 mm, clamping force: 4,200 kN, displacement volume: 1,047 cm³, 2. Unit 55 with ø 22 Injection pressure: 1674 bar Volume: 30cm³Distance between injection unit 1 and 2: 300 mm (piggy / Multinject) clamping force: 4200 kN distance between tie-bars h x v: 800 x 800 mm size of mould plates h x v: 1270 x 1200 mm min. mould height: 380 mm Itsdpfxjyv E Ews Ahvjd max. open daylight: 1400 mm opening stroke: 1020 mm screw diameter: 70 mm swept volume: 1047 ccm injection pressure: 1778 bar equipment included screen text german core pulling hydraulically 6x Machine without Handling machine without material hopper Anti vibration mounts mould heating 16x Injection moulding machine for two components measures of machine l x w x h: 9.83m x 2.33m x 2.48m total weight: 23090KG