Mixing Tank

6245 - MIXING TANK, PRESSURE VESSEL,

Condition: used, machine/vehicle number: 12599, Rotor diameter: 600 mm Rotor width: 1450 mm 12-knife rotor 3 rows stator knives Inlet cross section approx. 780 x 1490 mm Drive motor: 132 kW Tsdpfxek N Iy No Aghsf

Condition: new, Year of construction: 2025, machine/vehicle number: 988906827, fully mobile concrete fuel station Frumecar Fastmix * THE STRESSED GAS STATION * - Year of construction: New - 2-4 chambers with 7-14 m³ capacity - capacity: 14-25 m³-h depending on mixer size - mixer size: 0,5 m³ - 0,75 m³ -1,0 m³ - Concrete software from Siemens with self-service terminal and new barcode method and EC card terminal - concrete discharge conveyor 9m length - Cement silo 32 to. incl. cement screw conveyor - installation, commissioning and training incl. - 2 years warranty - Highest quality plant on the market. All components produced in produced. Electric motors and gearboxes from Siemens installed. Other plant components from the market leader VAM. Input errors and mistakes in this offer are expressly reserved. Only the specific agreements in the order confirmation or in the purchase contract are decisive. more construction machines and mixing plants on our website Further information Purpose: construction, Usable material: concrete, General condition: very good, Technical condition: very good, Visual condition: very good, Todehd I Smepfx Aghef

Condition: new, Year of construction: 2025, 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. 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. Todpsq Nf Uwjfx Aghsf 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: used, Year of construction: 2005, Used Filling Monoblock GAI 2405 1500 bph This Monoblock offers, therefore, a highly specialized solution for bottling still wine in glass containers, designed to meet the needs of technical precision and production continuity for industry operators. GAI manufactured this machine in 2005, and it achieves a filling speed of 1500 bottles per hour, which ensures, in turn, high efficiency for medium-capacity production lines. Filling Specifications of the Used filling monoblock GAI The filling system of the GAI 2405 monoblock, meanwhile, delivers high precision in handling the product, maintaining consistent operating conditions. This model, in particular, uses 12 gravity or light depression filling valves, which effectively prevent turbulence or alteration of the still wine during processing. The filling valves, consequently, stay in a fixed position, reducing the risk of contamination or leaks. Rinsing Section The Used Filling Monoblock GAI 2405 1500 bph rinsing system includes 12 grippers that perform a cleaning treatment for each bottle. The system, thus, completes rinsing in a single phase, which removes any residual particles inside the containers before filling. This single-treatment configuration, additionally, optimizes processing time and improves overall speed without compromising quality. Capping Features Todpfx Aovgvcvsghsf The capping section of this model of Used filling monoblock GAI  supports straight corks and includes one head for cork insertion, which enables the production of still wine in formats of 0.75 L, 1.0 L, and 1.5 L. This feature of operating with straight corks, as a result, ensures adherence to the traditional characteristics of the final product and, in turn, meets specific market demands. Design and Structure The Monoblock features a design that ensures long operational life and easy maintenance. Operators can access each component for cleaning and inspection, allowing for safe and efficient management of the machine. Moreover, the integration of rinsing, filling, and capping sections into a single unit reduces the machine’s footprint, which, therefore, optimizes space in the facility. Production Cycle of the Used filling monoblock GAI This monoblock, likewise, maintains a stable production cycle, limiting fluctuations in temperature and pressure inside the bottles by optimizing control over filling conditions. The Used Filling Monoblock GAI 2405 1500 bph, as a result, synchronizes each stage of the process, minimizing waiting times and maximizing efficiency. Compatibility and Versatility The Used Filling Monoblock GAI 2405 1500 bph adapts perfectly to glass bottle production in various formats, with a capacity range from 0.75 L to 1.5 L. This versatility, in conclusion, makes the machine ideal for medium-volume bottling lines, thus optimizing the production process while, indeed, maintaining high-quality standards.

Condition: excellent (used), operating hours: 2,658 h, functionality: fully functional, pressing force: 71 t, filling opening width: 1,000 mm, filling opening length: 1,620 mm, bale width: 1,100 mm, bale height: 720 mm, bale weight: 600 kg, input current: 200 A, oil tank capacity: 1,250 l, empty load weight: 29,000 kg, Technical data baler: Manufacturer BOA Recycling Systems B.V. Type M75-45-A-5-1.6 Ecoline Year of construction 2021 Hours of operation 2,658 hours (as of May 2024) Number of pressed bales 42,212 pieces (as of May 2024) Press power main press 71,2 kN (71 t) Specific press capacity 9 kg/cm² Operating pressure 280 bar Cylinder stroke 2,200 mm Feed channel 1,620 x 1,000 mm Capacity per cycle time 2,4 m³ Theoretic cycle time 21 seconds Theoretic throughput rate 450 m³/hour Bale size 1,100 x 720 mm, length variably adjustable up to 1,400 mm Driving motor 45 kW Connected load 100 kW Current consumption 200 A Tying system 5-fold vertical, fully automatic, the press stamp is prepared for an additional 3-fold horizontal binding Throughput rate at a bulk weight of 30 kg/cbm approx. 13,6 tons/hour bulk weight of 50 kg/cbm approx. 24,2 tons/hour bulk weight of 100 kg/cbm approx. 36,4 tons/hour bulk weight of 150 kg/cbm approx. 54,7 tons/hour Bale weight up to 600 kg, depends on material Volume hydraulic oil tank 1,250 l SPS controller Siemens S7 1500 Operating panel Siemens SIMATIC HMI TOUCH Transport dimensions of press 10,000 x 2,800 x 3,385 mm (l x w x h) Tjdpfxju Thcvo Aghof Press height set up with feed chute 4,743 mm Press height with conveyor belt 7,123 mm Machine weight baler approx. 29 tons Noise level <85 dB (A) Condition of the baler: With 2,658 operating hours, the press is almost as good as new and in very good condition, has hardly any signs of wear and is ready for immediate use. Due to larger material input quantities, the pressing force and throughput of the machine no longer meet the customer's current requirements and is therefore being replaced by a new 120 tonne baler. Only the baler is for sale, without conveyor belt and wire drawing stations. Comments: The documentation (Manual, CE, electr./hydr.-drawings), are completely available. Inspections are possible after agreement. We will not assume liability for the given technical data and possible errors.

Condition: new, Year of construction: 2025, 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. Tsdpjq N Ud Ijfx Aghof 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. 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.

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

Condition: excellent (used), Stainless steel tank 2 m3 Tedpfx Agoq U Aufshef

Condition: used, Year of construction: 2008, Capacity: 360 Bo/h Filling points: 6 pieces Voltage: 230 V Compressed air: min. 6 bar Length: 1590 mm Width: 700 mm Height: 1875 mm Formats: 0.33 L, 0.50 L, 0.7 L, 0.75 L, 1.0 L, 2.0 L, 3.0 L, 5.0 L Base construction: Steel rack Features: inlcuding add-on parts, filling programm modifiable Tedpfx Aovcqhroghsf

Condition: new, functionality: fully functional, Year of construction: 2025, 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. Tedpfx Ageq Nxp Sshsf 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.