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Grinders, crushers, and other types of milling machineryUniversal Coarse Grinder
Application: Coarse grinding of a wide range of materials for pharmaceutical, chemical, and food applications, including viscous, hard, soft, and high-fibre materials. Suited to sizing applications. Operating Principle: Size reduction is achieved through a combination of cutting and impact from rotating and fixed knives. Available in stainless steel or carbon steel construction.
Universal Coarse Crusher
Application: Used as supporting equipment ahead of the fine-crushing process in the pharmaceutical, chemical, and food industries. It crushes effectively regardless of a material's viscosity, hardness, softness, or fibre content. Operating Principle: Built from stainless steel to GMP standards, the machine feeds material into the crushing chamber via a hopper, where it is crushed by fixed and moving knives working together. Centrifugal force from the rotor then carries the material to the outlet automatically. High output, low noise, and easy cleaning make this one of the best-regarded coarse crushers on the market.
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Horizontal Coarse Grinder
Application: Ideal as a pre-processing step before fine milling in the pharmaceutical, chemical, and food industries. Handles a wide range of materials regardless of viscosity, hardness, softness, or fibre content. Operating Principle: In this horizontally structured grinder, material is fed into the upper chamber through a hopper, then cut and struck by fixed and rotating knives before flowing out under gravity and centrifugal force. Built to GMP standards in stainless steel, it has a simple structure, is easy to clean, and runs quietly — ideal for coarse milling and sizing.
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Vertical Coarse Grinding Unit with Dust Collection System
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Energy Efficient Fine Impact Mill
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Fine Milling Unit with Dust Collection System
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Fine Milling Unit with Cyclonic Dust Filtration System
Application: Widely used in the pharmaceutical, chemical, food, and magnetic-material/powder industries. This new-generation design combines milling, filtration, and continuous discharge into a receiving station. Operating Principle: The machine consists of a mill, a cyclone separator, a pulse cleaner, and a pneumatic fan. Material is fed into the chamber through a hopper and reduced by high-speed rotating hammers. An induced fan and centrifugal force carry the finished material into the cyclone separator, where it is discharged through a rotary valve. Fine dust passes to the pulse dust collector for filtering, and the cleaned air is recycled through filter socks. Particle size is adjustable via the screen. Built to GMP standards in stainless steel throughout, meeting hygienic processing requirements.
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High Fiber Milling Unit with Conveyor and Cyclone Dust Collector
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Fine Grinding Fluidised Jet Mill
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Industrial Fruit and Vegetable Blender
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ScreenersFine Vibratory Screener
Application: Designed to screen powders and granules in the pharmaceutical, chemical, food, agricultural, and related industries. Operating Principle: The machine consists of an inlet hopper, vibrating drive, screen frame assembly, coupling, and motor. The vibrating screen frame is fitted to the motor's spindle and bearing. As an eccentric weight is driven around the spindle's centreline, it generates centrifugal force under an unbalanced load, causing material to form regular eddies on the screen. Weight amplitude can be adjusted for different materials and screens. Compact structure, high productivity, low noise, low energy consumption, and easy operation and maintenance.
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Centrifugal Screener
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Operating Principle: Bags/sacks are untied manually and their contents poured into the system. Dust generated during feeding is captured by a collector, and a vibrating screen filters out bulk material and foreign objects, ensuring the finished material meets the requirements for the next process. Features:
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Electromagnetic Vibratory Feeder
Operating Principle: An electromagnetic vibrator drives the feed trough to reciprocate periodically along an inclined path. When the vertical component of this vibration exceeds gravitational acceleration, material in the trough is thrown forward along a parabolic path, completing each throw-and-fall cycle in about 1/5 of a second. At roughly 3,000 vibrations per minute, this produces a continuous, even forward flow of material.
The feeder is a dual-mass, elastically coupled vibrating system that operates near its low critical resonance point. The vibrator drives the trough — which rests on the main vibration spring — via an armature connected to that spring, with a coil wound around the iron core. As half-wave rectified current flows through the coil, it generates a pulsating electromagnetic force. During the positive half-cycle, this force pulls the trough backward, storing energy in the main spring; during the negative half-cycle, the current (and force) drops away, and the spring returns the trough forward. This cycle, repeating at line frequency, produces continuous reciprocating vibration.
Features:
- Compact, lightweight, and simple to install; no rotating parts, so no lubrication is needed, and maintenance is easy
- Uses mechanical resonance for low power consumption
- Instantaneous flow control gives high feed accuracy
- Supports centralised and automatic process control
- Low wear on the trough
- Alloy steel construction suits high-temperature, abrasive, and corrosive materials
- Not suitable for explosion-proof applications

Linear Vibratory Feeder
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Operating Principle A dedicated vibrating motor drives the feed trough in a periodic linear reciprocating motion along an inclined path. When the vertical component of the trough's vibration exceeds gravitational acceleration, material is thrown forward along a parabolic path, with each throw-and-fall cycle completing in about 1/50 of a second. Continuous excitation from the motor keeps the trough — and the material within it — moving forward steadily.
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Features:
- Compact, lightweight, simple to install, and low-maintenance
- Self-synchronising vibration motor gives stable operation, quick starts, and balanced stopping
- Parabolic material flow means low trough wear
- Instantaneous flow control gives high feed accuracy
Additional Info: Compared with electromagnetic and reciprocating feeders, this design is simpler, sturdier, and longer-lasting, with continuous even feeding and low trough wear. It is available in open or enclosed configurations, with the motor mounted on top, bottom, or side depending on installation needs. Key characteristics include stable vibration, low cost, low maintenance, an adjustable excitation force for controllable flow, and low noise from the vibration motor itself. The structure is simple and reliable, adjustment and installation are straightforward, and the unit is lightweight and compact. Enclosed covers are used throughout to prevent dust pollution.

Rotary Vibrating Screener
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Operating Principle: The S49-A series rotary vibrating screen is designed for precise grading of wet and dry materials into up to five fractions in a single operation. It is quiet, efficient, and fully enclosed, with screens that can be changed in just 3–5 minutes. Suitable for granules, powders, and liquids. Features:
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Tumbler Screener
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Accurate coarse/fine grading: Material fed from the centre spreads outward along a helical path; as vertical acceleration increases, fine particles are pushed through the screen |
Operating Principle: This screener mimics hand-screening motion using low-frequency rotary vibration. Radial displacement combines with axial circular motion to produce a spiral (helical) movement, with eccentricity adjustable to fine-tune the motion. This non-linear, three-dimensional movement replicates the effect of manual screening, and — paired with the right screening accessories — delivers more precise results. It suits round, cylindrical, flaky, and other shapes prone to blocking, as well as precision screening applications. Features:
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Ultrasonic Vibratory Sifter
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Operating Principle: The system converts 220V/50Hz or 110V/60Hz power into 36 kHz high-frequency electricity, which drives an ultrasonic transducer to produce 36 kHz mechanical vibration in the screen. This high-frequency vibration, layered on top of the screen's normal low-frequency motion, prevents mesh clogging while improving both output and screening quality — making it easy to sieve ultra-fine powders. By adding a low-amplitude, high-frequency ultrasonic wave to a conventional vibrating screen, the system significantly improves performance when screening ultra-fine particles, and is especially suited to high-value fine-particle applications. |

Centrifugal Sifter
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Operating Principle: A cylindrical mesh sits inside the machine body. Material mixes with an air stream via a screw conveyor and is atomised into the screen cylinder. Rotating blades inside the cylinder subject the material to both centrifugal force and cyclone propulsion, spraying it across the mesh — particles smaller than the mesh openings pass through and exit via the fine-material outlet, while larger particles travel along the tube wall to the coarse-material outlet. Features:
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Linear Vibrating Sieve
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Operating Principle: Two vibrating motors, mounted vertically on the screen body and working against each other, generate a rated exciting force via eccentric blocks at each end. Because the motors operate in relative opposition, lateral vibration forces cancel out, while longitudinal vibration is transmitted through the screen box, causing the screen surface to vibrate and bounce material toward the outlet. Material smaller than the mesh openings falls through before reaching the outlet. This screening process yields several distinct particle-size fractions in a single pass. Features:
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Dewatering Screener
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Operating Principle: This screen uses dual-motor self-synchronising technology with a universal eccentric block and adjustable-amplitude vibrator. It's built around a screen box, exciter, support system, and motor, with two independent vibrators driven via belt coupling to run in synchronised opposition. The centrifugal force from the two eccentric masses combines along the vibration axis while cancelling out laterally, producing a single directional vibrating force that drives the screen box in a reciprocating linear motion. Also known as a high-frequency dewatering screen, it uses this exciting force to break the surface tension of the slurry's water, allowing water to pass through the screen (as undersize material) while fine solids are retained and vibrated forward as a filtered layer for discharge. It is mainly used for precision dewatering in mineral processing, coal slurry dehydration, washed quartz sand dewatering, ceramic slurry dehydration, and for dewatering, classification, and desliming of medium and fine granular materials in the power, sugar, and salt industries. |
Features:
- Waterproof motor: A dedicated waterproof motor with dual-motor self-synchronising drive delivers efficient dewatering
- Lower investment cost: Compared with traditional processes, this dry-line dewatering method needs less investment, a simpler process, and a smaller footprint, simplifying system layout
- Continuous operation: Purpose-tuned frequency, amplitude, and power support 24-hour continuous dewatering
- High capacity: A V-shaped screen with a -5° slope keeps water content low while maximising throughput per unit area
- Long service life: Highly wear-resistant, modular screen plates are easy to replace, cutting costs, with mesh size selectable to requirements
- Strong, durable structure: Rigid welded steel construction gives a stress-free, high-strength, lightweight, durable machine body

Standard Test Sieve
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Operating Principle: Eccentric weights mounted at the top and bottom of the motor shaft convert the motor's rotary motion into a combined horizontal, vertical, and inclined three-dimensional motion, which is transferred to the screen surface. This causes material on the screen to tumble, rotate, and bounce. Paired with a standard sieve frame, the unit can measure particle-size distribution, liquid solids content, and impurity levels in granular and powder materials via vibration screening and filtration. Features:
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Mixers Conical Screw Mixer
2D Motion Mixer
Application: Suited to mixing dry powders and granules in the pharmaceutical and chemical industries, especially materials with high moisture content and a wide particle-size distribution. Operating Principle: The mixing unit is a plain cylindrical drum with no internal devices. It rotates on a trunnion wheel arrangement, with drum position adjustable as needed.
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Energy Efficient V-shaped Mixer
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Multi-directional 3D Motion Mixer
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Forced-Type Agitating Mixer
Application: Built on advanced international mixing technology, the VI-type forced mixer is used in the pharmaceutical, food, and chemical industries, combining the "V" shell shape with an internal agitator. Operating Principle: This machine can mix both relatively fine powders and agglomerated materials with higher moisture content. The internal agitator refines and homogenises the material as it's blended within the V-shell.
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High Speed Double Cone Mixer
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Double Cone Mixer with Agitator
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Single Screw Nauta Mixer
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Horizontal Double Ribbon Mixer
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Horizontal Single “Z” Arm Type Mixer
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Horizontal Double “Z” Arm Mixer
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Pharmaceutical Grade Dry Granulator
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Reciprocating Granulator
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Rotary Blade Granulator
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High Speed Conical Granulator/Mill
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DryersDouble Cone Tumble Vacuum Dryer / Rotary Cone Vacuum Dryer
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Two-door Tray Drying Oven / Industrial Food Dehydrator
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1. Choose the dryer type based on the material's physical properties, initial and final moisture content, required temperature, vacuum level, drying volume, and drying time. All models are available with steam, hot water, heat-conduction oil, or electric heating. Additional drying layers can be added to increase output. 2. Auxiliary equipment for the vacuum system is detailed in the user manual and can be supplied and installed at the factory — please specify requirements when ordering. 3. Custom designs, manufacturing, and installation are available on request |

Energy Efficient Fluidised Bed Dryer
Application: Used for drying granular materials up to 0.16 mm in particle size, suited to quick drying of wet granules, powders, finished products, and intermediates in the pharmaceutical, food, light industrial, and chemical processing sectors. Operating Principle: Air passes through a purification cabinet and heater, then flows at high speed up through perforated decks. Material reaches a fluidised state as the heated air carries away moisture. Evaporated air passes through filters to atmosphere in this batch process, with full automation for consistent, repeatable results.
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Belt Dryer
Application: Suited to drying materials across a wide range of applications, including pharmaceutical, chemical, food, gum, electronics, dewatered vegetables, particle feed, gourmet powders, shredded coconut, stuffing, organic colour compounds, rubber, acrylic fibre, medicinal products, small wood products, plastics, and ageing/solidifying electronic components. Features: A spreader distributes material evenly onto a mesh belt (typically 12–60 mesh stainless steel wire), which a transmission unit draws through the dryer. The dryer comprises several units; hot air circulates separately, with some exhaust discharged via a dedicated moisture-elimination blower, and waste gas regulated by an adjustment valve. Hot air passes through the material-covered mesh belt from top to bottom or bottom to top, completing heat and mass transfer. The dried product then drops continuously into a collector. Upper and lower circulation units can be configured to match specific drying requirements. Operating Principle: Widely used for drying agglomerated, strip, pelleted, flaked, extruded, and similar materials, and especially suited to high-moisture, loose materials with good ventilation — such as dewatered vegetables and herbal leaf materials — where high temperatures aren't appropriate. Drying is fast, evaporation strength is high, and product quality is good. It also handles dewatered filter cake, similar paste materials, and high-fibre products well. Built to GMP standards with automated control.
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High-Speed Centrifuge Atomising Dryer
Specifications:
Application: The LPG series is a specialised dryer for emulsions, suspensions, and emulsified liquids, offering distinct advantages when drying polymers, resins, dyestuffs, pigments, ceramics, gloss compounds, de-rusting agents, pesticides, carbohydrates, dairy products, detergents, surfactants, fertilisers, and organic and inorganic compounds. Features: Drying takes just 5–15 seconds, making it well suited to heat-sensitive raw materials, and ideal for drying coloured, fine, or delicate-appearance materials. The machine runs stably with convenient controls, suited to continuous operation, and the finished product's distribution, flowability, and solubility meet international standards. Operating Principle: Hot air (direct or indirect heat, filtered) enters the top of the drying chamber tangentially. At the same time, a centrifugal atomiser pumps and filters the liquid material, forming atomised droplets at the top of the chamber. As the droplets meet the hot air, surface moisture evaporates rapidly. The dried material is drawn down into the receiving hopper for discharge to a cyclone separator, while moisture-laden air exits through the exhaust system.
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Fluidised Granulating Dryer
Features: Mixing, granulating, and drying complete in a single, fully sealed process with no dust emissions. Anti-static filter media adds safety, and explosion-relief features are built in. All contact surfaces are rounded for easy cleaning, with sight-glass inspection ports fitted, and loading/unloading is straightforward. Operating Principle: Solution droplets granulate as they fluidise on contact with hot air in the spray chamber. Clean heated air enters the lower spraying area and rises to meet the sprayed liquid; rapid moisture evaporation from the droplets forms granules that remain suspended in a fluidised state. Moisture-laden air discharges to atmosphere through a filter, while the formed granules collect in a removable, sealed hopper. The result is an even particle size in continuous operation. All contact parts are stainless steel, built to GMP standards, with automated process control for setting parameters to specific requirements.
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ConveyorsVacuum Conveyor
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