Semolina Breaker

Precision Semolina Processing and Controlled Grinding Technology

In the modern milling industry, the semolina processing stage is a critical step for high-quality production, optimized by Tanış A.Ş.’s advanced Semolina Crusher technology. Equipped with high-precision processing capacity and advanced control systems, this equipment plays a key role in maintaining consistent efficiency and quality in milling operations. With over 60 years of experience in grain processing, Tanış A.Ş. continuously develops the Semolina Crusher to meet the demanding requirements of modern milling.

Size and Capacity Options

Tanış Semolina Breaker is offered with various size and capacity options to meet the needs of different sized mill facilities:

ModelCapacity (kg/hour)Rotor Width (mm)Motor Power (kW)Dimensions (LxWxH mm)
TMIK-51/5,5600-10006005,51200x800x1100
TMIK-51/7,5900-15009007,51500x900x1200
TMIK-51/111200-20001200111800x1000x1350
TMIK-51/151500-25001500152100x1100x1400

This wide model range offers a suitable solution for the needs of businesses of every capacity from small-scale mills to large industrial facilities.

Working Principle and Operating Mechanism of Semolina Breaker

Detailed Working System Description

The working system of Tanış Semolina Breaker consists of the following stages:

  1. Feeding: Semolina particles enter the machine from the feeding mouth located at the top. Feed amount is controlled with rotary valve or vibro feeder.

  2. Breaking Process: Hammers on the rotor rotating at high speed hit semolina particles, breaking them into smaller pieces.

  3. Sifting: Broken semolina hits the sieve surface located at the bottom of the rotor. Particles reaching desired size pass through sieve holes, while larger particles are directed back to the rotor.

  4. Discharge: Broken product passing through sieves is directed to the lower chamber and returns to the system from the outlet.

  5. Ventilation: An air flow is provided inside the machine to control heat generated during process. This air flow also helps with dust control.

Physical Foundations of Semolina Breaking Process

The semolina breaking process is basically based on the kinetic energy transfer principle. Hammers on the rotor rotating at high speed provide energy transfer by hitting semolina particles. As a result of this energy transfer, semolina particles:

  • Break by hitting hammers
  • Break by hitting inner surfaces of machine body
  • Break by colliding with each other
  • Are filtered by hitting sieve surface

These complex interactions ensure homogeneous processing of semolina particles of different sizes. Process effectiveness is maximized by optimum adjustment of parameters such as hammer speed, feed amount, and sieve opening.

Speed and Control Parameters During Operation

Basic operating parameters affecting Semolina Breaker performance are:

  • Rotor Speed: Adjustable in 2000-3600 rpm range. Higher speed provides finer breaking, while lower speed offers more controlled process.

  • Feed Amount: Can vary between 0.5-3 tons/hour (depending on model). Optimum feed amount should be adjusted according to desired product quality and machine capacity.

  • Sieve Opening: Sieve holes varying between 0.5-2.0 mm can be used. Sieve opening directly affects final product granulation.

  • Air Flow: Air flow rate can be adjusted for control of heat generated during process and dust management.

The correct combination of these parameters is determined according to semolina type and desired final product characteristics.

Performance and Efficiency Features

Processing Capacity and Energy Consumption

Tanış Semolina Breaker is designed to provide optimum energy efficiency:

  • Specific Energy Consumption: 10-15 kWh/ton (depending on processing conditions)
  • Motor Load Factor: 70-80% under normal operating conditions
  • Efficiency Rate: 15-20% lower energy consumption compared to similar equipment
  • IE3 Efficiency Class Motors: High-efficiency motors as standard in all models

Thanks to high-efficiency electric motors and optimized rotor design, Semolina Breaker provides maximum performance with minimum energy consumption.

Product Granulation Control

Semolina Breaker allows precise control of final product granulation:

  • Granulation Range: 100-700 microns (depending on sieve selection)
  • Granulation Standard: Consistent granulation with ±50 micron tolerance
  • Particle Size Distribution: Optimum distribution with Gaussian distribution curve
  • Fine Particle Control: Adjustable according to desired fineness level

This precise granulation control enables meeting specific particle size requirements needed in production of different flour types.

Homogeneous Processing Capability

One of the most important performance features of Semolina Breaker is its homogeneous processing capability:

  • Equal Energy Distribution: Homogeneous breaking with equal energy distribution along the rotor
  • Complete Access: Equal participation of all semolina particles in processing process
  • Consistent Output: Product quality that does not change from shift to shift
  • Adaptive Processing: Consistent results even under changing feed conditions

This homogeneous processing capability provides standardization in flour quality and guarantees consistent final product characteristics.

Effect on Flour Quality and Technical Parameters

Direct Effects of Semolina Breaker on Flour Quality

Semolina Breaker directly affects flour quality in the following ways:

  • Particle Size Distribution: Ideal particle size distribution creates positive effect on flour’s water absorption and dough development.

  • Starch Damage: Controlled breaking process provides optimum starch damage level. This directly affects bread volume and fermentation process.

  • Protein Quality: Controlled breaking process ensures preservation of protein structure, improving functional properties of flour.

  • Homogeneity: Having all flour particles with similar characteristics provides consistency in final product quality.

Correct adjustment of Semolina Breaker parameters plays a critical role in optimization of these quality factors.

Protein and Starch Damage Control

Semolina Breaker provides precise control over protein structure and starch damage, which are determinant in flour quality:

  • Protein Structure: Protein denaturation is minimized with controlled processing. This is critically important especially in bread flours requiring strong gluten structure.

  • Starch Damage Rate: By adjusting rotor speed and feed amount, ideal starch damage level in 6-12% range can be obtained. This rate directly affects flour’s water absorption and fermentation properties.

  • Enzyme Activity: Controlled processing ensures preservation of natural enzyme activity, creating positive effect in dough maturation and fermentation process.

Optimization Opportunities for Different Flour Types

Tanış Semolina Breaker is a versatile equipment allowing special adjustments for different flour types:

  • Bread Flour: Medium speed and fine sieve combination for high protein preservation and controlled starch damage.

  • Pasta Flour: Low speed and very fine sieve combination for low starch damage and fine particle size.

  • Pizza Flour: Special parameter settings for medium level protein development and starch damage.

  • Whole Wheat Flour: Low speed and wide opening sieve to prevent excessive fineness of bran particles.

These optimization opportunities provide mill operators flexibility to offer a wide product range.

Integration and Maintenance

Easy Integration to Mill Line

Tanış Semolina Breaker is designed to be easily integrated into existing mill lines:

  • Compact Dimensions: Compact design that can be easily placed in limited spaces
  • Standard Connections: Inlet and outlet connections compliant with international standards
  • Flexible Placement: Assembly options adaptable to horizontal or vertical flow systems
  • Modular Structure: Modular design allowing capacity increase when needed
  • Compatible Interfaces: Compatible operation with different transport systems

Maintenance and Service Requirements

Regular Controls:

  • Daily: Abnormal sound/vibration control, product quality control
  • Weekly: Belt tension, bearing temperatures, connection cleaning
  • Monthly: Hammer wear control, bearing lubrication, sieve cleaning
  • 6-Monthly: Comprehensive control, necessary part replacements

Wear and Abrasion Control:

  • Hammers: Position change every 3-6 months, renewal every 12-18 months
  • Sieve Surface: Change every 12-24 months
  • Belts: Renewal every 12-18 months
  • Bearings: Control and replacement if necessary every 2-3 years

Spare Parts and Service Support

Tanış A.Ş. provides comprehensive spare parts and service support for Semolina Breaker:

  • Spare Parts Guarantee: 10-year supply guarantee for all critical parts
  • Service Network: Service support within 24 hours throughout Turkey
  • Emergency Intervention: On-site intervention within 12 hours for critical failures
  • Online Support: Remote diagnosis and troubleshooting service
  • Maintenance Contracts: Special contracts including regular maintenance and preventive maintenance services

Frequently Asked Questions

Where should the Semolina Breaker be positioned in the mill diagram?

It is usually positioned at the beginning of reduction passages, after semolina sizers. Tanış engineers provide analysis for the most suitable positioning specific to your facility.

How do we know when hammers need to be replaced?

Decrease in flour quality, change in particle size distribution, increase in energy consumption, and abnormal vibration or sound indicate replacement time. If wear of more than 3 mm is detected in monthly controls, replacement is recommended.

How should Semolina Breaker parameters be adjusted for different flour types?

  • Bread Flour: 2800-3200 rpm, 0.8-1.0 mm sieve opening
  • Pasta Flour: 2400-2800 rpm, 0.5-0.7 mm sieve opening
  • Pizza Flour: 2600-3000 rpm, 0.7-0.9 mm sieve opening
  • Whole Wheat Flour: 2200-2600 rpm, 1.0-1.5 mm sieve opening

What is the installation and integration time?

It takes 1-3 days depending on facility size. Integration is performed during planned shutdown periods to minimize production interruption.