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HS-F 1000: Automatic milling machine

The standard for automated sample preparation- Maximal quality, reliability and flexibility with minimal processing times 

Lateral robot access to the HS-F 1000
Lateral robot access to the HS-F 1000
Lateral robot access to the HS-F 1000
Lateral robot access to the HS-F 1000
Sample transfer position
Support with internal tool changer
Chip collecting device on the plane cutter head
Clamping device of the support
Granular chips for combustion analysis
Chip module with cylindrical milling cutter
External tool magazine
External tool magazine

Use

  • Milling of steel, crude iron and nonferrous samples for OES, XRF, combustion analysis and other analytical procedures

 

Material

  • Steel, crude iron and nonferrous samples, round or with parallel surfaces

 

Operation mode

  • Automatic
  • Standalone
  • Linear automation
  • Robot automation

All advantages at a glance

Specially designed for sample preparation and quality control

The milling machine HS-F1000 combines innovative technology and full flexibility with compact and robust design. Key features are shortest preparation time, easy automation, and top-level quality- at an unbeatable price. The HS-F1000 has been specially developed for requirements of QC laboratory with all the decade-long HERZOG expertise in engineering and sample preparation.

Speed

The operator, the robot or a linear conveyer drops the sample at the transfer position of the HS-F1000. As the HS-F1000 mills the bottom sample surface, the sample is already in a defined zero plane position. Time consuming measurement of sample height is therefore not needed. Subsequently, the mobile support -coming from above- clamps the sample and transfers it to the milling spindle where it is milled from below. This sequence -speed-optimized in all sub-steps- is saving valuable seconds which is especially important for time-sensitive production samples.

Flexibility

The design of the HS-F1000 guarantees high flexibility to meet the particular needs of the customer. During manual operation, the operator inserts samples via the front door. The default input position is on the left machine side but might be easily changed to the right side. In automatic mode, samples can be inserted either via the lateral or the back-loading openings using a robot or a linear conveyer. The different access possibilities open up many options to integrate the HS-F1000 in any kind of automation setup.

Compactness

The HS-F1000 is a very compact machine that allows an uncomplicated installation even in tight locations and compartments. The volume of the HS-F1000 is significantly smalle than standard CNC mills used for sample preparation. During installation, machine dimensions permit an uncomplicated transport through regular industry doors.

In container labs, the HS-F1000 easily fits into standard cabins and gives you more leg and elbow room. In larger robot cells, the small machine base provides space for more and bigger equipment to be integrated in the automation.

Easy maintainability

Despite the small machine size, the HS-F1000 has an excellent serviceability and accessibility. The interior has been optimized to guide all chips fallen off into the front chip containers for manual or automatic removal. Comfortable access can be made to the main machine parts including spindle, motors and v-belt for maintenance, exchange, and repair. Switch cabinet and majority of pneumatic components are located at the rear side and are easily reachable for operators and service engineers.

Stability

Due to simulation-based design methods the HS-F1000 has been optimized for sample preparation purposes. The machine frame is characterized by FEM-optimized shape and perfect damping through mineral composite casting. This leads to significantly reduced vibration levels and brilliant milling results even for extremely brittle pig-iron samples and enables a longer service life for the milling tools.

Designed for smart industry solutions

The HS-F 1000 is designed for smart industry solutions and enables tool condition monitoring and predictive maintenance. This improves the service life and analytical performance of the laboratory. Intelligent sensor technology and the PrepMaster Analytics software make it possible to automatically monitor the wear level of the cutting tips of the milling tool used. If necessary, a tool change can be initiated fully automatically without operator intervention. In addition, milling processes in which the required milling depth has not been obtained due to various reasons can be detected fully automatically.

Automatic chip collection for combustion analysis

Two different systems are available for the collection of chips used for combustion analysis. The chips produced by the plane cutter head used for sample processing can be collected by a funnel device and fed into a cup or pneumatically into a turntable magazine. These spiral-shaped chips are particularly suitable for manual combustion analysis.

For automatic combustion analysis, we have developed a special chip module that produces short chips with a granular morphology using a cylindrical milling cutter. These chips are particularly easy to handle and dose. The chips can either be collected in a cup or pneumatically transferred to a turntable magazine or the CSNLab for fully automatic analysis.

Numerous options

The HS-F 1000 offers numerous options and can be flexibly configured for all customer applications. The four-position tool changer integrated in the machine (optional) provides the necessary milling cutters to cover all applications within a laboratory. If additional tools are required, these can be accommodated in an optional external 6-position tool changer. In this case, the milling tools are changed with the help of the robot via the side access of the HS-F 1000.

Samples can be fed into automatic systems not only by means of a robot, but also via linear handling systems from the side or via backloading access. Input and output magazines can also be integrated.

The HS-F 1000 can be adapted for processing non-ferrous samples, e.g. from the aluminum sector. For this purpose, a spindle motor with higher rotational speeds is used and the machine interior is retrofitted to handle the lighter chips.

Waste chips can be automatically removed from the HS-F 1000 by means of a pneumatic system. If required, a briquetting press can be connected. Automatic chip disposal improves the machine availability of the HS-F 1000 and reduces maintenance costs.

The machine interior can optionally be monitored with up to two cameras. In the event of a fault, the buffered video footage can be used to carry out a simpler and more targeted error analysis via the PrepMaster Analytics software.

Design options:

  • PrepMaster Analytics TCM module HS-F 1000
  • Internal four-position tool changer
  • External 6-position tool changer
  • Deburring tool for round samples
  • Sample feeding via linear handling systems (side and backloading)
  • Chip collection device for plane cutter head (combustion analysis)
  • Chip module for granular chips (combustion analysis)
  • Pneumatic chip transport, storage in rotary disk magazine (combustion analysis)
  • Pneumatic chip transport, connection to CSNLab (combustion analysis, granular chips)
  • Equipment variant Processing of non-ferrous samples
  • Integrated camera
  • Automatic removal of waste chips with connection to a briquetting machine

Downloads:

Downloads:

Product information

Language: english (1 MB)

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Brochure:
HERZOG Steel

Language: english (5 MB)

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Application Note:
Tool condition monitoring for precise evaluation of milling efficacy

Language: english (872 KB)

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Application Note:
A novel approach for thermal evolution analysis of steel samples by using chips with granular morphology

Language: english (538 KB)

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Application Note:
Combustion analysis of granular steel chips- The effect of the scale layer on the analysis of carbon and sulfur

Language: english (731 KB)

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Application Note:
Contamination-free sample preparation and transport of granular chips used for combustion analysis

Language: english (664 KB)

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Application Note:
Effect of Milling Depth on the Measurement Uncertainty of OES Analysis in Quality Control Steel Samples

Language: english (683 KB)

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Application Note:
Morphological Correlates of Measurement Uncertainty of OES Analysis as revealed by EMPA of Steel Samples

Language: english (687 KB)

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Application Note:
Effect of Spark Point Location on the Precision of OES Analysis in Quality Control Steel Samples

Language: english (409 KB)

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Application Note:
The Influence of Sample Preparation on the Combustion Analysis of Chips Obtained from Steel Samples

Language: english (605 KB)

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Application Note:
Tool condition monitoring for precise evaluation of milling efficacy

Language: english (872 KB)

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