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Mining

Ai-feature
sorting

Ai-feature
sorting

Higher Yield, Lower Cost

Mining operations aim to increase recovery, reduce cost, and maintain consistent product quality under demanding conditions. InSystem mineral sorting solutions improve yield by separating valuable material earlier in the process, reducing energy use and downstream load. With reliable machine performance, your plant can achieve higher throughput and a lower cost per ton.

Applications by material

Ferrous metals info.

Base metal ores

Copper, lead, zinc, nickel

Early material separation improves recovery and concentrate quality before milling.

Industrial minerals info.

industrial minerals

Limestone, sandstone, graphite

Precise classification ensures consistent purity and stable product specifications.

Metal ores info.

ferrous metals

Steel, carbon, iron ores

Contaminant removal enhances feed quality and efficiency in downstream processing.

Every stone counts

Efficient mineral sorting systems reduce transportation, energy, and resource use, improving profitability.

Sorting options
for your operation

1st type

optical sorting

Coal on the sorting conveyor belt.
Coal on the sorting conveyor belt.

Setting sorting criteria

Objects are analyzed against defined accept or reject parameters to separate valuable ore from waste and remove impurities or foreign material.

Detecting with precision cameras

High-speed sensors analyze each particle in real time, capturing detailed visual and material data to ensure accurate identification and classification. Optical sorters can recognize characteristics such as:

color

size

shape

strucaral properties

chemical composition

Sorting into 2+ segments

Once identified, each particle is automatically directed into the correct output stream. The process ensures consistent material separation, higher recovery rates, and lower operational costs compared to manual sorting.

2nd type

Ballistic separation

MicroSort
Sorting line setup.
MicroSort optical sorter.
MicroSort

SCU: 0802

LEARN MORE

Loading material to the belt

Feed material arrives at the conveyor after primary crushing, with particles up to 500 mm in size. This consistent feed entry helps protect downstream equipment and supports smooth, controlled processing.

Separation with grids

The feed passes through a series of mesh screens that classify material by size, improving efficiency and protecting downstream equipment. Typical classifications include:

Screen grid 60mm.

60 mm

xxxx

xxxx

all < 60 mm

Screen grid 40mm.

40 mm

stones

xxxx

all < 40 mm

Screen grid 20mm.

20 mm

sand

dust

all < 20 mm

Sorting into 2 or 6 segments

Pre-screened material is separated into up to six output streams according to density, particle motion, and composition. This step removes residual impurities, improves concentrate quality, and maintains consistent feed for downstream processing.

3rd type

uv sorting

Defining sorting parameters

Operators set product specifications such as acceptable mineral grade, color range, and reflectance threshold. The system uses these values as reference criteria for classification and removal of unwanted material.

Analyzing material with UV cameras

UV-sensitive cameras scan the material to detect differences in reflectivity and fluorescence. These optical signals reveal variations in mineral composition, helping distinguish valuable ore from gangue with high accuracy.

Sorting material into output fractions

Material is separated into two or more output streams based on the detected optical characteristics. This ensures cleaner concentrate, higher recovery rates, and improved feed consistency for downstream processes.

Diagram showing separation of total waste mass into fine, medium, and heavy fractions.

Ai-feature sorting

Rising demand for high-quality minerals such as lithium, copper, and precious metals for use in electronics, batteries, and green technologies (e.g., solar panels) is pushing the development of advanced sorting solutions.

Ai-feature
sorting

Ai-feature
sorting

Ai-feature sorting

Rising demand for high-quality minerals such as lithium, copper, and precious metals for use in electronics, batteries, and green technologies (e.g., solar panels) is pushing the development of advanced sorting solutions.

1 type

optical sorting

3 type

uv sorting

Optical separator
V-light

3 type

uv sorting

Optical separator

V-light

2 type

ballistic separation

Ballistic separation
MicroSort

2 type

ballistic separation

Ballistic separation

MicroSort

1 type

optical sorting

Optical separator
V-heavy
V-light
Coal on the sorting conveyor belt.

Setting category criteria

The sorter compares objects to user-defined accept/reject criteria to identify and remove defective products and foreign material (FM) from the production line, or to separate product of different grades or types of materials.

Recognizing pieces with the camera

Depending on the types of sensors used and the software-driven intelligence of the image processing system, optical sorters can recognize an object's characteristics:

color

size

shape

strucaral properties

chemical composition

Sorting into 2+ segments

Compared to manual sorting, which is subjective and incon-sistent, optical sorting helps improve product quality, maximize throughput and increase yields while reducing labor costs.

Optical separator
v-heavy
V-light
V-light - optical sorting machine.
V-light

SCU: 0701

LEARN MORE
Ballistic separator
MicroSort

2 type

Ballistic separation

Microsort

2 type

ballistic separation

Ballistic separation

MicroSort

Sorting line setup example.
Sorting line for mining example.

1

Uploading material to tape

Loading material onto the belt. The material requires the simplest preparation - initial crushing, so as not to damage the machine.

2

Separation with grids

Materials are categorized according to their size. The overall flow flies through several stages, each characterized by the size of the hole in the mesh into which the material can fall.

Screening grid 60mm.

60 mm

xxxx

xxxx

all < 60 mm

Screening grid 40mm.

40 mm

xxxx

xxxx

all < 40 mm

Screening grid 20mm.

20 mm

sand

dust

all < 20 mm

3

Sorting into 2 or 6 segments

Compared to manual sorting, which is subjective and inconsistent, optical sorting helps improve product quality, maximize throughput and increase yields while reducing labor costs.

Uploading material to tape

Loading material onto the belt. The material requires the simplest preparation - initial crushing, so as not to damage the machine.

Separation with grids

Materials are categorized accor-ding to their size. The overall flow flies through several stages, each characterized by the size of the hole in the mesh into which the material can fall.

Screening grid 60mm.

60 mm

xxxx

xxxx

all < 60 mm

Screening grid 40mm.

40 mm

xxxx

xxxx

all < 40 mm

Screening grid 20mm.

20 mm

sand

dust

all < 20 mm

Sorting into 2 or 6 segments

Compared to manual sorting, which is subjective and incon-sistent, optical sorting helps improve product quality, maximize throughput and increase yields while reducing labor costs.

MicroSort optical sorter.
microsort

SCU: 0802

LEARN MORE

3 type

uv sorting

Optical separator

V-light

UV light minerals blue.
UV light minerals.

Setting category criteria

The sorter compares objects to user-defined accept/reject criteria to identify and remove defective products and foreign material (FM) from the production line, or to separate product of different grades or types of materials.

Analyzing objects with the camera

The sorter compares objects to user-defined accept/reject criteria to identify and remove defective products and foreign material (FM) from the production line, or to separate product of different grades or types of materials.

Sorting into 2+ segments

Compared to manual sorting, which is subjective and incon-sistent, optical sorting helps improve product quality, maximize throughput and increase yields while reducing labor costs.

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