3 complementary technologies
Dot peen, scribing and laser, matched to material, geometry and mark durability requirements.
SIC Marking technology · Industrial identification and traceability
Industrial permanent marking by dot peen, scribing and laser
Durable identification for every component. Traceability for the entire process.
In industry, a component must stay identifiable well beyond the moment of manufacture. A serial number, a Data Matrix code or a VIN identifier can be essential for quality control, operation tracking, maintenance and managing the full product life cycle.
SIC Marking solutions mark parts directly by dot peen, mechanical scribing or laser, depending on material, geometry and the application. From portable systems to standalone stations and heads integrated into robotic lines, Imark Sistem builds complete marking, reading, verification and traceability solutions.
Solutions built for industry
SIC Marking technology for identification and traceability
3 implementation modes
Portable systems, standalone workstations and marking heads integrated into automated processes.
Direct part marking
Text, serials, Data Matrix codes, VIN identifiers and other information printed directly on compatible components.
Integrated traceability
Solutions that can combine permanent marking with automatic reading, code verification and production data management.
International technology. Local industrial expertise.
SIC Marking and Imark Sistem — identification solutions for modern industry
Founded in 1992, SIC Marking specialises in developing permanent marking equipment and traceability solutions for industrial components.
The manufacturer’s expertise covers three main technologies — dot peen, scribing and laser — used in industries such as automotive, aerospace, metalworking, energy, transport and machine building. The range includes portable equipment, fixed stations, heads for integration into automated lines and custom solutions for applications that require precise, repeatable identification.
The Imark Sistem approach
We start from the real requirements of production
We analyse the material and shape of the part, the production volume, the code size, the required durability, the customer’s standards and the automation infrastructure. On this basis we configure a solution that can include marking, automatic reading, quality verification and transmitting the information to the company’s software systems.
The goal is not just a durable mark, but a reliable, controllable identification process adapted to production requirements.
Identification across the life cycle
A correctly identified component can be tracked long after it leaves the factory
In production, a part passes through many machining, treatment, assembly, testing and transport operations. Conventional labels can be insufficient under abrasion, treatments or intensive handling. Direct Part Marking (DPM) provides identification that does not depend on a separate label.
Quality control
Permanent identifiers link components to inspection results, raw-material batches and manufacturing operations.
Internal traceability
Each part can be tracked between workstations, machines and process stages.
External traceability
The information supports component identification between manufacturers, suppliers, integrators and end users.
Maintenance and interventions
The mark allows a component to be recognised during inspection, repair or replacement.
Non-conformity management
Individual or batch identification helps locate products targeted by investigations and corrective actions.
Digital integration
Codes and identifiers can connect physical parts with the records held in the company’s IT systems.
A durable mark is the basis of identification. Full traceability is achieved by associating it with correct information, reading systems and data-management processes.
Choosing the right technology
Dot peen, scribing or laser? Each technology has its own advantages.
Not every component should be marked by the same method. Material hardness and thickness, required depth, visual appearance, cycle speed and operating conditions all influence the choice.
Dot peen marking
A special stylus makes a series of controlled indentations, forming characters, symbols and codes. Durable mechanical marks, adjustable depth, flexibility for different parts and manageable operating costs.
Materials: steel, aluminium, cast iron, certain alloys and compatible plastics · Applications: serials, batches, Data Matrix codes, bulky parts
Scribing (mechanical tracing)
A carbide or diamond stylus traces a continuous groove on the surface. Deep marks, continuous lines, lower noise than many dot peen applications and good legibility.
Materials: steels, robust metal components, structures · Applications: VIN identifiers, industrial nameplates, structural components
Industrial laser
A focused beam locally modifies the surface through mechanisms such as ablation, engraving or colour change. High precision, compact codes, non-contact process and integration into automated stations.
Materials: metals, treated surfaces and certain technical plastics, after verification · Applications: compact Data Matrix codes, serials, complex marks
The Imark Sistem recommendation
The most precise technology is not necessarily the most suitable for every part. In some applications depth matters most, in others contrast, cycle speed or the ability to mark a part impossible to move to a fixed station.
SIC Marking | Dot Peen Technology
Permanent dot peen marking for industrial parts and components
Dot peen marking uses a stylus of hard material, usually tungsten carbide, that produces a series of indentations on the surface. By moving the stylus in a controlled way, the dots form alphanumeric characters, symbols, identifiers and 2D codes. Depth can be adapted within the configuration, depending on material, geometry and requirements.
Permanent mechanical marking
Dots placed under control, for durable identifiers
Each impact creates a dot. The controlled arrangement of dots forms text, codes and symbols directly in the material, with no printing consumables.
The mark is created in the material
Unlike ink printing, dot peen locally modifies the surface of the part, for identifiers that stay legible under the validated operating conditions.
Flexibility for different shapes
Can be used on flat, cylindrical or irregular surfaces, depending on positioning and fixturing options.
Alphanumeric and 2D codes
Serial numbers, batch identifiers, symbols, logos and Data Matrix codes, with the appropriate parameters.
Solutions for hard-to-handle parts
Portable equipment brings the marking system to the part — an advantage for structures, heavy components and bulky assemblies.
Controlled operating costs
The process uses no ink or ribbon. The marking styli are, however, wear components that need checking and replacement when conditions require it.
Electromagnetic or pneumatic drive
SIC Marking systems use electromagnetic control for precise impact adjustment; pneumatic solutions exist for specific speed or force requirements.
Configurations matched to the way you work
From portable marking to integration in automated lines
Portable equipment
The marking moves to the part, not the other way around. For heavy or bulky components, with cable power or standalone battery versions. Families: E-MARK, E-TOUCH, P63 and P123. Applications: structures, chassis, assemblies, maintenance.
Fixed marking stations
Repeatability and control in a dedicated workstation, with fixtures and marking recipes. Applications: nameplates, mechanical components, small and medium parts, production series.
Heads integrated into the line
Automatic identification, synchronised with the process. Connect to PLCs, handling systems and robotic stations. Applications: automotive, CNC components, robotic cells, repetitive production.
Custom configurations
For applications a standard station cannot solve: special fixtures, automatic positioning, multiple axes or integrated verification, developed from standard equipment.
SIC Marking dot peen equipment
Portable · electromagnetic
E-TOUCH
Portable dot peen unit for marking parts directly at the point of manufacture, assembly or maintenance, with digital message control.
Download the E-TOUCH datasheet
Portable
E-MARK
Portable dot peen unit for identifying industrial components, with versions suited to different applications.
Download the E-MARK datasheet
Portable / integrable
P63
Dot peen marking head for a compact marking field, usable in portable and integrated configurations.
Download the P63 datasheet
Portable / integrable
P123
Dot peen marking head with a wider marking field than the P63, for larger parts and nameplates.
Download the P123 datasheet
Column station
e10 C153
Fixed column dot peen station for repeatable marking of components in a dedicated workstation.
Download the e10 C153 datasheet
Integrated in line
i124 (integrated range)
Dot peen head for integration into automated processes, connected to control and handling systems.
Download the i124 datasheet
Model availability and current configurations are confirmed with the manufacturer before being published as an active offer.
SIC Marking | Scribe Marking Technology
Permanent scribe marking for deep, legible inscriptions
Scribing uses a carbide or diamond stylus that penetrates the surface under control and traces a continuous groove. Unlike dot peen, where the mark is made of dots, scribing creates characters through continuous lines — recommended for deep identifiers, a uniform appearance and good legibility, including for OCR systems.
Continuous lines, low noise
Mechanical tracing for robust components
An important advantage is the low noise level compared with repeated-impact marking, especially on large or hollow metal parts.
Deep, durable marking
The stylus creates a controlled groove that can offer high mark durability under validated conditions.
Low noise level
Continuous tracing removes the repeated impacts of dot peen, suited to applications where operational noise is a concern.
Continuous-line characters
The mark appearance eases visual reading and OCR, with the right font and geometry.
Industrial integration
Scribing heads can be mounted in fixed stations, automated installations or robotic systems, depending on the project.
Compatible with robust parts
Frequently used for steels, structures and other metal components that allow mechanical tracing.
VIN identifiers and nameplates
Recommended for VIN numbers, industrial nameplates and structural components where deep engraving is required.
Models and configurations — to confirm
The current page includes the SIC Marking heads e10R i63s and e10R i113s. These references are correlated with the manufacturer’s current range before publication; for new projects, heads from the current scribing family (e.g. i63s, i124s) can be evaluated, subject to availability and specifications.
SIC Marking | Industrial Laser Marking
Precision laser marking for permanent identification of industrial parts
The process uses a focused laser beam that interacts with the surface under control. Depending on material and parameters, the mark can be produced by colour change, ablation, engraving or other physical mechanisms. Non-contact printing allows detailed codes on components where surface deformation must be limited.
Precision for complex codes
Alphanumeric identifiers, logos and Data Matrix codes sized to the application.
Non-contact process
No stylus pressed onto the part — an advantage for sensitive components and geometries.
Integration with verification
In compatible configurations, the mark can be correlated with automatic code verification and production data.
Automated stations and cells
Equipment can be integrated into dedicated workstations or robotic-handling processes.
Operation without ink
No conventional consumables; the installation needs safety measures, checks and, depending on material, emission extraction and filtering.
Operator safety
The safety class of the complete system depends on the equipment and protection configuration; enclosed stations and purpose-built portable solutions can provide protection appropriate to the intended use.
Solutions for direct laser marking on parts
Laser configurations for workstations, automated production and mobile applications
Compact station
L-BOX / e.L-BOX
A solution for small and medium components, with controlled positioning, intuitive operation and integrated protection: serials, nameplates, Data Matrix codes and other industrial information.
Download the L-BOX datasheet
Flexible station
XL-BOX
A generous work area and integration with fixtures, axes and auxiliary systems, for handling several component variants in the same station.
Download the XL-BOX datasheet
Bulky components
XXL-BOX
For large parts or applications needing an extended work area, configurable to the part geometry and the handling process.
Download the XXL-BOX datasheet
Identification nameplates
TAGMARK LASER
A solution dedicated to repetitive marking of industrial nameplates, with automatic feeding and unloading, for high nameplate volumes.
Portable laser
L-MOOV
A portable laser solution for bulky or hard-to-reach parts, with a purpose-built protection system: text, logos and 1D/2D codes on compatible materials.
Download the L-MOOV datasheet
Integrated in line
Integrated laser heads (i104)
For direct integration on the production line: connection to positioning, control and verification systems, in robotic cells and repetitive processes.
Download the integrated laser datasheet
Model availability and current configurations must be confirmed with the manufacturer before being published as an active offer.
A solution matched to the way you work
How should marking be integrated into the process?
Bulky or hard-to-move parts
Portable dot peen or laser equipment — marking is done at the part location, reducing transport and handling.
Small series and diverse production
Fixed marking stations — parts are positioned in a dedicated station and messages change by reference.
High-volume automated lines
Integrated marking heads — marking is synchronised with the machine cycle and connected to control and identification systems.
Deep marks on metal components
Scribing or dot peen, depending on material, geometry and depth requirements.
Compact Data Matrix codes
Laser or precision dot peen, with validation of reading and code quality.
Cylindrical or complex shapes
Equipment with positioning devices and compatible axes, selected for the part geometry.
Direct marking on industrial materials
Which materials can be marked permanently?
Steel and stainless steel
Mechanical components, chassis, machined parts, structures and nameplates. Dot peen, scribing and laser, with parameters chosen by hardness, thickness and finish.
Aluminium and light alloys
Housings, automotive components, machine parts, extrusions and structural elements. Mechanical or laser solutions, by the contrast and depth needed.
Cast iron and other metals
Cast parts, engine components, housings and assemblies, with evaluation of the raw or machined surface and fixturing.
Titanium and special alloys
Technical components with high identification requirements; the technology is chosen considering the properties and any surface-modification restrictions.
Technical plastics
Housings, identification elements and polymer subassemblies; compatibility depends on composition, rigidity, thickness and additives.
Treated, anodised or painted surfaces
Marking can be done before or after surface treatment, depending on requirements for durability, contrast and coating integrity.
Industrial nameplates
Metal identification plates, serials, codes and technical information for products and equipment.
Copper, brass and copper alloys
Components and contacts frequently used in electrical applications; marking and parameters are validated on the real material, depending on finish.
Material compatibility does not automatically guarantee a depth or code quality. The result must be validated against the real material and the application conditions.
Expertise for industries with rigorous requirements
Permanent traceability, adapted to each industrial sector
Component identification from manufacture to assembly
Automotive uses part identification to link components with machining, assembly and quality control. Marking can be applied to engine blocks, housings, transmission components, chassis and other compatible elements.
Serials and part references
Serial numbers, batches and references linked to production information.
Data Matrix codes
2D codes with verification systems for each component.
VIN identifiers
VIN marking on structures and components, per the manufacturer’s requirements.
Technologies: dot peen, scribing and laser.
Durable identification for components with special requirements
Aerospace components can require precise marks and rigorous documentation to support the manufacturing and inspection history. The technology is selected by material, geometry and the restrictions set for the component.
Individual identifiers
Part numbers and serials for component-level traceability.
Data Matrix codes
2D codes in configurations and conditions approved for the part.
Approved conditions
Technology is applied only in configurations validated for the component.
Technologies: laser or dot peen, only in approved conditions.
Marking for machined parts, assemblies and industrial equipment
Workshops and factories producing metal components need repeatable identification to organise production and link parts to orders or operations. Marking can be done in fixed stations, on dedicated machines or with portable systems.
Nameplates and serials
Identification plates, serials, internal codes and batches.
Repeatability
Marking recipes for repeatable, controllable processes.
Flexibility
Fixed or portable stations, by part size and access.
Technologies: dot peen, scribing and laser.
Robust marks for components used in demanding conditions
In energy applications, equipment and components can be exposed to difficult conditions. Identification must be evaluated against the material, durability requirements and applicable technical standards.
Deep marks
Scribing or dot peen for robust components.
Validated durability
The mark is validated for the intended operating conditions.
Valves and fittings
Metal bodies, pipes, structures and industrial nameplates.
Technologies: scribing, dot peen or laser, after application validation.
Identification of large structures and components
Metal structures, transport components and heavy machinery frequently require marking parts that cannot easily be moved to a fixed station. Portable systems allow coding directly in the production or assembly area.
Portable systems
Marking moves to the component, directly in the work area.
Frames and chassis
Structural components and technical nameplates.
Large dimensions
Solutions adapted to bulky parts.
Technologies: portable dot peen and portable laser.
Compact codes for components and subassemblies
Makers of electrical and electronic components can require small, high-precision identifiers. For such applications, laser marking can be a relevant solution, with verification of the effect on the material and component function.
Compact 2D codes
Small identifiers with high precision.
Laser marking
Non-contact process for sensitive components.
Effect verification
Evaluating the impact on material and function.
Technology: mainly laser, after verification.
From a mark to controlled information
Industrial traceability starts with identification, but does not stop there
To track the manufacturing, verification and assembly stages, the part’s mark must be linked to a system that recognises the identifier and manages the associated information. A complete solution can include the marking equipment, reading systems, code-quality verification, automation infrastructure and software applications.
Recommended technology flow
Generating the identifier
A serial, batch or unique code is created or taken from the production system.
Marking directly on the part
The identifier is applied to the component surface by the selected technology.
Reading the mark
An optical system or industrial reader captures the printed information.
Verifying the result
Depending on requirements, legibility, code structure and data consistency are checked.
Recording the information
The data is transmitted to or associated with the systems used to control and track production.
Using the identifier
The code can be read in later assembly, control, logistics and maintenance stages.
Internal traceability
Tracking the part between machines, stations and stages; data can be linked to the operations performed, inspection results and production batches.
External traceability
Identifying components between manufacturers, suppliers, integrators and end users, correlating information and supporting non-conformity management.
Automatic identification and quality control
A permanent code is valuable when it can be read correctly
Mark quality is assessed not only by appearance, but by the ability of industrial systems to identify the information it contains. Imark Sistem offers integration of reading and inspection systems, in standalone stations or directly in industrial lines.
Industrial readers and cameras
Optical devices selected by symbology, code size, contrast, surface reflections and reading distance.
DPM code verification
Codes marked directly on parts often need special lighting and quality evaluation; for relevant applications the ISO/IEC 29158:2025 methodology can be used, with appropriate equipment and configuration.
Inspection in the same station
In some configurations the reading system can be mounted with the marking equipment, to check the information before the part advances.
Integrating the results
Reading and verification can provide information to control and production-management systems, for recording or flagging non-conformities.
An important note
Successfully reading a code is not automatically the same as verifying its quality against a standard. The two functions must be defined separately in the project.
Direct Part Marking | 2D codes
Data Matrix codes for individual component identification
Data Matrix is a 2D symbology widely used in industry. Codes can be produced by laser or dot peen, depending on code size, material, surface characteristics and reading requirements.
A code designed to be read
Not just a printed symbol
An effective Data Matrix code is an identifier designed to be readable and usable in the real conditions of the industrial process.
Individual identification
Each component can receive a distinct identifier, linked to production records.
Stage-by-stage traceability
The code can be used at several points in the flow to recognise the part and associate operations.
Integration with vision systems
Industrial cameras can identify the symbols and send the data to production applications.
Quality verification
For DPM codes, the evaluation conditions are adapted to the surface characteristics and verification requirements.
Position optimisation
Code placement is set against the manufacturing process, part geometry and scanning accessibility.
Large data in a compact space
The 2D structure encodes a relatively large amount of information in a small area, important where the marking surface is limited.
SIC Marking | Automation software
SIC Factory Automation — managing and automating industrial marking
SIC Factory Automation (SFA) is a software solution developed to control SIC Marking laser equipment and to integrate marking functions into automated processes. Depending on the configuration, the platform can control the marking source, accessories, sensors and axes, as well as managing the data used.
Marking control
Configuring and running marking operations according to the project parameters.
Data management
Using information from recipes, databases or compatible external systems.
Accessory integration
Controlling and synchronising elements such as sensors and axes, in the available configurations.
Flow automation
Reducing some manual interventions and organising repetitive operations more efficiently.
Integration with industrial systems
Connecting the marking process to the control and production-management infrastructure, after evaluating the available interfaces.
Error reduction
Controlled data transmission limits the risk of selecting a wrong message or using outdated information.
The marking software must be configured in line with the automation architecture, identification rules and the company’s traceability requirements.
Vehicle and automotive component identification
VIN marking — permanent identification for the automotive industry
The Vehicle Identification Number (VIN) is a vehicle’s standardised identifier. VIN marking applies the information to the structures or components specified by the technical documentation, using mechanical technologies such as scribing or dot peen, with evaluation of depth, position and legibility.
Marking on chassis and structural elements
Solutions adapted to component geometry and material, with control of positioning and parameters.
Integration into automated stations
Systems can be correlated with fixturing, handling and verification devices.
Legible, repeatable marks
Character and parameter configuration follows the vehicle manufacturer’s technical requirements.
Connection to production traceability
The VIN identifier can be associated in IT systems with the vehicle and manufacturing information.
VIN marking must be carried out according to the manufacturer’s requirements and applicable regulations. Choosing the equipment is not, in itself, a guarantee of conformity.
SIC Marking technology in real industrial processes
Marking solutions are validated in production, not just in a catalogue
Data Matrix codes on automotive components
Challenge: repeatable marking and reading of Data Matrix codes on several metal part references, in an automated flow.
Illustrated solution: integrating an XL-BOX laser station with a 2D reading system and connection to the installation PLC.
Relevance: marking and verification can be included in the same automated station.
Engine component traceability
Challenge: identifying several component types and verifying codes at various manufacturing and assembly stages.
Illustrated solution: laser equipment, reading cameras and scribing systems for engine identifiers, in a project documented by SIC Marking.
Relevance: the advantages of a complete traceability architecture with complementary technologies.
Marking complex assemblies
Challenge: identifying parts with different geometries or large sizes, in difficult-access conditions.
Illustrated solution: portable systems, modular stations and special positioning devices, selected for the application.
Relevance: the importance of configuring the solution around the part and the production flow.
The case studies documented by SIC Marking are attributed to the manufacturer. They illustrate applications of the technology and are not presented as projects carried out directly by Imark Sistem.
Application-based technical consultancy
Seven questions that define a correct permanent marking solution
What material needs marking?
We analyse the material, hardness, thickness, finish and any surface treatments.
What type of information must be applied?
We determine whether alphanumeric characters, serials, Data Matrix codes, VIN identifiers or graphic elements are needed.
How durable must the mark be?
We assess the later handling, machining, storage and operating conditions.
What is the part size and geometry?
We establish whether the part can be moved to a fixed station or needs a portable or integrated system.
What time is available for marking?
We analyse the cycle time, production volume and synchronisation needs with the machines.
Must the mark be read automatically?
We check scanning requirements, code quality and the standards specific to the application.
How must the data be managed?
We evaluate the link with PLCs, databases and ERP or MES systems, and the need to record results.
Do not choose the equipment before validating the application
A real part, a technical drawing or a sample mark can provide essential information for selecting the technology. Imark Sistem specialists can help you analyse the requirements and identify the relevant equipment and configurations.
Productivity and economic efficiency
A marking system’s cost is assessed over its whole operating life
The investment should not be analysed by purchase price alone. Production volume, cycle time, operating mode, maintenance and integration can significantly affect the total cost.
Equipment cost
The marking configuration, controller, fixtures and any accessories.
Operating cost
Energy, wear parts, maintenance operations and auxiliary consumables, where applicable.
Marking time
The duration of each cycle and its impact on production capacity.
Operator involvement
Time for positioning parts, selecting messages and checking the result.
Cost of errors
The impact of illegible codes, wrong messages or the inability to identify a component.
Integration with existing systems
Using the same solution within an automated process or for several product references.
The Imark Sistem recommendation
For the economic assessment we analyse the initial investment and the estimated operating costs against actual production and the expected service life.
Technology partnership for industry
A reliable marking process is built through expertise, integration and support
Consultancy before purchase
We analyse the material, part, code and production conditions to identify a suitable technology.
SIC Marking solutions
Access to specialised dot peen, scribing and laser technologies for industrial applications.
Integration into automated processes
We assess connectivity with equipment, PLCs, handling systems and the software infrastructure.
Identification and verification
We approach the project as a complete flow, including marking and code-recognition systems.
Technical assistance and maintenance
We support installation, operation and maintenance, within the available services and conditions.
Long-term solutions
We aim for identification solutions that not only work at installation but can support operational requirements over time.
Essential technical information
Frequently asked questions about industrial permanent marking
What is industrial permanent marking?
The process by which identification information is applied directly to a part’s surface, by methods that modify the material. Common technologies include dot peen, mechanical scribing and laser, for serials, batches, identifiers and Data Matrix codes.
What is the difference between dot peen and scribing?
Dot peen produces a series of dots through controlled impacts. Scribing uses a stylus that traces continuous lines, forming characters through grooves. Scribing is often preferred for deep marks and applications that require reduced noise.
When is laser marking recommended?
For applications needing compact codes, fine detail, non-contact operation and integration with automated systems. The choice depends on material, required contrast and surface-modification requirements.
Can a stainless steel part be marked permanently?
Yes. Stainless steel can be marked by several technologies, provided the configuration suits the material and application. For sensitive components or special durability requirements, the process must be validated.
Can aluminium parts be marked?
Yes. Aluminium and certain alloys can be marked by dot peen, scribing or laser, depending on geometry and mark requirements.
Can plastics be marked?
Yes, certain plastics can be marked by dot peen or laser. Compatibility depends on rigidity, composition, thickness and the material’s behaviour during the process.
How deep can the marking be?
Depth depends on the technology, material type, equipment configuration and working parameters. For applications needing a precise depth, this must be verified by testing and measurement.
Can Data Matrix codes be made by dot peen?
Yes. Compatible systems can create Data Matrix codes from dots placed under control. Reading and quality verification depend on the code geometry, material and optical system used.
What is Direct Part Marking (DPM)?
Identification carried out directly on a part’s surface, without a separate label as the information carrier. The term is frequently used for components identified by laser, dot peen or other suitable technologies.
Which standard is used to verify DPM codes?
ISO/IEC 29158:2025 describes the methodology for assessing the quality of symbols marked directly on parts. Applying it requires verification equipment and appropriate parameters; standards and customer requirements are assessed per project.
What is the difference between reading and verifying a code?
Reading confirms that a device can decode the information from a symbol under certain conditions. Verification assesses the code quality against a defined methodology and parameters. A code that can be read is not automatically compliant with all quality requirements.
Can very large parts be marked?
Yes. Portable systems allow marking directly on bulky components, provided there is access and the ability to fix the equipment correctly.
Can marking be integrated into an automated line?
Yes. Industrial equipment can be configured to connect with PLCs, robotic systems and data-management applications, depending on the model and available interfaces.
Does permanent marking need consumables?
Dot peen, scribing and laser do not need ink or ribbon. However, mechanical systems have wear components, and laser installations need maintenance and, in some applications, extraction and filtering.
Which solution suits VIN marking?
VIN marking can use scribing or dot peen, with the equipment chosen by the manufacturer’s requirements and the characteristics of the marked structure.
How do I choose permanent marking equipment?
By evaluating the material, part size, mark content, required depth, cycle time, reading requirements and integration mode. Imark Sistem can analyse this information and identify the relevant solutions.
Connected industrial solutions
Extend identification beyond direct part marking
Markem-Imaje industrial laser marking
Laser systems dedicated to coding compatible products and packaging, including on high-speed lines.
DiscoverAutomatic identification — Auto ID
Solutions for reading, capturing and transmitting information from industrial codes.
DiscoverInspection and verification
Technologies for controlling codes, identification and other product characteristics.
DiscoverIndustrial software
Data management and connecting identification systems with production processes.
DiscoverCIJ and TIJ marking
Inkjet coding for applications where mechanical permanent marking is not required.
DiscoverIndustry solutions
Marking, coding and traceability applications adapted to industrial sectors.
DiscoverHave a part to mark? Let us identify the right solution.
Every permanent marking application has specific requirements. Material, geometry, depth and mark content directly influence the recommended technology and equipment. Send us a few details about your project — a photo, a sketch or a technical drawing helps us identify the requirements faster. Phone: +40 21 255 71 74.