3DOE 3D scanners and measurement systems

Select 3DOE equipment for industrial part measurement, footwear production and pressure analysis. Specify the object and output to define the scanner, accessories and complete system.

PTS-A industrial scanners

PTS-A130 and PTS-A130-SO use white structured light to capture a part’s surface geometry. Choose the measuring head and accessories around the actual part size. For an installed scanner, include its complete designation and photographs of the assembly requiring replacement.

PTS-A130: scanning field 100×75–400×300 mm.
PTS-A130: stated accuracy 0.02–0.05 mm.
PTS-A130-SO: scanning field 50×40–200×150 mm.
Listed accessories include a turntable, calibration plate and markers.

PTS-C blue-light scanners

The PTS-C family combines non-contact blue-light scanning with marker-based alignment of multiple views. Compare the standard and SO configurations by the required scanning field and object size, then define the data needed by the downstream inspection or design workflow.

Models: PTS-C130, PTS-C130-SO, PTS-C200 and PTS-C200-SO.
Blue structured-light measurement of part surfaces.
Automatic alignment of views using reference markers.
Published output formats include ASC, STL and OBJ.

PTS-E300 and PTS-E500 scanners

PTS-E scanners combine blue structured light with industrial cameras. Specify the intended measurement task before comparing configurations. The accuracy values belong to the stated model and should be considered alongside the working field, part surface and inspection procedure.

PTS-E300: stated accuracy 0.015–0.03 mm.
PTS-E500: stated accuracy 0.01–0.025 mm.
Both models: scanning field 100×75–400×300 mm.
Published output formats include ASC, STL and OBJ.

eFoot-350M foot scanner

eFoot-350M captures three-dimensional foot shape for footwear measurement and manufacturing workflows. Define the measurements and exported data needed by the receiving software. An enquiry for a replacement assembly should identify the scanner, serial number and software version.

Laser scanning with 8 viewing directions.
Objects include feet, shoe lasts and plaster models.
More than 60 dimensional foot parameters.
Foot geometry can be generated as an STL mesh.

eSole-300Pro plantar scanner

eSole-300Pro captures the plantar surface for digital insole design. Explain how the foot will be positioned, what data must be exported and which design application receives it. These inputs help define the scanner and the accessories within the proposed workflow.

Published model designation: eSole-300Pro.
Three-dimensional measurement of the plantar surface.
Data for individual insole design and production.
System and accessory selection around the intended workflow.

eMat-500 pressure platform

eMat-500 measures plantar pressure distribution during standing and movement. Start with the pressure measurement workflow and required reports. For a replacement platform or assembly, provide the identification label, connection details and a description of the installed setup.

Pressure sensors combined with analysis software.
Load distribution across different regions of the foot.
Static and dynamic measurement workflows.
Measurement records and report preparation.

eWay1500 and eWay2000 walkways

The eWay systems capture pressure data during walking and running. Describe the available floor area, passage layout and reports needed by the operator. For replacement assemblies, identify the complete model and the location of the item within the installed walkway.

Published models: eWay1500 and eWay2000.
Measurements during barefoot or shod movement.
Pressure distribution presented in 2D and 3D.
System length can be adapted to the application.

eProfile S machine vision

eProfile S scans shoe soles and extracts paths for robotic adhesive application or grinding. Specify the product geometry, conveyor arrangement and robot interface. Component enquiries should identify the measuring head and the existing communication connections on the production line.

Non-contact three-dimensional scanning of shoe soles.
System components: computer, 3D sensor, conveyor and robot.
Robot path communication through TCP/IP.
Configuration selection around the geometry of the product.

PTS-X250 shoe-last scanner

PTS-X250 is designed for the digital reproduction and inspection of shoe lasts. Specify the sample dimensions, model format and software used for subsequent processing. This defines how the scanner will fit into an existing footwear design or manufacturing workflow.

Single-scan field: 250×180 mm.
Stated measurement accuracy: 0.02 mm.
Structured light with marker-based alignment of views.
Published formats include ASC, IGES, STL and DXF.

ePrinter-D300S insole printer

ePrinter-D300S is listed in the manufacturer’s insole production range. Enquiries for the printer, replacement components or consumables should include the machine designation and the intended product specification. Describe how printed insoles enter the existing production process.

Published designation: ePrinter-D300S.
Application: three-dimensional printing of insoles.
Selection by the product and production workflow.
Enquiries may cover a printer or specified items in its package.

Choose the measurement workflow

3DOE makes non-contact three-dimensional measurement systems in Shenzhen, China. Its Chinese company name is 深圳市精易迅科技有限公司. PTS industrial scanners capture part geometry. Footwear equipment covers foot shape, shoe lasts, plantar pressure and digital insole production.

Specify each workflow’s equipment and data needs.

Describe the required surface model, dimensional comparison, foot geometry or pressure report. Provide object dimensions and the next processing step. An inspection enquiry needs a drawing; footwear production needs the sequence connecting measurement, design and manufacturing.

Specify the object and working space

For an industrial scanner, provide the overall object dimensions and the smallest feature that matters to the task. Distinguish the field captured in one view from the size of the complete object.

A drawing with tolerances and a photograph beside a scale make the intended measurement easier to assess.

Describe whether the part can be moved, how it will be held and which surfaces must be visible. Include the available space for the scanner, stand and turntable. If the object remains on a production line, show the arrangement around it.

These details help define the acquisition sequence and the proposed equipment set.

Identify the model and supplied configuration

An enquiry for an installed system should include the full model designation, any suffix and the serial number. Photograph the complete instrument, identification label and relevant assemblies. Show the connectors on cameras, measuring heads and cables.

Link each item to its own instrument when several systems are included in one request.

Identify whether you need a complete scanner, a measuring assembly, accessories or another workstation. Include the installed software version and equipment list. For a new system, describe the result and preferred configuration. List each item and quantity separately.

Calibration and mounting accessories

Calibration boards, markers, turntables and stands are part of preparing the measurement arrangement. When requesting a replacement accessory, include its designation, dimensions and a photograph next to the scanner. For a turntable, describe the part’s weight, size and holding method.

For markers, explain how they are applied to the measured object.

For a new workstation, describe lighting, the working surface and access around the object. Explain the position of soft or deformable samples during acquisition. List mounting items alongside the measuring equipment to account for calibration, connections and positioning.

Data formats and software handover

Identify the software that will receive the scan data and the intended output. A mesh used for reverse engineering and a dimensional comparison report serve different purposes. Include a sample file or the receiving application’s requirements.

For an existing system, specify the current computer connection and software version alongside the instrument designation.

The published PTS material lists point-cloud and mesh formats, including ASC, STL and OBJ for relevant models. PTS-X250 lists additional outputs for shoe-last work. Select formats for the particular model and downstream application.

The equipment enquiry should also describe where files are stored, who processes them and whether several workstations share the resulting data.

Foot shape, lasts and individual insoles

Choose the footwear equipment according to the measured object. eFoot acquires the three-dimensional shape of the foot, eSole measures the plantar surface and PTS-X250 addresses shoe-last geometry.

Explain the position of the object during acquisition and how the resulting file enters the design process. Include existing equipment and software in the workflow description.

For an insole project, identify the stages that the proposed supply must cover: measurement, design, file preparation and manufacturing. ePrinter belongs to the manufacturing stage. Describe the intended output, quantities and how measurement data are linked to the production file.

A clear sequence makes it easier to select the relevant equipment and supporting accessories together.

Pressure platform or measurement walkway

eMat and eWay measure pressure distribution. Define whether the operator needs a standing measurement, a short dynamic test or a passage for walking and running. State whether measurements are performed barefoot or in shoes.

Describe the reports, data export and record storage expected from the system, together with the available installation area.

A walkway enquiry should include a plan of the passage and the approach space around the measuring zone. Explain how the operator starts a measurement and identifies each recorded session. For a replacement assembly, provide the full model, photographs and connection information.

Keep the pressure workflow distinct from acquiring a three-dimensional surface model of the foot.

Machine vision in footwear production

eProfile S uses three-dimensional sole geometry to provide paths for robot gluing and grinding. A production enquiry should describe the sole range, conveyor arrangement and robot already on the line. Identify which parts of the station are being supplied and which remain in use.

Attach a diagram of the equipment and the required exchange of data.

State the available space, object positioning, controlled process step, robot designation and network connection requirements. For an existing station, photograph the sensor, mounts and cables.

These details help select the vision equipment and installation components around the actual production process.

Availability, pricing, lead times and documents are confirmed for the selected package. This page does not establish official dealer status, medical registration or compatibility of unspecified assemblies; configuration is checked against the complete equipment designation.