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3D scanner operator


3D Scanner | KEYENCE America

VL Series 3D Scanner CMMs can measure large targets in 3D from all directions, providing full 360° scanning capability. The motorized turntable moves in the X, Y, and θ directions for fully automated recognition and scanning of the measurement target. The high-magnification lens captures up to 16 million data points, allowing for the acquisition of precise data on small targets and complex shapes that cannot be measured with conventional scanners. Full 360° scans can be compared directly against CAD data, allowing for easy detection of deviations from design values, quick determination of good vs. bad parts, and wear analysis before and after use of a product.

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Features
3D Measurement of Large Targets in Their Entirety

The VL-500 automatically recognizes the size of the object and adjusts the scan range to collect data over its entirety.

3D Measurement of Complex Shapes with High Accuracy

By incorporating both low and high magnification lenses, the VL-500 is able to acquire up to 16 million points per scan, capturing finer details even on smaller objects.

The VR-6000 Optical Profilometer performs non-contact measurement to replace stylus profilometers and roughness meters. This 3D profile system captures full surface data across the target with a resolution of 0.1 μm, enabling measurement of features that cannot be performed with probe-type instruments. The new rotational scanning greatly expands the measurement capabilities of the system. True-to-life cross section measurements can be performed with no blind spots. Wall thicknesses and recessed features can be measured without cutting or destroying the target. In addition, the HDR scanning algorithm provides enhanced scanning capabilities for instantly determining the optimal settings to capture high quality data, even on glossy and matte surfaces.

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Features
Rotational Scanning on a Wide Variety of Materials

A 3D profilometer can be used for a wide range of applications across multiple industries. Examples of materials that can be analyzed using a surface profiler include medical devices, jet engine turbine vanes for the aerospace sector, and valve trains found in automotive manufacturing. Using a 3D surface profilometer in these contexts means you can get accurate measurements of material thickness and detection of defects without the need for the instrument to come into contact with the object. Unlike conventional surface roughness profilometers, parts can be rotated to scan surfaces that would not be accessible otherwise. These qualities and capabilities make these devices ideal for collecting measurements and inspecting precision components such as batteries, circuit boards, and stamped metal parts.

HDR scanning algorithm enables measurement of more materials

Automatic rotation to perform measurements with no blind spots

Measure Nearly Any Callout with a Single Device

There are numerous measurements that can be taken with a 3D profilometer. For example, this system can be used to record the profile of a target by tracing its surface, enabling measurement of 3D features and surface roughness. It can also capture 2D data to measure lengths, widths, and angles. A 3D profilometer also creates a computer-generated 3D model of the object for visualization of the overall shape, while still maintaining a high resolution to observe minute surface features.

Capture full surface data with 0.1 µm resolution in just 1 second

Consolidate multiple measurement systems into one device

A 3D scanner is a device that acquires 3D coordinate data from a target and converts it into 3D digital data. There are two main scanning methods used by 3D scanners: contact scanning, where a probe or sensor comes into physical contact with a target to acquire coordinate data directly, or non-contact scanning, where a laser or other non-contact device is used to acquire 3D data.

How Contact-Type 3D Scanners Work

With a contact-type 3D scanner, measurement is performed by touching a probe or sensor to the target to acquire the 3D coordinates of the contact location, and those coordinates are then converted into 3D data. Although this is an older method, it offers accurate results because the coordinates are obtained from directly contacted locations. Also, because many targets can only be measured through contact, this type of scanner has been used in a wide variety of worksites. Although contact-type 3D scanners offer excellent measurement accuracy, measurement must be performed in a temperature-controlled environment, and measurement can take a long time, so measuring large targets and completely scanning complex shapes can be difficult or impossible.

How Non-Contact 3D Scanners Work

Non-contact 3D scanners measure targets using a laser or other light source, and the measurement results are converted to 3D data. There are two types of non-contact 3D scanners: those that use lasers, and those that use projected light patterns.
Scanners that use lasers irradiate a target with a laser beam, and the reflected light of the laser is then detected by a CMOS sensor or other device. The coordinates are then obtained by measuring the time difference and reflected angle of the light. On the other hand, scanners that use pattern light projections shine light onto a target in a striped or other pre-determined pattern, and a camera detects any displacement or distortion in the lines to determine the shape of the target.
Laser-based scanners offer detailed coordinate information, while pattern light projection scanners are known for their ability to quickly measure a wide area. These scanners are also ideal for use with targets that may change shape due to contact with a probe or other device. However, a disadvantage of these scanners is that the reflected light may change depending on the material and shape of the target, which can make it impossible to determine exact coordinate information. There may also be blind spots on the target where the camera cannot detect the light. Also, if the camera or projector used to detect the reflected light is positioned at an angle or misaligned, reading the exact shape of the target will be impossible.
With non-contact 3D scanners, coordinates and shapes are calculated from the position and angle of the projected light from the projector and of the camera detecting the light, or from the position of the laser and the CMOS sensor detecting the reflected light. This means the position of each component must be correct, so calibration is required when the equipment is moved or subjected to sudden shaking (such as from heavy machinery operating nearby) or thermal shock. With KEYENCE’s VL Series, calibration is as easy as placing the dedicated calibration board in the field of view and pressing a button. This makes it possible to immediately perform on-site adjustments as needed.

Laser scanning method
A: Laser beam B: CMOS sensor

Pattern light projection method
A: Projector that emits patterned light

3D scanners can measure in both 3D and 2D with easy operation. Set-up and measurement operations are simple, so anyone can measure complex objects with high-accuracy. 3D measurement scanners can measure cross-sections, thickness, and perform GD&T measurements in a single scan.

With conventional measurement systems, many setup steps are required, such as fixturing, stage adjustments, and precise placement of the measurement target. However, with a 3D scanner, an operator is only required to place the target object on the stage and measurement can start right away. Additionally, because the entire surface is scanned, a 3D scanner can perform nearly limitless measurements, including measuring the highest and lowest points across a surface, distances between lines, and distances between circles or other features.

Target objects can be compared directly against 3D CAD data, or against measurement data from a similar part. Comparing target measurement data can help verify conformity and identify defects.

Comparing a 3D scan against the object's 3D CAD data enables visualization of any differences between the final product and the design. Objects that are difficult to measure with conventional approaches, such as parts with free-form shapes or complex geometries, can be quickly compared against CAD data to instantly visualize any areas the part is out of tolerance. Additionally, different sets of measurement data from the same product can also be compared, which allows for capturing changes in the shape of the product before and after use, or for identifying why one part may be working while another is failing.

Reverse engineering analyzes existing products to reveal their specifications, components, and design. A 3D scanner can recreate the shape of a product with high data quality, enabling drawings to be quickly made for already existing products.

Reverse engineering helps determine the manufacturing method and working principle of a product by analyzing the product itself or its components. A 3D scanner can accurately analyze, dimension, and create drawings or DXF files of even complex shapes and products. With the ability to quickly measure objects regardless of their complexity, 3D scanners are optimal measurement systems for reverse engineering.

In recent years, additive manufacturing using 3D printers has become increasingly popular. Similarly, 3D scanners have become increasingly used within the 3D design and printing process due to their ability to quickly create digital models of existing objects and parts. This process of using existing parts to create new designs is referred to as reverse engineering, and can save both time and effort in the following situations:

1. A customer has requested a part design but does not provide a drawing. 2. The customer provides only an existing part for reference, but not the design file or drawings. 3. You are required to make a part that is different from the drawing but has the same general shape as a proven part. 4. Only paper drawings exist of old parts.

Stamping Industry

Metal and plastic materials have plasticity and elasticity that affect the way they are worked, and as such, making industrial products to design specifications can be incredibly difficult. To assess the shape of a product, the entire part must be scanned with a 3D scanner.
With a 3D scanner, measurement of deep drawn products, spring back analysis, and plate thickness evaluation can be easily performed. Profile measurement of deep drawn products can be done by visualizing the part against its CAD data, while spring back can be analyzed by measuring the difference from cross-sections. In addition, hand tools cannot capture the thickness of a bent part or changes in thickness caused by metalworking, but a 3D part scanner can capture the rate of reduction of plate thickness across the entire part.
For the 3D Scanner for the Stamping Industry Application Guide, click the button below.

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Injection Molding Industry

Injection-molded parts can be difficult to measure due to their freeform geometries and can deform when measured with contact tools. 3D Scanners allow for a wide range of measurements to be performed on molded products, including radii, flatness, and curvature. Warpage caused when the part is removed from its mold can be quickly and accurately measured across the entire part. Additionally, samples from different molds can be scanned and the data superimposed so differences can be instantly understood.
For the 3D Scanner for the Injection Molding Industry Application Guide, click the button below.

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Casting Industry

Due to the limited number of data points captured, measuring systems that collect point data may overlook non-conformities that would otherwise cause measurements to fall outside of dimensional tolerances. A 3D scanner can be used to acquire scan data for the entire product to evaluate its true shape.
With a 3D scanner, it is easy to evaluate the shapes of the fins of alternators and heat sinks, as well as to measure the positions of electrical parts. When evaluating the shape of an alternator, the CAD data can be directly overlayed on the 3D scan to identify any non-conformities. Additionally, the fins of a heat sink can be virtually cut into cross-sections to measure their pitch and height, without destroying the part.
For the 3D Scanner for the Casting Industry Application Guide, click the button below.

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Pressed Parts: A Method for Measuring the Thickness of Drawn Products

Because defects in wall thickness and minimum thickness affect the strength of drawn products, highly accurate and quantitative 3D shape measurements are necessary. However, it is very difficult to accurately measure with minimal variation between operators when using coordinate measuring machines or calipers. The easy-to-use VL Series 3D scanner CMM accurately captures the entire 3D shape of a surface without contacting the target, allowing users to automatically measure thickness and minimum thickness. Furthermore, cross-sectional shape displacement can be checked with profiles, allowing for the identification of issues such as springback and the quick implementation of corresponding countermeasures.

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Cast Products: A Method That Allows Anyone to Measure Cast Products Easily and Accurately

3D shape analysis is vital in quality assurance because cast products with dimensions outside the tolerance range can affect the strength and operation accuracy. Using a coordinate measuring machine that captures one point at a time requires a lot of time and a high level of skill. On the other hand, the VL Series 3D scanner CMM captures the data in minutes at the click of a button, enabling highly accurate measurement of surface strain and complex 3D shapes. Easy quantitative evaluations are made possible by visualization of uneven surfaces with color maps, capturing of profile data, 11 types of GD&T measurements, and comparisons with 3D-CAD data.

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Plastic Molded Parts: A Method of Accurately Measuring Plastic Molded Fitting Parts

Plastic molded parts with complex shapes conventionally required multi-point measurements with coordinate measuring machines and calipers. It not only required a lot of time and a high level of skill but also had the problem of measurement variations when performing contact measurements due to the low hardness of plastic. The VL Series 3D scanner CMM can complete a 3D scan of the plastic molded part on the stage in minutes without touching the target, allowing for highly accurate measurements. Uneven surfaces can be visualized with color maps, specified cross sections can be measured in a non-destructive manner, and differences between 3D-CAD data and the target can be visualized. Defects such as subtle warpage, waviness, strain, and short shots can be easily identified, allowing for prompt implementation of countermeasures.

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Cut Products: A Method for High-accuracy Measurement of Free-form Surfaces on Cut Products

The 3D shapes of impeller blades, propellers, and spiral gears—cut products having free-form surfaces—are difficult to measure quantitatively with coordinate measuring machines, tooth thickness calipers, and tooth thickness micrometers. The VL Series 3D scanner CMM can complete a full 360° scan of the target in minutes and with simple operations, allowing for highly accurate and quantitative measurement. Specified locations can be measured in the specified manner, for example, the thickness, pitch, curved shapes, and GD&T of impeller blades. Verification against 3D-CAD data is also possible. Additionally, the profile of the specified cross section can be measured in a non-destructive manner when measuring the over-pin dimension of a gear.

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A Method of Optimizing 3D Measurement in Reverse Engineering

In reverse engineering, where design drawings are reproduced from actual products and parts, it is necessary to measure the shape of the entire target with high accuracy. The VL Series 3D scanner CMM scans the target in a non-contact manner. It captures 3D shape data with high accuracy, simple operations, and no positioning or leveling. Because data can be combined, surfaces that were not fully captured at the first scan can be scanned and added at a later time. Furthermore, non-destructive measurement and analysis of cross sections as well as output as DXF data are possible. This all adds up to allow dimensions to be quickly evaluated and converted to drawings.

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A Method for Improving the Efficiency of 3D Measurement for Digital Archives

When building a digital archive, a tangible fixed asset, the shape and color information of the original items must be measured and recorded in as much detail as possible. Non-contact and fast 3D scanning with the VL Series 3D scanner CMM is useful in capturing the data of these valuable and fragile original items. The cross-sectional shape of the specified location can be measured in a non-destructive manner from the 3D shape data and converted to DXF data or an STL file. Also, the color information can be captured with the built-in, large, high-resolution CMOS camera. The data necessary for building a digital archive can be captured quickly, with high accuracy, and with simple operations.

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3D scanning accuracy normally ranges between 10 - 100 microns. 3D scanners typically excel at measuring large parts that do not contain small surface features, as the accuracy isn't high enough to obtain high-resolution surface shape data. With the VL Series, high-magnification lenses can be used to capture up to 16 million data points on the surface of a part, ensuring even small features or targets can be accurately measured.

3D scanning is a non-contact form of measurement that captures the three-dimensional shape of a target object through the use of a projected light source. Optical scanners typically project a white or blue striped pattern onto the target object, and measure the displacement of the lines to construct the 3D model. A 3D laser scanner projects a laser onto the target surface, and measures the time required for the laser to return to the light-receiving element to map the surface of the part. Both white/blue light 3D scanners and 3D laser scanning systems can be used to perform measurements

3D scanners are used to acquire data on target objects so the user can visualize and measure the surface of the object. Some 3D scanners allow scanned objects to be directly compared against their CAD model, so users can quickly understand how a manufactured part differs from the design. 3D scanners are used in quality control and research and prototyping across many industries, including stamping, molding, casting, and electronics.

When considering a 3D scanner, the scanner must be able to meet the specifications necessary for producing the desired data. The following section introduces four key points to consider when looking to introduce a 3D scanner.

Measurement Method

3D scanners can either be contact-based or non-contact. Contact-type 3D scanners are used for inspecting and measuring targets when high accuracy is required. Non-contact scanners can quickly acquire 3D coordinate information by scanning over a wide area all at once, even for targets with complicated shapes. Because of this, non-contact scanners are also used for scanning large structures and cultural assets that cannot be touched directly.

Accuracy

When it comes to 3D scanner performance, accuracy is an important aspect to consider, not only in terms of the coordinate acquisition accuracy but also in the number of scan locations with more complicated shapes. Each manufacturer follows its own standards for accuracy, including repeatability and minimal variation between point groups, so checking whether the accuracy of a device is appropriate for the application is important. KEYENCE’s 3D scanners also offer various functions for visualizing differences from actual products, including CAD comparison and comparative measurement.

Resolution

Scanners with high resolution can capture more informative, accurate, and realistic 3D data. However, data loads increase at higher resolutions, so processing takes longer. This means users need to decide whether to prioritize speed or resolution. Still, some products may offer the same resolution but faster data processing speeds, which can help improve operation rates.

Ease of Use

3D scanners can be either stationary or handheld devices. Stationary scanners are fixed in place and do not shake during scanning, ensuring accurate coordinate information is obtained. These devices are used for more time-consuming scanning processes. With a KEYENCE 3D scanner, however, scanning can be started at the press of a button, while settings can be configured just by selecting the necessary items.
On the other hand, handheld scanners can be used in any location, but these devices are more prone to camera shake because the probe must be held by hand during scanning. The greater freedom of movement also makes it possible for users to obtain more detailed coordinate information.

In addition to ease of use, a product’s after-sales support is also an important factor for ensuring continued use. KEYENCE is dedicated to providing a comfortable environment for anyone using its 3D scanners, including providing operation support, offering product inspections, and lending equipment as necessary if a malfunction occurs.

We have led the way in industrial automation and inspection equipment since 1974. Our commitment to advanced technology and meeting our customers' needs have elevated us to a leadership position in the marketplace. If you're ready to buy 3d scanners from the recognized leader in the field, browse our catalog and get in touch today.

Skydio 3D Scan Drone Mapping Software

Adaptive Scanning for Autonomous Inspection Data Capture

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Skydio 3D Scan™ is a first-of-its-kind adaptive scanning software to automate the data capture process needed to generate 3D models with comprehensive coverage and ultra-high resolution. Perform higher quality inspections faster with minimal pilot training.

DATA CAPTURE

Up to 75% faster

REINSPECTION RATE

Up to 30% reduced

VEHICLE & SENSOR COST

Up to 50% lower

Human Inspections

Tower climbs, snooper trucks, and other human-based inspection methods are expensive, time-consuming, and dangerous.

Manual Drone Inspections

Manual drones are expensive and have untrustworthy obstacle avoidance, requiring many hours of pilot training to avoid crashes.

Perform Rapid Field Assessments

Skydio 3D Scan generates complete, indexed photo sets in minutes for assessment in field

Create Digital Twins

Use your current 3D reconstruction software to produce 3D models of structures, scenes, or assets

Deliver Detailed Inspection Reports

Deliver more detailed models to repair teams and asset managers

Document Crime & Accident Scenes

Skydio 3D Scan automates capture in close proximity to increase speed and data quality

Setup the Scan

Select one of the capture modes and follow the on-screen workflows to start the autonomous 2D or 3D scan

Start the Scan

The drone autonomously flies to capture the scene. Monitor the scan in real-time using AR Coverage and AR Observer features

View Data On-Site

Operator assesses data in field instantly using the Edge Model Viewer to easily click around the scanned scene

3D Capture 2D Capture

“With 3D Scan, we are going to be able to efficiently capture high-quality images for 3D Reconstruction, saving us tons of time and energy in the field. It’ll be easier for the pilots, safer for our assets, and faster for our teams.”

Jarvis Worton, Global Platform Technology Analyst

Jacobs Engineering

Skydio 3D Scan Pricing

Skydio 2+: $

2,999 (drone/year)

Skydio X2: $4,199 (drone/year)

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Online Training

Skydio’s interactive, self-guided 3D Scan online training program is the perfect way to prepare your pilots to generate value from 3D Scan quickly. Operators can explore dynamic visuals, test their knowledge with interactive quizzes, and receive a completion certificate for 3D Scan training in just a few hours.

Skydio Academy

Reduce ramp-up time

Increase your confidence in flight

Receive an operator certificate for Skydio 3D Scan

3D Tower Capture: 3D Scan Gets Smarter

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2D GPS Capture: A new capture mode for Skydio 3D Scan

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How Skydio Drones with 3D Scan Work for Public Safety

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Capture Digital Twins of Tactical Environments

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review of the 10 best programs for 3D scanners: the most popular software for 3D scan

04/30/2021

Content

    • PhotoModler Scanner
    • Rapidform 9000 Rangevision Scancenter
    • GEOMAGIC CONTROL CONTROL CONTROL
    • FARO Scene
    • 3DF Zephyr
    • Colmap
    • PolyWorks
    • Vxmodel
    • Artec Studio
    • Conclusion

    • 1 3D printers have long ceased to be a curiosity for Russians. Increasingly, these devices can be found not only in manufacturing plants and in companies involved in engineering and design. They are actively used by consumers both for personal needs (creating souvenirs, figurines) and for work purposes, moreover, in various fields - medicine, construction, science, car manufacturing, etc. However, all this would be impossible without 3D scanners that transfer data about a physical object into digital format and, using special computer programs, create a three-dimensional model, which can later be sent for printing. Scanning, in fact, is only the first stage of work, but the main part of it falls on the processing of the collected information. nine0003

    Specialized software not only analyzes the information received and creates a virtual copy based on it, but also helps to eliminate possible errors and errors made during the scanning process and much more.

    Today we will talk about the most popular programs for 3D scanners that allow you to solve almost any user task.

    Photomodeler Scanner

    Very simple and functional software that can create 3D models of varying degrees of complexity. Almost everyone can understand it and learn how to use it to recreate virtual copies of anything, even a person. nine0003

    You can set the characteristics of a future object in Photomodeler Scanner using 3 methods:

    1. by setting the parameters manually;

    2. automatically, from already laid beacons;

    3. from a point cloud from overlapping images.

    In the latter version, the user will also need to indicate the position of the camera during the shooting process and mark control points on the images, linking them together. nine0003


    Creating a 3D model with Photomodeler Scanner

    With Photomodeler Scanner, you can create all kinds of diagrams, graphs, different planes, expand a 3D line, and much more.

    This application is very affordable and at the same time allows you to get professional results with a minimum of effort.

    RapidForm

    One of the most frequently used and convenient programs. It is distinguished by its quality and versatility, as it is suitable for many models of 3D printers. nine0003

    It analyzes the data received using a 3D scanner and creates an accurate three-dimensional model. If you need to make any changes, then it will be quite easy to do this, since the program is very simple and straightforward to use.


    Example of work in Rapid Form

    RapidForm has several types of programs:

    • XOS - designed to regulate and control 3D scanning, as well as processing the resulting images. nine0003

    • XOR - widely used in design, as it has a huge number of tools for 3D modeling. With its help, you can create high-precision three-dimensional models (on a cloud of points) of almost anything.

    • XOV - allows you to control the quality of the resulting three-dimensional image, which makes it possible to maximize its detail. nine0003

    RangeVision ScanCenter

    Software that provides the user with a huge selection of functions and tools for creating a high-precision digital three-dimensional copy of an object of any complexity. For data analysis, unique algorithms are used that make it possible to convey as clearly as possible not only the geometry of the scanned object, but also its color (up to shades, including white) and texture. At the same time, anyone can understand the RangeVision ScanCenter, as it is intuitive and easy to use. nine0003


    Screenshot of the process of creating a 3D model in Range Vision

    It can work in various scanning modes: free, with markers and on a turntable. The resulting file can be exported to all popular formats.

    All actions of the program are automated as much as possible (calibration, adjustment, analysis of the quality of scans), which greatly simplifies the task and at the same time gives the best result at the output. nine0003

    Geomagic Control X/Design X/Wrap

    Geomagic professional 3D scanning software is available in 3 versions: Wrap, Control X, Design X. They use the latest topological shape recognition technologies. They can not only project a three-dimensional image of an object, but also analyze the degree of its possible wear and deviations. Often used in reverse engineering.

    Geomagic Design X 3D reverse design software. Provides the ability to combine CAD processing and 3D scan data based on a design, resulting in detailed CAD models. This can be done both automatically and manually by setting parameters and editing the processing of point clouds and polygonal meshes. nine0003

    Geomagic Control X - software for quality control and geometry of 3D models. Provides users with a wide range of tools to enhance their scanning experience with reporting and data analysis capabilities.

    Wrap : Used for processing point clouds and meshes, used in modeling and design. It works quickly and accurately, making it possible to optimize the resulting model without losing the original properties of the object, such as texture and texture. After processing the scan data with Wrap, the created 3D project can be printed. Suitable for both small and large items. nine0003


    How to create a 3D model in Geomagic Wrap

    The Geomagic software package, like other analogues, allows you to control the quality of scans and export 3D models created on their basis to various formats.

    FARO Scene

    Faro is a world famous manufacturer of 3D scanners, which also produces one of the most advanced software for them. One such program is Faro Scene. It is suitable for working both with "native" devices of the same brand, and for many others. nine0003


    Faro Scene is widely used to create 3D models of various buildings

    It is very effective in processing scans: it can combine them, carry out all kinds of measurements, visualize data, etc. In addition, thanks to the advanced functions of the program, it is possible to transfer color from a photo to a finished model by overlaying and further balancing it.

    3DF Zephyr

    Perhaps the most popular program among users, due to its convenience and simplicity. The interface is so clear that it is not difficult to understand it. nine0003


    3D-Zephyr will not cause problems even for beginners

    Suitable for both amateurs and professionals. The latter will especially like a large selection of tools and settings, including the ability to transfer the resulting three-dimensional model to CAD software.

    Colmap

    Indispensable in cases where you need to quickly and easily create a 3D copy of an object. Colmap makes it possible to use a 3D mesh both from one camera and from several. This approach is very convenient where you need to scan a large number of items in a short time. nine0003


    Colmap example

    The “minus” is that editing 3D models will not work without additional software. However, the quality of such 3D images is quite acceptable.

    PolyWorks

    The capabilities of the program allow you to analyze the accuracy of the resulting three-dimensional copy, as well as its quality.


    3D object created in PolyWorks

    PolyWorks is widely used in areas where maximum detail of a 3D object and its accurate reproduction are required: medicine, automotive, construction, design, etc.

    Vxmodel

    Software created specifically for reverse engineering products, as well as finalizing 3D scan data. It has the function of editing a polygonal model, its alignment, extraction of primitives, construction of surfaces and export of objects. nine0003


    Vxmodel can create 3D models of various parts

    It can process information from any 3D scanners and translate it into CAD and prepare it for 3D printing, so it is very convenient to use. Manufactured by Creaform.

    Artec Studio

    Quality software with a wide range of tools. At the same time, you can use it even if you do not have the skills to work with such programs. Especially for such users, the "Autopilot" mode was developed, which simplifies the process of processing 3D scanning data as much as possible, independently selecting algorithms based on the user's answers. nine0003


    3D model obtained with Artec Studio

    Allows you to control the quality of the 3D model not only at the processing stage (compatible with Geomagic Control X), but also in the process, giving a color signal about how close / far the operator is from the object when scanning.

    The program itself is able to select the degree of sensitivity of the scanner, as it can analyze the type and complexity of the surface. This makes it possible to digitize even dark and shiny objects. nine0003

    Well determines the colors and configuration of the scanned object, making it unnecessary to apply markers. Suitable for formatting scans for CAD.

    Artec Studio easily handles large amounts of data, making it ideal for 3D scanning of various buildings and structures, etc. All operations are performed very quickly and efficiently.

    Conclusion

    All the programs for 3D scanning discussed above have good tools and a sufficient amount of options to perform tasks of any degree of complexity. They are suitable for both professionals and ordinary users who do not have experience with such software, since they have a high degree of automation and have a fairly understandable interface. nine0003

    Each major manufacturer of 3D scanners releases its own software for them, which is constantly updated and improved. However, many of these programs can easily be used on third-party devices without loss of quality. You can use any of the listed 3D modeling software.

    If you need equipment for 3D printing, but it is difficult to make a choice on your own, contact Tsvetnoy Mir. The specialists of our company know absolutely everything about the process of creating three-dimensional models and will help you choose a 3D printer or scanner based on your tasks and capabilities. It is important to us that our customers get exactly what they need. nine0003

    Call: +7 (495) 287-41-45, 8(800) 550-02-09 and we will answer any of your questions!


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    Test scanning using the Texel Portal mobile scanning laboratory

    Description of the system

    For test scanning of three-dimensional objects, the Textel Portal system made in Russia was chosen. The selected model for 3D scanning is a complete system for creating mathematical models of three-dimensional products. Texel 3D scanner consists of hardware and software modules. nine0003

    Hardware:

    1) Scanning platform
    2) Lighting system
    3) Controller
    4) Reception desk with interactive display and touch control for on-line 3D scanning and monitoring

    Software part:

  • 1) Module for setting and displaying the necessary parameters for the check-in desk.
    2) Module for managing 3D scanning from the system controller
    3) Module for collecting and processing information
    4) Module for composing and creating a ready-made model for printing and / or further processing in CAD programs. nine0003

    The Texel Portal 3D scanning system belongs to the class of non-contact integrated solutions and is designed for a wide range of tasks. This 3D scanner allows you to get an accurate textured (color) 3D model and does not require any additional markers to get complete information about the scanned object.

    3D scanning with Texel Portal is fully automated. Collection of information and digitization of data, as well as the creation of a 3-dimensional model of the object is performed without the participation of an operator. nine0003

    Texel Portal 3D scanner has the highest scanning speed and allows you to get up to 40 finished models per hour. Unlike other 3D scanners, the user can get a fully "assembled" finished mathematical model in a matter of minutes without exhausting combinations of individual scans and refinement. This allows you to install the Texel Portal 3D scanning system for both collective use for educational purposes and for commercial use.

    Texel Portal 3D scanner designed and manufactured in Russia. The price of a Texel Portal 3d scanner in a complete set does not exceed 35,000.00 USD. You can buy a similar imported 3D scanner or 3D scanning system at a much higher price. Full technical support, including consulting on individual settings, commissioning of equipment, and if calibration and repair are required, are carried out on the territory of Russia. A demo 3D scanner is installed in Moscow, and you can always get advice on the operation of a 3D scanner and see it in operation at a convenient time for customers. The timing of the service work favorably distinguishes this 3D scanning system from 3D scanners and imported measuring instruments. nine0003

    The model obtained as a result of 3d scanning is saved in universal formats for use in specialized 3d modeling programs, as well as for direct reproduction on CNC machines and 3D printers.

    The following objects were selected for test scanning

    to check the possibility of reproducing a 3D model (creating a small copy) on a 3D printer and using it in an interior modeling program

    2) Scanning a person for taking measurements and using them in clothing modeling programs.

    Scanning

    A 3D scanning object is installed on the scanning platform. At the registration desk, the necessary information is entered for indexing 3D data and subsequent identification of the file. This information can be configured by the user in accordance with his work schedule. (For example, the operator can change the preset settings in case of use in a university for educational purposes to the name of the department, full name of the responsible operator, name of the object, etc.). The entire scanning process happens automatically. nine0003

    Fig. 1 Reception entry template.

    From the controller and registration desk, the operator can interactively monitor the 3D scan and view the results when finished. Before saving the data, the operator can refuse the file and perform a rescan, which is important for 3D scanning of moving objects (people).

    Fig. 2 Preview the scan results.

    Fig. 3 Scan a piece of furniture. nine0003

    Fig. 4 Human scan.

    Construction of a mathematical model and its further use

    The software included in the package allows you to create a textured closed polygonal surface mesh in various formats suitable for cutting on a CNC machine and printing on a 3D printer, as well as exporting to a CAD system.

    Object No. 1 (chest of drawers) was exported to an additional program for processing 3D scans. In this case, the software was used to work with data obtained by Geomagic 3D scanning and sent to print using a 3D printer. Also, the data obtained as a result of 3D scanning can be opened directly using a 3D printer utility program, such as Mcor Iris full-color 3D printer software, and printed without the use of additional programs. nine0003

    Fig. 5 Data representation in Geomagic

    6 Printing the model on a 3D printer

    Object No. 2 (person). The data obtained by 3D scanning was exported to a specialized program for modeling clothes (in this case CLO3D) for use in the following purposes:

    1) Taking measurements and creating patterns of a new model of clothes

    2) Virtual fitting of a 3D dress on the figure of a scanned person

    Fig.

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