CT Scanning Unopened Pokemon Cards

NOW YOU CAN PIKACHU CARDS WITHOUT OPENING THE BOX

This case study is a testament to the sensitivity of Industrial CT imaging. Our team has been able to characterize holographic cards in unopened Pokémon packs. The concept formed during brainstorming sessions for application case studies. After spending endless hours researching packs and cards, spending thousands of dollars on them, and many late nights testing and optimizing parameters, we were able to extract the shape of the Pokémon due to slight density differences in the cards and foils.

Hypno
Pokemon Card in CT Scanner

Below is our initial test card – a 1st Edition Fossil Hypno (Cert #3902070061) that we broke out of the case to test by sleeving it between several other cards to represent a pack. The GIF shows a transition between an aligned image of the card and the CT slice plane.

Because of the incredible results we felt more comfortable buying a couple fossil packs, and with the success of the packs we moved on to entire kits.

Below is an M Blastoise EX from an XY – Evolutions kit worth $700.  The bottom left view shows the exact location of the card. While there are several other holographics in the packs contained in this kit, we’ll keep what they are a secret for now.

Scanning & Reverse Engineering Firearm Components

REVERSE ENGINEERING FIREARM COMPONENTS

High resolution scan data acquired by our laser and CT systems is used to reverse engineer firearm components. This data can be used to modify existing hardware or build new components around historical or existing hardware.

Below is a magazine that was scanned with a 9mm round. The steps include:

  • Laser scan the components
  • Model the components in Geomagic relative to the laser scan
  • Compare the produced model back to the scan file to ensure accuracy

CT SCANNING INTRICATE COMPONENTS

Many gun components are small and intricate. Some scanning devices may not have the resolution or ability to capture all the necessary geometry for an accurate model. CT scanning allows us to acquire surfaces like slots and assemblies without completely disassembling them. While mixed-material assemblies can be problematic (steel against plastic), there is typically a way to stage the part to get useful data.

This trigger assembly is plastic with metal springs and pins. 

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Measuring Slop in Assembly Plunger Tracks

MEASURING SLOP IN ASSEMBLY ATTACHMENTS

Laser & CT scanning produces high accuracy, water tight digital representations of products to be used for part to part and part to CAD dimensional inspection.

This case study demonstrates the measurement of slop between two wet vacuum attachments. One attachment was noticeably looser than the other but defining exactly where would not be possible without mapping the entire mating point.

Data was acquired in our Nikon Industrial CT Scanner, exported to .STL, and imported into PolyWorks Metrology Suite for dimensional comparison.

HEAD 2 ALIGNED TO HEAD 1

A local best fit of the mating zones was created and a cross section was placed at the area of interest: the plunger and rib track which aligns the head to the hose.

HEAD 2 ALIGNED TO HEAD 1

The 2D cross section provides a color-coded profile of a line heatmap. Green to Red colors indicate the “compared” geometry is positive (proud) compared to the reference geometry, while Green to Purple colors indicated geometry is negative (shy) compared to the reference geometry. This tells us the loose fitting head has a larger profile than the tight head and can help engineers tune their molding process.

MyVGL Tutorial & Users Guide for CT Analysis

Become a CT Expert using MyVGL

In just a few steps you can become an expert CT analyst. This guide demonstrates the basic, step-by-step functions of the industrial CT industry’s standard software: Volume Graphic’s myVGL Viewer.

1. Download myVGL & Open File

myVGL is the free viewing app for projects created with Volume Graphics Software.

myVGL Download Page

With myVGL, you can view 3D objects (in voxel, point cloud, mesh, and CAD format), the analyses and measurements performed on these objects, and define your own measurements and imaging results!

2. ACTIVATE NECESSARY TOOLS

Navigate to the Window pane. To the right, click the “Tools” drop down to activate important sidebar options like Rendering, Scene Tree, and Bookmarks.

Rendering allows for contrast adjustment, Scene Tree shows the different files and tools within the project, and Bookmarks allow you to navigate between saved images.

MyVGL Guide Tools
MyVGL Guide Open Tools

3. NAVIGATION

Clicking the cursor navigation button in the upper left corner allows the user to navigate to a single location in all window views simultaneously. Hold Ctrl + Left Click any location.

In the Window menu the viewing panes can be modified or removed for optimal viewing of areas of interest. Quad View is standard which shows all three planar directions and a 3D render view in the bottom right. Additional options include Rotational View about an axis, or Unroll View which planarizes cylindrical features.

4. CONTRAST & RENDER ADJUSTMENT

Adjusting the contrast of the scan data is done in the Rendering window you activate earlier. The Histogram contains a variety of tools including a sliding bar. At the ends of the bar are upper and lower limit handles (1.1 and 1.2). Drag these to adjust the contrast. You can move both handles simultaneously by selecting and dragging 1.3. Location 2 shows the Gray Value rendering slider and Location 3 activites and deactivates the ability to adjust the Gray Value rendering slider.

Right clicking the 3D renderopens a menu with a variety of options including clipping tools. Clipping tools can be used to digitally section the part, and the sections are saved to be activated or deactivated in the upper right Scene Tree.

5. SLICE SETTINGS

Right click any viewing pane to open pane settings menu. Primary viewing tools including:

  1. Thick slab – the slice thickness control which has parameters to define thickness, bring forward the highest density gray values in that thickness, slice averaging, and so on.
  2. Slice step width – how far the viewer scrolls through each tick of the mouse. The small the value, the slower the scroll and more detail will be viewed.

6. MEASUREMENTS

A variety of measurement options are available in myVGL including basic dimensioning like distances, angles, and polylines. However, complex dimensional tools like profiling, wall thickness, CAD alignments, and coordinate systems are reserved for full Volume Graphics Cast & Mold licenses.

Indicators are used to mark areas of interest and recover their locations quickly. Calipers use rendered surface data to create tangible distance measurements.

Clip Depth Measurement
Clip Depth Measurement
Tube Angle & Clip Gap Measurement
Tube Angle & Clip Gap Measurement

7. IMAGING & REPORTING

In the Reporting panel measurements can be exported to Excel and images can be exported using the Save Image button. Images can be modified based upon the current state of the defined windows of the software or as defined in the Save Image pane.

2D slice videos can also be exported.

8. METROLOGY USING POLYWORKS

Visit our case study about dimensional inspection of these vacuum heads using PolyWorks Metrology Suite here.

Complex dimensional programs can be written for large batches of parts for GD&T and profile analysis.

Industrial CT Scanning Complex Electronics like Relays

INDUSTRIAL CT SCANNING COMPLEX ELECTRONICS

Aviation Relays are used in power distribution systems to control the flow of electrical power to different components and subsystems. Aircraft control systems, such as those for flight control surfaces, landing gear, brakes, and anti-ice systems, often rely on relays to activate and deactivate various functions.

The proper manufacturing of intricate components like these is paramount for the function of each related system it controls. Broken or pinched wires, shorts caused by FOD, and weld quality are all conditions that can be evaluated using Industrial CT Imaging.

Micro CT scanning offers the ability to render into 3D small geometries like copper windings to look for wire breaks, tang alignments, micro welds, and other geometries. Sometimes, areas of interest are only accessible using 3D characterization via CT scanning because the inspected surfaces are behind high density materials that cannot be adjusted adequately from just a 2D X-Ray perspective.

Microfocus CT Scanning of Fossils

MICROFOCUS CT SCANNING OF FOSSILS

The oldest fossils are billions of years old. Traditional ways of examining fossils often employ destructive techniques which can compromise these timeless specimens. Industrial computed tomography (CT) scanning offers a non-destructive alternative that enables detailed examination of fossils’ internal and external structures. This case study explores how we can assist the field of paleontology with our microfocus CT scanning capabilities.

2D Top View of a North Yorkshire Ammonite
Using 3D CT Model to Reveal Fossilized Trilobite Within a Sedimentary Rock

CT technology generates datasets by measuring the differential absorption of x-rays. Changes in material density and thickness cause differences in x-ray attenuation.

Depending on how a fossil was formed, there may be enough difference in material density for x-ray/CT to differentiate fossil from sedimentary rock.

The relative density is dependent on a variety of factors, including the types of minerals present in the fossil, the type of surrounding rock, and the conditions of fossilization. Each fossil and rock pairing can be unique, so the density comparison can vary. 

Relative Density Measured by Difference in Grey Scale Values of Low and High Dense Materials

CT generates a 3D model by compiling thousands of 2D x-ray images. This means the 3D model has internal data and we are able to ‘slice’ through the test piece and look at it from any direction.


Using a high-end software for analysis and visualization of our microfocus CT data, we are able to perform a variety of measurements and analysis. We can generate videos for easy viewing and dissemination. We can create .stl models for 3D printing.


And in the case of these ammonites, the best part is we can do all of this analysis while the fossil remains undisturbed within the nodule.

2D Side View of a North Yorkshire Ammonite with Basic Width Measurement
Unbroken North Yorkshire Ammonite Nodules used for this Study

The application of industrial microfocus CT in fossil analysis allows for the detailed examination of internal structures without compromising the integrity of valuable specimens. By providing high-resolution, three-dimensional insights, micro-CT enables us to uncover previously inaccessible information about these ancient organisms. Contact us today to see how we can help with your fossils!

3D Model of a Trilobite - Measuring the Space Between Pleural Spines

X-Raying & Grading Aluminum Castings

CERTIFIED RADIOGRAPHY OF CASTINGS

X-ray inspection is a non-destructive testing method, meaning it allows for the examination of castings without causing damage to the parts. This is especially important for expensive or critical components where destructive testing methods would be impractical or cost-prohibitive. X-ray examination allows for the detection of part flaws or defects like gas porosity, shrinkage cavities, cracks & hot tears, inclusions, and voids.

Industrial Inspection offers a roster of technicians certified per the American Society for Nondestructive Testing (ASNT / SNT-TC-1A) and National Aerospace Standards (NAS-410). Our technicians have x-rayed everything from infrastructure pipework, automotive components, and rocket manifolds.

CONNECTORS
TOOLS & DEVICES
FASTENERS & COVERS
COMPRESSOR WHEELS
HEAT SINKS & BRACKETS
PUMP HOUSINGS
CONTROL ARMS
STEERING KNUCKLES
OIL PANS
TURBOPUMPS
TRANSMISSION HOUSINGS
WHEELS

There are a wide variety of standards and gauges used for digital radiography depending on the material type, thickness, and customer driven requirements for sensitivity. Industrial Inspection has a robust library to respond to almost any requirement and, for niche requirements, can order custom gauges within days.

We use industry standard software for image processing, evaluation, and grading. To the left is a casting being compared to ASTM E2422 Digital Reference Images for a gas hole in proximity to the edge of a machined surface.

Below is x-ray imaging of a transmission housing before and after contrast adjustment. Penetrameters are used to qualify a technique for adequate penetration through various material thicknesses, and software is used to adjust brightness and contrast to look for defects not seen in the raw image.

Raw X-Ray of Casting Contrast Adjusted X-Ray of Casting 2

Generator Armature Part to Part Comparison

Part to Part Comparison of Generator Armature

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Frame end castings have a combined 1.5mm greater distance

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Armature stack is twisted

Armature shaft is not perpendicular

What is Reverse Engineering?

Unlocking Innovation: The Power of 3D Scanning for Reverse Engineering

Innovation is the lifeblood of progress, driving industries forward by leaps and bounds. But what happens when innovation meets the physical world, where existing objects and components stand as formidable barriers to progress? Enter 3D scanning for reverse engineering – a transformative technology that bridges the gap between the physical and digital realms, unlocking a world of possibilities for designers, engineers, and innovators alike.

The Essence of Reverse Engineering

Reverse engineering is the process of deconstructing and understanding the design of a physical object to recreate it digitally. Traditionally, this involved meticulous measurements, manual drawings, and countless hours of labor. However, the advent of 3D scanning has revolutionized this practice, offering a faster, more accurate, and incredibly versatile solution.

Harnessing the Power of 3D Scanning

At the heart of reverse engineering lies 3D scanning technology, which enables the precise capture of an object’s geometry in stunning detail. Using techniques such as laser scanning, structured light scanning, or CT scanning, 3D scanners generate point clouds or mesh models that faithfully replicate the physical form of the object.

REVERSE ENGINEERING WORKFLOW

1. Data Acquisition: The object of interest is scanned using a 3D scanner, which captures its shape, dimensions, and surface topology.

2. Data Processing: The raw scan data is processed to remove noise, align multiple scans (if necessary), and create a clean, detailed representation of the object’s geometry.

3. Model Creation: From the processed scan data, a digital model is generated using specialized software. This model faithfully replicates the physical object, serving as a blueprint for further design and analysis.

4. Design Enhancement: With the digital model at hand, designers and engineers can refine, modify, or optimize the object’s design to meet specific requirements or improve its performance.

5. Validation and Analysis: The digital model undergoes rigorous testing and analysis to ensure its accuracy and functionality. CAD comparison reports are used to verify dimensional accuracy whil finite element analysis (FEA), simulation, and other techniques help validate the design and identify areas for improvement.

Measuring Volume of Tubes & Beakers

MEASURING TEST TUBES & VIALS FOR WALL THICKNESS AND VOLUME

CT scanning plays a pivotal role in assessing the wall thickness and volume of glass components, offering critical insights for manufacturing processes and product quality. Glass, known for its brittleness and susceptibility to defects, requires meticulous inspection to ensure structural integrity and performance. CT scanning provides a non-destructive means of examining these components, offering precise measurements of wall thickness and volume with unparalleled accuracy. By detecting variations in thickness and identifying potential flaws, CT scanning enables manufacturers to optimize production processes, enhance product reliability, and uphold stringent safety standards. The comprehensive evaluation provided by CT scanning ensures that glass components meet the highest quality requirements, ultimately contributing to safer and more durable end products.

CT SCANNING TO MEASURE WALL THICKNESS

CT scanning is used for evaluating wall thickness in a wide range of materials and structures. By utilizing X-ray technology to penetrate objects, CT scanning generates detailed 3D images that allow for precise measurements of wall thickness. This non-destructive technique is invaluable for industries such as manufacturing, aerospace, and automotive, where ensuring structural integrity is paramount. This image demonstrates a total mapping of the thickness of the tube with variable results from .75mm to 2.55mm.

VOLUME OF GRADUATION MARKS

CT scanning offers a precise and non-destructive method for measuring volume in objects with complex geometries. We were able to segment, virtually cap, and extract volumetric measurements of the tube at various graduation marks.

The nominal “as-marked” volume states 100ml and the measured volume equals 100.533ml – a deviation of just 0.5% of the volume. However, sub-sections like section 5 have a deviation of 27%.