- Curved Calibration Blocks & Vertical Holes
- FMC Beamset Validation
- NDT Data Import & Data Folding
- Sectorial Beamset Beam Energy Display
- Clad Layer Inset
- Spline CAD Support
- AOD & COD Wedge Curvature
- DLA & DMA Probes with
Focal Law Export
- Beam Highlighting & Focal Law Delay Visualization
- Asymmetrical Welds
- Clad Material Support
- Transverse Probes
- Improved CAD Tools
- Sound Mode Colorization
- Compound S-Scan
- Dissimilar Weld Material
- 3D Sound Paths Ray-tracer
- Inset Backing Bar
- Custom Velocity Modes with Path Cropping
- Double J Welds
- Transverse Angle Measurements
- Additional High Temp Wedges
- Phased Array
- Conventional UT
- Export Focal Laws
- T Piece Configuration
- Sound Propagation Animation
- Sound Pressure Visualization
- Indication Drawing Set
- Interactive Scale
- Wavelet Visualization
- 3D Rendering of
- Add Indication from Geometry
- Beam Crop Modes
- Multi-Discipline Technique Development
- 3D Workspace View
- CAD Functionality
- Piece Configuration
- Weld Configuration
- Bitmap Backdrops
- Defect/Indication Plotting
- Configurable Reporting
- Zonal Discrimination
Piping or Curved Calibration Blocks are now supported in the standard calibration block designer included with BeamTool 9. Add notches in the circumferential plane and the curvature will be respected. Generate drawings that can be supplied to a machine shop. Vertical FBH’s and Through Holes are now supported for both flat and curved calibration blocks.
BeamTool can help you choose an appropriate rendering region for an FMC inspections (currently only available for contact FMC inspections) by plotting a Quality Map, which roughly quantifies the resolution and image intensity of reflectors positioned with respect to the probe aperture. This map roughly quantifies the quality of focus for each pixel point in the chosen rendering region by computing the effective "Numerical Aperture", defined as sine of half of the angle between the first and last beams covering the pixel.
The concept of numerical aperture comes from microscopy and represents the angular coverage of a focal point. A low numerical aperture value implies that energy is not effectively focused at a particular point leading to poor resolution and low image intensity, whereas a high numerical aperture value means that energy is highly focused leading to high resolution and high image intensity.
New to BeamTool 9 is the ability to import supported NDT data directly into the workspace! View and scroll through the data either as is, or folded along the soundpath. Apply an Alpha Threshold to the data to remove noise and low amplitude signals. The Olympus NDT data Access Library is required to do this and can be download from their site by following this link:
NDT Data Access Library 32bit
BeamTool now helps you to select the correct range of angles for Phased Array inspections by displaying the energy associated with each beam defined within a beamset. Low energy beams will be difficult to calibrate and require a large amount of gain to be properly normalized. Beams above 50% of the maximum possible transmitted energy are shown as green, between 10% - 50% shown as orange and below 10% are shown as red. The calculated energies take into account the directivity of the probe elements, the transmission coefficient between the wedge and the piece, as well as the reflection coefficients for each skip within the piece.
AOD and COD profiled wedges can now be configured and pinned to your Circumferential and Axial Pieces.
When both compression and shear paths are displayed, you can now color each sound mode independently.
The Linear Spread beamset now supports Compound-S mode which allows specifying the angle step between each successive beam.
The weld can now be a different material than the rest of the piece. For the sound paths to be affected by the alternate material, "Reflect off Weld" must be chosen in the Beamset configuration.
It is now possible to customize which sound modes are displayed at each interface reflection/refraction. This can help when the various sound modes become too cluttered.
When the transverse angle is not zero, beamset measurements can be calculated from multiple points of view (view planes).
BeamTool was designed to meet the modern operator's need for speed. Phased array technique development is more complex than that for conventional ultrasonic inspection and as such requires effective tools to help define the inspection approach.
BeamTool's innovative approach to phased array enables linear, sectorial and an informative reference cursor option to be represented, helping to clearly convey weld coverage, HAZ coverage and probe position, in addition to critical dimensions. The beamset parameters dialog displays a visual representation of the transducer elements that are used to form the beamset.
Beam spread visualization allows you to more accurately see your beamset coverage for a specific dB drop, and near field visualization ensures that any focusing being performed is within the near field. True Depth, Projection and Half Path focus types can be visualized in your workspace and documented in your technique report.
Conventional probes can also be modeled in BeamTool with advanced support for beam spread and near field rendering.
Time-Of-Flight Diffraction support provides tools to visualize and confirm zonal coverage. TOFD techniques can be automatically annotated with cross-over dimensions and dead-zone depiction. Effortlessly define Probe Center Separation (PCS) by selecting the cross-over depth you want and BeamTool automatically positions the probes to target your requirements.
Export Focal Laws
The Export Focal Laws feature added in BeamTool 7 helps users directly import their optimized scan plan into a phased array instrument. Before an inspection, BeamTool helps design phased array inspection plans by laying out the inspection methodology. Potential scanning configurations are modeled and beam directions are identified to ensure full coverage of the desired location is achieved. Once the scanning parameters have been finalized through the scan plan, BeamTool’s focal law calculator calculates the appropriate time delay for excitation of each active array element (focal law) for generation of beams with the specified refraction angles. The calculated focal laws as well as wedge delays are listed in law a file. The law file can be exported from BeamTool 7 and directly imported into a phased array instrument. This allows for immediate inspection with no need for further adjustment in the instrument.
High temperature law files generated with the BeamTool HighTemp Add-on can be used along with high temperature wedges to facilitate phased array inspections at elevated temperatures. This ensures technicians will perform accurate inspection with compensations of temperatures effects on the scan results, leading to accurate indication detection and positioning at elevated temperatures.
Focal Delay Visualization
The Show Elements option for Single Beam Beamsets will now live reflect the focal delays as beam parameters are modified.
Improved and simplified way to configure L and T shape welded components from an easy to use, configurable menu.
Sound Propagation Animation shows how elements firing in a phased array probe constructively form a wave front and how that wave front propagates into the piece.
A powerful educational tool for rendering sound pressure at any point in the field represented by a geometric or bitmap wavefront. Using real field physics the wavefront can be focused, and even steered, by adding a time
Displays the wavelets for each individual element at a selected time in micro seconds (Single Beamset only).
Identify any type of point on a beam path based on Distance from Elements, Time from Elements, Distance from Interface, Time from Interface or Skips.
The catalog for the High Temp Add-on has been populated with several new Eclipse Scientific HighTemp wedges.
Techniques can be created using multiple probes and multiple disciplines within a single workspace. Combine Phased Array with Conventional UT and TOFD probe configurations to ensure complete coverage. Pitch-catch is a useful technique for viewing unfavourable weld bevels or targeting geometry. Simply select P/C in the phased array configuration and the BeamTool will solve and present the elements required; this feature can be set to reflect off the weld bevel face accounting for return refraction.
BeamTool makes it easy to develop pitch-catch techniques for direct and indirect inspection using a single probe or a pair of probes.
The 3D view will display your piece, annotations, probes and beams in an interactive viewing environment. Rotation, Panning and Zooming tools; Mesh, Solid and Surface modeling modes; and Perspective and Orthographic projection modes all provide a powerful, intuitive, highly interactive modeling tool for visualizing your techniques like never before. And along with the new "Construct Top View" tool, simple custom-drawn pieces can quickly be given depth and viewed in 3D as well.
BeamTool integrates a powerful set of CAD tools that makes it easy to draw custom pieces to develop a scan plan for your inspection. Users can draw geometries of any shape and size and use the advanced ray tracing to accurately ensure and document proper coverage. The drawing tools have been greatly enhanced to make it even easier to draw and edit. Precision coordinate and size readout, along with the ability to snap and a Command Prompt for making complex specimen drawing precise, fast and easy. Multiple layers can be created to organize and filter your geometries.
BeamTool provides native support for ID/OD type pieces common in pipeline and boilers. The piece editor allows the piece to be easily defined using the OD and ID or thickness of a part. Once the part is configured, phased array and conventional probes can be pinned to the outside or inside of the part. As the user adjusts the probe location, the probe stays pinned to the part and revolves around it.
Pick from a list of standard weld configurations or use the advanced weld configuration editor to accurately create any weld profile you require. Weld cap geometries allow you to clearly illustrate how close you can get your probe to a weld while ensuring proper coverage.
Use the bitmap drawing tool to add images to your drawings. Bitmaps can be imported and scaled to be used as a backdrop or to use as a reference to trace over when drawing complex specimens.
Defects/Indications can be entered into a table defining their spatial coordinates, then visualized on the workspace in 3D space. The amplitude of defects is visualized through a colored palettizer.
HTML standards-based reporting allows reports to be generated and shared across the web or email. Report content can be copied into other programs, such as Microsoft Word, and edited for final presentation. Users can easily customize or create new reports containing the information they need. The built-in HTML editor allows reports to be constructed in an environment similar to a common word processor. Workspace fields can be dragged from a field picker into the template for inclusion in the report.
This versatile tool simplifies the technique design, validation and reporting process and is adaptable for use by engineers, technicians, and auditors. If you are dealing with ultrasonic inspections and require the ability to visualize and document the applications, BeamTool will guide you through the process and produce the professional results industry demands.
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