Nikon Metrology Celebrates Summer!

June 30, 2010

Nikon Metrology kicks off the summer with a team picture and a BBQ.

Members of the North American Nikon Metrology team gathered on a sunny summer afternoon last week to celebrate the start of summer.  We used the opportunity to take a group photo, using a Nikon camera of course, in front of our Brighton, Michigan headquarters. 

Even though the full team couldn’t be present for the photo, we are all very excited to have combined 2 top-notch teams from the former Nikon Instruments industrial group, and the former Metris, and come together as one unbeatable team under our new name, Nikon Metrology.  We’re looking forward to continuing to grow our company, and to enjoying more sunny summer days together!


Survice Metrology supports NASA in quality assurance measurements for the James Webb telescope

June 28, 2010

BELCAMP, MD – Kyle Herr, a metrologist with SURVICE Metrology—a division of the SURVICE Engineering Company, headquartered in Harford County, MD—recently supported NASA by collecting critical surface measurements of mounting locations for the various optical components that will be attached to the frame of the new James Webb telescope. The surveying crew used Nikon Metrology’s coherent laser radar (CLR) to collect the necessary high-precision measurements needed to ensure that all the mounting plates were correctly positioned within the structure of the frame.

Nikon Metrology’s CLR offers non-contact laser line scanning and single-point coordinate measuring machine (CMM) measurements. The CLR is available in two models, the MV224 and the MV260. The only difference between the two is the scanning range of 24 m and 60 m, respectively. With the CLR system, the user is able collect data over a large volume while maintaining high accuracy. The accuracy at a range of 1 m is 16 μm; and at 24 m, it is 240 μm. With the use of high-precision tooling balls, the CLR is able to be relocated multiple times during a survey while maintaining accuracy and the coordinate system of the component being measured.

Photo Courtesy of NASA Goddard Space Flight Center

NASA has its own CLR and metrology group, but given the time requirements for all of the measurements to be completed, a second CLR was needed. This is where SURVICE Metrology’s services came in. Because the CLR is a completely portable system, SURVICE was able to accommodate NASA’s measurement needs. All of the metrology work took place at the NASA Goddard Space Flight Center in Greenbelt, MD, inside one of the largest clean rooms in the world. The clean room uses laminar air flow with a combination of paper, carbon, and HEPA filters to ensure proper clean room levels. SURVICE’s CLR had to undergo a vigorous cleaning process before entering the facility. All of the raw data were collected and analyzed using the New River Kinematics Spatial Analyzer software package.

Learn more about Nikon Metrology’s Laser Radar


Laser Scanning Webinar

June 24, 2010

If you missed our laser scanning webinar on June 2nd, you can now view it in our webinar archive. Click on the video below to view this webinar.

Laser Scanning Webinar  – June 2, 2010

Laser Scanning Webinar – June 2, 2010

This movie requires Adobe Flash for playback.

Continuing on a longstanding tradition of laser scanning excellence, Nikon Metrology is proud to introduce the latest generations of its CMM-based and Handheld laser scanners.

Offering unmatched accuracy, usability, and performance, the ModelMaker scanner is the ideal tool for portable inspection and reverse engineering needs. The flagship ModelMaker offering – the MMDx – provides a huge leap forward in 3D digitizing as it introduces the 3rd generation of the Nikon Metrology’s Enhanced Sensor Performance (ESP3).

Already utilizing ESP3, Nikon Metrology’s LC60Dx builds on the industry-leading reputation of the LC60D by offering a 40% accuracy improvement, bringing the LC60Dx in the accuracy range of tactile measurements on a CMM.


Solutions for Plastic Manufacturing Applications

June 23, 2010

Quality control in plastics manufacturing presents a real challenge as out-of-specification components represent a financial burden to the manufacturer, not only because of materials and machine time involved with re-running the batch, but also because of disposal and recycling charges.

With injection-moulding batches of plastics components stretching into the millions, identifying when key dimensions are threatening to drift out of tolerance is crucial. However, in addition to plastic conversion processes being subject to natural fluctuations, the sheer speed of the injection moulding process poses a real challenge in terms of effective quality control. Equally challenging is the range of colors, textures, sizes and complexity of components that need to be measured. Manufacturers need to be able to check statistically valid numbers of samples yet avoid compromizing demanding production schedules.

In addition to edge-to-edge dimensions, the position, diameter, depth and profile of apertures may also need to be checked. Also, since plastics form the outer cover of many high quality items, their surfaces need to be completely blemish-free.

Stereomicroscopy plays a key role in allowing staff to examine surface finishes and spot minute imperfections.

Manual metrology provides an accurate means to assess prototypes, check the performance of injection moulding dyes and perform lower volume quality control checks. Non-contact z-height measurement can also be a useful asset on manual measuring microscopes used for lower volume QC work.

Automated, non-contact video-based measuring not only allows multiple edge-to-edge measurements to be reliably made on large numbers of simple plastic components, but also the position, diameter, depth and profile of apertures on lower volume, complex work pieces.

With the correct illumination settings, repeatable and reproducible edge detection, even the edges on dark and clear parts can be correctly refracted, detected and reproducibly measured. Non-contact video measurement can also be used to compare CAD vs actual data and perform real-time SPC.

Key techniques for QC in plastics manufacturing include:stereomicroscopy; extended depth of field; polarizing microscopy; phase contrast; non-contact z-height measurement; non-contact video measuring systems; twin-ring LED illumination; through-the-lens laser autofocusing (TTL AF); laser scanning; and automated edge detection.

For more information on plastic manufacturing visit www.nikoninstruments.com.


Meet our x-ray and CT inspection expert!

June 22, 2010

We would like you to meet Nikon Metrology’s X-ray and CT inspection expert, Ken Gribble.

Ken Gribble is the Business Development Manager for the X-ray & Computed Tomography product group for Nikon Metrology.

Ken has been involved in X-ray sales management since 1990, and has developed world-class award-winning sales organizations for Nicolet Imaging Systems, Teradyne, and X-Tek Systems Ltd. Prior to that, Ken was involved with other capital equipment manufacturers and suppliers as well as his own company, which provided state-of-the-art equipment and services to the industrial electronics industry. 

Currently, Ken is responsible for X-ray sales development in North America for Nikon Metrology.

Ken has a BA in Political Science with an English minor from San Jose State University, as well as a JD degree and an MBA from Golden Gate University, San Francisco.

Ken’s philosophy for business success stems from a belief in the strategy of small wins, that is, strategically and incrementally moving clients toward the correct solution by systematically guiding them through the process required to meet or exceed their expectations. Capital equipment sales successes are typically marathons, not sprints, so patience, diligence, and constant attention to the client’s requirements are key factors.

Ken recently relocated to Austin, Texas from the San Francisco area. This more central location will enable a more efficient management of accounts, and enable the continued growth of the X-ray and CT product lines.


Aston Martin uses Nikon Metrology CMM for body panel inspection

June 18, 2010

The body of the Aston Martin DB9 GT sports car has an aluminium-bonded frame that is 25 per cent lighter than that of the DB7 which it replaced, yet has double the torsional rigidity. To check the quality of this structure before the car was hand-built around it, a new metrology facility was established at the company’s factory in Gaydon, Warwickshire.

Central to its operation is a pair of Nikon Metrology LK computer-controlled LY90S horizontal-arm, co-ordinate measuring machines (CMMs) for inspecting external features on both sides of the vehicle simultaneously in fully automatic, mirror-image cycles that take around two hours.  Together the CMMs provide a measuring volume of 6,000 x 3,000 x 2,500 mm, sufficient to contain the whole vehicle, which is held in ‘car line’ by bespoke fixturing during measurement.  Results are accurate to better than 10 microns over the length of the car.

A further key feature of the installation is Nikon Metrology’s CAMIO interface software, which enables the data within Aston Martin’s CAD files to be downloaded to the CMM environment and used to create measuring programs directly from the models.

When the DB9 is in full production, every day a body fitted with doors, hood and trunk lid, a so-called ‘body complete’, will be taken out of production at random and checked for each of four car variants (left and right-hand drive versions of the coupe and the convertible).  In addition, the LK LY90S cell will potentially have to measure a wide range of items, from a fully assembled car to a single component.  The purpose will be to investigate build issues, verify supplier measurements and make data available to the engineering and design departments for finessing and continuous product improvement.  A further duty will be to support the development of future Aston Martin car models through their prototype stages.

In addition to inspecting the DB9 body during its development, the LK LY90S cell is used routinely to measure a wide variety of parts from simple brackets to a complete transmission, as well as to check fixtures used on the framing machine in which the car body is bonded.  To achieve this breadth of measuring capability, the flush-floor steel bedplate has been drilled at 200 mm centres to accept flexible fixturing, allowing components of any size to be clamped accurately for inspection.

To ease the workload on the cell when measuring smaller components, an additional LK bridge CMM, a G90-C with a measuring envelope of 800 x 700 x 600 mm, has been installed in the same temperature-controlled room.  Programs are interchangeable between the two machines.

Said Simon Skinner, projects engineer for the manufacturing engineering department at Gaydon, “The LK LY90S cell supported the DB9’s prototype phase right from the start, helped to reduce the lead time to develop the car.  This was possible because Nikon Metrology’s CAMIO interface software, unique at the time, was immediately able to read the I-DEAS CAD files from our design department, enabling inspection programs to be written in advance of prototypes becoming available.”

So successful was this process that senior dimensional technician, Richard Winspear, had prepared all the programs for inspecting the DB9 ‘body complete’ before the LK CMMs had even been installed.  It was then a simple matter to prove out each program on the machine and make minor adjustments.

Said Mr Winspear, “I programmed each element of the car body separately using an off-line Nikon Metrology CAMIO terminal, so we ended up with a suite of modules that can be run in any sequence using Nikon Metrology’s graphics-based Launchpad software.  The automatic cycle can be over-ridden as required to enable manual inspection of additional features.
“This approach is helpful during the development phase while we need to check individual elements.  When inspection starts in support of production, the modules can be stitched together into one seamless, fully automatic sequence for measuring 700 points over the entire body.”

In production, Aston Martin will take advantage of Nikon Metrology’s statistical process control software to analyze manufacturing trends and will be able to embed SPC charts in graphical reports generated automatically by a further software module.  The reporting system has been adapted from that used by sister Ford Premier Automotive Group companies, Land Rover and Jaguar, which also use LK CMMs to support their metrology requirements.

Concluded Mr Skinner, “Our investment in the new metrology facility at Gaydon sprang from a projected doubling of annual production.  Moreover, an additional model still to be introduced will double production output again.
“Our previous inspection techniques using portable measurement arms, verniers and gap gauges would be too slow to support these larger volumes, which is why we have moved over to automated inspection using Nikon Metrology CMMs.
“In any case, the immediate availability of measured results in electronic form and the ability to tie them back to the CAD model allows us much wider scope in integrating the quality function with other departments and brings us in line with best practice within the volume car manufacturing sector.”


What’s New in CMM-Manager 2.5

June 16, 2010

If you missed our CMM-Manager webinar back in March, you can now view it in our webinar archive. Click on the video below to view this webinar.

CMM-Manager version 2.5 (March 2010)

CMM-Manager version 2.5 (March 2010)

This movie requires Adobe Flash for playback.

 

 Webinar Description: This is an Introduction to a highly intuitive CMM software package for both manual and CNC CMMs. CMM software offers flexible yet easy-to-use functionalities, including graphical probe configuration management, automatic tip calibration, cross section scanning and group feature measurement.

 
CMM-Manager version 2.5 features & benefits:

1. OP Planner - Operation Planner will allow an operator to easily run only a portion of a program by simply picking the features or dimensions from a program.  CMM-Manager will automatically re-calculate tool paths and run only the required portion of the program.
 
2. Shop Floor “Launcher” - This will allow easy access to an entire library of CMM-Manager programs.  From a simplified push button browser the operator can run CMM-Manager Programs.  This may be used in a shop floor environment and is designed to be Touch Screen friendly.
 
3. Clearance Plane Path Planning – Programmable setting allows to define a safe plane for joystick taught operation and path creation “Current Tip & Local Path”, which will be used to automatically add move points at start or/and end of measurement.
 
4. Hand Help API – Replaces MCA Utilities with built-in probe calibration.
 
5. Windows 7 – Compatibility with Windows 7 has been tested on both 32-bit and 64-bit versions.
 
 
Visit www.cmmmanager.com to learn more.

Lockheed Martin’s F-35 Lightning II uses cutting-edge iGPS technology

June 15, 2010

Two Lockheed Martin F-35 Lightning IIs in flight

The F-35 Lightning II is the most advanced combat aircraft ever built.  Take a few moments to watch this awesome video from Lockheed Martin.  It shows how cutting-edge technologies, including Nikon Metrology’s iGPS and laser projection, are used in manufacturing the F-35. Even painting the aircraft with radar-evading coatings is accomplished with precise instrumentation guided by lasers.

The Intelligent Laser System used in the F-35 Final Finish Area is the first of its kind to be used in a manufacturing facility, not just in aerospace, but across all industries.  It combines the power of locating materials with lasers, with the technology of GPS.

In the ILS, Lockheed Martin applies materials that go directly on the composite surface of the skin.  From there, the F-35 moves to the robotic booth where a precise amount of low-observable (LO) coating is applied.  The LO coating applied to the F-35 allows the aircraft to fly unimpeded into airspace without being seen by typical radar systems.

Lockheed Martin’s system includes 8 fixed monuments containing 2 infrared transmitters each.  There are a total of 22 Nikon Metrology iGPS removable mounts (IRMs) throughout the booths.  Each one individually floods the booth with infrared light that the optical sensors on the lasers and aircraft pick up, to tell where they are in virtual space.  Each optical sensor has a 360° degree view to pick up the infrared light in order to triangulate position.

Without question, these cutting-edge technologies make this one of the most advanced paint facilities in the world.

Click to watch the video on YouTube


North Texas Food Bank benefits from Charity Golf Tournament

June 14, 2010

The Lockheed Martin Missiles and Fire Control Quality Organization presented the 2010 Charity Golf Tournament last Friday, June 11th.  Nikon Metrology was proud to once again help sponsor this worthy event, benefitting the North Texas Food Bank.  The tournament was hosted at The Sky Creek Ranch Golf Club in Keller, Texas.  Everyone enjoyed playing the championship golf course, designed by renowned golf course architect Robert Trent Jones, Jr.

The North Texas Food Bank was established in 1982 to address the critical issue of hunger in the north Texas area by securing donations of surplus unmarketable, but wholesome, foods and grocery products for distribution through a network of charitable organizations dedicated to feeding the hungry in 13 North Texas Counties, including Dallas, Denton, Collin, Fannin, Rockwall, Hunt, Grayson, Kaufman, Ellis, Navarro, Lamar, Delta, and Hopkins.

The Lockheed Martin Missiles and Fire Control Quality Organization is committed to giving back to the community.  In 2008, the tournament raised over $10,000 for the North Texas Food Bank.  This provided in excess of 60,000 meals, bringing the four-year total to over 120,000 meals.


Laser Scanning Drives Digital Development at Thule Towing Systems

June 11, 2010

Thule Towing Systems successfully shifted from a predominantly manual process to developing towbar systems using Nikon Metrology’s ModelMaker laser scanning and mechanical design/simulation software. As vehicle CAD files are often too detailed, Thule engineers use Nikon Metrology’s ModelMaker laser scanner to create a digital 3D copy of a new vehicle’s rear end.

This graphic 3D surface – inserted into a mechanical design environment – sets accurate spatial boundary conditions for designing a dedicated towbar system. Following this digital development approach, Thule more quickly evolves to an optimum towbar design, saving multiple prototype testing rounds and cutting time to market from 15-20 weeks to approximately 9 weeks.

Thule engineers use the ModelMaker laser scanner to create a digital 3D copy of a new vehicle’s rear end.

Although the use of towbars is more established in the market of professional vehicles, towbar systems continue to penetrate the market of privately owned vehicles. The ability to quickly link a bike carrier to a towbar supports towbar market growth, and there is a clear trend toward higher-end solutions, such as retractable towing systems. Thule – a global leader in sports utility transportation – is one of the major towbar system manufacturers in the world. Thule Towing Systems develops and manufactures towbar systems for vehicle OEMs as well as for the automotive aftermarket. For a new vehicle soon to hit the marketplace, Thule engineers begin with taking a detailed 3D scan of the bottom end of the vehicle – the area where the new towbar system needs to be incorporated.

They use Nikon Metrology’s ModelMaker scanner – mounted on an articulated measurement arm – and manually scan the area of interest, which typically includes the bumper, fuel tank, muffler, spare wheel, chassis sections, etc. The scanner’s high frame rate and wide laser stripe enable the area to be scanned quickly and precisely. The resulting 3D surface scan takes shape in real time, which makes it easy to track progress and scan coverage. The fully portable ModelMaker system can be just as easily used at customer sites as internally at Thule, saving vehicle transportation time and cost.

“Our prime objective with Nikon Metrology’s ModelMaker is digitizing the space that is available to integrate the towing system,” says Thule’s Aftermarket development department. “For us, the graphic 3D surface scan represents critical engineering input right at the start of the towbar development process.  We immediately see where we can fit particular mechanical parts of different shapes and sizes in order to design the assembly that attaches the towbar to the vehicle chassis. Previously, we had to spend a lot of time consulting CAD files we received from auto manufacturers, which contain irrelevant data as well as information that has become outdated.”

Nikon Metrology’s ModelMaker is a digital laser scanner combining superior stripe resolution with one of the highest effective throughput rates available in the marketplace. This allows surface features to be captured accurately. Thule engineers apply this detailed feature scanning capability to verify the location of towbar system attachment points on the chassis of the vehicle. While scanning, the scanner adapts the power of its laser beams to account for varying shape, color and reflectivity. This allows the entire scan to be executed without having to manually adapt scanner settings.

The result of the scan is a cloud of hundreds of thousands or even millions of measured surface points that is efficiently managed in Nikon Metrology’s Kube software. “In Nikon Metrology’s Focus Reverse Engineering software, we filter the point cloud to eliminate excess points and transform the point cloud into a polygon surface mesh,” Thule Aftermarket development department explains. “Then we export the entire 3D surface – including both free-form areas and features – into Pro/Engineer, our mechanical engineering and design CAD tool. From a designer’s perspective, it is great to see the 3D surface you just scanned in your design software environment and be able to view it from any angle. It is so realistic that it feels like working on the real vehicle, while benefitting from a higher degree of design efficiency.”

The scanner automatically adapts laser power to account for varying shape, color and reflectivity.

Thule Aftermarket development department says that this digital approach allows Thule design engineers to quickly try different design concepts, and then concentrate on the most promising towbar configurations. “Ultimately, this results in a better towbar design that costs less and is often more elegant,” Thule Aftermarket development department explains. “Besides reducing towbar weight, welding effort and material, the engineering process increases manufacturability and lowers the number of recalls. In the past, we had to quickly handcraft a towbar assembly mockup based on tape measurements made throughout the day the vehicle was made available to us. Since the digital process has been put into place, there is far less work in our workshop. In fact, the first physical tests of newly designed towbars have proven OK immediately, eliminating multiple physical testing rounds overall.”

In conclusion, Thule Aftermarket development department states that the use of Nikon Metrology’s ModelMaker laser scanning and mechanical design/simulation software has delivered as promised. “We selected the innovative Nikon Metrology ModelMaker on the basis of a productivity analysis and a solid Nikon Metrology service organization. Our updated development process helped us to further improve towbar system quality and to compress time to market from 15-20 weeks to only 9 weeks. Such significant time savings, along with a better engineered and easier to manufacture product reduces cost considerably. This clearly supports Thule Towing Systems’ drive to continuously enhance process and product innovation.”

For more information, please visit our website.


3-D CT inspection offers a full view of microparts

June 10, 2010

Manufacturers are beginning to use a popular medical procedure—computerized tomography (CT) scanning—to inspect the insides of microparts.

“We have equipment that scans microparts and gets excellent external data, but it does not give internal data. That is where CT scanning comes in,” said Larry Carlberg, regional service bureau manager for GKS Global Services, Minneapolis, which offers reverse-engineering and inspection services, including CT scanning. With a completed scan, the user can see features inside the part as well as all external features.

Industrial CT scanning involves taking hundreds to thousands of 2-D X-ray images of an object. In CT scanning, a tube generates X-rays that penetrate the object being inspected. The X-rays are absorbed and interpreted by a detector on the other side of the object. The object is rotated on a stage 360° while images are acquired at set increments, typically from 0.25° to 0.1°, depending on the desired final resolution. Images are rendered as voxels (3-D pixels), with resolution from a few microns to hundreds of microns, depending on the X-ray detector pixel size.

Once the image-acquisition process is complete, algorithms are used to reconstruct the singular X-ray images into a 3-D volume dataset (3-D data cloud). With the use of visualization software, the data cloud can be manipulated. It is possible to make slices of the object to view the internal structure layer by layer.

A CT scan can take a few minutes to a couple of hours, depending on the size and density of the part and the resolution requirements. Typical small-part scans—from when the part is put in the scanning machine to when the 3-D model is reconstructed—take around 30 minutes. Resolution for individual microparts is typically 1µm to 5µm.

A CT machine can measure all geometries as long as they fit in the scanning envelope. “There is no limit to part complexity,” said Jesse Garant, president of Jesse Garant & Associates, Windsor, Ontario, which provides industrial CT scanning services. “If you have a micropart and need 100 features measured, we can do all 100 features in one scan.”

Material density combined with path length (the distance through which the X-rays must pass) is relevant to CT scanning. It is not just how dense the material is, but also how much of it there is. Resolution decreases with material density and part size. “When scanning high-density parts with CT scanning machines, the voxel spacing is increased,” said Garant. “The accuracy may be quite good, but the resolution is not there.”


In a CT scanning machine, a tube generates X-rays that penetrate an object while it rotates on a stage. The X-rays are absorbed and interpreted by the X-ray detector on the other side

Read the full article in MicroManufacturing, including quotes by Jim Clark, Vice President of Strategic Marketing at Nikon Metrology

Click here for more information on Nikon Metrology’s line of CT systems


Quality Assurance Measurements for NASA’s James Webb Telescope

June 9, 2010

Photo courtesy of NASA Goddard Space Flight Center

Nikon Metrology and SURVICE Metrology team up to support NASA in quality assurance measurements for the James Webb telescope

Kyle Herr, a metrologist with SURVICE Metrology—a division of the SURVICE Engineering Company, recently supported NASA by collecting critical surface measurements of mounting locations for the various optical components that will be attached to the frame of the new James Webb telescope. The surveying crew used Nikon Metrology’s coherent laser radar (CLR) to collect the necessary high-precision measurements needed to ensure that all the mounting plates were correctly positioned within the structure of the frame.Nikon Metrology’s CLR offers non-contact laser line scanning and single-point coordinate measuring machine (CMM) measurements.   

Photo courtesy of NASA Goddard Space Flight Center

NASA has its own CLR and metrology group, but given the time requirements for all of the measurements to be completed, a second CLR was needed. This is where SURVICE Metrology’s services came in. Because the CLR is a completely portable system, SURVICE was able to accommodate NASA’s measurement needs. All of the metrology work took place at the NASA Goddard Space Flight Center in Greenbelt, MD, inside one of the largest clean rooms in the world. The clean room uses laminar air flow with a combination of paper, carbon, and HEPA filters to ensure proper clean room levels. SURVICE’s CLR had to undergo a vigorous cleaning process before entering the facility. All of the raw data were collected and analyzed using the New River Kinematics Spatial Analyzer software package.   

Nikon Metrology's Laser Radar

The CLR is available in two models, the MV224 and the MV260. The only difference between the two is the scanning range of 24 m and 60 m, respectively. With the CLR system, the user is able collect data over a large volume while maintaining high accuracy. The accuracy at a range of 1 m is 16 μm; and at 24 m, it is 240 μm. With the use of high-precision tooling balls, the CLR is able to be relocated multiple times during a survey while maintaining accuracy and the coordinate system of the component being measured.  


Nikon Metrology exhibits at the Medical Device and Manufacturing show

June 8, 2010

At the MD&M East show this year, Nikon Metrology – Booth #1672, will feature the most complete and innovative metrology product portfolio, including:

130-inexiv-email.jpg  The iNEXIV Multi-Sensor Measuring System, a high-speed, fully-automated benchtop metrology and imaging system ideal for measuring dimensional features.
Nikon Metrology offers a complete product range for X-ray and Computed Tomography or CT inspection systems. These systems offer a non-destructive inspection method to visualize the inner side of test objects.
144-mm-200.jpg The MM-200 Measuring Microscope, a powerful toolmakers microscope ideal for measuring a variety of metal, plastic and electronic parts.
smz745t_ds.jpg The SMZ745 Digital Stereomicroscope System, a trinocular stereoscopic microscope ideally suited for observation and digital imaging. Featuring an impressive 7.5x zoom range. 

We hope to see you at the show!

Contact us today to set up a demo at the show.


Gene VanPatten talks about iNEXIV VMA-2520

June 7, 2010

Eugene J. VanPatten, manager of Nikon Metrology’s Midwest Industrial Department, talks about the newly formed company, Nikon Metrology, and the company’s iNEXIV VMA-2520 digital metrology and imaging system.

The interview was conducted during ICOMM/4M 2010, the 5th International Conference on MicroManufacturing, which focuses on the processes, equipment, and systems for fabricating miniature parts with micro-scale features.


A Survey of Training in the Portable Dimensional Metrology Industry

June 4, 2010

Breaking down assumptions about the knowledge base of metrology operators

Here is a great article by Lanny Wilson, a dimensional measurement professional and trainer.  It’s a very thorough discussion of dimensional metrology training, and includes definitions of commonly used terms in the metrology industry. 

Expensive, highly technical metrology equipment, which is used worldwide to measure critical parts in aerospace, automotive, nuclear, and communications industries (to name a few), has increased productivity and quality of virtually every product manufactured today. There’s an accompanying assumption that users of portable dimensional metrology equipment are highly trained in the field of dimensional metrology. To validate this assumption, I developed a survey using Surveymonkey.com and distributed the link though my network of metrology professionals. I also asked those individuals to pass the survey on to their constituents.

This article examines the results of that survey, exploring how users of portable dimensional metrology equipment receive training, what training methods they prefer, and what percentage of users are trained by metrology professionals. It also examines the use and quality of training and reference materials provided to metrology equipment users.

Read the full article in Quality Digest.

Also read the latest edition of CMSC World.

Make sure you register for CMSC 2010Discount hotel rates are available until June 19.

Definitions

 The following terms may be used in this article and are intended to be general in nature.

 3-D—Having three dimensions: length, width, and height; in dimensional metrology these dimensions are typically defined as X, Y, and Z.

 Cascade training—The method of training one or more individuals to pass the training along (i.e., cascade) to other individuals who require it.

 Computer-aided design (CAD)—The use of computer technology for designing objects, real or virtual.

 Dimensional metrology—The science of calibrating and using physical measurement equipment to quantify the physical size of or distance from any given object.

 Draftsmen—Persons skilled in creating technical drawings for practical purposes such as architecture or engineering.

 Geometric dimensioning and tolerancing (GD&T)—A symbolic language used on engineering drawings and computer-generated, 3-D solid models to explicitly describe nominal geometry and its allowable variation.

 Tradesmen—Manual workers skilled in a particular trade or craft whose knowledge base is considered to fall between that of an unskilled laborer and a professional, with a high degree of both practical and theoretical knowledge of the trade.


Follow

Get every new post delivered to your Inbox.

Join 230 other followers