The drive to get commercial and industrial products to market faster than competitors is an ever-increasing challenge. That's why a seamless transition from design to manufacturing is critical: to prevent production headaches that may hamper success later on. In our white paper, "Smoothing the Transition from Design to Manufacture: Best Practices," we show you eight best practices for a trouble-free design to-manufacturing hand-off, and offer details on:
-How to factor the complexity of the assembly process early on
-Making cost-effective material sourcing decisions
-Environmental tests that may be required before you go to market
In production plants across the globe, lean manufacturing techniques are being utilized to meet...
Articulating arms combine the efficiency, reliability and accuracy of a traditional CMM with the...
In the electronics industry, contract manufacturing has long been a strategy for reducing time...
The fast pace, ever changing evolution of the wireless industry puts an enormous time-to-market pressure on the engineering of every new mobile device. Being in the heart of every mobile product, the design of ...
Many industries must precisely measure the three-dimensional features of objects. The most efficient to do this is with a laser tracker. In order for the ever-increasing customer specifications to be met, there has to be emphasis on accuracy. Understanding both the distance and angular measurements of laser tracker instruments is an important aspect of selecting the best instrument for a particular application. Learn more about laser trackers and how it can make entirely new manufacturing methods possible and give you the results you need.
Those who traditionally work with two-dimensional plans and schematic diagrams are increasingly discovering the advantages of three-dimensional planning and documentation tools. Forward-thinking companies and users that implement 3D laser scanners are provided an efficient and accurate way of capturing three-dimensional snapshots of any environment. This technology helps to streamline workflows by allowing critical surfaces and environments to be measured with a level of confidence and speed, not possible with traditional tools, along with a way to deliver robust models that can revisited digitally at any point in time. Explore what 3D laser scanning can do for you and your organizational goals.
Traditional manufacturing methods, like machining and injection molding, have many rules, restrictions, and limitations. These rules don’t apply when using direct digital manufacturing. Designers are free to concentrate on the best design and not concern themselves with manufacturability.
3D laser scanning technology is helping companies get the data they need in product design including inspection, CAD comparison, reverse engineering, and more.
In product design and development, efficiency is key. Read this white paper to learn about 3D technology that helps companies design better products faster
In the ever competitive marketplace companies need to take advantage of the technologies that are available to them. Replacing dated technologies like the paper chart recorder with better more advanced technologies seems like a logical choice but many companies have been reluctant to change or simply not be aware of the cost savings involved. By using a modern humidity and temperature data logger users have the advantage of better accuracy, more functionality, less maintenance and an overall cost savings.
The FDA mandates validation of incubators, refrigerators, freezers, stability chambers, warehouses, and other controlled environments. Download this NEW application note, which covers five key questions you need to have answered in planning a temperature and humidity mapping study that complies with current GxP guidance. Ensure that your next environmental mapping project is aligned with the core principles behind validation.
A 3D printer is a machine that creates objects from plastic or other materials using an additive manufacturing process. Additive manufacturing produces objects in a succession of layers from the bottom, up. This is the opposite of traditional subtractive manufacturing processes.
In this collection four experts discuss several ways to reduce the risks of failed inspections, bad measurement practices, and poor product quality in controlled environments. Topics span from measurement accuracy, uncertainty, stability, and traceability, to a discussion of wired v. wireless connectivity for sensing instruments, to FDA inspection preparation and 483 responses. These articles offer a surfeit of tweaks, tips, and tricks for developing better quality management systems for GxP-compliant environmental monitoring applications.
The terms “3D printing” and “additive manufacturing” refer to processes that automatically build objects layer by layer from computer data. The technology is already well-used in many sectors including transportation, health care, military and education.
Finite element representations of crash test dummies are widely used in the simulation of vehicle safety systems. Utilize component models from the Abaqus Finite Element Analysis software to validate test data under different loading conditions and rates
Employ Abaqus Finite Element Analysis to design mobile device keypads for fewer typos.
Learn how an onsite 3D Printer can bring economic returns and competitive advantages through enhanced innovation, more productive design cycles and higher-quality designs
A compelling read that at times is light hearted and funny, 7 Habits of Quality Obsessed Manufacturers is written for top performing quality professionals that want to give their company an edge. The ebook takes a closer look at:• How to brag about quality • What successful manufacturers have in common with Einstein • Who plays the starring role in your company • How to not make easy hard • Making the cloud your answer to supply chain visibility • How to choose between "do something" and "do nothing" • Giving data an afterlife