Derive Customer Delight with Optimized Quality Control of your Product Data to meet your Organization Standards

Quality Control (QC) is a vital process in product development that guarantees defect-free products to customers. Ideally, product design and development is done with the perfect flow of data between different teams, departments, and companies with reduced cycle times. Manufacturers are always under pressure to produce a large volume of products in a shorter cycle leading to rushed quality checks.

The common issues in product data quality are incurred by errors and discrepancies in:

  • Norms and Standards in layers, naming conventions, parameters, start model, and drafting conventions.
  • Geometric continuity of leaks, holes, standard rotation, tiny edges, and duplicate entities.
  • Methods for functional tolerance annotations (FT/A), model links, feature order, and specification tree order.

If Quality Control is not implemented successfully, the business is at risk with their customers. For example, the recent case of defects in the airbags of a Japanese Global Automotive Parts Company resulted in one of the most significant automotive product recalls. The automotive company had to recall 69 million airbags valued at billions of dollars.

Successful implementation of quality control is important yet tricky. Quality checks are often done at the end of the production process, detecting the product issues after the fact. However, effective quality control includes two levels:

  • Engineers identify and address the errors and issues in the product design right away.
  • Operators observe the manufacturing process to ensure there are no variations in the product data.

Manual Quality Check is time-consuming and prone to human errors. Implementing the use of modern digital systems helps in optimizing quality control to produce error-free products efficiently. Q-checker is one such digital quality control tool that helps manufacturers to produce error-free final products.

Q-Checker is a Product Data Quality (PDQ) management application that ensures company design standards and specifications adherence within CATIA throughout the digital manufacturing process. Q-Checker is the world’s leading system for quality assurance in digital manufacturing developed by Technia. It enforces efficiency, productivity, and high product quality in the digital design and production processes.

Q-Checker is an add-on module integrated into CATIA V5 that checks the product data quality and provides a verified check seal for final product data. This check seal stores the model results with high security and enhances internal collaboration with suppliers. This seal saves the time of the follow-up teams by eliminating the need for parts checking to ensure product accuracy and quality.

The functions of Q-Checker are implemented on CAD models in interactive and batch mode to check CATProducts, CATParts, and CATDrawings. The profile editor establishes the criteria that the CAD models are checked for in the design process. The check profile has 400+ checks available, and it is possible to configure new checks with the profile editor as per user requirements for each OEM, project, process, and product.

The Q-checker profile consists of a series of files and folders that define which examinations are to be executed with which options. These files are viewed and edited in the check profile editor. A useful advantage of Q-Checker is the automatic heal option for 50% of the standard checks that help with the automation of the check and correction of parameters.

Key Features of Q-Checker:

  • Enforce CATIA standards: It ensures the company design standards adherence during the design process in a CATIA V5 system that helps in improved product quality, productivity and efficiency.
  • Establish Supplier Trust: Product design and development involves multiple suppliers sending their product data. Using Q-Checker throughout the OEM, the quality of the product data sent by a supplier possess a verified Check Seal, and the recipient can trust the supplier to send quality product data. Also, suppliers can assure the delivery of quality models within the confines of the design standard to their partners and customers.
  • Check files from other CAD software: CATIA users often use various CAD systems that create a problem in data translation and calls for redesign and rework. Q-Checker helps to check errors and make necessary adjustments for smooth data transfer.

Advantages of Q-Checker:

  • Saves Time spent on Corrections: Correcting the errors and mistakes in CAD models is not only takes consuming but also requires human labor and materials. The need for these corrections is eliminated by using Q-Checker. It identifies and repairs critical errors in product design that would be indistinct to the human eye.
  • Encourage Design Reuse: Most designers prefer rebuilding a new model instead of using an existing one as model errors are common with traditional designs. However, with Q-checker, the final designs are error-free, encouraging designers to reuse model designs that save the time of designers as starting from scratch on a new model is time-consuming.
  • Pro-active Learning: Using Q-Checker is like having the experience and advice of experts at hand that is especially helpful for new and learning designers. It helps these new designers going through the learning curve with the ability to meet the CAD standards expected by the customers.

 

Abaqus Python Scripting for Beginners

Abaqus FEA is the software suite for computer-aided engineering and finite element analysis. It is used for a wide variety of material modeling simulations in aerospace, automotive and industrial product industries. Abaqus also has multiphysics, structural-pore and piezoelectric capabilities that are valuable for production simulations in various industries.

Abaqus Scripting is a useful high-level tool that combines the functionality of Abaqus’ Graphical User Interface (GUI) with the power of  Python. Abaqus’ Scripting Interface is an application programming interface (API) to modify the data and models in Abaqus. The scripts used in this interface are called Python Scripts.

Python Scripts allow users to perform tasks in Abaqus that would be complex or impossible within the Abaqus GUI. With a script, users can easily automate repetitive tasks, vary parameters of a simulation, extract information from a vast output database and also create a user interface with customized Abaqus’ user interface, hiding parts of the interface from non-FEA team members.

The basic principles of Abaqus Scripting are:

  • Create, modify and save the model
  • Create script files with the input files generated by Abaqus
  • Create output
  • Run the generated script files to redo the calculation
  • Create a different model and output by adjusting the script

To perform these tasks, it is important to have a basic understanding of the Python programming language. Leveraging EDS Technologies’ industry experience in Abaqus, readers can look forward to a series of future blogs on Python Scripting for Abaqus.

Python is a high-level, object-oriented scripting language with its first implementation by Guido van Rossum in 1989 at Centrum Wiskunde & Informatica (CWI), the National Research Institute for Mathematics and Computer Science in the Netherlands. Python is one of the most revered and oldest scripting languages, preferred by Engineers, Scientists, Mathematicians, and Researchers to turn the engineering and mathematical concepts into Applications.

The key features of Python will help beginners understand why Python is so popular and used for Abaqus scripting.

Features of Python:

  • Expressive: It is one of the more expressive programs meaning it is easy to read and understand. Reading through a Python code is similar to reading English but this feature of python enables the coder to concentrate on the solution than the programming language.
  • Large Standard Library: It has an extensive library including modules, expressions, unit testing, databases, GUI, and various other elements for rapid application development.
  • Free and Open Source: It is available for free on the Python website with the open-source code. This is the main reason that makes Python so popular and preferred as it is constantly improved by the community.
  • Portable: Due to the open-source feature, Python holds the capability to run on different platforms such as Windows, Linux, Unix, and Macintosh, etc making it a portable language.
  • GUI Programming: Graphical user interfaces are easily developed using Python. This is one of the key aspects of this language as it enables users to add flair to the program and make the results visually attractive. Also, it supports a wide array of graphic user interfaces that can be easily imported.

As per the ‘Zen of Python’, the philosophy of the Python programming language, simple is better than complex. This series on Python Scripting is to simplify the learning path for beginners and provide an informative resource for Abaqus users. EDS Technologies also provides on-site training for Abaqus customers. Contact us to know more about our training services.

 

ABAQUS: A Complete Solution for Realistic Simulation

A myriad of products have been changing and improving the facet of our lives, be it machines, vehicles, life sciences. The way products are engineered has been changing recently, being more human-centric. Vehicles are engineered to give optimal driving experience, autonomous vehicles that drive by themselves giving the owner the luxury and comfort, there are many wearable devices being engineered to monitor health etc. To achieve this, a lot of non-destructive testing needs to be done which is achieved very efficiently through virtual simulations. Dassault Systemes’ SIMULIA, a step ahead in virtual analysis, offers the virtual simulation landscape with a variety of simulation and optimisation software like Abaqus, Fe-Safe, I-sight etc. SIMULIA provides a multitude of multidisciplinary, multi-scale simulation applications for various industries such as Aerospace and Defence, Transportation and Mobility, Life-sciences, High tech, Energy and Materials, Industrial Equipment, Heavy engineering etc.

Below are some of the salient features of Abaqus from the SIMULIA portfolio:

  1. Abaqus/Standard provides Abaqus analysis technology to solve traditional implicit finite element analysis, including static, dynamic, and thermal analyses, all powered with the widest range of contact and nonlinear material options. Abaqus/Standard also has optional add-on and interface products that address design sensitivity analysis, offshore engineering, and integration with third-party software.
  2. Abaqus/Explicit provides analysis technology focused on transient dynamics and quasi-static analyses using explicit time integration, which is appropriate in many applications, such as drop tests, crushing, and manufacturing processes.
  3. Abaqus/CAE provides a complete modelling and visualization environment for Abaqus analysis products. With direct access to CAD models, advanced meshing and visualization, and with an exclusive view towards Abaqus analysis products, Abaqus/CAE is the modelling environment of choice for many Abaqus users.
  4. Abaqus/CFD provides advanced computational fluid dynamics capabilities with extensive support for pre- and post-processing provided in Abaqus/CAE. These scalable parallel CFD simulation capabilities address a broad range of nonlinear coupled fluid-thermal and fluid-structural problems.
  5. For implicit and explicit analysis, Abaqus has it all integrated. You can switch from explicit/implicit between analysis steps.
  6. Abaqus CAE GUI is very user-friendly, and the user can model a problem in a real – virtual manner.
  7. Abaqus can be used for both linear and non-linear analysis.

Big Data Shines New Light on the Big Bang

SKA-MID-infographic.full

Infographic of SKA1 MID, the first phase of the SKA’s mid-frequency instrument (Via www.skatelescope.org).

The SKA is an international effort to build the world’s largest radio telescope – with a collecting area of approximately one square kilometer. Set to begin construction in 2016, The SKA project’s major site will be in South Africa with a second large operation center in Australia, and thousands of antennae located across the world.

Collectively, SKA will be 50,000 times more sensitive than any existing radio instrument and its image resolution quality will dwarf that of the Hubble Space Telescope by 50 times.

Dr. Russ Taylor is the founding director of the Inter-University Institute for Data Intensive Astronomy (IDIA), a newly formed partnership of four South African universities that supports SKA with research conducted by the country’s top scientists.

“SKA will produce tremendous amounts of data, taking Big Data to the extreme,” he said. “Handling this data, turning it into information that can be shared and distributed easily, and extracting knowledge from it, will be one of the primary challenges for the project. It is a huge opportunity for the South African scientific and technology community.”

SAP Helps the Universe Run Faster

This is where SAP comes in. Mirroring the SKA project, SAP has assembled an international team to figure out if Big Data technologies from SAP can help deal with this data.

Elke Simon-Keller heads up co-innovation projects for SAP Africa and, located in France, Jean-Christoph Pazzaglia, directs product management for the higher education team at SAP. Last fall, they met Dr. Taylor, while participating in Africa Code Week. They began talking about how SAP HANA could help propel SKA – one of the South Africa’s premier science and technology undertakings.

Elke says, “Making sense of the huge amounts of data that the telescope will generate will be critical to the success of the research. If carried out correctly, this project has the potential to become the universe’s strongest validation case for SAP HANA.”

She continues, “To put this into context, the SKA project in South Africa will produce two terabytes per second of raw data. That is roughly enough data to fill 340,000 laptops with content a day.”

This data has to be transferred to the end user, reduced, calibrated and transformed into a 3D cube. Afterwards, the data must be analyzed and archived – a challenging and time consuming process.

International Task Force Shoots for The Stars

Meanwhile, back in Walldorf similar initiatives were underway. Klaus Schimmer works in the global security team at SAP but has a special interest in astronomy. In 2013, Klaus met with world re-known astrophysicist Professor Thomas Henning, director of the Max Planck Institute for Astronomy in Heidelberg, and an expert in star and planet formation. They began discussing how SAP HANA could be used to address the Big Data challenges presented by the massive telescopes like SKA and the Atacama Large Millimeter/submillimeter Array in Chile, where Dr. Henning worked.

The next year one of Dr. Henning’s former students, Tatiana Vasyunina, joined SAP and formed a team with Klaus to determine howBig Data technologies from SAP could advance astrophysics. Recently, Dr. Franz Färber, head of SAP HANA Vora, agreed to support the project.

Franz said, “These new telescopes create an almost unimaginable amount of data. This is a real challenge and we want to know how far we can go with our technology. Let’s see what SAP HANA Vora and SAP HANA can do in this situation.”

Virtual Pow Wow

All of these various activities culminated in a two-day workshop held in early March to explore how SAP could support the SKA’s Big Data challenges. This virtual meeting brought together SAP executives with executives and research experts from IDIA and the SKA project located in Cape Town, France, Heidelberg and Walldorf.

The Cape Town team held a design thinking workshop to refine the use cases for Big Data technology from SAP. In April and May, technical teams from SAP, IDIA and SKA and SAP will further develop prototypes during in-person workshops. This project is still in its exploratory phase but the discussion about how SAP can help the universe run faster have begun.

3DEXPERIENCE & V6 Innovation Stories from Bell Helicopter & Yong Dang E&P

How do they do it? Well, we in ENOVIA at DS can tell you about it until we are orange, er, I mean blue in the face. But what is better than actually hearing all about the how and why from the sources?  Check these out!

Bell Helicopter:

Icon of the aviation industry, Bell Helicopter was the first company to obtain certification for a commercial helicopter,and has been a mainstay of the US defense industry since World War II.

With ENOVIA for our entire enterprise, the information around the aircraft is available and visible to everyone that needs that data, not only the engineers, which is the way it was in the past.  And because we have taken ENOVIA, and it is the master for most of the product data and it sends that data to CAMS and SAP as the slave systems, we are seeing an increase in quality of what is communicated from engineering to the shop floor

Yong Dang E&P:

DONG YANG E&P, manufacturer of switch mode power suppliers, chargers, DC converters and solar inverters, launched its global expansion into China, Slovakia, Romania and Vietnam.

To achieve their global leadership goal, they needed to improve collaboration between their product development teams and improve product quality.

To do this, they chose Dassault Systèmes’ 3DEXPERIENCE platform and its HT body industry solution experience comprised of ENOVIA apps for real-time collaboration globally.

 

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