Where you need help?

Delivering real value and keep you moving forward through providing services in the following areas:

PLM Implementation

There can be several problems that may occur during PLM implementation, including:

  • Lack of clear requirements: If the organization's requirements for the PLM system are not well-defined or understood, it can lead to problems with the implementation, such as the system not meeting the organization's needs or being too complex to use.

  • Data migration issues: Transferring existing product data from other systems into the new PLM system can be a complex and time-consuming task, and data migration issues can occur if the data is not accurate or complete.

  • System integration: Integrating the PLM system with other systems such as CAD, ERP, and MES can be challenging, and problems can occur if the integration is not done properly.

  • Lack of user buy-in: If the users of the PLM system do not feel that it meets their needs or is easy to use, they may be resistant to using it, which can lead to problems with adoption and usage.

  • Lack of training and support: If users are not properly trained on how to use the PLM system, or if they do not have access to adequate support, it can lead to problems with adoption and usage.

  • Limited scalability: If the PLM system is not scalable, it may not be able to handle the organization's growth, leading to issues in the future.

  • Limited flexibility: if the PLM system is not flexible enough to adapt to the organization's changing needs, it may become obsolete and will require a replacement, leading to additional costs and disruptions.

  • Resistance to change: Some employees may be resistant to change, and the implementation of a new system can be met with resistance, leading to a lack of adoption and usage.

To avoid these problems, it is important to have a well-structured plan and execution, clear communication and collaboration among stakeholders, proper training and support, and regular evaluations to ensure that the system is meeting the organization's needs.

CAD Productivity & Automation

CAD productivity refers to the ability to efficiently and effectively create and modify designs using computer-aided design (CAD) software. This can include tools and techniques such as parametric modeling, which allows for easy modification of design parameters, and the use of macros and scripts to automate repetitive tasks.

Design automation, also known as automated design or computer-aided design automation (CADA), is the use of software programs and tools to automate the design process. This can include tasks such as creating and modifying 3D models, generating engineering drawings, and simulating the performance of designs. Design automation can significantly increase productivity and reduce the time and resources needed to create and refine designs.

Both CAD productivity and design automation are becoming increasingly important in today's engineering and manufacturing industries as companies look for ways to improve efficiency, reduce costs, and increase competitiveness.

Smart modeling is a way of using artificial intelligence (AI) in the process of creating 3D models of mechanical systems. The idea behind smart modeling is to use AI-powered tools to automate repetitive tasks, such as creating and adjusting dimensions, and to identify and correct errors, all with the goal of creating accurate and detailed 3D models.

Some examples of how AI can assist in creating accurate and detailed 3D models of mechanical systems are:

  • Automated Part Creation: AI-powered tools can automatically create parts and components based on a set of design rules and constraints, reducing the time and effort required to create the model.

  • Intelligent Dimensioning: AI can assist in creating and adjusting dimensions, by automatically generating dimensions based on the geometry of the model, and by identifying and correcting errors, such as over-constrained or under-constrained dimensions.

  • Error Detection and Correction: AI can be used to identify errors, inconsistencies, or deviations from standards, and to suggest corrections, such as missing or incorrect dimensions, or incorrect material properties.

  • Parametric Modeling: AI can assist in creating parametric models, which are models that can be easily modified by changing a set of parameters, such as size, shape, or material properties.

  • Generative Modeling: AI can assist in creating generative models, which are models that can be created by defining a set of design rules and constraints, and then letting the AI-powered tool generate the model.

  • Smart Assembly: AI can assist in creating and optimizing assembly designs, by automatically positioning components, identifying potential interferences, and suggesting alternative solutions.

Smart Modeling allows mechanical designers to focus on more complex and challenging tasks such as design concepts, and less on repetitive and time-consuming tasks such as creating parts and adjusting dimensions.

Design Engineering

CAD (computer-aided design) design engineering is the use of computer-based tools to assist in the creation, modification, and optimization of engineering designs. This can include tasks such as creating 3D models, generating technical drawings, and simulating the performance of designs. CAD software can also be used to analyze and test designs to ensure they meet engineering and safety standards, and to generate cost estimates and manufacturing plans.

Can AI build mechanical structures?

Artificial intelligence (AI) can be used to generate designs for mechanical structures, but it is not currently able to build them on its own.

There are different ways that AI can be used to generate designs for mechanical structures, such as:

  • Generative Design: AI-powered generative design software can generate multiple design options based on a set of constraints and requirements, such as weight, strength, and thermal properties. These designs can then be reviewed and refined by human engineers.

  • Optimization: AI can be used to optimize the design of mechanical structures, by finding the best configuration of a system for a specific goal, such as minimizing weight, maximizing strength, or reducing energy consumption.

  • Predictive Analysis: AI can be used to predict the performance of mechanical structures under different conditions, such as stress and thermal analysis, and to identify potential issues and make recommendations for improvement.

However, even though AI can assist in the design process and help to improve the quality and efficiency of the designs, the actual building and manufacturing process is still done by humans. The technology is not yet advanced enough to build the structures automatically.

Design Validation

  • R&D is driven by the pursuit of innovation—whether it’s creating something entirely new or enhancing existing technologies. Innovation can involve the development of new materials, the discovery of new processes, or the invention of new mechanisms.
  • Before committing significant resources, engineers conduct feasibility studies to assess whether the proposed design or product can be realized technically and economically. These studies evaluate the practicality of the project and its potential for success.
  • Engineers and designers brainstorm to generate a wide range of ideas to solve a given problem. They use creativity tools like mind mapping, sketching, and 3D modeling to visualize potential solutions.

Mechanical design validation is the process of testing and evaluating a mechanical design to ensure that it meets the required specifications and performance standards. This can include evaluating the design against engineering principles and standards, as well as testing the design under simulated or actual operating conditions. The goal of mechanical design validation is to identify and correct any issues or defects in the design before it is put into production or use, to ensure that the final product will perform as intended. This validation process can include various tests, simulations, and analysis methods, such as finite element analysis, computational fluid dynamics, and physical testing.


The manufacturing process for the 21st century is characterized by several trends and technologies that are aimed at increasing efficiency, reducing costs, and improving the quality of products. Some of these trends and technologies include:

  • Industry 4.0: This is the fourth industrial revolution, which is characterized by the integration of advanced technologies such as the Internet of Things (IoT), artificial intelligence (AI), and cloud computing into the manufacturing process. Industry 4.0 allows for greater automation, data collection and analysis, and real-time monitoring of the manufacturing process.

  • Smart Manufacturing: Smart manufacturing is the use of advanced technologies such as IoT, AI, and cloud computing to improve the efficiency, flexibility, and responsiveness of the manufacturing process. Smart manufacturing systems can collect data from sensors, machines and other devices, use this data to make decisions, and then act on these decisions to improve the performance of the manufacturing process.

  • Additive Manufacturing: Also known as 3D printing, additive manufacturing is a process of creating a physical object by adding layers of material, such as plastic or metal. This technology allows for the creation of complex and customized products, and can be used to create prototypes, small-batch production, or even mass production.

  • Robotics and Automation: Robotics and automation are widely used in the manufacturing process to increase efficiency and reduce costs. These technologies can be used to automate repetitive tasks, such as welding, painting, and assembly, and to perform tasks that are dangerous or difficult for humans.

  • Advanced Materials: The use of advanced materials, such as composites, ceramics, and advanced metals, can improve the performance and durability of products. These materials can be used to create lightweight, strong and durable products, which can be used in industries such as aerospace, automotive and medical devices.

  • Virtual and Augmented Reality: Virtual and Augmented Reality (VR/AR) technologies can be used in the manufacturing process to improve efficiency, reduce costs, and improve the quality of products. For example, VR can be used to simulate and test the manufacturing process, and to train workers, while AR can be used to provide real-time guidance and instructions to workers during the manufacturing process.

All these technologies and trends are aimed at increasing the efficiency, reducing costs, and improving the quality of products. By using these technologies, companies can create more accurate designs, optimize the production process, and improve the overall performance of the manufacturing process.