Research and Development

Research and Development (R&D) in gasket manufacturing involves the systematic investigation, innovation, and refinement of materials, processes, and designs to enhance the performance, durability, and efficiency of gaskets.

New Part Development (NPD)

Developing new gasket parts involves a systematic process of research, design, testing, and manufacturing to meet specific requirements and industry standards.


Research and Analysis:  Identify the specific needs of clients and industries to understand the purpose and performance requirements of the new gasket part. Research existing solutions, materials, and technologies to gather insights for innovative design.


Design and Engineering: Work with design engineers to create detailed CAD drawings of the new gasket part, considering factors like dimensions, material compatibility, and sealing properties.

Utilize advanced design software to optimize the geometry and material selection for maximum performance.


Prototype Development: Develop prototypes based on the CAD designs to test the functionality, fit, and performance of the new gasket part.  Use rapid prototyping techniques to create physical models that can be evaluated and refined.


Materials Selection: Choose suitable materials based on factors such as temperature resistance, chemical compatibility, pressure requirements, and application-specific needs. Consider eco-friendly and sustainable materials if aligned with company values.


Testing and Validation: Conduct thorough testing of prototypes under real-world conditions to ensure they meet the intended performance standards. Perform leakage tests, compression tests, and other relevant assessments to validate the gasket's effectiveness.

Lab and Precision Engineering Centre

At Conic we adhere to Precision engineering in gasket manufacturing which involves high-level engineering principles, technologies, and techniques to produce gaskets with extremely accurate dimensions, tight tolerances, and exceptional quality.


Precision engineering aims to ensure that gaskets meet the specific requirements of different industries and applications, where even the smallest deviation can lead to performance issues or failures.


Precision engineering in gasket manufacturing is particularly valuable for industries such as aerospace and automotive, where reliability, efficiency, and performance are critical. It ensures that gaskets maintain consistent quality, provide reliable sealing, and contribute to the overall success of complex systems.

Precision Engineering Integration

Advanced Materials Selection:  Precision gasket manufacturing begins with the selection of appropriate materials that exhibit consistent properties and behavior. Engineers analyze the operational conditions, such as temperature, pressure, chemical exposure, and more, to choose materials that offer optimal performance and longevity.


High-Precision Cutting Techniques: Laser cutting, waterjet cutting, and CNC machining are employed to achieve precise and intricate shapes for gaskets. These techniques ensure accuracy in dimensions and shapes, enabling gaskets to fit perfectly within their intended components.


Computer-Aided Design (CAD) and Simulation: CAD software is used to design gaskets with precision, allowing engineers to visualize and refine the design before manufacturing. Finite element analysis (FEA) and computational fluid dynamics (CFD) simulations can predict how gaskets will perform under different conditions, helping optimize their design.


Automated Manufacturing Processes: Automation reduces human errors and ensures consistent quality. Automated cutting, shaping, and assembly processes contribute to precision by minimizing variations introduced by manual labor.


Quality Control and Inspection: Rigorous quality control measures are implemented throughout the manufacturing process. Advanced inspection tools such as coordinate measuring machines (CMMs) and optical measurement systems are used to verify the accuracy of dimensions and tolerances.

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