The isostatic pressing market revenue is expected to reach USD 13,568.1 million by 2030, exhibiting a CAGR of 7.0% during 2023–2030.
The market is primarily driven by the rising demand for sophisticated materials with improved qualities, such as high-strength alloys, ceramics, and composites. The ability to produce complicated forms and high-density components makes IP a vital step in many industries, especially automotive, aerospace, energy, and electronics.
Further, IP has become more significant due to the ballooning trend of near-net-shape manufacturing, which aims to minimize material waste and reduce the need for post-processing. Isostatic pressing optimizes material usage and lowers overall manufacturing costs by creating components in nearly the final shape and dimensions.
In addition, when compared to conventional production techniques, IP offers environmental advantages, including decreased material waste, energy use, and carbon emissions. Thus, it is becoming more popular because of the increasing focus on sustainability and environment-friendly practices across several industries.
Isostatic pressing is widely used in the aerospace industry for the creation of vital parts, such as turbine blades, engine parts, and structural elements. For aerospace applications, it is essential to produce complicated forms with better material qualities, high strength, and exact measurements.
Isostatic pressing is essential in helping the components fulfill the strict quality and performance criteria required by the aerospace industry. Aerospace producers use this technology because it may provide components with a near-net shape and excellent integrity and density.
The production of components with optimal material utilization is also made possible by isostatic pressing, which, thus, lowers waste and increases productivity. Weight reduction is a crucial factor in aerospace applications, to increase the overall performance and fuel efficiency. Without sacrificing strength or structural integrity, IP enables the production of lightweight components.
Moreover, in the aircraft sector, safety and reliability are highly valued. The usage of IP during component manufacturing ensures good structural integrity with a reduced failure risk and improved overall reliability and safety.
A high demand for performance and quality exists in the aerospace sector. Components with consistent material qualities, density, and structural integrity are produced via IP, which offers a regulated and homogeneous compression process. Thus, the rigorous standards implemented on the aircraft industry can be better met by components produced via IP.
Isostatic pressing is a crucial step in the manufacturing of numerous medical devices and components. Medical implants, including dental implants, spinal implants, and hip and knee replacements, are made using this technology, as it enables the creation of dense and highly durable implant materials with precise shapes and dimensions.
Biocompatible ceramic parts for orthopedic and dental purposes are also made via isostatic pressing. These ceramics' homogeneous density and mechanical qualities are made possible by the technique, thus confirming their appropriateness for applications in medicine.
Furthermore, for the creation of restorative dental elements, such as crowns, bridges, and veneers, this technology is used. Dental laboratories may produce precisely formed and densely compacted restorations using IP, for the best performance and appearance.
Additionally, the manufacturing of surgical instruments, including blades, tips, and cutting tools, is a key application of IP. The procedure assists in producing highly precise and durable instruments that adhere to the strict standards of the medical industry.
Some of the key market players are Kobe Steel Ltd., Bodycote, Kennametal Inc., Nikkiso Co. Ltd., DORST Technologies GmbH & Co. KG, American Isostatic Presses Inc., and Shanxi Golden Kaiyuan Co. Ltd.