The New Face of Manufacturing

whitePaper | October 11, 2022

Identifying problems before they cause equipment failure and costly, unplanned downtime is the purpose of proactive and predictive maintenance programs. And one of the most reliable ways of catching problems before they become failures is to detect when a piece of equipment is beginning to operate outside of its normal parameters – especially if it is beginning to run too hot or too cold. Variations from normal heating are often the first signs of impending equipment failure, so frequent thermal inspections of critical equipment such as motors, belts, and drives not only helps extend the life of these assets, but keep your entire operation up and running normally

whitePaper | June 28, 2022

Enhancing product development using HPE systems powered by AMD EPYC processors with AMD 3D V-Cache technology

whitePaper | October 23, 2021

Artificial Intelligence (AI) will increase the level of intelligence in the manufacturing industry by promoting, inter alia, the matching of production and demand, improving quality inspection, increasing product yield, reducing product failure rates, and improving production efficiency.1 While the last decade of Industry 4.0 was determined by technology-driven innovation, the coming years will focus on data- and intelligence-driven innovation. In this perspective, AI is an enabler for the transition from smart factories towards intelligent factories with self-optimising and self-healing characteristics. While smart factories are capable of applying previously acquired knowledge, intelligent factories will be able to autonomously acquire new knowledge and apply it for self-optimisation purposes.

whitePaper | March 17, 2023

In today’s world, manufacturers still depend heavily on the working hands of people. The skills that are in demand are extremely repetitive and potentially dangerous. With the added effect of current labor struggles, keeping talent in this environment is difficult to maintain. According to The Workforce Institute at UKG, 4 in 5 U.S. manufacturers are having difficulty keeping up with demand due to staff shortages and supply constraints1 . In real time, if a skilled worker decides not to come to work, eight hours of production time is wasted. These losses can be catastrophic for small to mid-sized manufacturers trying to keep up with demand while also attempting to outcompete global competitors.

whitePaper | June 6, 2021

Three-dimensional (3D) printing is a powerful technology that has wide-ranging applications, including many in the pharmaceutical industry. Among the approaches that are being explored in the production of pharmaceutical dosage forms powder-based systems which utilize either drop-on-powder or selective laser sintering and liquid-based systems which use dropon-drop deposition or stereolithography are frequently applied. With liquid-based technology, either UV, laser energy or high temperature is used to induce polymerization and build the 3D structure.1 The process of 3D printing offers the potential to produce medications tailored to the needs of patients and dosage forms in various shapes, sizes and textures with different release profiles that can be difficult to produce using conventional techniques.2

whitePaper | September 12, 2022

Three-dimensional (3D) printing of complex applications and machine components is a reality. 3D printing offers the ability to produce rapidly and at low cost both industrial-scale runs of high-value parts and one-of-a-kind parts. Now, with an advanced technology for metal parts, HP continues to reinvent the design, production, and distribution of 3D-printed parts to drive the digital transformation of manufacturing with the most advanced 3D metals printing technology for mass production: HP Metal Jet.