Tag: Medical Devices

Recently 70-year-old Burke Porter Group rebranded as Ascential Technologies, uniting 18 brands across medical & life sciences, transportation, and specialty Industrial end markets. The company’s mission is to play an “Ascential” role for customers throughout the product life cycle, especially when quality and safety matter most.

We had the opportunity to sit down with Jeffrey Moss, who assumed the role of CEO at Ascential Technologies a little over a year ago. During our conversation, we discussed the company’s strategic direction, its commitment to innovation, and the key drivers fueling its future growth.

Jeff, please introduce yourself to our audience and tell us about your professional trajectory that led to your current role as CEO of Ascential Technologies.

With more than 30 years in the industry, I’ve been fortunate to have worked in various strategic and leadership positions that have shaped my career. Over the years, I have helped build robust global infrastructures and successful teams in advanced manufacturing technologies like robotics, automation, laser processing, material handling, and more. I developed my entrepreneurial spirit early in my career, working in industries ranging from automotive and aerospace to telecommunications. These experiences prepared me for my current role to lead Ascential Technologies into a future defined by innovation, customer dedication, and market success.

Can you tell us about the rebranding process from Burke Porter Group to Ascential Technologies?

Our new brand, Ascential Technologies, reflects the essential role we play in helping customers across the entire product lifecycle in situations where quality and safety matter most. The new brand simplifies our message to the market and reflects our continued commitment to innovation, technology, and excellence. Our 18 brands are now divided into three divisions.

Burke Porter division serves the Transportation Industry, expanding on our 70 years of innovation. This division stands as an industry pioneer and leader in end-of-line testing and laboratory dynamometers and boasts thousands of installations worldwide. The division’s expertise now extends to encompass a broader spectrum of mobility solutions. This includes onboard diagnostic (OBD) consultation and verification, precision machining for production processes, lifecycle testing services, propulsion module assembly balance, and test automation, as well as a range of aftermarket products such as ADAS (Advanced Driver Assistance Systems) calibration services, the foundation of which lies in data and analytics.

To Know More, Read Full Interview@ https://ai-techpark.com/aitech-interview-with-jeffrey-moss/

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The Internet of Things (IoT) represents one of the most significant technological evolutions of our time. With the proliferation of connected devices, from home appliances to complex industrial machinery, IoT has seamlessly integrated into the fabric of our daily lives. This integration has not come without its challenges, particularly in terms of security.

As IoT devices become more ubiquitous, they also grow in complexity. The sensors, connected medical devices, and critical infrastructure systems we rely upon every day are now composed of countless components sourced from an increasing number of providers. This complexity is not just a matter of physical parts but extends deeply into the software that powers these devices.

Amidst this complexity lies a significant concern: data security. Many IoT devices manage data within corporate control environments, but this data is often sensitive and proprietary. The marketplace, unfortunately, is rife with misinformation and misunderstandings, leading to valid concerns about unauthorized access, data breaches, and privacy violations. These concerns are well-founded, as the potential risks include vulnerabilities in critical medical devices, connected vehicles, and key infrastructure systems, which could have significant impacts if exploited.

The Intricacies of IoT Device Software Supply Chains

Embedded devices, which form a substantial part of the IoT ecosystem, consist of intricate layers of third-party software. Unlike cloud or web software, these devices often include proprietary software from various hardware components, making the supply chain more complex and opaque. This complexity is compounded by the fact that these hardware components often come with less available public information than, for example, open-source projects on GitHub. This scenario demands a high level of software transparency, especially given the slower and less frequent update cycles in realms requiring device recertification.

The Critical Need for Software Transparency in IoT

Software transparency in IoT is not merely a best practice; it is a necessity. The complexity and opacity of embedded device supply chains make it nearly impossible to effectively assess and manage security risks without a clear understanding of the software components within these devices. This transparency becomes crucial in light of recent regulatory pushes focusing on IoT and embedded system security, such as the European Union Cyber Resilience Act (EU CRA) and the NIST Cyber Trust Mark.

The future of IoT security is a collaborative effort, one that requires manufacturers, software developers, and security experts to work together. It involves not only implementing robust security protocols but also embracing transparency at every stage of the development and deployment process. As we continue to invest in standards like SBOMs and VEX, and collaborate with industry leaders, we are paving the way for a future where IoT devices are not just functionally robust but also secure and transparent.

To Know More, Read Full Article @ https://ai-techpark.com/enhancing-iot-security-through-software-transparency/

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