cybersecurity

Explore IoT security solutions with insights into the threat landscape, secure architectures, and best practices for engineers building resilient connected systems.

IoT Security Solutions: Threat Landscape, Architecture, and Engineering Best Practices

Understanding the signal names, numbering schemes, electrical limits and software control of the Raspberry Pi 5 general purpose input/output (GPIO) header empowers hardware and digital design engineers to build robust embedded solutions.

Raspberry Pi 5 GPIO Pinout: Theory and Practice for Engineers

The Raspberry Pi Zero 2W features a quadcore 64 bit processor and builtin wireless in a tiny footprint. Its 40 pin header provides engineers with a flexible interface for embedded applications. This guide explores the theory behind the pinout and offers practical guidance for learners.

Raspberry Pi Zero 2 W Pinout: Comprehensive Guide for Engineers

A comprehensive guide to half adder circuits for engineers and technical learners. Learn the theory behind half adders, explore truth tables, logic expressions, K maps, implementations with Logic gates, TTL/CMOS ICs, Verilog modelling, propagation delays, design strategies, and applications.

Half Adder Circuit—Theory, Design, and Implementation

Head Engineer monitoring plant data using SCADA, through HMI

Understanding the differences between Modbus RTU and Modbus TCP/IP is essential for designing reliable and scalable control systems. This indepth guide compares the serial and Ethernet variants of the Modbus protocol, explains their strengths and weaknesses, and provides practical advice for engine

Modbus RTU vs TCP: A Comprehensive Comparison of Industrial Protocols

Discover key differences in GDDR6 vs GDDR6X memory: compare bandwidth, power efficiency, signaling methods, and design trade-offs for advanced GPU architectures.

GDDR6 vs GDDR6X: A Comprehensive Technical Comparison for Digital Design & Hardware Engineers

A comprehensive technical comparison of low-pass and high-pass filters, covering how each works, practical circuit implementations, and when to use them in electronics and signal processing.

Low Pass Filter vs High Pass Filter – Theory, Design, and Applications

An insight into one of the most futuristic designs for power, data transfer, and communication. Find out the essentials of USB-C type pinout, its use cases, architecture, and implementation in modern computing devices

USB-C Pinout In Depth: A Comprehensive Technical Guide for Engineers

This article explores a vital power-saving technique in digital design, covering core concepts, implementations, and the differences between fine-grained, coarse-grained, and software-controlled methods. Learn why clock gating is crucial for energy efficiency, its applications in diverse systems.

Clock Gating: Powering Down Idle Circuits

A comprehensive technical analysis comparing High Bandwidth Memory 2 (HBM2) and GDDR6 memory architectures, examining architectural differences, performance metrics, and system integration considerations. Essential reading for system architects working with high-performance computing systems.

HBM2 vs GDDR6: Engineering Deep Dive into High-Performance Memory Technologies

This article explores the principles behind optical encoders, their types, and their advantages, highlighting how they enhance performance, ensure accuracy, and meet demanding standards in complex control environments.

Optical Encoder Technology: Advanced Guide to Precision Motion Control Systems

Delve into the basics of absolute encoders, its applications, advancements in technologies, calibration techniques, and the advantages over encoder types.


Absolute Encoder: Precision Positioning in the Digital Age

Harnessing cutting-edge technology to optimize energy efficiency, comfort, and security in modern buildings

Building Management: The Power of Building Automation Systems

As quantum computers advance, they are expected to be able to break tried-and-true security schemes that currently keep most sensitive data secure from attackers. Scientists and policymakers are working to design and implement post-quantum cryptography to defend against these future attacks.MIT researchers have developed an ultra-efficient microchip that can bring post-quantum cryptography techniques to wireless biomedical devices, like pacemakers and insulin pumps. Such wearable, ingestible, or implantable devices are usually too power-constrained to implement these computationally demanding security protocols.Their tiny chip, which is about the size of a very fine needle tip, also includes built-in protections against physical hacking attempts that can bypass encryption to steal user data, such as a patient’s social security number or device credentials. Compared to prior designs, the new technology is more than an order of magnitude more energy-efficient.In the long run, the new chip could enable next-generation wireless medical devices to maintain strong security even as quantum computing becomes more prevalent. In addition, it could be applied to many types of resource-constrained edge devices, like industrial sensors and smart inventory tags.“Tiny edge devices are everywhere, and biomedical devices are often the most vulnerable attack targets because power constraints prevent them from having the most advanced levels of security. We’ve demonstrated a very practical hardware solution to secure the privacy of patients,” says Seoyoon Jang, an MIT electrical engineering and computer science (EECS) graduate student and lead author of a paper on the chip.Jang is joined on the paper by Saurav Maji PhD ’23; visiting scholar Rashmi Agrawal; EECS graduate students Hyemin Stella Lee and Eunseok Lee; Giovanni Traverso, an associate professor of mechanical engineering at MIT, a gastroenterologist at Brigham and Women’s Hospital, and an associate member of the Broad Institute of MIT and Harvard; and senior author Anantha Chandrakasan, MIT provost and the Vannevar Bush Professor of Electrical Engineering and Computer Science. The research was recently presented at the IEEE Custom Integrated Circuits Conference.Stronger securityA large percentage of wireless biomedical devices, like ingestible biosensors for health monitoring, currently lack strong protection due to the computational demands of existing security protocols, Jang says.But the complexity of post-quantum cryptography (PQC) can increase power consumption by two or three orders of magnitude.Implementing PQC is of paramount importance, since regulatory bodies like the National Institute of Standards and Technology (NIST) will soon begin phasing out traditional cryptography protocols in favor of stronger PQC algorithms. In addition, some industry leaders believe rapid advances in quantum hardware make <a href="https://thequantuminsider.com/2026/03/25/google-shortens-timeline-for-quantum-safe-encryption-transition/" target="_blank">PQC implementation even more urgent</a>.To bring these power-hungry PQC protocols to wireless biomedical devices, the MIT researchers designed a customized microchip, known as an application-specific integrated circuit (ASIC), that greatly reduces energy overhead while guaranteeing the highest level of security.“PQC is very secure algorithmically, but making a device resilient against physical attacks usually requires additional countermeasures that pump up the energy consumption at least two or three times. We want our chip to be robust to both security threats in a very lightweight manner,” Jang says.A multi-pronged approachTo accomplish these goals, the researchers incorporated several design features into the chip.First, they implemented two different PQC schemes to enhance robustness and “future-proof” their device in case one scheme is later proven to be insecure. To boost energy efficiency, they applied techniques that enable the PQC algorithms to share as much of the chip’s computational resources as possible.Second, the researchers designed a highly efficient, on-chip true random number generator. This device continually generates random numbers to use for secret keys, which is essential to implement PQC.Their on-chip design improves energy efficiency and security over standard approaches that usually receive random numbers from an external chip.Third, they implemented countermeasures that prevent a type of physical hacking attempt, called a power side-channel attack, but only on the most vulnerable parts of the PQC protocols.In power side-channel attacks, hackers steal secret information by analyzing the power consumption of a device while it processes data. The MIT researchers added just enough redundancy to the PQC operations to ensure the chip is protected from these types of attacks.Fourth, they designed an early fault-detection mechanism so the chip will abort operations early if it detects a voltage glitch.Wireless biomedical devices often have erratic power supplies, so they are susceptible to glitches that can cause an entire security procedure to fail. The MIT approach saves energy by stopping the chip from running a doomed procedure to completion.“At the end of the day, because of the techniques we utilized, we can apply these post-quantum cryptography primitives while adding nothing to the overhead, with the added benefit of robustness to side-channel attacks,” Jang says.Their device achieved between 20 to 60 times higher energy efficiency than all other PQC security techniques they compared it to, with a more compact area than many existing chips.“As we transition into post-quantum approaches, providing strong security for even the most resource-limited devices is essential. This work shows that robust cryptographic protection for biomedical and edge devices can be achieved alongside energy efficiency and programmability,” says Chandrakasan.In the future, the researchers want to apply these techniques to other vulnerable applications and energy-constrained devices.This research was funded, in part, by the U.S. Advanced Research Projects Agency for Health.

Ultra-efficient chip design enables extremely strong cryptography algorithms to run on energy-constrained edge devices.

New chip can protect wireless biomedical devices from quantum attacks

Platform Integrity must be an essential design priority to ensure data protection.


IoT Platform Security Basics and Essentials

A critical flaw in random number generators puts the security of billions of low-cost IoT devices at risk. This means a new approach for generating random numbers is needed, which can be found in extracting entropy from SRAM behaviour. This only requires a software installation, meaning the security systems of billions of devices can be patched without the need to make hardware changes, even in devices that have already been deployed.Every day brings news of attacks on devices connected to the Internet of Things (IoT). The number of connected devices in the IoT is rapidly increasing, and the number of attacks on these devices is growing at an even more explosive rate.In the first half of 2021, the number of attacks on IoT devices has <a href="https://threatpost.com/iot-attacks-doubling/169224/" rel="noopener noreferrer" target="_blank">more than doubled to 1.5 billion attacks</a> in just six months. Some are high-profile attacks, that gain a lot of media attention, like the <a href="https://www.bloomberg.com/news/articles/2021-06-04/hackers-breached-colonial-pipeline-using-compromised-password" rel="noopener noreferrer" target="_blank">Colonial Pipeline hack</a> or new <a href="https://www.theregister.com/2021/08/25/mirai_botnet_critical_vuln_realtek_radware/" rel="noopener noreferrer" target="_blank">botnet attacks</a> in the spirit of Mirai. But there have also been countless attacks on very personal devices such as <a href="https://www.wired.com/story/kalay-iot-bug-video-feeds/" rel="noopener noreferrer" target="_blank">baby monitors</a> and even <a href="https://money.cnn.com/2017/01/09/technology/fda-st-jude-cardiac-hack/" rel="noopener noreferrer" target="_blank">cardiac devices</a>.There are some typical areas of weakness in IoT devices that are exploited frequently. Examples like weak passwords, lack of regular patches and updates, insecure interfaces, and insufficient data protection are all too common when it comes to these attacks. However, researchers from Bishop Fox have recently identified a new critical vulnerability of IoT devices that might not be obvious to many of us. Their <a href="https://labs.bishopfox.com/tech-blog/youre-doing-iot-rng" rel="noopener noreferrer" target="_blank">recent study</a> shows that hardware random number generators (RNGs) used in billions of IoT devices fail to provide sufficient entropy.<h2>The use of random number generators</h2>Protecting IoT connected devices, their communications, and their data requires the implementation of cryptographic systems on these typically low-cost devices. An important building block for these systems is an RNG. Random numbers are important, because for most cryptographic protocols they provide the required unpredictability to fend off potential attackers. For example, encryption keys are created from random numbers to make it impossible for an attacker to guess these keys and break the encryption.There are two main ways to create random numbers on a device. In the first approach, random numbers are generated by a truly random physical source on the device that provides enough randomness to serve all cryptographic protocols that need to run on a device.However, a relatively large number of random bits are required for most typical security purposes, and there are very few sources that can meet this requirement.The second way to generate random numbers is to combine a truly random source with a limited random-bit output with a cryptographically secure (deterministic) algorithm that can generate many random bits based on the limited amount of entropy of the physical source. Here, the physical source is used to provide a truly random seed, which is then used as input for a deterministic algorithm that generates many random bits.<h2>The problem: predictable secrets</h2>The study by Bishop Fox shows that there is a critical vulnerability in RNGs used in billions of IoT devices. In these devices the physical source fails to generate sufficient entropy, which leaves the deterministic algorithm with too little randomness to create a strong random output. This compromises the entire RNG solution and puts the devices at risk of attacks, as the random numbers employed become “guessable.” When random numbers become predictable, the foundation of many cryptographic algorithms is severely compromised. Secret keys will lose their strength, leading to broken encryption.This needs a new way to solve this problem of insufficient entropy using the typically limited resources of IoT devices. And we need to find a way to implement this solution not only in new IoT devices, but in IoT devices already in the field.<h2 id="isPasted">The solution: SRAM as a NIST-certified source of sufficient entropy</h2>The solution is to use SRAM as a NIST-certified source of sufficient entropy.&nbsp;It turns out that a component that is present on virtually any device, even the ones with limited resources, can be utilized as a physical source of randomness: the SRAM memory.Whenever a chip is powered, its SRAM fills with a random pattern of 0s and 1s. This powerup pattern is unique for that specific chip and can be used as a device identifier, a known principle which is called a <a href="https://www.intrinsic-id.com/physical-unclonable-function/" rel="noopener noreferrer" target="_blank">Physical Unclonable Function (PUF)</a>. However, every individual powerup of the same chip has a certain amount of noise – unstable bits – in this unique pattern. Research from Intrinsic ID has shown that by harvesting this noise in the powerup behavior it is possible to extract sufficient entropy to create a strong seed that can be used as the basis for an RNG solution. Given that SRAM is part of most chips, extracting entropy from something that is already available has great cost advantages, as no additional hardware is required.Intrinsic ID has used this concept in <a href="https://www.intrinsic-id.com/products/zign-rng/" id="isPasted" target="_blank">Zign™ RNG</a>, which has successfully completed the RNG certification process by an independent accredited laboratory according to the NIST SP 800-90 standard defined by the National Institute of Standards and Technology (NIST). The true random seed of Zign RNG is harvested from the noise in SRAM using a construction that follows the NIST SP 800-90B specification, while the deterministic algorithm for increasing the number of available random bits is implemented as specified in NIST SP 800-90A.The result is a solution for generating random numbers that is both cryptographically secure as well as low-cost, which makes it perfectly suited for the rapidly growing IoT. And most importantly, Zign RNG is implemented completely in software, making it the only hardware entropy source that does not need to be loaded at silicon fabrication. Zign RNG software can be installed later in the supply chain, and even retrofitted on already-deployed devices. This enables a never-before-possible “brownfield” deployment of a cryptographically secure, NIST-certified RNG.For more information about Zign RNG, please visit the <a href="https://www.intrinsic-id.com/products/zign-rng/" id="isPasted" target="_blank">product’s webpage</a>. Further explanation of the technology behind the product can be found in <a href="https://www.pufcafe.com/puf-cafe-episodes/#Episode6" target="_blank">this webinar</a> on the topic.

A critical flaw in random number generators puts the security of billions of low-cost IoT devices at risk. This means a new approach for generating random numbers is needed, which can be found in extracting entropy from SRAM behaviour.

An Unexpected IoT Problem: Not Enough Randomness

Semiconductor designs operate under tightly coupled constraints. Device physics, fabrication processes, circuit behavior, layout limitations, and long-term reliability all interact within the same system. A change in one area rarely remains isolated. It quickly influences the rest, like a spiderweb; when you move one node, you always move the entire web somewhat.Engineering progress, therefore, depends less on maximizing a single parameter and more on maintaining balance across the system. This complexity does not stop at the product. It extends into the company that builds it.A deep-tech company that intends to innovate over decades must be structured with similar discipline. Organizational capability, financial sustainability, and engineering expertise evolve together and must remain aligned.At SimpleChips, founder Alain R. Comeau describes this philosophy as Business Tai Chi.The idea reflects a simple principle. Tai Chi teaches that strength emerges from balance rather than force. Business Tai Chi applies the same logic to company building. Success comes from maintaining alignment between the forces that determine long-term resilience.Understanding this philosophy begins with how success itself is defined.<h2>Defining Success as a Balanced System</h2>Business Tai Chi begins with a simple but often overlooked question: What does business success actually mean?In many industries, success is typically expressed through a single dominant metric. Revenue growth, market share, or valuation become the primary reference points for strategic decisions.Deep-tech companies operate within a more complex set of dynamics. Engineering development cycles can span years. Knowledge accumulates gradually through experimentation, design iterations, and real-world deployment. The strength of the organization depends not only on financial performance but also on the expertise of its engineers and the continuity of the systems they develop.SimpleChips approaches success as a dynamically balanced system with three interconnected dimensions: financial sustainability, alignment of personal and organisational values, combined with continuous learning. The continuous flow between these three components and their contribution to the company growth provides a steady business momentum.<h3>1. Financial Sustainability</h3>The first dimension is financial stability. A company must be commercially viable in order to sustain its engineering work. Revenue and profitability provide the foundation that allows technical teams to focus on solving complex problems without constant disruption.Financial sustainability also protects independence. It gives the company the freedom to pursue technically meaningful work rather than reacting to short-term pressures. Being Self-funded and free of external investments, SimpleChips has fewer decision-making strings attached and thus has total freedom to control its destiny. Long-term objectives dominate the decisional landscape; quarter-to-quarter discussions are nonexistent.<h3>2. Personnel Alignment with Company Values</h3>Core Values: Integrity - Innovation - Quality - ServiceThe second dimension concerns values. Engineering organizations depend heavily on judgment and experience. Designers and system architects make decisions that influence reliability, safety, and long-term product performance. These decisions are strongest when backed by science and when the individuals making them believe in the principles guiding the company.At SimpleChips, this value alignment ensures that engineering work reflects a clear sense of purpose. Technical excellence combined with integrity remains central to how projects are approached, managed, and communicated. The company’s core values of Integrity, Innovation, Quality, and Service are very well served by this alignment.<h3>3. Continuous Learning</h3>The third dimension is learning. Every semiconductor project expands understanding of devices, system behavior, and design constraints. These lessons accumulate over time and become a key source of competitive strength.Continuous learning improves future designs, deepens engineering expertise, and strengthens the organization’s ability to tackle increasingly complex challenges. Technical excellence is a demonstration of elevated learning.<h3>A Dynamic Balance</h3>When these three dimensions reinforce each other, the company maintains a stable dynamic center, optimal for moving forward. Financial sustainability supports engineering work (Movement). Value alignment strengthens commitment (Strength). Learning compounds into deeper technical capability (Intelligence). All these contribute to meeting deliverables and consequently to financial stability, closing the loop. This dynamic balance is the foundation of Business Tai Chi, allowing the organization to evolve steadily while remaining grounded in its principles.<h2>Values at the Center</h2>In Tai Chi practice, energy is maintained by keeping the movement intentional. Similarly, a business remains steadfast when its core principles are clear and consistent leading to actions alignment with values. At SimpleChips, values sit at the center of the organization, they shape how and why decisions are made, how opportunities are evaluated, and how the company defines its role in the market.Here, three principles stand out:The first is uniqueness. SimpleChips does not approach semiconductor design as a volume-driven exercise. Its work centers on technically demanding challenges where logic, deep understanding of physics, device behavior, and system interactions can create meaningful value. This orientation naturally leads the company toward specialized problems that reward depth rather than scale alone.The second is fearlessness. In this context, fearlessness is not about speed or bravado but rather about technical conviction. When the underlying science suggests a solution, the path deserves to be explored. This kind of thinking is especially important in complex semiconductor environments, where accepted assumptions do not always define the best solution.The third is independence. Ownership and leadership remain closely tied to the engineering vision of the company. This connection keeps decisions grounded in long-term technical reasoning rather than being controlled by short-term external pressures.These principles reflect M. Comeau’s broader approach to engineering and business. From <a href="https://www.wevolver.com/article/the-human-factor-revisited-engineering-from-first-principles" target="_blank">first-principles thinking</a> to a <a href="https://www.wevolver.com/article/simplechips-a-systems-first-approach-to-high-voltage-ic-design" target="_blank">systems-first view</a> of high-voltage IC design, this mindset shapes how SimpleChips itself is built: as a system that must be designed with a stable center, a clear structure, and well-defined relationships between its moving parts.<h2>Independence and Long-Term Engineering</h2>Business Tai Chi also shapes how independence functions within the company. Deep-tech engineering requires sustained focus over long development cycles. Solutions rarely appear immediately. They flow through iteration, accumulated insight, and careful judgment developed over time. Like a slow-moving Tai Chi artist, the products take form through the energy flow of the people creating it. Work of this kind benefits from organizational independence.SimpleChips has built its model around ownership, autonomy, and direct accountability. Leadership remains closely connected to the engineering work itself, and strategic decisions stay grounded in technical understanding rather than being swayed by external pressure.This structure matters in deep tech. When the people responsible for the engineering also shape the direction of the company, technical judgment remains central to decision-making. Difficult problems can be approached with patience, and solutions can be evaluated on their scientific and engineering merit.Organizational independence preserves the integrity and longevity of the engineering process and allows the organization to pursue technically meaningful work over long time horizons.<blockquote>“In deep technology, time reveals everything. The best solutions survive scrutiny. Companies should be built with the same long-term philosophy.” —Alain R. Comeau, Founder &amp; CEO/CTO at SimpleChips </blockquote><h2>Business Tai Chi: The Human Element</h2>One of the most direct principles behind the SimpleChips philosophy is simple: people are not consumable.In technical organizations, knowledge is carried by individuals but strengthened and remembered through collaboration. Teams accumulate shared experience across projects, customer relationships, develop common judgment about design trade-offs, and build the trust required to navigate difficult engineering decisions with all involved entities. That trust is the glue of success.Business Tai Chi recognizes this trust glues the company’s structure, keeping it in balance. Expertise is not treated as a replaceable input but as a capability that deepens over time.Having a cohesive team reinforces this effect. When engineers remain connected across projects, context is preserved and technical insight travels more effectively between problems. Lessons accumulate and strengthen the organization’s ability to approach new challenges with clarity.Over time, this continuity builds trust both internally and externally. It grows from shared experience, track record, and consistent evidence that technical judgment will be exercised with care. In industries where projects are complex and failure can be costly, that trust becomes a genuine business asset in its own right. When trust reaches and encompasses customers, you have established a seed of lasting credibility.<h2>Corporate-Life Tai Chi</h2>SimpleChips has applied first-principles thinking to engineering and business Tai Chi from the beginning. Its work in high-voltage IC design and ASICs has shown what happens when systems are understood deeply and built with discipline and momentum.Building the company as a system and maintaining balance across the forces that matter most is what has brought SimpleChips its success over its 20+ years of existence. Financial sustainability, value alignment, continuous learning, independence, and human expertise all need to work together to reinforce each other.That is the essence of Business Tai Chi. It gives language to something many engineering-led companies overlook or can’t structurally use. At SimpleChips, holding values firm at the center allows the rest of the system to adapt and move with greater clarity, energy, and purpose.This philosophy creates an environment favorable for the staff to be fully engaged in meaningful contributions. High achievers like challenges, and this unconventional company philosophy provides them with such opportunities.

Explore Business Tai Chi, a values-first model for deep-tech companies that balances financial sustainability, engineering learning, and team alignment to build resilient semiconductor innovation.

Business Tai Chi: Values-First Model for Operating a Deep-Tech Company

At Siemens Digital Industries Software’s booth at CES, the conversation focused on how digital twin technology is transforming engineering across industries. From manufacturing and mobility to energy and infrastructure, Siemens is helping teams design, simulate, and optimize smarter and faster.This booth walkthrough highlights how digital twins are turning complex challenges into real-world impact.

Where digital twins meet real-world engineering impact

Inside Siemens' CES Booth: Digital Twins Across Industries

Digital trust is breaking down. Fraud is escalating, identity systems are fragmented, and businesses are struggling to secure users without adding friction. At CES 2026, Monogoto and <a href="https://www.slc.digital/" target="_blank" rel="noopener external noreferrer">SLC Digital</a> came together for a fireside chat exploring how identity and connectivity must come together to rebuild digital trust.Moderated by Veena Dandapani, COO of SLC Digital, the conversation featured Travis McGregor, CEO of SLC Digital, and Maor Efrati, Co-founder and CTO of Monogoto. Together, they unpacked how connectivity continues to accelerate, while trust has not kept pace.The discussion centered around a powerful shift: moving identity and authentication closer to the network itself. By anchoring trust within the network, enterprises can verify not just users, but devices, locations, and context in real-time. This approach creates a stronger foundation for every interaction that depends on connectivity, reducing fraud, strengthening privacy, and eliminating friction for end users.<a href="https://monogoto.io/2025/12/11/slc-digital-and-monogoto-partner-to-deliver-secure-deterministic-identity-anchored-connectivity/" target="_blank" rel="noopener">Monogoto and SLC Digital are partnering</a> to bring this vision to life, combining global, software-defined connectivity with identity orchestration. Ensuring trust is part of the infrastructure, not an afterthought.Watch the full fireside chat to hear how together connectivity, identity, and regulation are shaping the next generation of digital trust.If you’re interested in learning how this can benefit your business, Monogoto and SLC Digital are offering personalized, post-CES demo sessions led by Travis McGregor and Maor Efrati. <a href="https://lp.monogoto.io/slc-digital-monogoto-demo" target="_blank" rel="noopener external noreferrer">Book yours today</a>!<iframe width="800" height="450" src="https://www.youtube.com/embed/uJ1bH9Jlq2w?feature=oembed&amp;enablejsapi=1&amp;origin=https://monogoto.io" frameborder="0"></iframe>

At CES, Monogoto and SLC Digital came together for a chat exploring how identity & connectivity must come together to rebuild digital trust.

The Future of Digital Trust: Where Connectivity Meets Identity

cybersecurity

Engineers Wiki. Most Asked Questions.

IoT Security Solutions: Threat Landscape, Architecture, and Engineering Best Practices

Raspberry Pi 5 GPIO Pinout: Theory and Practice for Engineers

Raspberry Pi Zero 2 W Pinout: Comprehensive Guide for Engineers

Half Adder Circuit—Theory, Design, and Implementation

Modbus RTU vs TCP: A Comprehensive Comparison of Industrial Protocols

GDDR6 vs GDDR6X: A Comprehensive Technical Comparison for Digital Design & Hardware Engineers...

Low Pass Filter vs High Pass Filter – Theory, Design, and Applications

ORGANIZATIONS. SHAPING THE INDUSTRY.

Intrinsic ID

THINC Lab

AdaCore

Quest Global

Aydo

TAGGED WITH encryption

New chip can protect wireless biomedical devices from quantum attacks

IoT Platform Security Basics and Essentials

An Unexpected IoT Problem: Not Enough Randomness

TAGGED WITH digital technology

IoT Security Solutions: Threat Landscape, Architecture, and Engineering Best Practices

Business Tai Chi: Values-First Model for Operating a Deep-Tech Company

Inside Siemens' CES Booth: Digital Twins Across Industries

The Future of Digital Trust: Where Connectivity Meets Identity