莱迪思博客

In early 2026, a quiet shift became impossible to ignore: artificial intelligence (AI) moved from helping defenders to operating like an attacker at scale. The cybersecurity community took notice when researchers revealed that an advanced AI system, known publicly as Claude Mythos Preview, was able to independently discover and exploit serious software vulnerabilities. Many of these weaknesses had existed for years in widely used operating systems and software, despite extensive testing and revi...

That question opens Lattice Semiconductor’s recent Security Seminar, and it becomes more urgent as humanoids move beyond research environments and begin operating around and interacting with people. Mechanical safeguards and functional safety standards address only part of the risk. When control systems, firmware updates, or data paths can be compromised, security directly determines physical safety. In this seminar, experts from Lattice Semiconductor, SEALSQ, and Promwad examine the real...

When it comes to making predictions, sometimes you really have to go out on a limb and sometimes, well, it’s pretty easy. In 2026, there’s zero doubt that AI, generative AI, and agentic AI will continue to be the key buzzwords driving the tech industry forward. Perhaps a bit less obvious is this year should also mark the beginnings of a growing opportunity in Edge AI, where AI-focused workloads can run in disconnected environments and/or locally on client type devices. The combinati...

The transition to post-quantum cryptography (PQC) is not a theoretical future event. It is the largest cryptographic migration in modern history, already shaping product roadmaps, standards bodies, and infrastructure planning across servers, AI datacenters, telecom, industrial automation, and critical systems. In this interview, we sat down with Mamta Gupta, a leader driving Lattice’s quantum-safe security strategy, to discuss Quantum Day (Q-Day) readiness, crypto-agility, Security Proto...

Our digital world is undergoing a profound transformation. Cloud computing, artificial intelligence (AI) and machine learning (ML) workloads, as well as the emergence of quantum computing capabilities, are reshaping how networks must be protected and secured. What’s more, these changes come amid evolving risks & regulations – from the prevalence of “harvest now; decrypt later” attacks, to updated standards like the Commercial National Security Algorithm Suite (CNSA) 2...

Each year, the Open Compute Project (OCP) Global Summit brings together the tech industry’s most innovative thinkers to discuss the current and future state of open hardware and software solutions. This year, Lattice and our ecosystem partners had the opportunity to showcase a range of our Field Programmable Gate Array (FPGA)-based solutions that help enable OCP-compliant development of datacenters, artificial intelligence (AI) solutions, and more. In case you missed the show, here’...

One of the more exciting developments now happening in the high-tech world is the work being done to enable quantum computing. After decades of theoretical discussion and development, the last few years have shown tangible progress in this radically different (and enormously complex) new method of computing. Quantum computers essentially perform calculations by flipping the electrical charge of individual atoms and allowing them to simultaneously exist in more than one state through a process ca...

Quantum computing is no longer just a concept confined to research labs. Thanks to rapid progress in both hardware and algorithms, the risk to today’s cryptographic systems is steadily increasing. In 2025, Google’s 105-qubit Willow chip and Microsoft’s Majorana 1 processor demonstrated that scalable quantum systems are moving closer to practical reality. Industry experts now predict that quantum computers capable of breaking RSA-2048 encryption could arrive as early as 2030 to ...

Building and maintaining connected digital ecosystems that account for today’s evolving cyber threat landscape requires a degree of hardware-based trust, as software-only security approaches are no longer sufficient to protect complex, distributed systems Luckily, today’s developers can reference a foundational example of hardware-based security that has existed for decades: the Trusted Platform Module (TPM). With over four billion TPM units deployed globally across a wide range of u...

服务器是现代计算基础设施的中坚力量。它们承载着敏感数据、AI模型以及核心工作负载，因此成为愈发复杂网络威胁的主要目标。随着服务器架构日益模块化、分布式发展，且集成多种CPU、网络接口卡、加速器、SCM模块等，加之企业对这些分布式系统的依赖不断加深，保障其安全的复杂性也随之成倍增加。 近期的攻击事件——例如利用Secure Boot漏洞或利用本地部署环境的零日漏洞——充分证明了平台级攻击如何绕过传统软件防线。这些威胁常通过固件植入与持久化攻击路径，悄然突破常规防御体系。相应地，监管框架与行业标准（包括CNSA 2.0、NIST 800-193和欧盟网络弹性法案）正日益要求采用强制的硬件安全措施，比如平台弹性、加密保障与安全生命周期管理。 要满足这些要求并抵御高级威胁，绝非易事。为系统开发者提供强大的硬件解决方案与安全最佳实践，可帮助企业构建具备弹性的服务器架构，从而支持安全、可扩展的计算环境。 服务器级安全面临哪些挑战？ 要打造具备弹性的基础设施，开发者必须解决影响服务器级安全的核心障碍。 这些持续演化的威胁，包括但不限于： ...