# hardcoded credentials Published articles for hardcoded credentials. This is one page of public article previews, not the complete archive. Follow Next page to continue. Summaries are not the original full articles. ## Developer portal security and governance best practices DevFeed: [Developer portal security and governance best practices]() Original publisher: [Read original article]() Author: Jesse Wang Published: 2026-09-17T00:00:00Z Content type: article Language: en Sources: [Harness Blog]() Topics: [internal developer portal](), [Security](), [Access Control](), [Automation](), [audit](), [Vulnerabilities](), [Terraform](), [Deployment]() Tags: [access-control](), [auditability](), [automation](), [developer](), [governance](), [hardcoded-credentials](), [internal-developer-portal](), [microservices](), [security](), [security-compliance]() ### AI overview This article presents security and governance practices for internal developer portals. It focuses on role-based access control, automated audit logging, centralized visibility, software catalog governance, and reducing risks from infrastructure drift and workflow sprawl. ### Source excerpt Enhance developer portal security, compliance, and auditability without slowing down engineering teams. See how Harness helps simplify IDP governance. | Blog ## How to Build an Endpoint Data Loss Prevention Strategy for Your Development Team DevFeed: [How to Build an Endpoint Data Loss Prevention Strategy for Your Development Team]() Original publisher: [Read original article]() Author: Alex Tray Published: 2026-09-15T21:03:09Z Content type: tutorial Language: en Sources: [freeCodeCamp Programming Tutorials: Python, JavaScript, Git & More]() Topics: [data loss prevention](), [Development](), [Access Control](), [data]() Tags: [access-control](), [cybersecurity](), [cybersecurityawareness](), [data-loss-prevention](), [data-protection](), [database](), [development](), [encryption](), [endpoint-security](), [hardcoded-credentials](), [it-security](), [net-conf](), [remote-access](), [secrets](), [sensitive-data](), [web-development]() ### AI overview A tutorial for development teams on building endpoint data loss prevention strategies. It covers auditing laptops for secrets and sensitive data, removing unnecessary copies, rotating exposed credentials, and establishing access controls. ### Source excerpt A developer's laptop holds more sensitive data than most people realize: API keys, database credentials, staging environment secrets, and sometimes entire copies of production data pulled down "just f ## Managing Environment Variables and Secrets in DevOps DevFeed: [Managing Environment Variables and Secrets in DevOps]() Original publisher: [Read original article]() Author: Pramodh Kumar M Published: 2026-08-01T13:00:47Z Content type: tutorial Language: en Sources: [Kubernetes - KodeKloud Blog | DevOps, Cloud, Kubernetes, AI Tutorials & More]() Topics: [DevOps](), [configuration](), [GitGuardian](), [GitHub](), [Terraform](), [Kubernetes]() Tags: [ci-cd-secrets-management](), [cloud](), [collaboration](), [collaboration-tools](), [configuration](), [container](), [crash](), [devops](), [devsecops](), [dynamic-secrets](), [env-file-security](), [environment-variables](), [gitguardian](), [github](), [hardcoded-credentials](), [hashicorp-vault](), [jira](), [kubernetes](), [kubernetes-secrets](), [leak](), [managing-environment-variables-and-secrets](), [rotation](), [safety](), [sealed-secrets](), [secret-rotation](), [secret-scanning](), [secrets](), [secrets-management-best-practices](), [security](), [storage](), [terraform](), [vault]() ### AI overview A guide to managing environment variables and secrets in DevOps. It explains how secrets escape through repositories, processes, crash reports, containers, collaboration tools, Kubernetes Secrets, and Terraform state, and discusses storage, access controls, lifecycles, and rotation. ### Source excerpt Nearly 29 million secrets were pushed to public GitHub in a single year, and most teams still discover their own leaks by accident. Here is how environment variables actually escape, and what to use instead at each stage. ## Automating Identity and Access for FedRAMP 20x KSIs with Teleport DevFeed: [Automating Identity and Access for FedRAMP 20x KSIs with Teleport]() Original publisher: [Read original article]() Author: info@goteleport.com (Nicolas Morris) Published: 2026-06-17T00:00:00Z Content type: tutorial Language: en Sources: [Teleport]() Topics: [audit trail](), [identity and access management](), [Logging](), [Monitoring](), [Security](), [CI/CD](), [Cloud]() Tags: [audit-trail](), [ci-cd](), [credentials](), [fedramp](), [fedramp-20x](), [hardcoded-credentials](), [identity-and-access-management](), [logging](), [monitoring](), [security]() ### AI overview This article explains how FedRAMP 20x changes identity and access compliance toward persistent validation using machine-readable evidence. It describes how unified identity management and audit trails can help address gaps in machine-to-machine authentication and continuous KSI validation. ### Source excerpt Learn how to automate identity and access for FedRAMP 20x KSIs with a unified audit trail for identities, access, and persistent evidence. ## From 750 Hours to 2 Hours: AI-Powered Security Triage at Razorpay DevFeed: [From 750 Hours to 2 Hours: AI-Powered Security Triage at Razorpay]() Original publisher: [Read original article]() Author: Prathamesh Joshi Published: 2026-06-09T14:56:35Z Content type: article Language: en Sources: [Razorpay Engineering - Medium]() Topics: [Security](), [Artificial Intelligence](), [Vulnerabilities](), [Architecture & Design](), [Code](), [API](), [GitHub](), [Sanitization](), [API keys]() Tags: [ai](), [api](), [architecture](), [code](), [credentials](), [github](), [hardcoded-credentials](), [sast](), [security](), [vulnerabilities]() ### AI overview Razorpay describes an AI-powered security triage system built to reduce the manual workload caused by large volumes of SAST, dependency, and secret-detection alerts. Its first live layer retrieves issue context, source code, data flows, and sanitization logic to distinguish genuine vulnerabilities from false positives, with reported accuracy of 75-80%. ### Source excerpt Co-authors: Mahlaqahaque Mh, Keertiv, Hari Prasad Pujari How we taught AI to read code like a senior security engineer Every day, Razorpay engineers ship thousands of lines of code. Every line births new security findings. SAST scanners flag suspicious patterns. Dependency checkers find vulnerable libraries. Secret detection tools catch hardcoded credentials. The alerts pile up. Hundreds become thousands. The backlog becomes noise. We hit a breaking point. Developers faced security ticket counts climbing into the thousands, with most of them turning out to be false positives. The classic "alert that cried wolf" scenario played out daily. When everything is marked critical, nothing is. Developers stopped trusting security findings altogether. Security engineers weren't having a better time. Validating issues manually while fielding constant ad-hoc requests from frustrated developers. Trying to stop a waterfall with a teaspoon. The human bottleneck became the limiting factor in our security posture. The core problem was simple. Traditional static analysis tools excel at finding patterns that might be vulnerabilities. They lack context. They can't distinguish between a properly sanitized SQL query and a vulnerable one. Between a test API key and a production secret. Between a dangerous data flow and one protected by business logic. For every 10 alerts, 7-8 were false positives. Manual triage became the bottleneck. Security couldn't scale with engineering velocity. That's when we built what we call the Autonomous Security Special Ops system. An AI-powered engine that handles the heavy lifting so humans can focus on what actually matters. The Three-layer Intelligence System Rather than throwing more human hours at the problem, we built an AI architecture operating in three layers. L1: Context-Aware AI Triage (Live). Our intelligent first responder. Powered by 29 specialized sub-skills , it reads code context like a senior security engineer. When a SAST finding lands, L1 ## TP-Link Tapo C200: Hardcoded Keys, Buffer Overflows and Privacy in the Era of AI Assisted Reverse Engineering DevFeed: [TP-Link Tapo C200: Hardcoded Keys, Buffer Overflows and Privacy in the Era of AI Assisted Reverse Engineering]() Original publisher: [Read original article]() Author: Simone Margaritelli Published: 2025-12-17T23:00:00Z Content type: article Language: en Sources: [evilsocket]() Topics: [Reverse Engineering](), [Vulnerabilities](), [Security](), [Embedded Systems](), [Android](), [Amazon Web Services]() Tags: [ai](), [ai-assisted-reverse-engineering](), [android](), [assembly](), [aws](), [china](), [cve](), [cve-2025-14299](), [cve-2025-14300](), [cve-2025-8065](), [cybersecurity](), [embedded-devices](), [embedded-systems](), [exploit](), [firmware](), [ghidra](), [ghidramcp](), [hardcoded-credentials](), [integer-overflow](), [iot](), [iot-security](), [memory](), [mips](), [privacy](), [re](), [reverse-engineering](), [reversing](), [security](), [security-research](), [security-vulnerabilities](), [tapo-c200](), [tapo-camera](), [tp-link](), [tplink](), [vulnerability-research]() ### AI overview This article describes an AI-assisted reverse-engineering investigation of TP-Link Tapo C200 camera firmware. The author reports finding several security vulnerabilities affecting about 25,000 devices directly exposed on the internet, and discusses the tools and process used. ### Source excerpt Hi friends and welcome to the last post for this year! Whenever someone asks me how to get started with reverse engineering, I always giv ## Unpacking VStarcam Firmware Updates and Examining Their Security Issues DevFeed: [Unpacking VStarcam Firmware Updates and Examining Their Security Issues]() Original publisher: [Read original article]() Author: Wladimir Palant Published: 2025-12-15T14:19:22Z Content type: tutorial Language: en Sources: [Almost Secure]() Topics: [Security](), [Embedded Software Dev](), [Vulnerabilities](), [Compression](), [Zip](), [Python]() Tags: [compression](), [credentials](), [devices](), [firmware](), [hardcoded-credentials](), [python](), [security](), [zip]() ### AI overview This technical article examines VStarcam camera firmware in the context of documented security issues and the lack of clear information about firmware versions, updates, and fixes. It documents multiple firmware branches and update formats, including incremental updates packed as sequences of ZIP files, and describes Python-based methods for unpacking them. ### Source excerpt One important player in the PPPP protocol business is VStarcam. At the very least they've already accumulated an impressive portfolio of security issues. Like exposing system configuration including access password unprotected in the Web UI (discovered by multiple people independently from the look of it). Or the open telnet port accepting hardcoded credentials (definitely discovered by lots of people independently). In fact, these cameras have been seen used as part of a botnet, likely thanks to some documented vulnerabilities in their user interface. Is that a thing of the past? Are there updates fixing these issues? Which devices can be updated? These questions are surprisingly hard to answer. I found zero information on VStarcam firmware versions, available updates or security fixes. In fact, it doesn't look like they ever even acknowledged learning about the existence of these vulnerabilities. No way around downloading these firmware updates and having a look for myself. With surprising results. First of all: there are lots of firmware updates. It seems that VStarcam accumulated a huge number of firmware branches. And even though not all of them even have an active or downloadable update, the number of currently available updates goes into hundreds. And the other aspect: the variety of update formats is staggering, and often enough standard tools like binwalk aren't too useful. It took some time figuring out how to unpack some of the more obscure variants, so I'm documenting it all here. Warning: Lots of quick-and-dirty Python code ahead. Minimal error checking, use at your own risk! Contents ZIP-packed incremental updates VStarcam pack system VeePai updates Ingenic updates LZO-compressed partitions Ingenic's jzlzma compression Exotic Ingenic update But what about these security issues? ZIP-packed incremental updates These incremental updates don't contain an image of the entire system, only the files that need updating. They always contain the main application ## Intel Outside: Hacking every Intel employee and various internal websites DevFeed: [Intel Outside: Hacking every Intel employee and various internal websites]() Original publisher: [Read original article]() Author: Eaton Published: 2025-08-18T14:15:43Z Content type: article Language: en Sources: [Eaton Works Feed]() Topics: [Hacking](), [intel](), [hardcoded credentials](), [Vulnerabilities](), [Security](), [Exploit](), [Encryption](), [Authentication](), [Angular](), [Azure]() Tags: [angular](), [authentication](), [azure](), [credentials](), [encryption](), [exploit](), [hacking](), [hardcoded-credentials](), [intel](), [security-vulnerabilities]() ### AI overview This security investigation describes vulnerabilities in several internal Intel websites. The issues included bypassing corporate login controls, exploiting easily decryptable hardcoded credentials, and using client-side modifications to access employee and supplier information. ### Source excerpt Hardcoded credentials, pointless encryption, and generous APIs exposed details of every employee and made it possible to break into internal websites.