I am finding it difficult to manage my cloud networks across different locations. Keeping everything connected, secure and easy to update is a major challenge I face. My cloud network needs changes and it is getting hard for me to maintain a good performance while adding new resources, also I am also thinking about trying neevcloud. Now I want a solution that will help me create a cloud network that can adjust according to my business needs. What can be used to build flexible cloud networks that adapt as their needs change? EDIT: Thanks for the advice. Building around reusable patterns seems like the best long term approach.

GigaCloud has agreed to a $2.75 million settlement with investors and eligible shareholders can still submit late claims.

The settlement resolves claims that GigaCloud misled investors about the authenticity of its marketplace revenue and the use of artificial intelligence in its operations.

The case focused on allegations that GigaCloud presented itself as a fast-growing, AI-powered B2B e-commerce platform while failing to disclose that a significant portion of its revenue came from undisclosed related-party transactions involving insiders. After reports raised concerns about the company’s financial reporting, $GCT dropped nearly 19%, and investors filed a lawsuit.

If you purchased $GCT shares between 2022 and 2023, you may be eligible to submit a claim. Late claims are currently being considered, so check your eligibility here.

Not the demo. Not the pilot. The production deployment six months in.

I've been part of enough of these to notice the patterns. Here's what actually goes wrong, in order of how often it happens.

The process wasn't documented before the agent touched it. Everyone assumed the AI would figure out the workflow. It didn't, because the workflow lived in someone's head. The agent did something technically correct that was operationally wrong, and nobody caught it for three weeks.

The agent had too much permission from day one. Not because anyone was careless, but because scoping permissions felt like it would slow down the pilot. So the agent could touch things it never should have touched, and eventually it did.

Nobody decided who owns it when something goes wrong. The team that built it says it's an ops problem. Ops says it's an AI problem. The model gets blamed. The real issue is that nobody drew the accountability line before go-live.

The monitoring stopped at outputs. Teams tracked whether the agent completed the task. Nobody tracked whether the task should have been completed the way it was. Small errors compounded quietly for months before anyone noticed the pattern.

The success metric was usage, not outcomes. Someone measured how many times the agent ran. Nobody measured whether the business result improved. Six months in, the agent was running constantly and delivering marginal value.

None of these are model problems. Swapping to a better model fixes none of them. They're process and governance problems that happen to involve AI.

What's the failure mode you've run into that nobody warned you about?

Is the rise of cloud computing, the reason for the popularity of docker/vm?

Cloud risk used to be mostly uptime, cost, latency, vendor lock-in, and regional availability.

AI adds a messier layer.

If a product depends on frontier models, the real dependency map now includes:

• API availability
• release restrictions
• export controls
• model deprecations
• water and power constraints
• data-center politics
• fallback quality
• inference cost spikes

That means AI architecture is starting to look more like supply-chain planning than normal SaaS integration.

The mistake is treating "call the best model" as a durable architecture.

The better architecture probably needs routing, fallbacks, local modes, quality tests, and logs that explain why a model was used for a task.

Are teams actually planning for model unavailability, or are most AI products still one outage away from being exposed?

Been reading up on how Indian enterprises are approaching the DPDP Act from a technical standpoint, specifically around moving away from perimeter-based security toward a Zero Trust model on Azure. The core idea seems to be treating every access request as unverified by default rather than trusting anything inside a network perimeter, which maps fairly well to a lot of what the Act expects around consent handling, data minimisation, and breach reporting.

Curious what others here are seeing in practice — are teams actually re-architecting their identity and access setups for this, or is it more about layering on monitoring and hoping the existing setup holds up? Also wondering how this compares with how GDPR compliance was handled a few years back, since a lot of the language sounds similar but the enforcement structure seems different.

Found this write-up that goes into the specifics if anyone wants more detail: https://cloud9infosystems.in/dpdp-act-compliance-cloud-security-azure-zero-trust-india/

Cloud teams usually think about reliability as uptime, latency, failover, cost, and capacity.

AI is adding another layer: regulatory reliability.

If a model can become unavailable because of export controls, safety reviews, or national-security concerns, then production AI systems need to treat model access like any other dependency risk.

That means:

• fallback models
• multi-provider routing
• local inference where possible
• clear data boundaries
• degraded modes
• documented model replacement plans
• cost and latency tests before the emergency

The issue is not only "which model is best?"

It is "what happens to the product if that model is unavailable tomorrow?"

Cloud architecture for AI is starting to look less like API integration and more like supply-chain risk management.

Are teams taking model availability seriously enough as an infrastructure risk?

We're currently auditing our long-term archiving costs and looking for some architectural advice. Right now, we have about 4 PB of compliance data sitting on physical, aging magnetic tapes on-prem. It's deep cold storage, so reads are practically zero, but keeping the old hardware alive is getting expensive.

Moving all this to Azure Archive or AWS Glacier Deep Archive seems like the obvious choice for the long run. The catch is our local bandwidth. Trying to stream petabytes over our current pipe would drag down production for months.

Because a network migration is out of the question, I've been looking into physical mass-ingest alternatives. I was checking out how specialized operations like Tape Ark or physical bulk-ingest pipelines handle reading legacy media formats and uploading them directly to cloud buckets.

Has anyone used this kind of offline approach to completely decommission their on-prem tape setups? If you did it at this scale, did you hit any hidden formatting or index compilation issues once the data reached the cloud?

SoftBank announced SB Neo for US AI cloud services. Meta is reportedly exploring a cloud business to sell excess AI compute.

We currently send all blob.core.windows.net traffic on our internal network from our on-prem DC up to an Azure PDNS Zone via private link. We've recently had a requirement to send traffic out to public DNS for a single storage account that a supplier uses. Lets call it storage01.blob.core.windows.net for the sake of this question.
I want to avoid enabling the 'fallback to internet' feature on the Virtual Network link, is there a convenient way for me to route just the storage01 traffic out to public DNS using just the available settings on the PDNS Zone/VNET Link or do I have to eat my vegetables and do this on our DC (I also want to avoid that).

I've noticed that a lot of people starting their cloud journey struggle with AWS networking. Concepts like VPC Peering, Transit Gateway, route tables, and networking in general can be pretty confusing at first.

So I decided to start a series where I explain these topics in a beginner-friendly way, with diagrams and real-world examples.

The first article covers Transit Gateway vs VPC Peering—when to use each, the trade-offs, costs, scalability, and common use cases.

I'd love to hear your feedback and suggestions on what networking topic I should cover next.

https://www.cloudarena.io/blog/transit-gateway-vs-vpc-peering

Hey everyone,

If you work with multi-cloud or tech/sales engineering, you know the pain. Every time you need to map equivalent VMs or check specific managed Kubernetes limits between AWS, Azure, and GCP, you end up with 20 open tabs of messy, outdated vendor documentation.

I got tired of doing this manually, so I decided to build a central reference handbook to save my own sanity: infraatlas.dev.

Full disclosure: I handled the data structure and technical logic based on my own cloud experience, but I used AI to help me spin up the frontend and accelerate the build.

What’s live on the site right now:

• Equivalent-SKU Finder: A quick way to map VMs/instances between the big three based on family and actual specs.
• Kubernetes Atlas: Side-by-side comparison of EKS vs AKS vs GKE (SLAs, node limits, etc.).
• GenAI Atlas: Mapping models, regions, and fine-tuning across Bedrock, Azure OpenAI, and Vertex AI.
• Toolbox: Just a clean list of dev-first tools I actually like (Bruno, OpenTofu, OrbStack, etc.).

There are no ads, no sign-ups, no tracking, and no newsletter popups. It's just a clean, static tool.

Since the data changes constantly, I’d love to know if you see any missing metadata or if there's any specific cloud provider you think I should add next. Hope it's useful to some of you!

If you have any suggestion drop me a message here: https://github.com/ineslino/infra-atlas/issues/new/choose

We've been reading about Microsoft's new Microsoft 365 E7 Frontier Suite and wanted to put together a breakdown of what it includes and where it might actually make sense.

The article covers:
• What the E7 Frontier Suite is
• How it differs from Microsoft 365 E5
• The AI, identity, security, and management capabilities included
• Which organizations are likely to benefit (and which probably won't)

I'm also curious what others think:

• Do you see E7 becoming relevant for enterprise customers?
• Is the additional licensing likely to justify the cost?
• Which features do you think will drive adoption?

For anyone interested, here's the full breakdown:
https://cloud9infosystems.in/microsoft-365-e7-frontier-suite-explained/

Looking forward to hearing different perspectives.

Hey everyone,

I open-sourced a small AWS CLI called Kulshan.

It came from a very specific consulting pain.

Someone asks:

"The AWS bill changed. What happened?"

But there is no CUR, no Athena, no dashboard, and the person screen sharing has barely used Cost Explorer.

So the meeting turns into guiding someone through billing UI dropdowns, filters, date ranges, grouping, sidebars, and scroll bars.

I wanted a simpler artifact.

Install:

pip install kulshan

Run:

aws login

kulshan doctor

kulshan report --quick

Kulshan runs locally, uses read-only AWS APIs, and generates a local HTML report.

GitHub:

https://github.com/azz-kikkr/kulshan

PyPI:

https://pypi.org/project/kulshan/

What I cared about:

- no SaaS

- no data uploads

- no telemetry

- read-only posture

- local report output

- no CUR required for the quick baseline

This is not meant to replace mature FinOps tooling, dashboards, CUR/Athena setups, or AWS-native tools.

It is meant for the awkward first investigation moment:

"The AWS bill changed. What happened?"

The goal is to reduce the time between "we have a billing question" and "we have enough evidence to discuss the likely cause."

I would love feedback from open-source folks on:

- Is the README clear enough before someone runs it?

- Is the trust posture obvious enough?

- What would you want to inspect before running a CLI like this against an AWS account?

- Should the report output be more machine-readable for agents or automation?

Happy to take critique. This is early, and I am trying to make the project more useful and easier to audit.

A few months ago, I started looking into colocation hosting because our servers were getting expensive to manage. Every provider seemed to promise great uptime, security and support but it was hard to tell what mattered in the real world. Also, I have gone through rackbank ai datacenter and noticed how different providers enhance different strengths. For those who have already gone through the process, what was the biggest factor that helped you choose a colocation hosting provider? EDIT: Thanks for sharing, stories like these really highlight how important reliable power, redundancy and proper maintenance are.

Not looking for the checklist. The real work lives in three places most teams underestimate: knowing where sensitive data actually exists at any point in time (harder than it sounds in dynamic environments), remediating IAM overpermissioning without breaking things, and mapping lateral movement paths before attackers find them.

The key insight is these risks connect, a misconfiguration only becomes a breach risk when it chains to sensitive data through an exploitable path. What's your org actually prioritizing this year?

We’re currently evaluating cloud security solutions for an enterprise environment and trying to narrow down the right vendor. There are a lot of big names in the space, but it’s hard to separate marketing from real-world performance especially when it comes to scalability, cost over time, and how well things actually integrate across a complex stack.

For those with hands-on experience:

Which cloud security provider did you end up choosing?

What made it the right fit for your organization long-term?

How does it perform in hybrid or multi-cloud environments?

Any major drawbacks or lessons learned after deployment?

Would really appreciate insights from people who’ve gone through the decision process or are managing this in production. Thanks!!

Trying to get more hands-on with cloud infrastructure but I don't want to accidentally rack up a huge bill experimenting.

What cloud playgrounds or sandbox environments are people using these days?

Update: It's been 25 days since I published it😅. This post blew up more than I expected. I think Terrraform and tagging are solid for keeping track of what's running. But right now I'm mocking up dashboards before touching real infra, just to plan things out first. Used Alloy app for that part since it let me test layouts without spinning up anything real. Still working through the cloud sandbox options you all mentioned, will keep this updated🥰

The $GCT settlement is now accepting late claims from eligible shareholders.

GigaCloud promoted its B2B e-commerce platform as a technology-driven marketplace with strong growth and AI-powered operations. In 2023, reports alleged that a significant portion of the company’s revenue came from undisclosed related-party transactions connected to insiders.

After the reports were released, $GCT fell about 18.8%. Investors later sued, claiming GigaCloud misled the market about its revenue sources and business operations. The company has now agreed to a $2.75 million settlement.

If you purchased $GCT between  2022 and 2023 you may be eligible to file a claim. Late claims are currently being accepted — you can check if you’re eligible and file your claim.

I am from Pakistan. I provide professional services (payroll, supply chain management) to USA clients (dealers of metro, boost etc.) and to access their website portal to get raw data I must be logged in from a device in USA.
I used VPN in the past but their systems flagged it and locked the client’s account. Can anyone suggest a reliable solution to run the portal website with me being shown in the US?

Someone told me to look into cloud computing like Right Networks but that is too costly

Palo Alto Networks research coverage says teams manage around 17 cloud security tools on average. SolarWinds-reported data says 77% of IT teams still lack the visibility they need across hybrid environments.

So apparently, we were wondering If teams already have THAT many tools, why is assessment still so painful? That’s why we compared 12 cloud security assessment tools for 2026.

We looked at Wiz, Orca, Prisma Cloud, CrowdStrike, Cloudaware, Tenable, Datadog, Check Point CloudGuard, Lacework FortiCNAPP, Qualys, Microsoft Defender for Cloud, and Splunk ES.

Compared them on:

• Cloud coverage
• CSPM / CIEM / CNAPP depth
• Vuln context
• Compliance support
• Audit evidence
• Workflow integrations
• Pricing transparency
• Fresh user feedback from G2, Gartner, Reddit, and AWS Marketplace

What we found:

1. Most teams probably need fewer overlapping tools. 8/12 tools fully support CNAPP, and most of the serious platforms already cover the same broad risk categories.
2. Detection is not the useful differentiator anymore. The useful part starts after detection, but sadly only 3/12 tools had strong evidence/audit support.
3. Pricing transparency is still weak. Just 3/12 tools had clear pricing available online. That makes early evaluation harder than it needs to be, especially when teams are trying to compare coverage before getting dragged into a sales cycle.
4. If visibility is still the main problem teams try to fix by collecting all those tools in a stack.

Full comparison here:

https://cloudaware.com/blog/cloud-security-assessment-tools/

Curious what you use, do you agree with our results, and what your stack looks like?

I work in cloud consulting in India. Over the past 3 years, we've audited cloud environments for 200+ enterprises (BFSI, manufacturing, SaaS, healthcare). The waste patterns are remarkably consistent.

Average findings per audit:

• 23% zombie resources (unattached disks, idle LBs, forgotten test envs)
• 60-80% of VMs over-provisioned by 2-3x
• Less than 40% Reserved Instance/Savings Plan coverage
• Zero storage lifecycle policies (everything in hot tier)
• Dev/test running 24/7 (used only 10 hours/day)

The 4 biggest money leaks (in order of impact):

1. No committed pricing — paying on-demand for production VMs that haven't changed in months. That's 30-72% extra for no reason.
2. Over-provisioned compute — D8s_v3 running at 12% CPU. Should be B2ms. 70% wasted on that single instance.
3. Zombie resources — we found 187 unattached EBS volumes at one manufacturing company. ₹3.2L/month billing for nothing.
4. No scheduling on non-prod — dev environments billing weekends and nights. Simple auto-shutdown saves 58%.

What actually works to fix this:

• Azure Advisor / AWS Compute Optimizer for right-sizing data
• Automated RI purchasing for workloads stable >3 months
• Azure Policy / AWS Config rules for zombie detection + auto-cleanup
• Mandatory tagging (block deployments without CostCenter, Owner, Environment tags)
• Monthly FinOps review with engineering leads

Companies that implement all of these systematically see 30-40% reduction in 6-10 weeks.

Wrote up the full 7-strategy breakdown with specific numbers here if anyone wants it: https://cloud9infosystems.in/cloud-cost-optimization-india-2026/

Happy to answer questions about Azure/AWS cost optimization specifically for Indian setups (dealing with India regions, DPDPA compliance, rupee-dollar billing, etc.)

Trying to get more hands-on with cloud infrastructure but I don’t want to accidentally rack up a huge bill experimenting.

What cloud playgrounds or sandbox environments are people using these days?

Mostly interested in:

• AWS
• Kubernetes
• networking
• deployment workflows

Would rather learn by breaking things than just watching tutorials.

The problem with same-machine or same-LAN monitoring is that the monitor disappears along with the thing being monitored. A box behind CGNAT or a home router has no inbound path, so polling from outside does not work well either.

ClawPing takes a different architecture: a small Go agent on the private box sends outbound HTTPS heartbeats to a Cloudflare Worker. The Worker + D1 (relational state) + Durable Objects (per-check alert dedupe) + Queues (Telegram notification decoupling) form the external control plane. If the box stops checking in, the control plane alerts through Telegram regardless of what happened to the machine.

The interesting architectural constraints: the agent is dumb by design. It collects local check results (disk, backup marker freshness, Docker container state) and ships them with the heartbeat. All policy lives on the control plane side. This makes the agent easy to deploy as a static binary and means the control plane can evolve without updating edge devices.

Repo for context: https://github.com/cschanhniem/clawping

Curious whether others have used Workers in similar "external heartbeat receiver" shapes, or whether D1 is the right home for device/check state at this scale.