The Platform PM

Field GuideLast reviewed October 2026

Cloud security (CNAPP): posture, workloads and permissions

How companies find and fix risk in their cloud accounts: posture, permissions and workloads, why fixing is the bottleneck, agentless scans versus agents, who pays for a cloud breach, and what's real about AI in the tools.

The industry on one page

The parties. The cloud provider secures the infrastructure underneath; you own what you put on it. A security platform reads your configurations and workloads, finds risks and hands them to the security team, but the fix belongs to the engineers who own each service, and that handoff is where risk tends to sit waiting.

Picture a company that sells inventory and ordering software to wholesale distributors. It runs on AWS: about 2,000 workloads (virtual machines, containers and serverless functions) across nine accounts, 200 engineers, and a small Azure tenant left over from an acquisition. On a Monday its security tool shows 40,000 open findings, and the team can fix a few dozen that week. Most of cloud security, day to day, is picking which few dozen, getting the right engineers to fix them, and making sure the fixes stay fixed.

The cloud provider secures the infrastructure underneath: buildings, hardware, the hypervisor and, for managed services, the platform software. You own what you put on it: configurations, identities and permissions, keys and data, and AWS's customer agreement makes that a contract term. Attackers probe what you own with exploits and stolen keys. A security platform reads your configurations through the cloud's APIs and snapshots disks to see what's installed on your workloads, builds a graph of what connects to what, finds risks and hands them to the security team, which triages, sets policy and opens tickets. The fix belongs to the engineers who own each service, ideally made in code, and that handoff is where risk tends to sit waiting.

Gartner's name for the bundle is CNAPP, a cloud-native application protection platform. Under it sit older product names: posture management (CSPM, checking configurations against policy), entitlement management (CIEM, who can do what) and workload protection (CWPP, watching what runs on each machine), plus data, code, detection and AI security. The table in How a finding becomes a fix explains each; elsewhere I use plain words.

What I'd want a new PM in this space to take away:

  1. Fixing: finding cloud risk is nearly free, and fixing it is the limit. Microsoft and Google give basic posture checks away, and in December 2025 AWS added attack-path findings to Security Hub at no extra charge. A cross-industry study by Cyentia Institute and Kenna Security found a typical organization closes about 1 in 10 of its open vulnerabilities a month. Context (is it reachable, is the vulnerable code running, what can the attached identity reach) cuts the list a lot, though nearly every number on how much comes from vendors measuring their own customers. More in Who owns the fix: what's real.
  2. Ways in: exploits now lead as the way in, and identity still decides the damage. In Google's data on its own cloud for July to December 2025, exploits of third-party software overtook weak credentials as the top route in, at about 45% of cases, and the 2026 Verizon Data Breach Investigations Report also put exploits on top. The same Google report found identity compromise behind about 83% of compromises: an exploit puts an attacker on a machine, and the credentials there decide what they can reach.
  3. Agents: agentless scanning won the opening sale, and runtime agents came back in 2025-2026. A read-only role takes hours to connect where agents take weeks, but snapshots miss what's running in memory and anything short-lived. The attack-path graph no longer sets vendors apart: the clouds ship one, and a patent fight over the agentless method ended without a winner. See Agentless or agents.
  4. Market: buyers are consolidating onto platforms faster than vendors are consolidating into a few winners. No vendor holds much more than a fifth of the market (Dell'Oro's 3Q 2025 data had Wiz at about 19% and Microsoft at about 18%), and the clouds compete through rules on which marketplace purchases count toward committed spend. In the worked example in How the money moves, staff time costs more than the licences.
  5. Responsibility: every cloud contract puts configuration on the customer, and AWS caps its own liability at 12 months of fees. US federal pressure eased (the SEC dropped its SolarWinds case on November 20, 2025), while New York, the EU and the UK raised theirs, and the EU and the UK now supervise the big clouds directly; more in How the rules work.

Where observability and security share agents, pipelines and buyers is in Observability: metrics, logs and traces, and securing AI agents' identities and tool permissions is in AI agents: orchestration platforms. "Identity" here means the cloud's users, roles and machine accounts; verifying customers and businesses is a different job, covered in Identity and trust.

The main players

These are the names behind the diagram's roles, layer by layer, in no particular order.

Cloud providers' own security tools

What they do
Posture checks, threat detection and vulnerability scans, billed on the cloud invoice
Main players
AWS (Security Hub, GuardDuty, Inspector, Macie), Microsoft (Defender for Cloud), Google (Security Command Center, plus Wiz and Mandiant)
What they control
The APIs every other tool reads, the free tier, the marketplace and the committed-spend wallet

CNAPP platforms

What they do
Scan configurations, workloads and permissions across clouds; rank and route findings
Main players
Wiz (Google), Palo Alto Networks (Cortex Cloud), CrowdStrike (Falcon Cloud Security), Tenable, Orca Security, Fortinet (FortiCNAPP, formerly Lacework)
What they control
The cross-cloud graph, the CISO relationship and the fix workflow

Runtime and workload specialists

What they do
Watch what actually runs (processes, network calls, container escapes) and block attacks
Main players
Sysdig, Upwind, Aqua Security, SentinelOne, Datadog, Falco (open source)
What they control
The agent on each host and the "is this actually loaded" context

Code and supply-chain security

What they do
Scan code, dependencies, infrastructure templates, images and secrets before deploy
Main players
Snyk, Veracode, Chainguard, GitGuardian, Trivy (open source, from Aqua)
What they control
The developer's pull request and the build pipeline

Identity and permissions

What they do
Map who and what can reach each resource, trim unused rights, govern machine identities
Main players
CyberArk (Palo Alto), Astrix (Cisco), Ermetic (Tenable)
What they control
The non-human identities most cloud breaches run through

AI security

What they do
Inventory AI models and agents, scan them, filter prompts and tool calls
Main players
Palo Alto (Prisma AIRS, from Protect AI), Check Point (Lakera), SentinelOne (Prompt Security), Google (Model Armor), Noma Security
What they control
Guardrails for AI workloads, mostly as platform modules

How they make money, and who's moving:

  • Cloud providers charge per resource, event or gigabyte, or give the basics away. AWS's Security Hub Essentials lists at $3.75 per "resource unit" a month (one virtual machine, or 12 serverless functions), Microsoft's paid posture plan at about $5 per billable resource, and Google prices Security Command Center Premium off forecast cloud spend. Microsoft is the number two CNAPP vendor by Dell'Oro's count. Google closed its $32 billion purchase of Wiz on March 11, 2026, after US clearance in November 2025 and EU clearance in February 2026, both without conditions; Wiz keeps its brand and its support for AWS, Azure and Oracle's cloud, and Alphabet doesn't report its numbers separately.
  • CNAPP platforms charge per workload or in credits. Wiz lists at about $240-380 per workload a year and said it reached $500 million of annual recurring revenue (ARR) in July 2024; later figures above $1 billion appear only in press reports. Palo Alto folded Prisma Cloud into Cortex Cloud in February 2025 and doesn't disclose cloud revenue. CrowdStrike's cloud security ARR passed $905 million in the quarter to July 2026, up 29%. Tenable bought Ermetic for $265 million in 2023, and Orca cut 15% of its staff in January 2024. Lacework, valued at $8.3 billion at its 2021 peak, sold to Fortinet for a reported $152 million in August 2024.
  • Runtime specialists charge per host or sensor. Upwind raised $250 million at about $1.5 billion in January 2026 and was reported in September 2026 to be raising about $300 million at about $3.8 billion. Sysdig, which created Falco, last raised at $2.5 billion in December 2021; Aqua raised at over $1 billion in January 2024, then cut staff twice in 2025. SentinelOne's ARR reached $1.22 billion in the quarter to July 2026, up 22%, and Datadog's security products passed $100 million of ARR in 2025. Falco graduated in the CNCF (the Linux Foundation's home for cloud software) in February 2024.
  • Code and supply-chain tools charge per developer. Snyk was at an estimated $326 million of ARR, growing 7%, in February 2026 (a research firm's estimate), and Chainguard, which sells hardened container images, raised at $3.5 billion in April 2025. GitGuardian counted 23.8 million secrets leaked on public GitHub in 2024 (a vendor figure).
  • Identity drew some of the biggest checks. Palo Alto closed its purchase of CyberArk, about $25 billion, on February 11, 2026, and Cisco announced on May 4, 2026 that it would buy Astrix, which secures non-human and AI agent identities. Most standalone cloud permissions tools were folded into posture products, as Ermetic was.
  • AI security was bought up within about 13 months, from April to October 2025: Protect AI by Palo Alto (reported at $500-700 million), Lakera by Check Point and Prompt Security by SentinelOne (about $250-300 million each, reported), and others. Noma Security, one of the independents still standing, raised $100 million in July 2025, and Cyera, in data security, was reported at a $12 billion valuation in June 2026.

As of October 2026. This market changes owners every few months, so treat the list as a map to check before relying on it.

Back to the inventory software company. Its order API runs on Kubernetes in AWS and faces the internet. A library in its container image has a remote-code-execution bug on CISA's list of known exploited vulnerabilities; Snyk flagged it in a pull request three weeks earlier, and the ticket went to the backlog. The API's pods run under a role that can read every S3 bucket in the account, including customers' order exports. Wiz joins those facts into one critical issue, and its runtime sensor confirms the vulnerable library is loaded. Wiz's AI remediation agent, in preview since March 2026, drafts two pull requests, one bumping the library and one trimming the role in Terraform. The orders team gets a Jira ticket, and one of its engineers merges both, while GuardDuty watches the account's API calls in case someone got there first. Out of 40,000 findings, it's one of the dozen fixed that week (the vendors in the story are illustrative).

How a finding becomes a fix, step by step

From a finding to a fix. Scanners find far more than any team can fix, so the work is picking the few risks that are both exposed and exploitable. Some get accepted as exceptions, and a fix made in the console instead of in code tends to drift back.

Here's the order API's risk from the moment the code ships to the fix. Scanners find far more than any team can fix, so the work is picking the few risks that are both exposed and exploitable. Some get accepted as exceptions, and a fix made by hand in the console instead of in code tends to drift back.

  1. Deployed: a resource is created by code (Terraform, CloudFormation or Bicep templates, run from a CI/CD pipeline) or by hand in the cloud console. Code can be scanned in the pull request, the cheapest place to catch a mistake. Breaks: resources created in the console skip that check, and no code describes them.
  2. Found: the tool inventories every account through the cloud's APIs and checks each configuration against policy (a public bucket, a firewall rule open to the world, logging off). It looks inside workloads for vulnerable packages, secrets and malware, from a disk snapshot or an agent, and reads audit logs and runtime events for attacks in progress. Breaks: Microsoft's agentless scan runs once every 24 hours on running machines only, so a workload that lives less than a day can go unseen.
  3. Prioritized: context is added. Is the resource reachable from the internet? Is the bug known to be exploited? Is the vulnerable package loaded? What can the attached identity do, and is sensitive data within reach? Datadog found only 18% of vulnerabilities rated critical by their CVSS score (the standard severity score) stayed critical once runtime context was added. Breaks: a queue sorted by CVSS sends engineers after bugs nobody can reach while a chain of medium findings stays open, and a rule written to cut noise can hide the inputs a detection engine needs (see Exceptions & reversals).
  4. Assigned: the tool maps the resource to an owner using the account, tags, the repository that deployed it and the on-call schedule, then opens a ticket in Jira or ServiceNow, or a pull request. Breaks: an untagged resource with no link to a repository sits with nobody. In a 2021 Cloud Security Alliance survey, 70% said their security, operations and development teams weren't aligned on policy, and only 37% fixed a misconfiguration within a day.
  5. Fixed: from most to least durable, a team can fix the shared infrastructure module (every future copy is fixed too), fix this one template, add a guardrail such as an AWS service control policy so the class of mistake can't recur, rebuild the image, rotate the key, or fix it in the console (fast, and likely to drift). The next scan verifies it. Breaks: at AWS a resolved finding flips back to new when the check fails again, and Security Hub's older posture product deletes active findings after 90 days, so an auditor asking for a year of history needs an export.

Two exits sit off that path. Accepted is a finding the team has decided not to fix, recorded as an exception. A good exception has an owner, a reason and an expiry date, and the tools don't all enforce that: AWS's "suppressed" status has no built-in expiry, while Microsoft's exemptions and Google's dynamic mute rules can expire. Drifted is a fix that didn't stick: an engineer fixes a Terraform-managed resource in the console and the next deployment puts the old setting back, or a console change never reaches code and the next environment built from code repeats the mistake.

Posture management (CSPM)

What it checks
Configuration against policy: public buckets, open ports, logging off, CIS controls
Data it needs
The cloud's APIs, through a read-only role
Agent?
No
Product or bundle (Oct 2026)
Commoditized; free tiers at Microsoft and Google

Entitlement management (CIEM)

What it checks
Effective and unused permissions, escalation paths, cross-account trust, old keys
Data it needs
Identity and resource policies, access logs
Agent?
No
Product or bundle (Oct 2026)
Mostly folded into posture products

Workload protection (CWPP) and runtime

What it checks
Malware, exploits, suspicious processes, container escapes
Data it needs
System calls via eBPF or a kernel module, process trees, network
Agent?
Yes
Product or bundle (Oct 2026)
Real; regained weight in 2025-2026

Data security posture (DSPM)

What it checks
Where sensitive data lives and who can reach it
Data it needs
Data store inventory plus samples of the contents
Agent?
No
Product or bundle (Oct 2026)
A real standalone category, also bundled

Vulnerability management

What it checks
Known vulnerabilities (CVEs) in packages on machines, images and functions
Data it needs
Disk snapshots, registry images or an agent
Agent?
Either
Product or bundle (Oct 2026)
Real; agentless made it a posture add-on

Code, secrets and infrastructure-as-code scanning

What it checks
Misconfigured templates, vulnerable dependencies, code flaws, leaked keys
Data it needs
Repository access, CI hooks, pull requests, snapshots
Agent?
No
Product or bundle (Oct 2026)
A separate market, converging in

Cloud detection and response (CDR)

What it checks
Attacks in progress: credential misuse, data theft, crypto-mining
Data it needs
Audit logs, flow logs, Kubernetes audit, runtime events
Agent?
Logs, optional agent
Product or bundle (Oct 2026)
Real; overlaps the SIEM

AI security posture (AI-SPM)

What it checks
Models and agents in use, exposed endpoints, AI keys, agent permissions
Data it needs
The cloud's AI service APIs, code dependencies, identities
Agent?
No
Product or bundle (Oct 2026)
Mostly a module as of 2026

Gartner's baseline for a full CNAPP, as vendors summarize its 2025 market guide, is posture, workload protection, entitlements, and infrastructure-as-code and container scanning, with attack-path correlation as what sets products apart. Vendors stretch the label over whatever else they sell.

Agentless or agents

Agentless means the vendor runs the scanner in its own account and reads yours through a role you grant: the APIs for configuration and permissions, and copies of your disks for what's installed. Microsoft's version analyzes each snapshot in the same region, deletes it within minutes and keeps only metadata. It still needs rights to create snapshots and, on AWS, encryption keys, so an outside party holds a lot of access either way.

Agentless (APIs and disk snapshots)Agent or eBPF sensor
Time to set upHours: one role per account or organizationWeeks to months: per host or cluster, through change management
CoverageEverything the APIs see, including forgotten resourcesOnly where installed
FreshnessPeriodic (Microsoft: every 24 hours)Continuous
What it seesInstalled packages, files and secrets on disk, configuration, permissionsRunning processes, loaded libraries, system calls, network flows
Can it block an attack?NoYes
Cost to the workloadSnapshot storage and API callsCPU and memory on each host; modern eBPF needs a Linux kernel of about 5.8 or later
Blind spotsTime between scans, short-lived workloads, runtimes with no disk to snapshotHosts without the agent, managed services you can't install on

The clouds settled on agentless as a default: Amazon Inspector has scanned EC2 machines without an agent since April 2024, and Microsoft's paid plans scan Azure, AWS and Google machines the same way. Then runtime came back. Wiz, born agentless, sells a runtime sensor and shipped forensics for it in May 2026, Palo Alto's Cortex Cloud pairs agentless scanning with its endpoint agent, and Unit 42 found high-severity runtime alerts twice as common as high-severity configuration alerts in 2024 (a vendor figure).

Meanwhile the graph stopped being a moat. AWS's Security Hub has drawn "potential attack paths" since December 2025, and Microsoft's paid posture plan has attack path analysis too. Orca sued Wiz in July 2023 over six patents on agentless scanning; on December 8, 2025 the US patent appeals board found the challenged claims unpatentable, and in early January 2026 both sides dropped their suits for good.

My default: agentless everywhere for coverage, and sensors on the production machines that face the internet or hold sensitive data.

Which cloud security setup? Five questions

  1. How many clouds? If you're almost all on one cloud, its native tools may cover most of what you need, for roughly $100,000-165,000 a year at 2,000 workloads. With two or more clouds, independent platforms earn their price, because each native tool is strongest on its home cloud.
  2. Who triages? Price the people alongside the licence. The cheapest licence can turn into the most expensive option once a team of four to six has to build the ranking and routing that a platform sells.
  3. Agents or not? Start agentless to see everything within days, then add sensors where you need to catch or stop an attack in progress.
  4. How will you pay? If you have a committed-spend contract with a cloud, check whether a vendor's marketplace listing counts toward it. Since May 1, 2025, AWS counts only software that runs on AWS.
  5. Which rules apply? Card data (PCI DSS), US federal customers (FedRAMP), New York financial licences (NYDFS) and EU financial firms (DORA) each set fix windows and reporting clocks. Export the evidence your auditor wants before the tool deletes it.

My defaults: for a B2B software company on one cloud with a couple of thousand workloads, I'd turn on the cloud's own posture checks and threat detection, since they're cheap and count toward the commitment. I'd add a platform once there's a second cloud or once the team spends more time stitching findings together than getting them fixed, and buy it through the marketplace if it qualifies. I'd route every finding to the owning team's tracker with a named owner, require an expiry date on every exception, and measure the program on exposed, exploitable risks closed each month rather than on findings found.

The primitives

01

Entity & identity

What is the unit of record, and how do we know it is the same one?

The unit is the cloud resource: an AWS ARN, an Azure resource ID, a Google resource name. Vendors bill on it, and each counts it differently:

Billing entityWho uses itRough list price (Oct 2026)
Workload (a running VM, container or serverless function)Wiz$240-380 a year, less at volume
Resource unit (1 VM = 12 functions = 18 images = 125 identities)AWS Security Hub$3.75 a month
Billable resource (servers, storage accounts, databases)Microsoft Defender CSPMAbout $5 a month
HostDatadog, Sysdig$10-25 a month at Datadog
DeveloperWiz Code, SnykAbout $585 a licence a year for Wiz Code

The same estate can come out very differently under each, so comparing quotes starts with converting them to one unit.

Cloud identity is the other entity: people, roles, service accounts, workload identities and integration roles. Machine identities far outnumber people, though estimates run from 10 to 1 (Microsoft, 2023) to "up to 40,000" to 1 (Sysdig, 2025), which mostly shows the definitions differ. Microsoft's 2023 research found identities use about 1% of the permissions they're granted. Non-human identities are where cloud breaches run: old access keys, OAuth tokens, CI tokens and, in Microsoft's Storm-0558 case, a signing key. The scanner is one too: a CNAPP holds read rights, and often snapshot and encryption-key rights, in every account you connect.

Customers and businesses that a platform verifies are a different kind of identity, covered in Identity and trust; AI agents' identities are in AI agents: orchestration platforms.

More on Entity & identity →

02

State & lifecycle

What states exist, and what moves an entity between them?

A finding at AWS carries three separate states at once: a workflow status (new, notified, suppressed, resolved), a record state (active or archived) and a compliance result (passed, failed, warning or not available). They change independently. The detail I'd remember: a resolved finding goes back to new if the check fails again, while a suppressed one stays suppressed. A suppression is sticky and a fix is fragile.

Severity is a state too. A finding becomes critical when something next to it changes: a firewall rule opens, a role gains a permission, a bucket starts holding customer data. Graph-based tools recompute as the inputs change.

Credentials have a lifecycle that nobody closes. In Datadog's October 2025 data, 59% of AWS IAM users had an active access key more than a year old, and in the 2024 Snowflake breaches some stolen credentials dated back to 2020 and still worked. "Decommissioned" is the state most often missing.

Regulators add states of their own: an incident becomes "material" at the SEC or "major" under DORA, and a cloud provider becomes "designated" as critical in the EU and the UK.

More on State & lifecycle →

03

System of record & ledger

Who owns the truth, and how do systems reconcile?

There's no single system of record.

RecordSystem of record
What's actually configuredThe cloud's own API
What was meant to be configuredThe infrastructure-as-code repository
Risk across clouds, code and runtimeThe security platform's graph, minutes to a day behind
Who's fixing itThe ticketing system
What happened during an attackThe cloud's audit logs (AWS CloudTrail, Microsoft Entra, Google Cloud audit logs)
Every technology contract of an EU financial firmIts DORA register of information
What security costsThe cloud bill, when bought natively or through the marketplace

Drift is the gap between the repository and the cloud; staleness is the gap between the cloud and the graph. Retention is short by default: AWS Security Hub's older posture product deletes findings after 90 days active or 30 days archived, while PCI, SOC 2 and FedRAMP auditors usually want longer, so evidence gets exported to storage or a SIEM (the security team's log analysis system). And because Security Hub Extended and marketplace purchases land on the AWS bill, finance and FinOps teams see security spend alongside the CISO.

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04

Rules & policy

What logic decides outcomes, and who can change it?

Policy comes from CIS benchmarks (prescriptive technical checks; AWS added version 5.0 of its AWS benchmark to Security Hub in October 2025, with 40 automated controls), the providers' own benchmarks, mappings to PCI or FedRAMP, custom rules, and preventive guardrails such as AWS service control policies and resource control policies, Azure Policy and Google organization policies. Detection dominates prevention in practice: in Datadog's 2025 data, 40% of AWS Organizations users had service control policies and 6% had resource control policies.

The metadata fix is my favourite example of a cheap rule left unapplied. Version 2 of the EC2 instance metadata service needs a session token, which blocks the request-forgery trick behind the Capital One breach. Datadog found it enforced on 49% of EC2 instances in 2025, up from 7% in 2022, while 82% of instances had used only version 2 in the previous two weeks and could have enforced it without breaking anything.

Regulators and insurers write rules too. New York now requires MFA for any individual accessing a covered firm's systems, and insurers increasingly reject text-message MFA and ask for phishing-resistant keys for administrators, endpoint detection and backups.

More on Rules & policy →

05

Effective dating

Which version of the rule applied at that moment?

Dates I'd keep on a calendar as of October 2026:

ChangeEffectiveStatus (Oct 2026)
PCI DSS 4.0's future-dated requirements (51 of the 64 new ones)March 31, 2025Live
NYDFS Part 500 final phase: MFA for any individual, asset inventoryNovember 1, 2025Live
DORA designates 19 critical providers, including AWS, Google Cloud, Microsoft and OracleNovember 18, 2025Live
AWS's new Security Hub, with exposure findings and attack pathsDecember 2, 2025Live
FedRAMP Consolidated Rules for 2026 publishedJune 25, 2026Mandatory January 1, 2027
UK designates AWS, Google Cloud, Microsoft and Oracle as criticalJuly 13, 2026Live
Snowflake's MFA phase 3: people can no longer sign in with a password aloneAugust-October 2026Rolling out
Sentencing in the Snowflake attack caseOctober 27, 2026Upcoming
FedRAMP's vulnerability detection and response rules requiredDecember 7, 2026Upcoming; grace period to March 7, 2027

Some changes have no date yet: SEC Item 1.05 is under pressure to be rescinded, the EU proposed NIS2 amendments on January 20, 2026, and the UK's Cyber Security and Resilience Bill is still in Parliament. And since December 2025, "CSPM" also names an AWS product, the old Security Hub.

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06

Interfaces & standards

What format and protocol do counterparties speak?

The findings side is converging on a few shared formats:

  • OCSF (the Open Cybersecurity Schema Framework) is the format for AWS's new Security Hub findings and for partner findings sold through Security Hub Extended. Shared formats make it cheaper to swap one tool for another, and they make whoever collects everyone's findings more valuable.
  • CVE, CVSS, EPSS and KEV describe vulnerabilities: CVE names one, CVSS scores its severity, EPSS estimates how likely it is to be exploited, and KEV is CISA's catalog of vulnerabilities known to be exploited.
  • CIS benchmarks define configuration checks, and MITRE ATT&CK names attacker techniques; GuardDuty maps its attack sequences to it.

The rest is plumbing: cross-account roles for reading, Jira, ServiceNow and Slack for ownership, Git for pull requests. The newest piece is MCP, the protocol AI agents use to call tools: Wiz offers its remediation agent over MCP, and Google's Model Armor screens MCP tool calls.

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07

Networks & counterparties

Who sits between us and the outcome, and what do they want?

PartyWhat they controlWhat they absorb when it goes wrong
Security team (CISO, cloud security engineers, SOC)Tool choice, policy, triage, exceptionsBlame and disclosure decisions
Platform or cloud teamAccounts, guardrails, the roles tools need, the commitmentRework from bad guardrails
App teamsThe code and most fixesEngineering time
Cloud providerInfrastructure, defaults, log tiers, the marketplaceProduct changes, capped liability
Security vendorsDetection, the graph, routingReputation; their access can become the attacker's
Auditors (QSAs for PCI, CPA firms for SOC 2, 3PAOs for FedRAMP)Which evidence and exceptions passNothing directly
InsurersEligibility, price, exclusionsCovered losses

Outside parties are now the usual shape of a breach. The 2026 Verizon report, as summarized by others, found partners or vendors involved in 48% of breaches, up from 30%. The chains I'd keep in mind run from a contractor's laptop to Snowflake (2024), from a chat vendor's stolen tokens to Salesforce data to AWS keys (Salesloft Drift, 2025), and from a poisoned scanner to a CI pipeline to AWS keys (Trivy, 2026). The tools are counterparties too: Datadog's 2025 data found 12.2% of vendors' integrations into customers' clouds dangerously over-privileged.

One company now sits in several seats. Google runs a cloud, owns Wiz, owns Mandiant (whose report traced the Snowflake breaches to customers' credentials), publishes threat data from its own incidents and sells Model Armor. That's a lot of the story told and sold by one party, which I'd keep in mind when reading their reports.

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08

Regulatory layering

Jurisdiction × activity × entity type: is it a license or a certification?

Nobody licenses cloud security vendors; the rules arrive in layers.

Contract

What it covers
Shared responsibility, the customer agreement
Binds
Customer and provider
Enforced by
Courts, under the contract's caps

Standards with contractual teeth

What it covers
PCI DSS, SOC 2, ISO 27001
Binds
Whoever signed up for them
Enforced by
Card networks, customers, certification bodies

Government buyers

What it covers
FedRAMP, CISA directives
Binds
Vendors selling to US agencies; agencies themselves
Enforced by
FedRAMP, CISA

Sector and disclosure law

What it covers
SEC, NYDFS, bank regulators, the FTC, HIPAA, GDPR, NIS2, DORA
Binds
The breached company
Enforced by
Each regulator

Supervision of the clouds

What it covers
DORA critical providers, UK critical third parties, NIS2 (cloud is an "essential" sector)
Binds
AWS, Microsoft, Google, Oracle and others
Enforced by
EU supervisors, UK regulators

A New York-licensed, SEC-listed lender on AWS answers to its bank regulators, NYDFS, the SEC, PCI DSS through its card processors, state breach laws, and GDPR and DORA if it operates in the EU. Compliance dashboards map one technical check to all of these; the auditors and the evidence they accept differ.

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09

Exceptions & reversals

What goes wrong, and how is it undone?

Suppressed finding

Where
AWS Security Hub
Expiry
None built in
The catch
Sticky; new findings for the same issue still appear

Exemption (waiver or "mitigated")

Where
Microsoft Defender for Cloud
Expiry
Optional
The catch
Marking a resource mitigated raises the secure score; up to 5,000 per subscription

Mute rule (static or dynamic)

Where
Google Security Command Center
Expiry
Dynamic rules can expire
The catch
Static rules mute future findings indefinitely

Suppression rule

Where
AWS GuardDuty
Expiry
None
The catch
Archived findings drop out of attack-sequence detection

Targeted risk analysis

Where
PCI DSS 11.3.1.1
Expiry
Reviewed by the assessor
The catch
"Addressed" can mean mitigated another way

The GuardDuty case is the one I'd teach. Its Extended Threat Detection, on by default since December 2024, correlates events over a rolling 24 hours into a single critical "attack sequence" finding, and it ignores archived findings, including ones archived by suppression rules. A rule written to cut noise can blind the engine meant to catch the attack, which is why AWS advises reviewing suppression rules.

Rules reverse as well. The SEC's SolarWinds case was dismissed with prejudice on November 20, 2025, and the members of the US Cyber Safety Review Board, which had called Storm-0558 "a cascade of security failures", were dismissed in January 2025. Snowflake moved its MFA deadline twice, from November 2025 to August and then October 2026. And the UK's data regulator cut Capita's proposed £45 million fine to £14 million.

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10

Liability allocation

When it fails, who pays?

The customer carries almost all of it, and the contracts say so. AWS's customer agreement (updated August 14, 2026) says "You are responsible for properly configuring and using the Services" and caps AWS's liability at the fees paid for the service involved in the 12 months before the claim. Microsoft lists configurations, identities and data as the customer's in every column, though its page is "not intended to convey legal conclusions". Google says customers "always remain responsible for their access policies and data", and its "shared fate" program adds blueprints and an insurance channel without changing legal liability.

FailureWho pays firstHow
Misconfiguration or a leaked customer keyThe customerClean-up, settlements, fines
The provider's own key or flaw (Storm-0558)Customers in clean-up; the provider in engineering and reputationNo fine; free logs; a security program
A platform default (MFA optional)Customers so far; the platform is being tested in courtSnowflake's multidistrict litigation
A security tool as the way in (Trivy)Every downstream customer, rotating keysThe vendor's reputation
A long cloud outageCustomers, mostly uninsured below waiting periodsInsurers' estimates for the October 2025 AWS outage ran from $38 million to $581 million

Snowflake is the case to watch. It's a defendant in federal multidistrict litigation in Montana, and October 2025 rulings let negligence and consumer-protection claims proceed on several tracks; two plaintiffs' claims against it were dropped in December 2025 after their companies settled. With no liability finding and no certified class, the theory that an optional-MFA default is negligence is alive and unproven, and I found no public case where a customer recovered breach losses from a cloud provider.

Providers pay in engineering instead: AWS shipped instance metadata version 2 in November 2019, about four months after Capital One, Snowflake is making MFA mandatory, and Microsoft made logs free after Storm-0558.

More on Liability allocation →

What's different here

How the money moves

The customer pays almost everyone: the CISO usually signs for the platform, the cloud team's commitment often pays for it, and app teams pay in time.

FlowWho pays whomRough amount (Oct 2026, list)
Platform licenceCustomer → CNAPP vendor, often through a marketplace$240-380 per workload a year (Wiz)
Runtime sensorsCustomer → vendorAbout $280 per sensor a year (Wiz); $15 per host a month (Datadog)
Code securityCustomer → vendorAbout $585 per licence a year (Wiz Code); about 2 credits per active developer a day at $1 each (Snyk)
Native postureCustomer → cloudFree (Microsoft and Google basic tiers) to $3.75 per AWS resource unit or about $5 per Defender resource a month
Threat detectionCustomer → cloud$4 per million AWS management events; $1.50 per vCPU a month for runtime monitoring
Partner tools on the cloud billCustomer → AWS → partnerFor example Upwind at $3.75 per resource a month
FixingApp teams' timeUsually the largest line; see below

Enterprise deals land 15-35% below list in third-party data. One buyer-data platform puts the average saving on Wiz at 21-22% across 78 purchases, with a median contract of about $115,000 a year.

A year of cloud security for 2,000 workloads and 200 engineers

Back to the inventory software company: about 2,000 workloads (1,000 machines and Kubernetes nodes, 1,200 serverless functions), 3,600 container images, 2,500 IAM users and roles, 200 engineers of whom about 150 commit code in a month, and AWS spend of $6-12 million a year under an $8 million commitment. The security team is four to six people. Every figure is a rough annual range.

One platform, priced from Wiz's list

Licence (after typical discounts)
About $310,000-830,000
People to run it (my estimate)
Up to half an engineer
Counts toward the AWS commitment?
Yes, through a marketplace private offer, up to a negotiated cap
Main risk
Price rise at renewal; a change of owner

AWS native tools (Security Hub, GuardDuty, Inspector)

Licence (after typical discounts)
About $100,000-130,000; $130,000-165,000 at list with Defender on the Azure tenant
People to run it (my estimate)
Half to one engineer, $90,000-250,000
Counts toward the AWS commitment?
Yes, all of it
Main risk
Depth gaps, seams between clouds, routing built in-house

Point tools, one per layer

Licence (after typical discounts)
About $270,000-650,000
People to run it (my estimate)
One to two engineers, $180,000-500,000
Counts toward the AWS commitment?
Only the eligible listings
Main risk
Sprawl, duplicate agents, unranked findings

The platform range runs from the cheaper tier alone ($480,000 at list) to the richer tier with sensors, code scanning and detection (about $1.04 million at list).

Then add the fixing. If the platform surfaces about 40 exposed, exploitable criticals a month and each takes an engineer half a day to a day to fix and verify, that's 20-40 engineer-days a month: one to two full-time engineers of app-team time, roughly $200,000-400,000 a year. That's my own assumption, and it fits the one solid number on capacity, about 1 in 10 open items fixed a month. At this size, who does the triage and the fixing matters more to the total than which licence you buy.

As a share of the AWS bill, by my rough arithmetic, native tools come to 1-3%, a platform 3-14% and point tools 5-19% once the overhead is counted.

The commitment can matter more than list prices. Bought as an AWS private offer, Wiz counts toward the $8 million commitment because it runs on AWS. If the company expects to fall $500,000 short of its commitment, a $400,000 platform deal costs it close to nothing at the margin, and I suspect that's often why a deal closes in a particular quarter. Outside advisers say the marketplace share of a commitment is often capped at about 25%.

CloudCommitted-spend programWhat marketplace spend counts
AWSEDP or PPAOnly "Deployed on AWS" listings, since May 1, 2025; Security Hub Extended purchases count
GoogleMinimum commitmentUp to 100%, excluding services not running on Google Cloud
MicrosoftMACCEnrolled offers, and only licences "exclusively used in Azure"

Wiz runs on AWS and holds AWS's "Deployed on AWS" badge, so Google's largest security asset draws down its rival's commitments.

For scale: a mid-size company with a few hundred workloads on one cloud spends roughly $50,000-200,000 a year on cloud security tools, and a large one with 10,000 or more workloads across clouds about $1-5 million.

Budget ownership is murky, and I haven't found a neutral survey. My read: the CISO owns the platform line and the vendor choice, the cloud platform team owns the commitment it's paid from, and engineering owns the fix and, more and more, the per-developer code security line.

Who holds the power

Power follows whoever controls the data the tools read, the bill they're paid from and the engineers who make the fix.

  • Cloud providers hold the APIs and logs, the free tier, the bill, the commitment and the marketplace rules, and since March 2026 Google owns Wiz. Their weakness is that buyers are wary of a cloud grading its own homework.
  • Security platforms (Palo Alto, CrowdStrike, SentinelOne, Check Point, Fortinet, Tenable) hold the enterprise security budget and fold cloud into bigger deals through credit pools. CrowdStrike's cloud line is about 15% of its $5.84 billion of ARR.
  • Independent CNAPP vendors hold multicloud neutrality, the graph and the CISO relationship, and depend on marketplaces whose rules the clouds write. Wiz's neutrality is now a promise to be defended contract by contract.
  • Observability vendors hold an agent on every host and the engineers' daily tools, and are small in security revenue; that convergence is in Observability: metrics, logs and traces.
  • Engineers and platform teams hold the fix. Whoever routes findings into their pull requests and trackers gets used daily, and vendors pay for that path: Wiz bought the remediation startup Dazz (about $450 million) in 2024, and Tenable bought Vulcan Cyber for $150 million in January 2025.
  • Auditors decide which exceptions pass. Insurers gatekeep through MFA and endpoint-detection attestations; as far as I can tell they don't yet read posture data at scale, though Google lets customers share theirs with insurers for quotes.
  • Regulators are splitting, with the EU, the UK and New York tightening while the SEC has eased off.

How the rules work

Nobody needs a licence to sell cloud security. The rules land on the breached company, on buyers such as US federal agencies, and since 2025 on the big clouds.

Disclosure. Listed US companies must file an 8-K under Item 1.05 within four business days of deciding a cyber incident is material. Many file under the voluntary Item 8.01 instead: in the two years to May 2026, 29 issuers filed under 1.05 and 50 under 8.01. The SEC fined four companies about $1-4 million each in October 2024 over misleading disclosures, then dropped its case against SolarWinds and its CISO on November 20, 2025. Trade groups want Item 1.05 rescinded, though I found no proposal as of October 2026, and US federal pressure on breach disclosure looks to have peaked in 2024.

RuleWho it coversClock
SEC Item 1.05US listed companies4 business days after deciding an incident is material
NYDFS Part 500New York banks, insurers, money transmitters72 hours after determining an incident occurred
GDPR and UK GDPRControllers of EU and UK personal data72 hours to the regulator
NIS2EU essential and important entities, cloud providers includedEarly warning in 24 hours, notification in 72, final report in a month
DORAEU financial firmsInitial notice within hours of classifying a major incident; final report in a month
HIPAAUS covered entities and their vendorsWithin 60 days of discovery

New York. The final phase of NYDFS Part 500 took effect on November 1, 2025: MFA for any individual accessing covered systems, and a full asset inventory. Penalties run $250,000-2 million an order (PayPal and a New York dental benefits company paid $2 million each in 2025, the latter partly for annual certifications that turned out false), and they can't be paid from insurance.

EU and UK. DORA, the EU's operational resilience law for financial firms, has applied since January 17, 2025. On November 18, 2025 the EU's financial supervisors designated 19 critical technology providers, including AWS, Google Cloud, Microsoft and Oracle, and the UK designated the same four from July 13, 2026. Both regimes are about outages and concentration more than breach liability; banks stay responsible for their own technology risk. NIS2 treats cloud providers as essential entities, with fines up to €10 million or 2% of turnover, and the UK's data regulator fines missing MFA (Capita £14 million, Advanced £3.07 million).

Standards and buyers. PCI DSS 4.0.1 requires critical security patches within a month of release and a responsibility matrix for each service provider. FedRAMP's 2026 rules set fix windows by how exposed and exploitable a vulnerability is, from 12 hours at the top tier to as long as 192 days at the bottom, required from December 7, 2026, and its consolidated rules replace narrative security plans with machine-checked indicators from January 1, 2027. CISA's BOD 25-01 (December 17, 2024) was the first binding US federal mandate on SaaS settings, and FTC orders against Chegg (shared AWS root credentials without MFA) and GoDaddy read like a posture checklist.

Insurance. Global cyber premium was about $15-16 billion in 2025. Lloyd's has required exclusions for state-backed attacks since March 31, 2023, and long cloud outages often fall inside waiting periods of 8-12 hours, so they go largely uninsured.

What mistakes cost

IBM's 2026 survey put the average breach at a record $4.99 million worldwide, up 12%, and $11.5 million in the US. Fines are small next to that: NYDFS orders run up to about $2 million and SEC penalties $1-4 million, while class actions and the incident itself dominate. The cases below show who actually paid.

CaseWhat happenedWho paid
Capital One, 2019A misconfigured web application firewall let an attacker make a server fetch its role credentials from the instance metadata service; the role could read S3; about 106 million people affectedCapital One: an $80 million OCC penalty, a $190 million class settlement and $100-150 million of 2019 costs, against a $400 million insurance tower. AWS, also sued, paid nothing on record
Snowflake customers, 2024Passwords stolen by infostealer malware, often years earlier, with no MFA, no rotation and no network allow list; about 165 organizations notifiedThe customers: AT&T a $177 million settlement covering two breaches (final approval pending) and a reported ransom of about $370,000; Advance Auto Parts $10 million; Neiman Marcus $3.5 million
Microsoft Storm-0558, 2023Attackers forged tokens with a stolen 2016 Microsoft consumer signing key; 22 organizations and over 500 peopleMicrosoft, in engineering and reputation: no fine, free logs for customers, a company-wide security program
Trivy and the European Commission, 2026Attackers poisoned Aqua's open-source scanner Trivy on March 19, 2026; a copy in the Commission's CI pipeline exposed an AWS key, and the attackers added a key to an existing user and took about 340 GBNot quantified; 71 hosting clients of the Europa.eu service affected; credentials revoked
LiteLLM, 2026An unpinned Trivy in LiteLLM's CI leaked a package-publishing token, and the attackers published a backdoored LiteLLM that harvested cloud and Kubernetes credentialsNot quantified; every downstream user rotates keys

Capital One is the textbook toxic combination: an exposed app, a reachable metadata service and a role with too much access. Snowflake is the textbook identity case: Mandiant found no breach of Snowflake's own environment, and at least 79.7% of the accounts used had credentials exposed in earlier infostealer leaks. One attacker pleaded guilty on August 5, 2026, with sentencing set for October 27, 2026. Storm-0558 is the one customers couldn't have prevented with posture; US agencies spotted it only because they paid for a premium log tier, a story told in Observability: metrics, logs and traces.

Trivy is the newest pattern, and the most uncomfortable for this industry, because the security tool became the way in. The Commission detected suspicious AWS API activity on March 24, five days after the key was stolen, and CERT-EU tied the breach to the Trivy compromise with high confidence.

Smaller patterns repeat: Microsoft AI researchers published a storage token on GitHub that opened 38 TB of data in 2023, and attackers who steal cloud keys often run hosted AI models on the victim's bill, called LLMjacking, at reported costs above $100,000 a day.

Who owns the fix: what's real

My view as of October 2026: finding cloud risk is cheap and getting cheaper, ranking it is expected of every tool, and the gap is getting fixes merged by the teams that own each service. The evidence on fix capacity is strong and old. The evidence on how much context helps comes mostly from vendors grading themselves. And AI remediation exists, with no published results yet.

What the evidence says about fixing

  • Capacity: the Cyentia and Kenna study (about 300 organizations, published 2019) found a typical organization can close about 1 in 10 of its open vulnerabilities in a month, regardless of size; about half fall further behind, and the median vulnerability took 100 days to fix. It predates CNAPP and covers all infrastructure, so I'd use it for the shape of the problem more than the exact rate.
  • Known-exploited bugs: secondary summaries of the 2026 Verizon report say only about 26% of vulnerabilities on CISA's known-exploited list were fully fixed, down from 38%, and the median time to patch rose to 43 days. Wiz, citing an outside tracker, puts the gap from disclosure to exploitation at about 21.5 days.
  • Code and alerts: Veracode's 2026 report found 82% of organizations carrying security debt, and Palo Alto's Unit 42 reported the average organization's cloud alerts rose 388% during 2024 (a vendor figure).
  • Cheap fixes left undone: the metadata setting most instances could enforce without breaking anything, in Rules & policy, and the 59% of IAM users with keys over a year old.

What context really cuts

Vendor (date)Claim
Datadog (2025)Only 18% of CVSS-critical vulnerabilities stay critical with runtime context
Sysdig (March 2025)Under 6% of critical and high vulnerabilities sit in packages actually in use at runtime
Wiz (2026)Reachability, risky permission combinations and data access cut initial high-priority findings by more than half (no customer count published)
Tenable (June 2025)The share of organizations with a workload that's internet-facing, critically vulnerable and highly privileged fell from 38% to 29%

Every row is a vendor measuring its own customers with its own checks; nobody runs a neutral census of cloud findings. The direction is consistent across competitors, so I believe context cuts the list a lot, but I wouldn't quote any one percentage to a buyer.

Where the fix gets stuck

  • No owner: findings on untagged resources with no link to a repository sit unassigned, and the newest survey I found on who fixes cloud findings is from 2021.
  • Split budgets: the CISO buys the tool and engineering pays in time, so the team that owns the fix doesn't own the goal.
  • Console fixes and open-ended exceptions: the fastest fix drifts back at the next deployment, and suppressions without expiry make the dashboard look better while the risk stays put.
  • Ticket overload: I'd expect a tool that files every finding as a ticket to train engineers to ignore the queue. AWS now creates Jira and ServiceNow tickets from findings, and Wiz assigns owners in one click, so routing is getting easier while deciding what deserves a ticket stays hard.

What AI changes so far

  • Remediation agents: Wiz's Green Agent, in public preview since March 26, 2026, investigates the top risks, finds the owner, writes command-line, Terraform or Kubernetes fixes and opens pull requests or hands context to coding agents. It doesn't apply changes by itself. No vendor I found publishes how often its AI fixes get merged or how often they break something.
  • Testing: AWS's Security Agent became generally available for on-demand penetration testing on March 31, 2026, with no independent data on its quality yet.
  • Analysts: Microsoft's randomized trial with 147 security professionals found Security Copilot made them about 7% more accurate and 14-39% faster on lab tasks, while a benchmark from CrowdStrike and Meta found models got malware analysis right only about 15-34% of the time. IBM's 2026 survey links extensive security AI to cheaper breaches ($4.00 million against $5.93 million), a correlation among breached companies.
  • Attackers: Anthropic reported a campaign it calls GTG-1002 in which AI agents performed 80-90% of the tasks against about 30 targets, with few successes (Anthropic's own account).

AI investigation of incidents is covered in Observability: metrics, logs and traces.

Securing AI workloads

AI security posture is the posture, data and secrets checks above pointed at AI resources: model endpoints, notebooks, training data buckets, AI API keys and agent identities. It's sold as a module of the platforms more than as a category of its own, and the clouds bundle it. AWS made AI inventory free in Security Hub Essentials in July 2026, Microsoft's paid posture plan covers Azure OpenAI, Azure Machine Learning and Amazon Bedrock, and Google's Model Armor screens prompts, responses and MCP tool calls on any cloud.

The demand is real even if the numbers are soft: Wiz said in 2025 that 85% of organizations host AI in their cloud (a vendor figure), and IBM's 2026 survey found unsanctioned "shadow AI" in 43% of breached organizations. Runtime filters for prompts and tool calls are usually a separate purchase, and how agents get identities and tool permissions is in AI agents: orchestration platforms.

Questions to ask a vendor about fixes

  1. Of the issues you ranked critical for us last quarter, how many did our teams close, and how fast?
  2. How do you find the owner of a resource with no tags, and what share of our findings have one?
  3. Does the fix go back into code, and do you flag it when a console fix drifts?
  4. Do exceptions require an expiry date, and do suppressed findings still feed your threat detection?
  5. When your AI opens a pull request, what share are merged unchanged, and who's accountable when one breaks something?

What usually goes wrong

SymptomLikely causeFirst thing to check
40,000 findings and the count never fallsRanked by CVSS instead of exposure; no ownersShare of findings with an owner; criticals that are reachable and exploitable
The same misconfiguration is back a week after the fixFixed in the console; the next deploy reverted itWhether the resource is managed in code; drift reports
Secure score up, risk unchangedExemptions marked "mitigated" with no expiryExemptions by age and reason
No attack-sequence finding during a real attackSuppression rules archived the inputsGuardDuty suppression rules
A short-lived workload was exploited and nothing saw itAgentless scans every 24 hours, no runtime sensorSensor coverage on internet-facing nodes
Auditor asks for last year's evidenceFindings deleted after 90 and 30 daysExports to storage you own
Year-old access keys everywhereIAM users with long-lived keys, including in CIKey age; short-lived federated credentials for CI
A security tool becomes the way inUnpinned versions or mutable tags in CI; broad scanner rolesPinned versions; permissions on integration roles
Marketplace purchase didn't count toward the commitmentListing not "Deployed on AWS", or not Azure-only for MicrosoftEligibility before signing

Words that mean something else here

TermWhat you'd assumeWhat it means here
AgentAn AI agentUsually a host agent or sensor; also an AI agent, and part of product names ("AWS Security Agent", "Wiz Green Agent")
AgentlessNothing runs anywhereThe vendor's scanner reads your APIs and disk snapshots with roles you grant, including rights to create snapshots and keys
Finding, issue, exposure, alertSynonymsA finding is one check result; an issue (Wiz) or exposure finding (AWS) is a ranked combination; an alert is activity seen at runtime. Counts differ 10-1,000 times depending on the noun
CriticalUrgentA CVSS score, a contextual ranking (exposed and exploitable) or, under DORA, a provider the system depends on
WorkloadAn applicationWiz's billing unit: one running VM, container or serverless function
PostureOverall securityConfiguration at a point in time
Toxic combinationA chemistry termLow and medium findings that together make a critical path (Wiz's phrase; others say attack path)
Suppressed, muted, exempted, acceptedDifferent statesFour ways to say "known, not fixing"; they differ on expiry and on whether scores change
Shift leftDoing work earlierScanning in code and CI; more and more, also sending the fix to the developer as a pull request
LLMjackingHacking a modelUsing stolen cloud keys to run AI models on the victim's bill

What surprised me

Placeholders in your voice, drafted from the research and the earlier guides. Rewrite each with your own moment.

"Security tools find the problems." Every tool found them, by the tens of thousands. The weeks went into getting an engineer on another team to merge a fix for the twelve that mattered.

"Agentless won." It won the opening sale. By 2026 the same vendors were selling sensors again, because a disk snapshot can't see what's running.

"Attackers get in through misconfigurations." In the latest data, exploits led as the way in. What they could reach once inside still came down to identity and permissions.

"The cloud provider shares the risk." Every contract I read put configuration on the customer and capped the provider at a year of fees.

"The security tool is the safe part of the stack." In March 2026 a poisoned scanner handed attackers the keys it was meant to protect.

Sources

Undated entries were read on October 8, 2026; "search result" means seen only as a search snippet or summary. Company figures are self-reported unless they come from a filing or a regulator, and vendor research measures each vendor's own customers.

Cloud providers: documentation, pricing and contracts

Standards, regulators and courts

Breach cases

Industry surveys and vendor research

Market, companies and deals

Insurance

Field Guides are learning notes, not legal or compliance advice. Rules and fees change; check the cited primary sources before you act on anything here.