Crosswalk pair
COPPA and NIST SP 800-171, control by control
9 canonical controls in Keel’s library satisfy clauses of both COPPA and NIST SP 800-171. Implement each once, attach the evidence once, and it counts toward each standard. The overlap is the work you don’t repeat.
COPPA counts as one of your plan’s paid frameworks, or from $39/mo as an add-on. NIST SP 800-171 counts as one of your plan’s paid frameworks, or from $49/mo as an add-on. See plans and pricing.
The overlap
What the two libraries have in common
Every figure here counts canonical controls in Keel’s library, not clauses of either standard. Each standard’s own authored count is on its framework page.
9
Controls that satisfy both
Canonical controls that crosswalk to at least one clause of each.
19
In Keel’s library for COPPA
47% of them also map to NIST SP 800-171.
41
In Keel’s library for NIST SP 800-171
22% of them also map to COPPA.
37
Evidence artifacts expected
Across the shared controls, from Keel’s evidence guidance. Gathered once.
-
COPPA 47%
9 controls of 19 in Keel’s library for COPPA also map to NIST SP 800-171.
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NIST SP 800-171 22%
9 controls of 41 in Keel’s library for NIST SP 800-171 also map to COPPA.
The mapping
Controls that satisfy both
Each row is one control in Keel’s library and the clauses it answers on each side. Do the work once; both columns are then evidenced by the same artifacts.
| Canonical control | COPPA clauses | NIST SP 800-171 clauses |
|---|---|---|
| Internal audit program A risk-based internal audit program evaluates conformity and effectiveness at planned intervals, and again when an environmental or operational change could have undermined what was last evaluated; each evaluation covers both technical testing and non-technical review of whether the documented policies and procedures are actually being met. The program itself is written down - how often audits run, what methods they use, who is responsible for them, what each one covers and how it reports - and nobody audits their own work, so a finding is an independent judgment rather than a self-assessment. The results of each audit go to the management responsible for the area audited, and the program and its results are retained as evidence that it ran. It rests on a documented assessment, authorization and monitoring policy with supporting procedures, issued to the roles it binds, owned by a named official, and reviewed and updated on a defined cadence. Independence is a property of the assessor and not only of the reporting line: assessments are carried out by assessors or assessment teams with no responsibility for what they are assessing and no stake in the result - internal to the organization but outside the area, or brought in from outside it - and the organization states what level of independence it requires before the assessment is commissioned rather than judging it afterwards. That independence extends to the ongoing case as well as the scheduled one: where controls are monitored continuously between audits, independent assessors monitor them too, so the periodic audit is not the only unbiased look the organization ever takes. What an evaluation produces is treated as an input to improvement and not only as a conformity verdict: the findings, the observations and the opportunities each audit identifies are recorded as improvements with owners and dates and carried into the organization’s improvement process, so an audit changes something rather than closing. Where a regime names the parties an assessment result must reach, such as a regulator, a certifying body or the customers the assessed service serves, the results go to those parties as well as to the management responsible for the area audited. | 312.8(b)(5) | 3.12.1 |
| Risk assessment & treatment A documented process to identify, analyze, evaluate, and treat information security risks on a defined cadence, and again whenever a significant change is proposed or has happened - a new system, a new supplier, a reorganization, a serious incident - so the picture is refreshed by events and not only by the calendar. The process is repeatable: the criteria for accepting risk and for deciding when an assessment is performed are set in advance and applied the same way each time, so repeated assessments produce consistent, comparable and valid results rather than a different answer depending on who ran it. Every risk has a named owner who approves how it will be treated and accepts what is left afterwards. The assessment covers risks and vulnerabilities to the confidentiality, the integrity and the availability of the data the organization holds - all three, not confidentiality alone - and is accurate and thorough enough to be relied on by the decisions taken from it. Treatment brings each risk down to a level that is reasonable and appropriate for this organization, which is the target the process is judged against rather than merely recording that a risk exists. Each assessment and its results are retained as documented information. The process is set down as a documented risk assessment policy with supporting procedures, issued to the roles it binds, owned by a named role, and reviewed and updated on a defined cadence and after an event that changes how the organization assesses risk. The criteria are stated as risk appetite and risk tolerance: how much risk the organization is willing to seek in pursuit of its objectives, and how much variation around that it will tolerate - written down, communicated to the people who take risk decisions, and maintained as the organization and its environment change rather than set once and inherited. The method itself is standardized and communicated: how a risk is calculated, how it is documented, which category it falls into and how it is prioritized against the others, so two people assessing the same thing produce the same rating. What the assessment works from is recorded rather than assumed. The threats to the organization, internal as well as external, are identified and written down. The impacts each could have, and how likely each is, are identified and recorded against them. And the threats, the vulnerabilities, the likelihoods and the impacts are then used together to understand the risk as it stands before any treatment is applied, and to decide which responses are taken first. | 312.8(b)(2) | 3.11.1 |
| Access control policy Rules for granting, reviewing, and revoking access to systems and data based on business need and least privilege; anyone who works with sensitive data, or in a place from which it can be reached, is individually authorized for that work or supervised while doing it; and a documented emergency route exists to obtain the data when the normal access path is unavailable, with every use of that route recorded and reviewed afterwards. The rules also settle the opposite question: which actions, if any, a person may take on a system without identifying or authenticating themselves at all. Those actions are identified rather than left as whatever the system happens to permit, they are limited to what the organization’s business actually requires, and each one is documented in the system’s security plan together with the reasoning that justifies it, so an unauthenticated path is a decision somebody made and can be asked about. The rules are enforced by access control lists set on the data itself, not only by what an application chooses to show: permissions on local and remote file systems, on databases and inside applications are configured to the holder’s need to know, so information a role has no business reading is unreachable rather than merely unadvertised. What an authorized user may DO is limited on the same terms as what they may read: the types of transaction and function each role is permitted to execute are decided in advance and enforced by the system, so holding access to an application does not carry the right to run every operation inside it, and an action outside the permitted set is refused rather than merely unadvertised in the interface. Enforcement is centralized wherever the systems support it - access decisions for enterprise assets are made by a single directory service or single sign-on provider rather than by each system keeping its own list - and the systems that make those decisions are themselves known: an inventory of the organization’s authentication and authorization systems is maintained, including those run by a service provider on its behalf, and reviewed on a defined cadence. | 312.8(b)(3) | 3.1.1, 3.1.2, 3.1.5 |
| Multi-factor authentication Documented procedures verify that a person or system seeking access to sensitive data is the one it claims to be, on every path by which that data can be reached - and multi-factor authentication is the enforced mechanism for remote access, administrative access, and access to sensitive systems and data. The multi-factor mechanism itself is configured so it cannot be bypassed, so the factors it uses are genuinely independent of one another - one factor’s success granting no knowledge of and no route around another - and so access is refused unless every factor required has succeeded. The requirement is not confined to the accounts that carry privilege: every account is covered, privileged and non-privileged alike, because an ordinary account is the usual way into a privileged one. The mechanisms chosen are resistant to replay, so an authentication captured on the wire or lifted from a log cannot be presented again to gain access. Authentication is not a single event at the start of a session either: the person is required to authenticate again when the organization’s defined circumstances arise - a change of role or of the authenticators themselves, an escalation to privilege, a session that has run beyond its defined life, or a request to perform an action the organization has designated as requiring fresh proof. Where a regime requires the factors to be PHISHING-RESISTANT rather than merely replay-resistant, the organization uses factors that resist verifier impersonation, such as a hardware security key or a platform authenticator bound to the origin by public-key cryptography. A one-time code or a push approval does not count toward that requirement: both resist replay and neither survives an attacker relaying the exchange in real time. | 312.8(b)(3) | 3.5.2, 3.5.3, 3.5.4 |
| Data retention & secure disposal Data is retained per policy and securely destroyed when no longer needed. Retention periods are set against the purpose the data was collected for and any legal or contractual obligation to keep it, recorded per category of data rather than left to whoever is looking at the record, and enforced when they run out - data goes because its period ended, not because somebody finally objected to keeping it. Destruction leaves it unrecoverable rather than merely removed from an index, and what was destroyed, when, by what method and on whose authority is recorded. The hardware and media that held it reach a defined final disposition at end of life, by a route the organization has decided in advance rather than by whatever happens to the box; and any media that stays in service is cleared of that data before it is reused, reassigned, or passed to anyone else. Disposal is not confined to data and media: the documentation, the tools and the system components the organization has defined as needing it are disposed of by techniques and methods it has approved in advance - so a decommissioned appliance, a retired build server, a set of network diagrams or a licensed utility leaves the organization by a route somebody chose, and the route is recorded on the same terms as a data destruction. A retention period has two ends and both are stated: the minimum the organization must keep the data for, and the maximum beyond which it may not be kept - so retention is bounded in the direction of keeping too long as well as of destroying too early. | 312.10 | 3.8.3 |
| Encryption in transit & at rest Strong cryptography protects sensitive data in transit over public networks and at rest in storage. The mechanisms are chosen to do two things and are judged against both: prevent unauthorized disclosure of the information, and prevent or detect unauthorized change to it - in transit, so a message altered between sender and receiver is caught rather than delivered, and at rest, so a stored record cannot be modified undetectably by somebody with access to the storage but not to the key. Which information is protected at rest, and on which system components, is decided and recorded rather than left to whatever the platform encrypts by default. The scope named explicitly reaches the end-user device as well as the server: data held on laptops, desktops and other end-user devices that carry sensitive information is encrypted at the device or volume level, so a device that leaves the building is an object somebody lost rather than a disclosure. And data in transit is encrypted wherever it is sensitive, not only where it crosses a public network - a session between two internal systems is protected on the same terms when what it carries warrants it. Where a law, a regulation or a contract requires the cryptography to be VALIDATED rather than merely strong, the organization uses a cryptographic module that carries the validation that instrument names, and it confirms that validation against the specific module, version and operating mode actually deployed rather than inferring it from the product’s name - because a validated module run outside the configuration it was validated in is not a validated module, and the certificate that proves the point is held as evidence rather than assumed to exist. | 312.8(b)(3) | 3.13.8, 3.13.11, 3.13.16 |
| Logging & monitoring Security-relevant events - including successful and failed log-in attempts - are logged, protected, retained, and reviewed for anomalies, and the discrepancies that review finds are reported to the people who act on them. The review runs on a defined cadence and covers the records of system activity as a set - the audit logs, the reports of who accessed what, and the record of security incidents - rather than the log stream alone. For those records to be correlated into one sequence of events, the systems producing them agree on the time: every in-scope system synchronizes its clock to a single approved reference source, the source and the tolerance the organization will accept are specified rather than left to defaults, and timestamps are recorded in an unambiguous form so a reader does not have to infer a time zone. Synchronization is monitored in its own right - a system that drifts beyond tolerance or loses its source raises an alert, because a clock that is wrong makes an investigation reach the wrong conclusion rather than no conclusion - and where equipment cannot be synchronized, its offset is known and recorded so its records can still be placed. Timestamps are generated from the system’s own clock, expressed in Coordinated Universal Time or a recorded offset from it, and cut to a granularity the organization has stated rather than to whatever the platform defaults to. All of this rests on a documented audit and accountability policy with supporting procedures, aligned with the laws and obligations that apply to the organization, issued to the roles it binds, owned by a named role, and reviewed on a defined cadence. WHAT A RECORD CONTAINS is specified rather than accepted: every audit record establishes what type of event occurred, when it occurred, where it occurred, the source it came from, the outcome - success or failure - and the identity of any individual, subject or object associated with it, plus whatever further fields the organization has decided it needs to reconstruct an event afterwards. Because every person holds an account of their own, the identity a record carries resolves to one named individual rather than to a shared or generic login, so an action can be traced to whoever actually took it and that person can be held accountable for it - which is the whole reason the identity field is mandatory rather than useful. WHICH EVENTS ARE LOGGED is decided and then kept under review rather than configured once: the set of event types selected for logging is agreed with the roles who investigate, is reviewed on a defined cadence and again after an incident that showed the set was wrong, and is updated as a result - so the log answers the questions being asked now instead of the ones somebody anticipated at build. Storage is sized for that: enough capacity is allocated to hold the volume produced for the retention period the organization has set, and records are retained for that period specifically so an investigation after the fact is possible and so regulatory and internal obligations are met, rather than for as long as the disk happens to last. When the logging process itself fails - the pipeline stops, the store fills, a source goes silent - a defined role is alerted within a defined time and the organization takes the response it decided on in advance, because a logging failure is the one failure the logs cannot tell you about. REVIEW AND ANALYSIS are supported by machinery rather than by reading. Automated mechanisms integrate the review, analysis and reporting of audit records into a single process, and records drawn from separate repositories are correlated so the organization sees one organization-wide picture of activity instead of several partial ones. A reduction and reporting capability supports on-demand review, analysis and reporting and the investigation of an incident, and it does so without altering the original records or their ordering; it lets an analyst filter, sort and search records by the criteria the organization has defined, so events of interest surface in time to matter. THE RECORDS THEMSELVES ARE PROTECTED as an asset. Audit information and the logging tools that produce it are protected from unauthorized access, modification and deletion, a defined role is alerted when evidence of tampering is detected, and the ability to manage the logging function - what is collected, what is retained, what is deleted - is restricted to a named subset of privileged users rather than being available to every administrator whose activity it records. MONITORING runs on top of the record. The organization monitors its systems to detect attack and indicators of potential attack, unauthorized local, network and remote connections, and use that is outside what it has authorized; it identifies that use against defined criteria for what unusual looks like. Inbound and outbound communications traffic is watched for those conditions specifically, because exfiltration and command traffic look ordinary unless somebody has said what ordinary is. Automated tools and mechanisms support analysis close to real time rather than at the next review, and when the system produces an indication of compromise or potential compromise a defined role is alerted. What monitoring finds is reported to the people who act on it, at the frequency the organization has set. WHICH SOURCES ARE COLLECTED is decided rather than left to whatever a platform emits by default. Access to information the organization has classified as sensitive is logged, including modification and disposal and not only reading. DNS queries, URL requests and command-line activity are collected where the asset supports it, because those three are what an investigation reconstructs an intrusion from, and network traffic flow records are collected from the network devices so that movement between systems can be reviewed and alerted on. Logs from the service providers the organization depends on are collected too, so authentication, user-management and data-lifecycle events that happen outside its own estate sit inside the same record. Collection and retention are centralized so far as the estate allows, into a platform that correlates sources rather than storing them side by side, and security event alerting is centralized on top of it so that a pattern spanning two sources raises one alert to one place. The alerting thresholds are tuned on a defined cadence rather than set once, because an alert stream nobody can read is the same as no alerting at all. Time synchronization uses more than one source: at least two reference sources are configured wherever an asset supports it, so losing one does not silently leave the estate drifting. WHAT IS WATCHED includes people as well as machines: the activity of personnel and their use of the organization’s technology are monitored against what has been authorized for them and against what the organization has told them is monitored, so misuse and a compromised account surface from the same record. Analysis goes past the alert to the activity behind it - what else the same account, host or address did before and after, and whether the separate events form one sequence - so a potentially adverse event is understood rather than merely counted. And each such event is scoped before it is handed on: the estimated impact and the reach of it - which systems, which data, which accounts, over what period - is established from the correlated record and carried into the incident assessment rather than left for the responder to rebuild. | 312.8(b)(3) | 3.3.1, 3.3.2, 3.3.3, 3.3.4, 3.3.5, 3.3.6, 3.3.7, 3.3.8, 3.3.9, 3.14.6, 3.14.7 |
| Vulnerability management Regular scanning, prioritization, and remediation of vulnerabilities across systems and applications, fed by current information about threats and weaknesses collected from outside the organization as well as from its own scans - vendor and industry security advisories for the software actually in use, and the threat feeds, bulletins and sector reporting that describe how systems like these are being attacked now - which is gathered continuously rather than at the next scan, evaluated for whether it applies here, and used to decide what is looked for and what is fixed first. The set of vulnerabilities the scanner actually looks for is updated on a defined cadence and whenever new ones are identified and reported, so a scan reflects what is known today rather than what the tool shipped with. Scans that need to see inside a system are given the privileged access to do so, granted deliberately to the scanning activity for the components that require it rather than left to run blind and report clean. Whether a fix is actually present is confirmed by automated mechanisms that report, per component, which security-relevant software and firmware updates are installed - so remediation is evidenced by the estate rather than by a closed ticket. The organization also runs a PUBLIC intake: a reporting channel that anybody outside the organization can find and use to report a vulnerability they have discovered in its systems or products, with a stated scope, a stated way to report, an acknowledgment, and a route into the same triage and remediation process everything else uses. All of this rests on a documented system and information integrity policy with supporting procedures, issued to the roles it binds, owned by a named role and reviewed on a defined cadence. The scanning and the fixing are each defined rather than assumed. Internal assets are scanned automatically on a defined cadence, both with credentials and without, because the two find different things - one shows what is installed, the other shows what somebody with no account can see. Externally exposed assets are scanned on their own cadence, which is at least as frequent, because they are reachable by everyone. Patching is automated for operating systems and, on the same terms and cadence, for the applications running on them, so an application left to be updated by whoever notices is not the gap. Remediation runs to a documented, risk-based strategy - what is fixed first, within what period, and who may approve an exception - reviewed on a defined cadence rather than written once. The public intake is governed by a written vulnerability handling policy that names how to report, who is responsible for handling a report, and the steps from intake through assignment and remediation to remediation testing, with reports tracked in a system that records a severity rating and the timing of identification, analysis and remediation, so how long the organization takes is a measured number rather than an impression. | 312.8(b)(4) | 3.11.2, 3.11.3, 3.14.1 |
| Incident response A documented, tested plan to detect, triage, contain, remediate, and communicate security incidents, and to mitigate - so far as is practicable - the harmful effect of a use or disclosure of personal data the organization knows breached its own policies or the law. Each incident is recorded together with its outcome - what happened, what was done about it and how it ended - as a record of that incident, which is a different artifact from the plan being documented. The mitigation duty runs to violations by the organization itself AND to violations by the processors, vendors and other parties handling that data on its behalf: the plan reaches an incident somebody else caused with the organization’s data, so learning of one triggers the same containment and remediation as an incident inside its own walls rather than a request that the other party deal with it. Where an incident carries a duty to tell someone outside the organization, the plan discharges it on the clock the applicable law sets - and, where the organization has itself committed to a timeframe for telling people, on that commitment too, whether or not a statute stands behind it - rather than whenever the investigation happens to conclude: whether an incident is notifiable is decided against written criteria rather than argued after the fact, the regulator or supervisory authority is notified inside the deadline that regime states and inside any shorter or additional timeframe the organization has committed to, the people whose data is affected are told where the risk to them warrants it and, independently of that threshold, wherever the organization’s own privacy commitments say they will be told - so individual notification is never conditioned solely on a statutory risk test - and any other party that law or those commitments require to be notified is told on the same terms, and where a deadline is missed the notification itself explains the delay instead of passing over it. What a notification carries is fixed in advance rather than composed under pressure: to a regulator it describes at least the nature of what happened, including where possible the categories and the approximate number of people affected and of records involved; names a contact point - the data protection officer where there is one, otherwise whoever can answer - from whom more can be obtained; describes the likely consequences; and describes the measures taken or proposed to address it, including where appropriate the measures that will mitigate its adverse effects. Where all of that cannot honestly be given at once, it is given in phases without further undue delay rather than held back until the picture is complete, and each phase says what is still outstanding. The communication to the people affected describes what happened in clear and plain language and carries the same contact point, likely consequences and measures. Every compromise of personal data is documented whether or not it turned out to be notifiable - the facts of it, its effects, and the remedial action taken - in enough detail that a regulator reviewing the file can verify for itself that the notification decision was the right one. Recovery is part of the plan rather than something that follows it: service and data are restored to a state the organization has established is clean, the restoration is verified before the system is handed back to use, the cause is determined rather than inferred from the symptom, and the weakness the incident exposed is fixed - with the plan itself updated for what the incident showed about it. Between the report and the response sits an assessment step that is a duty of its own: every reported event is assessed against written categorization and prioritization criteria by people competent to apply them, and the decision - whether this event is an incident, and at what severity - is recorded with the reasoning, so two assessors reach the same answer and an event judged not to be an incident is a decision somebody made rather than a report that went quiet. Learning is treated as a duty separate from fixing the incident in front of you: the types, volumes and costs of incidents are quantified and reviewed as a set for what the pattern says, and what is learned is pushed back into the controls, the risk assessment, the awareness material and the assessment criteria themselves rather than staying in the report of the incident that produced it. The plan is a documented incident response policy with supporting procedures, issued to the roles it binds, owned by a named role, and reviewed and updated on a defined cadence. The people the plan assigns roles to are trained for them: within a defined period of taking the role, again when the system or the plan changes in a way that affects it, and on a defined cadence thereafter, with the content revised for what exercises and real incidents have shown. The capability is TESTED rather than assumed - on a defined cadence, using tests the organization has chosen for the purpose, such as a tabletop, a walkthrough, a simulation or a live exercise - and that testing is coordinated with the organizational elements that own the related plans, incident response and contingency planning in particular, so the two do not each assume the other. Handling and reporting are supported by automated mechanisms rather than run by hand at the worst moment: detection, triage, tracking, evidence collection and the routing of a report are automated so far as the organization’s systems allow, and the reports that must go outside are produced and sent by mechanism rather than composed under pressure. The roles the plan assigns are named across the functions an incident actually needs and not security alone - legal, IT, information security, facilities, communications, human resources, the responders and the analysts - and the assignment is reviewed on a defined cadence. So are the CHANNELS: a primary and a secondary mechanism for communicating and reporting during an incident are chosen in advance, on the understanding that the ordinary one may be the thing that is unavailable or compromised, and both are reviewed on the same cadence. The plan reaches the parties outside the organization that an incident actually involves: the suppliers and other third parties whose services, staff or systems would be part of the response are named in it, take part in the planning and the exercises, and are called on during response and recovery on terms agreed in advance rather than negotiated during the event. ESCALATION is a defined step and not a judgment call - the plan states the conditions under which an incident is escalated or elevated, whether by severity, by elapsed time, by the functions it has reached or by the obligations it triggers, who it goes to at each step, and what changes when it gets there. The analysis establishes what actually took place during the incident as well as why it happened, and the incident’s magnitude - how many systems, records and people it reached, and over what period - is estimated as the investigation proceeds and then VALIDATED against the evidence rather than left at the first number anybody said out loud. Notification runs to internal stakeholders as well as external ones, so the functions inside the organization that have to act on an incident are told on the same defined terms as the parties outside it. And containment is followed by ERADICATION as a separate act: the malicious code, the unauthorized access and the persistence left behind are removed and their removal is confirmed, so a contained incident is not mistaken for a finished one. | 312.8(a) | 3.6.1, 3.6.2, 3.6.3 |
Beyond the pair
Where else this work counts
A framework is lit when a shared control above also maps to it. Unlit means none of them do, which is an absence rather than a judgment about that standard.
Also reached by these 9 controls
- AI Governance Essentials not reached
- Amazon Appstore Child-Directed Apps not reached
- Apple App Store Kids Category not reached
- CIS Critical Security Controls also reached
- ESG Essentials not reached
- EU AI Act not reached
- FedRAMP 20x also reached
- FedRAMP Consolidated Rules also reached
- FedRAMP Rev5 Class B also reached
- FedRAMP Rev5 Class C also reached
- FedRAMP Rev5 Class D also reached
- GDPR also reached
- Google Play Families not reached
- HIPAA also reached
- ISO 9001 also reached
- ISO/IEC 27001 also reached
- ISO/IEC 42001 also reached
- NIST AI Risk Management Framework not reached
- NIST Cybersecurity Framework also reached
- NIST SP 800-53 also reached
- PCI DSS also reached
- PIPEDA also reached
- SOC 2 also reached
- SOX (Sarbanes-Oxley) Section 404 also reached
- US Employment Law - Federal Baseline also reached
Nearby pairs
- NIST SP 800-171 and NIST SP 800-53 41 shared controls
- NIST SP 800-171 and FedRAMP Rev5 Class C 40 shared controls
- NIST SP 800-171 and FedRAMP Rev5 Class D 40 shared controls
- NIST SP 800-171 and FedRAMP Rev5 Class B 36 shared controls
- NIST SP 800-171 and ISO/IEC 27001 35 shared controls
- NIST SP 800-171 and CIS Critical Security Controls 25 shared controls
The thesis
Why this is one project, not two
On a crosswalk-native model, NIST SP 800-171 mostly lights up controls you already built for COPPA. You’re not re-uploading the same screenshot for a second audit. You apply the framework and see the genuine delta worth working. That’s the whole idea behind collect once, comply everywhere.
Next step
Add NIST SP 800-171 to the work you already did
Apply both frameworks in one workspace and see the overlap measured against the controls you already hold.