Crosswalk pair
NIST SP 800-171 and PIPEDA, control by control
8 canonical controls in Keel’s library satisfy clauses of both NIST SP 800-171 and PIPEDA. Implement each once, attach the evidence once, and it counts toward each standard. The overlap is the work you don’t repeat.
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.
8
Controls that satisfy both
Canonical controls that crosswalk to at least one clause of each.
41
In Keel’s library for NIST SP 800-171
20% of them also map to PIPEDA.
30
In Keel’s library for PIPEDA
27% of them also map to NIST SP 800-171.
35
Evidence artifacts expected
Across the shared controls, from Keel’s evidence guidance. Gathered once.
-
NIST SP 800-171 20%
8 controls of 41 in Keel’s library for NIST SP 800-171 also map to PIPEDA.
-
PIPEDA 27%
8 controls of 30 in Keel’s library for PIPEDA also map to NIST SP 800-171.
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 | NIST SP 800-171 clauses | PIPEDA clauses |
|---|---|---|
| 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. | 3.1.1, 3.1.2, 3.1.5 | 4.7.1, 4.7.3 |
| Data classification & handling Information is classified and handled per its sensitivity, with rules for labeling and protection - including the everyday handling rules that stop it being seen, overheard or picked up by people with no business reading it, so exposure that happens incidentally alongside legitimate work is limited rather than accepted. The handling rules are written to cover disclosure that nobody intended as much as disclosure that somebody chose, they say what an unauthorized disclosure is against the organization’s own privacy and confidentiality rules rather than leaving that to judgment in the moment, and they reach every medium the information travels in - spoken, on paper, on a screen and in a system - because the incidental exposure they exist to limit does not respect the boundary between an administrative, a physical and a technical safeguard. Labeling is the procedure that makes the classification visible, and it is defined rather than left to habit: there is a label for each level of the scheme, a rule for how the label is applied in each form the information takes - a document, an email, a file, a database field, a screen, a report, a piece of removable media, a printed page - and, where a system supports it, the label is carried in metadata so it can be acted on automatically rather than only read. The person who creates or receives the information applies the label at that point rather than later, the label travels with the information when it is copied, extracted, exported or transferred so a copy does not arrive unclassified, and information derived from or aggregated out of classified sources is labeled for what the combination is worth rather than for what the least sensitive input was. Where a label would itself disclose something, an agreed alternative is used and recorded, and the procedure covers what to do when unlabeled information is found. On storage media the marking carries more than the level: it states the distribution limitations that apply and any handling caveats that travel with the contents, so somebody who picks the item up knows what they may do with it without having to ask. Where the organization exempts a class of media from marking because it never leaves a controlled area, that exemption is defined and recorded as a decision rather than practiced as an omission. Underneath the scheme sits a documented DATA MANAGEMENT PROCESS that the classification and the handling rules are derived from: it states how sensitivity is decided, who owns each category of data, how each category is handled, the retention limits that apply to it and what disposal it requires, and it is reviewed and updated on a defined cadence and whenever a change to the organization would alter it. That process is also what the DATA FLOWS are documented against - where each category of information originates, which systems and processes it moves between, and where it crosses out to a service provider - recorded as documentation somebody maintains rather than reconstructed when a question is asked, and reviewed on the same cadence. | 3.8.4 | 4.3.4, 4.7.2 |
| 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. | 3.8.3 | 4.5, 4.5.2, 4.5.3, 4.7.5, 8(8) |
| 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. | 3.13.8, 3.13.11, 3.13.16 | 4.7, 4.7.1, 4.7.3 |
| Backups Regular, tested backups of critical data and systems with defined retention, each one a RETRIEVABLE EXACT COPY of the data it protects - complete and restorable, not a partial or lossy snapshot - including a copy taken before equipment holding that data is moved. Backup information is tested on a defined cadence to verify that the media are still reliable and the information still has its integrity - a restore actually performed, not a job that reported success - and it is protected by cryptographic mechanisms so a copy obtained by somebody who should not have it discloses nothing and cannot be altered undetected. Copies are held somewhere other than where the original lives: an alternate storage site is established, with the agreements needed to store backups there and to retrieve them when they are wanted, carrying security controls equivalent to those at the primary site rather than weaker ones because it is only a copy. The alternate site is chosen far enough from the primary that the same fire, flood, outage or regional event is unlikely to take both, and the organization identifies in advance the problems that would make the site hard to reach during a wide-area disruption - roads, transport, staff availability, network dependency - and states explicit mitigation actions for each rather than discovering them on the day. The recovery itself is a documented process and not only a schedule: it states which assets are in scope for recovery, the order in which they are brought back, and how the backup data is protected while it waits, and it is reviewed and updated on a defined cadence and whenever a change to the organization would alter it. Recovery data carries protection EQUIVALENT to the data it copies rather than weaker protection because it is a copy. And at least one instance of it is ISOLATED - held offline, off-site, or in a separately controlled service, out of reach of the credentials and the network paths that operate the live environment - so an event that reaches production does not also reach the copy that would undo it. Verification is performed at the point of USE as well as on the cadence: before a backup or any other restoration asset is relied on to bring a system back, its integrity is checked against the value recorded when it was taken and the check is logged - so a restoration does not carry corrupted or tampered data into a system that has just been cleaned. | 3.8.9 | 4.7.1 |
| 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. | 3.6.1, 3.6.2, 3.6.3 | 10.1(1), 10.1(2), 10.1(3), 10.1(4), 10.1(5), 10.1(6), 10.2(1), 10.2(2), 10.3(1), 10.3(2) |
| Security awareness training Ongoing security and data-handling awareness training for all personnel, with completion tracking, and periodic security updates - reminders, bulletins and alerts - issued to the workforce between training cycles. New joiners are trained within a defined period of starting, anyone whose work is affected is retrained within a defined period after a material change to the policies or procedures, and every completion is recorded. The program itself rests on a documented awareness and training policy with supporting procedures, issued to the people and roles it binds, owned by a named role, and reviewed and updated on a defined cadence rather than at whatever point somebody notices it is stale. The curriculum names two threats explicitly, because both are answered by a person rather than by a system. The first is INSIDER THREAT: what the potential indicators look like - unexplained access outside a role, bulk copying, hostility after a disciplinary or a passed-over promotion, working around a control rather than raising it - and where to report a concern about a colleague, without the reporter being asked to conclude anything. The second is SOCIAL ENGINEERING AND SOCIAL MINING: the phishing message, the pretext phone call, the urgent request from an apparent executive, the person following somebody through a door, and the slower pattern of harmless-seeming questions that assembles into an answer nobody would have given at once - together with the instruction to report both the attempts that worked and those that did not. The curriculum is stated as a set of topics rather than left to whoever assembles the material. AUTHENTICATION: how multi-factor authentication works and why it is required, what makes a passphrase strong, and how credentials are stored and never shared. DATA HANDLING: how to identify sensitive information and how to store, transfer, archive and destroy it, together with the clear screen and clear desk habits that go with it - locking a screen on standing up, clearing a whiteboard at the end of a meeting, and putting paper and portable media away rather than leaving them out. UNINTENTIONAL EXPOSURE: the ways data leaves by accident, such as a message sent to the wrong recipient, a portable device left behind, or a file published to a wider audience than intended. INCIDENTS: how to recognize that something may be an incident and how to report it without first establishing that it is. MISSING UPDATES: how to tell that an asset is not receiving its security updates, and to report a failure of an automated patching tool rather than assume somebody is watching it. INSECURE NETWORKS: the risk of connecting to and sending organizational data over networks the organization does not control, including what is expected of a home network where people work from one. And beyond the common curriculum, ROLE-SPECIFIC training is given where a role carries specific risk - system administration, secure development, and the roles most likely to be targeted directly. | 3.2.1, 3.2.2, 3.2.3 | 4.1.4, 4.7.4 |
| Physical security Physical access to facilities and equipment holding sensitive data is restricted and monitored, and a person’s access is validated against the role or function that justifies it rather than only logged; visitors are controlled as a case of their own, and so is access to software programs held for testing and revision. The facility and the equipment in it are safeguarded against tampering and theft as well as against unauthorized entry, and so is the SUPPORT INFRASTRUCTURE the systems depend on - the power feed and its distribution, the cabling and patching, the cooling and environmental plant, the fire detection and suppression, and the points at which communications enter the building - which is protected and monitored on the same terms rather than treated as building services somebody else owns, because a system is stopped as surely by reaching its power or its cooling as by reaching its data. The people who have to reach the site and the equipment when a continuity or recovery plan is invoked can still get in, by a route that is planned rather than improvised; and repairs and modifications to the physical security components of a facility - doors, locks, walls, and the hardware that controls entry - are recorded. The offices, rooms and facilities themselves are designed and fitted for that job rather than simply occupied: rooms holding sensitive information or the equipment that processes it are sited away from public access and from routes people pass through for other reasons, the building’s signage, directories and public information do not advertise where sensitive processing happens, doors, windows, walls and any shared boundary with another tenant are specified against the risk the room actually carries, and a room is locked and checked when it is unoccupied rather than left secured by whoever was last out. Monitoring is continuous rather than periodic: the premises are watched for unauthorized physical access by detection suited to the site - intruder alarms, cameras, contact and motion detection, staffed reception or patrols - covering every way in including delivery and fire doors and including the hours nobody is there, with an alarm going to somebody who responds and a stated response. The monitoring system is protected in its own right, so its configuration, its coverage and its recordings cannot be altered or read by the people it is watching, and recordings are retained and handled under the privacy rules that apply to them. The detection is specified rather than generic: intrusion alarms and surveillance equipment are employed as the means of monitoring physical access, and what they cover, what raises an alarm and who responds is decided in advance. Visitors are escorted for the whole time they are inside a controlled area and their activity while there is monitored, rather than being signed in at a desk and then left to move around; that applies to contractors, delivery and service personnel and auditors alike, and where somebody is authorized to work unaccompanied that is a recorded decision rather than a courtesy. Visitors leave a record: who came, who they were visiting, when they arrived and left, and the identification presented; the record is retained for a defined period, reviewed on a defined cadence rather than only after an incident, and anomalies in it are reported to a designated role. Deliveries and removals are controlled as a class - system components and equipment entering or leaving the facility are authorized before they move, the movement is monitored, and a record of what came in and what went out is kept - and the delivery area itself is arranged so that a delivery does not become unescorted access to the interior. PHYSICAL ACCESS IS LOGGED and not only permitted: entry to the facility and to each controlled area inside it is recorded - who entered, which area, and when - by the entry system, the staffed reception, the visitor register or a combination of them, and the log is retained for a defined period and reviewed on a defined cadence, so a person can be placed in a room at a time and matched against what the systems in it recorded. PHYSICAL ACCESS DEVICES are managed as a controlled inventory rather than handed out: the keys, locks, combinations, badges, cards, fobs and biometric enrollments that open a door are listed with the holder of each, issue and return are recorded against that person, the inventory is reconciled on a defined cadence, and combinations are changed and locks re-keyed when a device is lost or stolen, when a holder leaves or moves, and on the cadence the organization has set rather than only after an incident. All of this rests on a documented physical and environmental protection policy with supporting procedures, issued to the roles it binds, owned by a named role and reviewed on a defined cadence. | 3.10.1, 3.10.2, 3.10.3, 3.10.4, 3.10.5 | 4.7.3 |
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 — an absence, not a judgment about that standard.
Also reached by these 8 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
- COPPA also reached
- ESG Essentials also reached
- EU AI Act not reached
- GDPR also reached
- Google Play Families not reached
- HIPAA also reached
- ISO 9001 not reached
- ISO/IEC 27001 also reached
- ISO/IEC 42001 not reached
- NIST AI Risk Management Framework not reached
- NIST Cybersecurity Framework also reached
- NIST SP 800-53 also reached
- PCI DSS 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 ISO/IEC 27001 35 shared controls
- NIST SP 800-171 and CIS Critical Security Controls 25 shared controls
- NIST SP 800-171 and PCI DSS 25 shared controls
- PIPEDA and GDPR 22 shared controls
- NIST SP 800-171 and NIST Cybersecurity Framework 22 shared controls
The thesis
Why this is one project, not two
On a crosswalk-native model, PIPEDA mostly lights up controls you already built for NIST SP 800-171. 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 PIPEDA to the work you already did
Apply both frameworks in one workspace and see the overlap measured against the controls you already hold.