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A pension record can be complete, correctly formatted and still fail to reflect the member behind it.
That distinction is becoming increasingly important as more pension schemes prepare for buy-in, buy-out and other endgame decisions. A recent Professional Pensions article on data readiness makes the case that preparing for buy-out requires far more than simply cleaning scheme data. Trustees need to understand their data, validate it and give insurers confidence in the information provided.
We agree. But it also raises a further question: are the processes traditionally used to assess pension scheme data still sufficient for what trustees and insurers need to achieve today?
Pension scheme data readiness means that member data is complete, accurate, current and sufficiently understood for its intended purpose. For a buy-in or buy-out, it should enable insurers to assess the scheme with confidence and support an efficient transaction. For trustees, it should support good governance, accurate benefits and positive member outcomes.
Data readiness is therefore not a single score or one-off pension data cleansing exercise. It depends on the outcome the scheme is preparing for and the level of confidence required to achieve it.
Industry-standard data checks remain an essential foundation. They can identify missing fields, invalid formats, duplicate entries and known inconsistencies. Yet a record can pass those checks while the information within it is no longer true.
For example:
The record may appear complete. That does not necessarily mean the scheme’s understanding of the member is complete.
This is consistent with The Pensions Regulator’s guidance on scheme member data quality, which distinguishes between the presence of data and its accuracy. The regulator expects trustees to manage data quality actively, including regular reconciliation, member tracing and mortality screening.
Insurers generally need pension scheme data that is complete, accurate, current and clear enough to support pricing, benefit verification and transaction execution. The precise requirements depend on the scheme and transaction, but strong data readiness typically includes:
PASA’s guidance on data readiness for buy-ins and buy-outs notes that complete, accurate and current data can improve insurer engagement, transaction efficiency, pricing and the accurate delivery of member benefits.
Data schedules and benefit specifications may be technically complete, but insurers also need confidence in the people represented by those records. If identity or contact information is stale, contradictory or poorly evidenced, uncertainty can persist even when the dataset looks orderly.
Trustees remain accountable for pension scheme data quality, even when the day-to-day work is delegated to an administrator. A high completion score can be reassuring, but it does not answer every question trustees need to ask.
A more meaningful review should consider five dimensions:
The first two dimensions are relatively straightforward to test within the existing dataset. The remaining three often require schemes to look beyond the record itself.
This is where pension scheme member tracing and broader identity validation become important. Rather than asking only whether an address exists, the scheme can assess whether it remains current. Rather than treating a previous “no trace” result as final, it can consider whether new evidence or signals are now available. Rather than reviewing each field separately, it can determine whether the identity attributes fit together and belong to the same person.
Traditional pension tracing exercises often begin with the information already held by the scheme. That is a logical starting point, but it can also limit the result.
If a scheme holds an old UK address, for example, a process focused primarily on confirming or updating that address may miss that the member has established an entirely new life overseas.
In one scheme-wide tracing exercise, Heka identified members across 61 countries—even though the historical scheme records did not reveal the true scale of the international membership.
The same issue arises with other life events. People marry, divorce, adopt new names, relocate and develop new contact details. Families change, and members die. Pension scheme records do not update automatically as those lives evolve.
A person-led approach starts with a different objective: not simply to improve the existing record, but to establish the most accurate and current understanding of the individual it represents.
That distinction matters. A conventional process may conclude that no new address has been found. A broader identity investigation may establish that the member now uses a different surname, lives in another jurisdiction and can be connected to current contact information through multiple corroborating signals.
Both processes may have been performed correctly. They are working towards different definitions of success.
Poor or poorly understood member data can create uncertainty during a pension risk transfer. Questions that emerge late can require additional investigation, place pressure on administrators and complicate the journey from buy-in to buy-out.
Strong pension scheme data readiness can help trustees and insurers:
The objective is not to promise a perfect dataset. It is to understand the data well enough to explain what has been tested, what has changed, where uncertainty remains and how any unresolved cases will be handled.
No. Pension scheme data readiness is relevant to almost every major administration and governance objective.
For pensions dashboards, schemes need accurate identity attributes and an appropriate matching policy to connect people with their pensions.
For member engagement, schemes need current, usable contact information to reach the right person through the right channel.
For mortality screening, schemes need sufficiently strong evidence to identify deaths accurately and take appropriate action.
For ongoing administration, reliable data supports accurate calculations, payments and communications.
For buy-in and buy-out, trustees and insurers need confidence in both the benefits being secured and the people entitled to receive them.
The relevant question is not simply, “Has the data been cleaned?” It is: “Is the data sufficiently understood and validated for the outcome we are trying to achieve?”
Looking beyond established data checks does not mean every member record requires an intensive manual investigation.
Schemes can use technology to validate records at scale, identify conflicting identity attributes and highlight cases where information is missing or confidence is low. Deeper investigation can then be directed towards the records most likely to affect the intended outcome.
An effective pension data improvement programme should:
This approach distinguishes between records that are genuinely well understood and those that merely appear complete. It can also make data work more targeted by focusing time and specialist investigation where it is most likely to change the outcome.
The Professional Pensions article is right that data readiness is about confidence, not just cleansing. Building that confidence may require trustees and insurers to look beyond familiar processes and test whether the information held reflects the member as they are today—not only the record as it was originally created.
Industry standards remain the foundation. But as better information and new methods become available, best practice should continue to evolve with them.
For pension schemes, true data readiness means more than having a clean file. It means being able to identify, understand and reach the people behind the data with confidence.
Pension data cleansing identifies and corrects missing, invalid, duplicated or inconsistent information. Data readiness is broader: it means the data is complete, accurate, current, understood and suitable for a specific purpose, such as pensions dashboards, member tracing, buy-in or buy-out.
Trustees should begin assessing pension scheme data quality early in the journey, before approaching the market. Early preparation creates time to investigate complex cases, resolve inconsistencies and explain any remaining uncertainty to insurers.
Member tracing helps confirm whether contact and identity information remains current. It can identify relocated members, name changes, overseas members, deaths and other changes that may not appear in historical scheme records.
High-quality member data is complete, valid, accurate, consistent, current and usable. It should reliably identify the correct member, support accurate benefits and enable the scheme or insurer to communicate with that person when required.
Technology can validate large volumes of member data, connect fragmented identity information and prioritise records that require attention. Complex or ambiguous cases may still require expert investigation. The most effective approach combines scalable technology with targeted human analysis.
Heka helps pension schemes validate member identities, enrich incomplete or outdated records, identify deaths and reconnect with members in the UK and internationally. By bringing together identity and risk signals from multiple sources, Heka helps trustees and insurers develop a more current and confident understanding of the people behind scheme records.

Pension schemes can trace members internationally by combining global research with identity verification. Rather than relying on a name or last-known address alone, schemes need to connect information across countries and confirm that the person found is genuinely the member they are trying to reach.
A recent Heka project shows why this matters.
A pension scheme for the professional sports industry sent Heka a single file of members it needed to trace. What appeared to be one tracing project quickly expanded far beyond the UK.
Members were found across 61 countries.
For a scheme connected to professional sports, some international movement was expected. Careers change, families relocate and people build lives far from where their pension records began.
The scale, however, was striking. One member file became a global tracing exercise spanning almost every region of the world.
Most pension records reflect a particular moment in a member’s life.
They may contain the address used while the member was working in the UK, an old employer record or contact information provided decades ago. Over time, that information can become increasingly disconnected from the person it belongs to.
Members move without notifying the scheme. Some return to their country of origin after working in the UK. Others relocate several times, change their name, retire abroad or join family living overseas.
In this professional sports scheme’s population, those individual journeys collectively reached 61 countries.
The challenge was not simply to confirm that a member had moved. It was to establish where they were now– and whether the information found genuinely belonged to the same person recorded by the scheme.
That distinction matters. A possible name and address match is not enough, particularly when the search crosses countries, languages and very different data environments.
International tracing is more complex than searching for a member’s name in another country.
Names may be transliterated or recorded differently across jurisdictions. Address formats vary, and the availability of public and commercial data differs significantly between countries.
A married name, abbreviated middle name or differently formatted date of birth can make the same person appear to be several different people. At the same time, multiple individuals may share similar names and biographical details.
Every country also presents a different tracing environment. A source that provides useful information in one location may not exist– or may work very differently– in another.
A portfolio spread across 61 countries cannot therefore be approached as 61 versions of the same UK search.
Reliable international tracing requires more than locating someone with a matching name. It requires evaluating the person’s wider identity.
Depending on the information available, this may involve asking:
Heka brings these signals together to determine whether the person found is genuinely the member the scheme is trying to reach.
This is particularly important when the member’s journey crosses several countries. Each move may leave behind a different fragment of information. The value comes from connecting those fragments into one coherent identity.
Without consistent international capabilities, overseas cases can become individual exceptions.
They may be set aside for manual investigation, passed between different providers or treated as complex cases requiring a separate approach. Across a large population, that quickly becomes slow and difficult to manage consistently.
The professional sports project showed the value of approaching international tracing at portfolio scale.
Rather than deciding in advance which members were likely to be overseas, Heka reviewed the file as one connected tracing exercise. The investigation followed each member wherever the evidence led.
This meant the scheme did not need to know which members had moved abroad– or where they might have moved– before the tracing began. The geographic complexity emerged from the research rather than becoming a barrier to it.
A member’s last-known address may still be in the UK even if they moved overseas years ago. A UK telephone number may no longer be active, while nationality alone cannot reliably indicate where someone lives today.
If schemes only initiate international tracing when their existing records already point overseas, they risk overlooking members whose relocation was never recorded.
This is especially relevant for schemes with globally mobile workforces, historic international recruitment or member populations accumulated over many decades. But the issue is not limited to schemes that appear international.
Almost any large deferred-member population is likely to include people who have crossed borders since their information was last updated.
The real question is not whether a scheme has international members. It is whether the scheme can identify and trace them when its records no longer show where they are.
Yes. International tracing can be conducted across a complete member file rather than reserved for individual cases already known to be overseas.
Applying tracing across the full population allows the evidence– not assumptions within the existing data– to reveal where members are now located.
This enables schemes to:
For schemes managing large or historic member portfolios, this can provide a clearer picture of the population’s true geographic reach.
For trustees and administrators, finding a possible address is only part of the process. They also need enough evidence to use the result confidently.
International pension tracing should help a scheme establish:
Heka combines international coverage with identity verification, giving schemes a consistent approach even when their members are dispersed across dozens of countries.
The professional sports scheme began with one file.
Behind it were individual lives that had moved in many different directions: members who had relocated, returned home or built new lives elsewhere. By following those journeys, Heka found members across 61 countries.
For schemes, the lesson is simple: the geographic boundaries of the member data are not necessarily the boundaries of the member population.
The member may have left the UK, but their pension– and the scheme’s responsibility to find them– has not.
A last-known UK address may only be the first chapter. Effective tracing needs to follow the person beyond it.
Managing a member population that may extend beyond the UK? Heka traces and verifies members internationally, helping pension schemes reconnect with members wherever their lives have taken them.

When a pension scheme contacted the son of a deceased member, the case initially appeared straightforward.
He confirmed his father had died and said he was the member’s only child. With no obvious reason to question the information, the scheme could easily have continued its entitlement review based on his account alone.
But it wasn’t the full story.
When Heka mapped the deceased member’s family network, we identified other surviving children – people who had not been disclosed and whom the scheme may otherwise never have known existed.
What appeared to be a simple beneficiary case had exposed a significant risk: a potential beneficiary attempting to position himself as the sole surviving child.
For trustees, this is the uncomfortable reality behind some deceased-member cases. Finding one relative does not necessarily mean that the full family has been found.
When a member dies, schemes often begin with the information already held on file: an expression of wish form, a historic address, a named spouse or the details of one known child.
If that person responds, the case can feel as though it is moving towards resolution. But the first relative reached is only one source of information– and they may not know, remember or choose to disclose the member’s complete family circumstances.
Families are rarely as simple as the records suggest. Members may have:
In some cases, the information provided may be incomplete through honest mistake. In others, as our investigation suggested, someone may have a financial reason to leave another relative out.
The challenge for trustees is not simply to locate someone connected to the deceased member. It is to establish a sufficiently complete and evidenced picture of the family before making an entitlement decision.
A single complex case can often be escalated for specialist investigation. The operational difficulty becomes much greater when a scheme is managing tens, hundreds or even thousands of deceased-member records.
Each case may require the team to answer a series of questions:
Who are the surviving relatives? Are there other children or family branches that have not been disclosed? Are the contact details still current? Has anyone moved overseas? What evidence supports the relationships identified?
Trying to resolve these questions manually, one case at a time, is slow and resource-intensive. It can also lead to inconsistent outcomes: some cases receive extensive investigation, while others depend heavily on the quality of the information already held or supplied by the first person contacted.
Older cases can be particularly difficult. Contact details may be obsolete, family structures may have changed, and relatives may now be spread across several countries. Without a systematic way to reconstruct the family network, important people can remain invisible.
This creates three connected risks for schemes:
Traditional tracing often focuses on finding a named person. Family tree tracing begins with a different question:
Who else should the scheme know about?
Heka starts with the deceased member and reconstructs the wider family network around them. Depending on the case, this may include a spouse or partner, children, siblings, grandchildren and relatives living overseas.
For each portfolio, Heka can provide:
The aim is not to make the trustee’s decision. It is to give trustees a more complete and accurate evidence base on which to make it.
This distinction matters. Family circumstances can be complicated, and entitlement decisions remain subject to the scheme’s rules and trustee discretion. But those decisions are only as informed as the family picture available at the time.
Returning to the original case, Heka’s findings did more than produce additional names.
They changed the basis of the review.
Without independent family tree tracing, the scheme might have proceeded on the assumption that the son was the deceased member’s only child. Once the other children were identified, the trustees had a more complete view of the family and could investigate the case appropriately before reaching a decision.
It is a strong example of why beneficiary identification should not rely solely on what one relative says– even when that person appears credible and the case initially seems uncomplicated.
The greatest risk is not always an untraceable person. Sometimes, it is the person the scheme does not yet know it needs to trace.
For schemes holding large portfolios of deceased members, family tree tracing can be applied across the full population rather than reserved only for individual cases that have already become problematic.
This allows schemes to:
Instead of waiting for inconsistencies to emerge case by case, schemes can develop a more complete view of each deceased member’s family from the outset.
Because when a relative says, “I’m the only one,” the scheme should be able to verify whether that is really true.
Managing a portfolio of deceased members? Heka can map and verify family networks at scale, helping your team identify potential beneficiaries and move entitlement reviews forward with greater confidence.

An enterprise-grade fraud stack is not a product. It is a latency-constrained decisioning system in which multiple layers – data collection, identity validation, enrichment, scoring, and decisioning – operate as a single flow. In most transaction environments, that entire loop runs in under 300 milliseconds for transaction decisions, and only marginally longer for onboarding.
The challenge is not assembling the stack. Most institutions already have the core components in place, often across multiple vendors and internal systems. The challenge is understanding how those components interact in practice – and where the system produces decisions that appear well-supported, but are not.
A fraud decision is not generated by a single model or rule. It is the result of a sequence of stages, each contributing a different type of signal or constraint.
At a high level, the system collects observable signals, validates identity claims, enriches those signals with external data, applies probabilistic scoring, enforces deterministic rules, and aggregates all outputs into a final decision. Cases that fall outside clear thresholds are escalated, and outcomes are fed back into the system to continuously refine performance.
This flow is consistent across financial institutions, even where implementation details differ . What varies is the relative strength of each layer, and the degree to which each one contributes meaningful signal to the final decision.
In practice, this decisioning flow can be broken down into eight functional layers:
1. Signal Collection
The system captures all observable inputs at the point of interaction, including device fingerprinting, IP intelligence, behavioral biometrics, and identity data. These signals form the raw input for all downstream analysis.
2. Identity Verification (IDV)
Identity attributes are validated against trusted sources such as credit bureau headers, SSA records, and sanctions lists. This establishes whether the identity exists and meets regulatory requirements.
3. Data Enrichment
External data sources are used to expand the identity profile. This includes email intelligence, phone intelligence, address validation, and consortium-based signals that provide additional context beyond the initial claim.
4. Risk Scoring
Machine learning models transform raw and enriched signals into probabilistic risk scores. These models typically target specific fraud types, including application fraud, synthetic identity fraud, and account takeover.
5. Rules Engine
Deterministic rules enforce policy and known fraud patterns. These include hard blocks (e.g., sanctions matches), velocity thresholds, and mismatch conditions that cannot be fully captured by models.
6. Orchestration & Decisioning
All signals, model outputs, and rule evaluations are aggregated into a final decision – approve, review, or decline – through a centralized decisioning layer.
7. Step-Up & Case Management
Cases that fall into intermediate risk bands are escalated through additional verification (e.g., biometric checks, OTP) or routed to human investigation workflows.
8. Feedback & Model Governance
Confirmed fraud outcomes, false positives, and analyst decisions are fed back into the system to retrain models, refine rules, and monitor performance over time.
This architecture is broadly consistent across the industry. The presence of these layers, however, does not guarantee effective decisioning.
The following simplified view highlights how each layer contributes to the final decision, and where its limitations typically emerge:

This view is intentionally reductive. Its purpose is not to describe the system exhaustively, but to make visible where signal strength and decision confidence can diverge.
Failures rarely occur because a layer is absent. They occur when a layer produces an output that appears sufficient, but lacks underlying depth.
An identity may pass bureau and SSA validation, present no device or velocity risk, and return acceptable enrichment signals. Yet the identity may still lack coherence across time – no consistent footprint, no reinforcing signals, and no evidence of persistence.
This is the central gap.
Most stacks are effective at confirming that an identity exists. Many can confirm that a user is physically present. Far fewer can determine whether the identity behaves like a reliable individual over time.
These limitations are not purely technical. They are structural.
Latency constraints limit the ability to incorporate deeper or slower data sources. Scale requires reliance on generalized models rather than case-specific analysis. Cost and conversion pressures reduce tolerance for additional friction or enrichment calls.
As a result, systems tend to emphasize:
Both are necessary. Neither is sufficient to fully resolve identity risk.
The “perfect” fraud stack is a myth. In practice, every stack reflects a set of trade-offs – between latency, cost, scale, and risk tolerance. Different institutions prioritize different parts of the system:

Understanding the structure of a fraud stack is necessary, but not sufficient. The more important task is evaluating how the stack behaves under real conditions.
Key questions include:
Fraud does not typically exploit missing components. It exploits the assumptions created by partial signal coverage.
This report provides a structural view of the modern fraud stack. In the accompanying evaluation guide, we extend this framework to:
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