As digital assets continue their transition into institutional portfolios, business continuity is centered not just on access, but on operational resilience, accountability, and the ability to recover when things go wrong. Recent estimates suggest that between 2.3 and 3.7 million bitcoin, representing up to 20 percent of total supply, are already permanently lost due to inaccessible keys, operational failures, and inadequate recovery processes, highlighting the scale and persistence of the issue.
Most institutions can now point to their layered security frameworks and well-defined compliance processes, often supported by sophisticated custody arrangements. However, when real-world incidents happen one critical capability continues to fall short of expectations: crypto recovery readiness. A crypto recovery plan, however detailed or technically sound, remains theoretical until it has been tested under pressure, executed by operational teams, and demonstrated to function in conditions that are far from ideal.
In this guide, we explore how institutions can design, run, and continuously refine crypto recovery drills using a structured playbook approach, so that when something does go wrong and at some point, something will, they are not improvising, but executing with confidence.
Institutional crypto environments are inherently complex, characterised by distributed key management systems, layered permissions, multiple stakeholders, and governance frameworks that introduce both control and operational friction.
When failure occurs, it rarely presents itself as a singular technical issue. More often, it emerges as a combination of delayed decision-making, unclear ownership, and dependencies that must be resolved simultaneously under time pressure.
The industry has already witnessed the consequences of insufficient crypto recovery planning.
In 2018, QuadrigaCX collapsed following the unexpected death of its chief executive, who was reportedly the sole holder of the private keys securing the exchange’s cold wallets. As a result, between 190 and 215 million dollars in customer funds became inaccessible, affecting tens of thousands of users. Although approximately 46 million dollars was later recovered through legal and forensic processes, the majority of assets were permanently lost, highlighting a profound failure in operational design rather than purely technical oversight.
A comparable situation arose in 2023 with Prime Trust, where the firm lost access to wallets holding approximately 45 million dollars in crypto assets. This loss was attributed to deficiencies in key management and infrastructure. Regulatory authorities intervened, citing failures in safeguarding client funds and breaches of fiduciary duty, ultimately leading to receivership and bankruptcy proceedings, with no recovery of the missing assets.
Even at the advisory level, the risks are evident. In 2024, investment adviser Lufkin Advisors lost access to a client wallet valued at approximately 10 million dollars, reportedly due to the loss or mismanagement of the required access credentials. The incident resulted not only in financial loss but also in regulatory enforcement action, underscoring the growing expectation that safeguarding access to crypto assets forms part of core custody obligations.
Structured recovery drills enable institutions to test their processes in realistic conditions, identify weaknesses before they result in loss, reduce recovery times through familiarity, and ensure alignment across all stakeholders involved in the recovery process. In effect, they transform recovery from an assumed capability into a demonstrable one.
A crypto recovery drill is a structured simulation designed to assess an organisation’s ability to regain access to digital assets under conditions that reflect operational constraints and real-world complexity.
While scenarios may vary, the most effective drills are grounded in credible, high-impact situations. For example, a drill may simulate loss of access to crypto due to device failure, requiring coordination between multiple authorised parties across different jurisdictions. Alternatively, it may involve a suspected insider threat, where access controls must be restricted and re-established in accordance with internal governance and compliance requirements.
The value of such exercises lies not solely in testing technical recovery mechanisms, but in evaluating decision-making, communication, and governance effectiveness under pressure. In practice, successful recovery depends as much on coordination and clarity as it does on technical capability.
To run recovery drills effectively and, just as importantly, consistently, institutions require more than well-written documentation; they need a structured operational framework that can be applied in practice, tested under varying conditions, and refined iteratively as both systems and risks evolve.
In this context, a robust recovery playbook is a living framework, typically organised around four interconnected phases that together define the quality and reliability of recovery execution.
Preparation ultimately determines the effectiveness of everything that follows, as it establishes both the clarity of the scenario being tested and the conditions under which it will be evaluated.
This phase involves carefully defining the scope of the recovery drill, including the specific scenario under consideration, the systems and assets involved, and the individuals, teams, and external partners required to participate. It also requires the establishment of clear and measurable success criteria, not in abstract terms, but in operational metrics such as the time taken to initiate recovery, the duration required to restore access, the accuracy with which procedures are followed, and the extent to which actions remain aligned with internal governance and compliance requirements.
For instance, where a recovery process depends on approvals from multiple stakeholders within a defined timeframe, the drill should explicitly assess whether this requirement can be met under realistic operational constraints, rather than under idealised conditions.
Preparation also serves a more practical, and often revealing, purpose. It ensures that all relevant documentation, credentials, and dependencies are both accessible and usable. In many cases, institutions discover during this phase that critical information is outdated, fragmented across systems, or difficult to locate, which represents a material operational risk that would otherwise remain hidden.
Simulation introduces the necessary conditions for generating meaningful and actionable insight, shifting the exercise from theoretical validation to practical evaluation.
Rather than constructing idealised scenarios in which every variable is controlled, effective drills deliberately incorporate elements of uncertainty and constraint that reflect how incidents unfold in reality. Participants should not be guided step by step through the process, but instead required to respond to incomplete information, time pressure, and the temporary unavailability of key stakeholders or resources.
For example, a simulation may involve:
delays in obtaining critical approvals, forcing teams to navigate escalation pathways;
or present conflicting or ambiguous information that must be verified before any action can be taken
These elements, while often uncomfortable, are precisely what reveals the gap between how processes are designed on paper and how they are executed in practice.
Simulation formats may vary depending on organisational maturity and objectives, ranging from structured tabletop discussions that focus on decision-making and communication, through to fully executed technical exercises that test recovery processes end to end. In practice, hybrid approaches often provide the most comprehensive evaluation, combining strategic discussion with operational execution.
Execution represents the point at which the recovery playbook is tested against operational reality, revealing not only whether recovery is achievable, but how effectively it can be delivered under pressure.
During this phase, teams are expected to initiate incident response procedures, validate identities and permissions, carry out recovery actions, and coordinate across all relevant stakeholders. However, the focus extends beyond the outcome to the quality and consistency of the process.
It is often in this phase that previously unrecognised dependencies become visible. For example, a drill may reveal that a critical step in the recovery process depends heavily on the knowledge or availability of a single individual, creating a vulnerability that would be difficult to manage during a genuine incident.
Capturing detailed information on timelines, communication flows, and deviations from the playbook provides valuable insight into how processes perform in practice, and where they require strengthening.
The primary value of a crypto recovery drill is not derived from the execution itself, but from the depth and rigour of the analysis that follows, particularly in environments characterised by complex key management structures, distributed custody models, and strict governance requirements.
A structured post-drill evaluation should assess not only whether recovery objectives were achieved, but how effectively they were executed in practice.
This includes:
examining which elements of the recovery process functioned as intended
where delays or points of failure emerged
whether any security, operational, or compliance risks were exposed during the exercise
For instance, an institution may identify that multi-party approval processes, while aligned with security best practice under normal operating conditions, introduce disproportionate delays during high-severity recovery scenarios. Such findings may prompt a reassessment of escalation pathways, delegated authority, or conditional policy overrides within defined risk thresholds.
Crucially, these insights must extend beyond observation. They should be systematically incorporated into the recovery playbook, ensuring that each drill contributes to an iterative process of refinement.
Institutions that develop strong recovery capabilities tend to follow a consistent set of principles, rooted in regularity, realism, and cross-functional collaboration.
Drills are conducted not as isolated exercises, but as part of an ongoing operational cycle, typically on a quarterly basis, with increasing levels of complexity introduced over time to reflect changes in infrastructure, risk exposure, and organisational structure.
Participation extends well beyond technical teams, encompassing security, operations, legal, compliance, and senior decision-makers, recognising that effective recovery depends on coordinated action across multiple functions rather than technical execution alone.
Scenarios are designed to reflect real-world conditions, incorporating elements such as partial data loss, delays in communication, conflicting approvals, and failures in external dependencies, challenging teams to operate under conditions that closely mirror actual incidents.
Equally important is the use of clearly defined performance metrics, including recovery time objectives, error rates, escalation efficiency, and adherence to established processes. These metrics not only provide internal visibility into performance, but also offer tangible evidence of resilience to regulators, partners, and stakeholders.
Even well-prepared organisations encounter challenges when implementing recovery drills.
One common issue is over reliance on documentation, where processes appear comprehensive on paper but prove difficult to execute under pressure.
Another is limited stakeholder involvement, particularly when drills focus primarily on technical teams and overlook the governance and decision-making layers that are critical during incidents.
A lack of realism can also reduce effectiveness, as simplified scenarios fail to expose the kinds of issues that arise in real situations.
Finally, failing to act on insights gained from drills undermines their value, turning what should be a learning process into a procedural exercise.
Avoiding these pitfalls requires a shift in mindset, viewing drills not as validation, but as opportunities to uncover and address weaknesses.
Recovery readiness within the context of digital assets should not be understood as a discrete control or a one-time implementation. Rather, it constitutes an evolving organisational capability that must continuously adapt to changes in wallet architectures, key management methodologies, and an increasingly complex and developing regulatory environment.
Institutions that demonstrate maturity in this domain tend to embed recovery as an integral component of their operational and risk management frameworks, rather than treating it as a peripheral contingency measure. This is typically reflected in the regular execution of recovery drills, the ongoing refinement of recovery playbooks in response to infrastructural and governance changes, and the alignment of recovery processes with broader incident response and operational resilience strategies.
For institutions looking to close that gap, having the right infrastructure in place is just as important as testing the process itself. CoinCover’s Recover for Institutions is designed to support this by providing a secure, auditable, and policy-driven recovery framework that integrates existing custody and governance models.
As institutional adoption of digital assets accelerates, resilience is becoming a defining factor in how organisations are evaluated and trusted.
Crypto recovery drills play a critical role in building that resilience, enabling institutions to test not only their systems, but their people, processes, and decision making under pressure. Because when an incident occurs, success is not determined by the existence of a plan, but by whether that plan has been tested, refined, and proven to work.
If you are looking to formalise your in-house crypto recovery approach, you can download our Recovery Playbook for Institutions, which provides a structured framework, practical scenarios, and step by step guidance to help your organisation design and run effective recovery drills.