Healthcare Single Sign-On: A Technical Guide for IT Managers

Healthcare single sign-on (SSO) is an identity federation model that lets clinicians authenticate once through a central Identity Provider (IdP) and gain access to every authorized application without re-entering credentials. The operational verdict is direct: SSO cuts login friction, reduces password-related security incidents, and supports HIPAA compliance when paired with MFA, session controls, and tamper-evident audit logging. Without those controls, SSO trades one risk for another.

Every production-grade healthcare SSO solution must deliver:

• Identity Provider (IdP) with federated trust across all connected Service Providers (SPs)
• Multi-factor authentication (MFA) enforced at the IdP layer, not delegated to individual apps
• Automated session management with configurable timeouts and proximity-based logoff for shared workstations
• Tamper-evident audit logs capturing authentication events, session starts, and logoffs with timestamps
• Automated user provisioning and deprovisioning tied to HR or directory changes
• Business Associate Agreements (BAAs) with every IdP and SSO middleware vendor handling protected health information (PHI)
• Support for HIPAA access controls and DEA EPCS two-factor requirements for controlled-substance e-prescribing workflows

According to HealthTech Magazine, SSO can save clinicians a significant amount of time per shift by eliminating repeated password prompts. That figure alone tends to close the business-case conversation. The harder work is the architecture underneath it.

The healthcare identity and access management market tracks SSO as a distinct, growing segment, which means vendor maturity and integration tooling are improving. But the clinical environment still introduces constraints that generic enterprise SSO products do not anticipate.

Key Takeaways

Healthcare SSO delivers its full value only when the IdP federation is paired with session controls, MFA enforcement, EPCS step-up policies, and a tested deprovisioning process.

Table of Contents

• What is healthcare single sign-on, and how does it differ from standard enterprise SSO?
• How does SSO improve clinical workflows and IT operations?
• What compliance requirements must healthcare SSO satisfy?
• Which SSO protocols and architectures work best in healthcare?
• How do you integrate SSO with EHRs and enterprise identity providers?
• What security risks are unique to healthcare SSO deployments?
• How do you plan and execute a healthcare SSO implementation?
• What should you monitor after SSO goes live?
• How does an engineering partner approach healthcare SSO delivery?
• Sources
• Bitrupt’s SSO engineering services for healthcare organizations

What is healthcare single sign-on, and how does it differ from standard enterprise SSO?

In a standard enterprise SSO deployment, a user authenticates to an IdP (Microsoft Entra ID, Okta, Ping Identity) and receives a session token. When the user navigates to a connected application, the SP validates that token against the IdP assertion and grants access. The session typically lasts a full workday, and the user sits at a personal workstation.

Healthcare breaks almost every one of those assumptions.

“The clinical environment is the hardest SSO problem in enterprise IT. Clinicians share terminals, move between rooms every few minutes, access apps from mobile carts and bedside tablets, and must launch third-party tools from inside EHR workflows. Standard session lifetimes and browser-cookie-based handoffs simply do not hold up under those conditions.

How the IdP-to-SP flow works in practice

The IdP authenticates the user and issues a signed assertion (a SAML 2.0 assertion or an OpenID Connect ID token). The SP receives that assertion, validates the signature against the IdP’s public certificate, maps the user’s attributes to a local role, and creates a local session. The user never sees a second login screen.

Session lifetime is the first design decision that diverges in healthcare. A shared nursing-station terminal might need a 5-minute idle timeout. A physician’s personal laptop can tolerate 8 hours. The IdP must support per-device or per-group session policies, not a single global timeout.

Legacy EHR integration and credential proxying

Many clinical environments still run client/server EHR modules that predate SAML and OpenID Connect. These apps cannot consume a federation assertion. The solution is a credential-proxying agent: software that intercepts the application’s login screen, recognizes it via a screen profile, and injects the user’s stored credentials automatically. The agent handles the authentication handshake invisibly.

Credential proxying works, but it carries its own risks. Screen-recognition profiles break when the application updates its UI. Silent failures are common without active monitoring. Any healthcare SSO architecture that includes legacy apps needs a separate QA and observability plan for the proxying layer.

Pro Tip: Build a complete application inventory before selecting an IdP. Separate apps into three tiers: SAML/OIDC-native, header-based or Kerberos, and credential-proxy-required. Each tier needs a different integration pattern, and mixing them up mid-project is the most common cause of scope creep.

How does SSO improve clinical workflows and IT operations?

The 45-minute-per-shift figure from HealthTech Magazine is the headline, but the operational picture is more granular than a single time-savings number.

Clinician-facing benefits:

• Faster application launch from EHR context (single click rather than a separate login screen)
• Elimination of password fatigue across 10–20 clinical applications per shift
• Fewer lockouts, which currently generate a disproportionate share of after-hours help-desk calls
• Consistent access on shared workstations without exposing another user’s session

IT and security benefits:

• Centralized access control: revoking a user’s access in the IdP propagates across all connected apps immediately
• MFA enforcement at one layer instead of app-by-app configuration
• Automated provisioning via SCIM reduces the lag between a new hire’s start date and their first login
• Deprovisioning on termination becomes a single-directory action rather than a multi-system checklist

For pilot measurement, the KPIs that resonate most with clinical leadership are: average time-per-login before and after SSO, help-desk ticket volume for password resets, and the number of access-related security incidents per quarter. Baseline these before the pilot starts. Without a pre-SSO baseline, the business case for full rollout is anecdotal.

The Grand View Research market data on healthcare IAM adoption supports the investment argument at the executive level: SSO is no longer an emerging capability in healthcare. Organizations that have not deployed it are increasingly the outliers in payer and accreditation conversations.

What compliance requirements must healthcare SSO satisfy?

HIPAA’s Security Rule requires covered entities to implement technical safeguards that control access to electronic PHI. SSO directly addresses the unique user identification requirement (each user must have a unique identifier) and the automatic logoff requirement. It also creates the centralized audit trail that satisfies the audit controls standard.

Must-have compliance controls checklist:

• MFA enforced at the IdP for all users accessing PHI
• Unique user identifiers mapped through the IdP (no shared login accounts)
• Automatic session logoff after a configurable idle period
• Tamper-evident, time-stamped audit logs for every authentication event
• BAAs executed with the IdP vendor and any SSO middleware touching PHI
• Encrypted token transmission (TLS 1.2 minimum, TLS 1.3 preferred)
• Role-based access control (RBAC) attributes carried in the SSO assertion

DEA EPCS requirements

The DEA’s Electronic Prescriptions for Controlled Substances (EPCS) regulations require two-factor authentication for prescribers at the point of signing a controlled-substance prescription. SSO does not automatically satisfy this. The EPCS workflow must trigger a step-up MFA challenge specifically at the prescribing action, even if the clinician already has an active SSO session.

This is a common implementation gap. An SSO session that authenticated with MFA at login does not satisfy EPCS if the MFA event occurred more than a configurable time window before the prescribing action. Your IdP must support step-up authentication policies tied to specific application actions or resource classifications.

EPCS-specific implementation steps:

1. Identify all prescribing applications in scope for EPCS.
2. Configure the IdP to require step-up MFA when the SP signals a controlled-substance workflow.
3. Validate that the MFA event timestamp is captured in the audit log at the prescribing action level.
4. Test with a DEA-compliant identity proofing vendor (Experian, LexisNexis, or equivalent) before go-live.
5. Document the step-up policy configuration as part of your EPCS audit package.

Pro Tip: Keep a configuration snapshot of your IdP’s step-up authentication policy in version control. Auditors increasingly ask for point-in-time evidence of the policy that was active during a specific prescribing event. A screenshot from today does not prove what the policy was six months ago.

Audit evidence for compliance reviews

The audit package for an SSO deployment should include: IdP configuration exports, session policy definitions, MFA enrollment reports, provisioning/deprovisioning logs, and a sample of authentication event logs covering at least 90 days. HIPAA does not specify a retention period for audit logs, but six years is the standard documentation retention period under the Security Rule, and most legal teams align log retention to that window.

Which SSO protocols and architectures work best in healthcare?

Healthcare environments typically run a mix of cloud SaaS, on-premises EHR modules, and legacy client/server applications. No single protocol covers all three. The architecture decision is really about which protocol handles which tier, and how the IdP bridges between them.

As HealthTech Magazine notes, legacy standards like Kerberos and header-based authentication coexist with modern SAML 2.0 and OpenID Connect in most clinical environments, with the central IAM layer managing the handshakes between them.

Architectural patterns for hybrid environments

Most healthcare organizations land on a hybrid IdP model: a cloud IdP (Microsoft Entra ID, Okta) handles SAML and OIDC federations for cloud and modern apps, while an on-premises proxy or credential-proxying agent covers legacy workloads. The cloud IdP becomes the single source of truth for user identity; the on-premises layer translates that identity into whatever format the legacy app expects.

SCIM (System for Cross-domain Identity Management) handles automated provisioning between the IdP and connected apps. When a nurse is hired, the HR system triggers a SCIM event that creates the user account in the IdP and propagates it to every connected SP. When that nurse leaves, the same event chain disables access everywhere within minutes.

For EHR app-launch scenarios, Redox’s documentation makes the mechanism clear: cookies and standard browser session techniques often cannot survive the redirect from an EHR to a third-party app. The recommended pattern is a one-time token embedded in the launch URL, validated server-side by the receiving application. JWTs work well here when properly signed and validated.

Pro Tip: When evaluating IdP vendors, ask specifically about their credential-proxying agent’s update cadence and monitoring capabilities. A vendor that cannot tell you how quickly they push profile updates after an EHR UI change is a vendor whose proxying layer will silently fail after the next EHR upgrade.

How do you integrate SSO with EHRs and enterprise identity providers?

Integration work is where SSO projects most often run over budget and schedule. The technical steps are well-documented for modern apps. The surprises come from EHR-specific quirks, certificate handling, and the coordination overhead between your IT team and the EHR vendor’s support organization.

Microsoft Entra ID and Cerner Central: a concrete example

Microsoft’s documentation covers the Cerner Central SAML integration in detail. The high-level flow:

1. Create the Cerner Central enterprise application in Microsoft Entra ID.
2. Download the Entra federation metadata XML and provide it to Cerner’s support team.
3. Configure the SAML assertion attributes (NameID format, user identifier mapping, role claims).
4. Upload Cerner’s SP metadata into Entra to establish the trust relationship.
5. Create test users and assign them to the Cerner Central application in Entra.
6. Run IDP-initiated and SP-initiated sign-in tests with the test accounts.
7. Validate role mapping: confirm that Entra group memberships translate correctly to Cerner access roles.
8. Enable automated user provisioning via SCIM if Cerner’s tenant supports it.
9. Document the certificate expiration date and set a calendar reminder 60 days before renewal.
10. Promote to production after sign-off from clinical informatics and security.

“The most common failure point in Cerner/Entra integrations is attribute mapping. Cerner expects specific claim names and formats in the SAML assertion. If the NameID format or the role claim name does not match exactly what Cerner’s SP configuration expects, authentication fails silently from the user’s perspective — they see a generic error, not a useful diagnostic. Always test with a dedicated test tenant and capture the raw SAML response before involving end users.

Pro Tip: *Request a Cerner sandbox environment before touching production. Cerner’s support team can provision a test tenant that mirrors your production configuration.

App-launch SSO from within the EHR

When a clinician clicks a third-party app link inside Cerner or Epic, the EHR generates a launch URL containing context (patient ID, encounter, user role) and a session token. The receiving app must validate that token and establish its own session. As Redox’s guidance explains, one-time tokens in the redirect URL are the standard approach because browser cookies do not reliably cross the EHR-to-app boundary.

The receiving app should validate the JWT’s signature, check the expiration claim, and consume the one-time token immediately. Any token that can be replayed is a security gap.

What security risks are unique to healthcare SSO deployments?

SSO concentrates authentication into a single layer, which is both its strength and its most significant risk surface. A compromised IdP credential gives an attacker access to every connected application simultaneously. In healthcare, that means PHI across every system the user could reach.

Primary risk categories:

• Session persistence on shared workstations: A clinician logs in, steps away, and another person sits down with an active session. Without automated logoff, that session is an open door to PHI.
• Lateral movement after credential compromise: A single phished password now unlocks the entire application portfolio instead of one system.
• Legacy credential-proxying agent vulnerabilities: Agents that inject credentials can be targeted by local malware to harvest the stored credentials they manage.
• Break-glass account misuse: Emergency access accounts bypass normal SSO controls. Without tight monitoring, they become a persistent backdoor.
• Incomplete deprovisioning: A terminated employee’s IdP account disabled but their local app sessions still active, or their SCIM deprovisioning delayed.

HealthTech Magazine’s coverage identifies session persistence on shared clinical workstations as the most significant operational risk in SSO deployments, recommending proximity-based automated logoff as the primary mitigation.

Mitigations that actually work in clinical settings

Proximity-based logoff (using badge readers, Bluetooth proximity, or NFC tap) is the most effective control for shared workstations because it matches the physical workflow. When a nurse badges out of a room, the session closes. No manual logout required.

For workstations without proximity hardware, a short idle timeout (3–5 minutes) paired with a screen lock is the minimum acceptable control. The timeout must be enforced at the IdP session level, not just the screensaver.

Operational security checklist for shared-workstation environments:

1. Deploy proximity-based logoff on all shared nursing-station and clinical workstations.
2. Set idle session timeout to 5 minutes or less for shared devices; document the policy.
3. Configure conditional access policies that restrict session lifetime based on device registration status.
4. Enforce MFA re-challenge after any session that exceeds the idle timeout threshold.
5. Restrict break-glass accounts to named individuals; require dual approval for activation.
6. Alert on break-glass account usage within 15 minutes of activation.
7. Run monthly deprovisioning reconciliation: compare IdP accounts against HR termination records.
8. Monitor for authentication events outside normal working hours for clinical roles.

Pro Tip: Test your automated logoff solution under realistic clinical conditions before rollout. Proximity sensors calibrated for an empty room often fail to trigger in a crowded nursing station where a second person is present. Run a structured pilot with actual clinical staff and measure false-negative logoff rates.

How do you plan and execute a healthcare SSO implementation?

A healthcare SSO project that skips the discovery phase almost always resurfaces legacy apps that break the integration plan mid-sprint. Treat discovery as non-negotiable, even when leadership is pushing for a fast start.

Phase-based implementation checklist

Phase 1: Discovery and scoping (weeks 1–4)

1. Inventory every application that requires authentication, categorized by protocol support (SAML/OIDC, Kerberos, credential-proxy-required).
2. Identify all user populations: clinical staff, administrative staff, contractors, and third-party vendors.
3. Document current MFA coverage and gaps.
4. Select the IdP based on EHR compatibility, existing directory infrastructure, and BAA availability.
5. Define session policy requirements by device type and user role.

Phase 2: Architecture and provisioning design (weeks 5–8)

• Design the SCIM provisioning flow from HR system to IdP to SPs.
• Define role-mapping schema: how directory groups translate to application roles.
• Design the break-glass access procedure and approval workflow.
• Produce the EPCS step-up authentication policy specification.

Phase 3: Pilot (weeks 9–16)

• Select a pilot group: one clinical department, 20–50 users, covering the top 5 applications by login frequency.
• Deploy proximity-based logoff on pilot workstations.
• Run baseline KPI measurement (time-per-login, help-desk tickets, lockout events).
• Execute integration testing with test users before any clinical staff touch the system.
• Define rollback criteria: if more than X% of pilot users cannot authenticate within the first 48 hours, revert to legacy authentication.

Phase 4: Hardening and rollout (weeks 17–24)

• Address all issues identified in the pilot.
• Complete security review: penetration test the IdP configuration, validate audit log completeness.
• Train clinical staff and IT help-desk on the new login flow and break-glass procedure.
• Roll out department by department, not all at once.
• Decommission legacy authentication methods for migrated apps only after 30-day stability confirmation.

Pro Tip: Keep the rollback plan documented and tested, not just written. Run a tabletop exercise with your IT team before go-live: simulate an IdP outage and walk through exactly how clinicians authenticate during the outage window. If the answer is “we’re not sure,” the rollback plan is not ready.

Stakeholders who must be in the room: IT security, clinical informatics, nursing leadership (for shared-workstation policy), the EHR vendor’s integration team, HR (for provisioning triggers), and legal (for BAA review).

What should you monitor after SSO goes live?

Post-rollout monitoring is where most healthcare SSO deployments underinvest. The IdP is running, clinicians are logging in, and the project is declared done. Six months later, an audit finds gaps in the log retention, or a terminated employee’s account was never deprovisioned because the SCIM feed silently failed.

Key metrics to monitor continuously:

• Authentication success and failure rates by application and user population
• MFA challenge rates and failure rates (a spike in MFA failures often signals a credential-stuffing attempt)
• Session duration distribution by device type (flag sessions exceeding the configured timeout)
• Help-desk ticket volume for authentication issues (the clearest leading indicator of user experience problems)
• Provisioning and deprovisioning lag times (time from HR event to IdP account change)
• Break-glass account activation frequency and duration

Runbook: responding to a suspected SSO compromise

1. Identify the affected user account from the IdP authentication logs.
2. Disable the account in the IdP immediately; this propagates to all connected SPs.
3. Invalidate all active sessions for the account (most IdPs support forced session revocation).
4. Pull the full authentication event log for the account for the preceding 30 days.
5. Identify all applications accessed during the suspected compromise window.
6. Notify the security team and initiate the incident response process.
7. Require identity verification and MFA re-enrollment before restoring access.
8. Document the timeline and corrective actions for the HIPAA breach assessment.

Log retention and format guidance:

Retain authentication event logs for a minimum of six years to align with HIPAA documentation requirements. Logs should capture: timestamp (UTC), user identifier, source IP, device identifier, application accessed, authentication method used, MFA event result, and session duration. Store logs in a write-once format or a SIEM with tamper-evidence controls. Periodic audit exports (quarterly at minimum) should be tested for completeness before an actual audit request arrives.

How does an engineering partner approach healthcare SSO delivery?

Scoping an SSO project from the inside is genuinely hard when your team is also running the clinical environment.

Bitrupt’s delivery model for healthcare SSO projects follows a phased approach: a discovery and architecture spike (2–3 weeks) that produces a prioritized application inventory, protocol classification, and IdP recommendation; followed by integration sprints that tackle the SAML/OIDC tier first, then Kerberos bridging, then credential-proxying agents; a structured pilot with defined rollback criteria; and a hardening phase that includes penetration testing of the IdP configuration and audit log validation.

“The most expensive SSO mistakes happen before a line of configuration is written. Teams that skip the architecture spike and go straight to IdP setup routinely discover mid-project that their top-priority EHR module requires credential proxying, not SAML, or that their HR system cannot trigger SCIM events without a middleware layer. A two-week spike prevents a six-week rework.

RFP questions to ask any SSO engineering partner:

• How many EHR-specific SSO integrations have you completed, and which EHR platforms?
• Can you provide a BAA for your team’s access to our environment during the engagement?
• What is your test coverage approach for credential-proxying agents, including profile update testing?
• How do you handle EPCS step-up authentication in your integration design?
• What does your rollback plan look like, and have you executed one in a healthcare environment?
• How do you validate audit log completeness before handing off to operations?

Common pitfalls Bitrupt’s team prevents:

• Insufficient session control testing on shared workstations before clinical pilot
• Incomplete SCIM provisioning feeds that leave deprovisioning gaps
• Missing EPCS step-up policy documentation, which fails audit review
• Certificate expiration not tracked, causing production outages 12–18 months post-launch
• Break-glass procedures documented but never tested in a tabletop exercise

Bitrupt’s healthcare engineering practice covers clinical-grade platform delivery, EHR integrations, and compliance-focused security reviews. The team works exclusively with senior engineers, which matters in healthcare SSO because the integration surface (EHR APIs, IdP configuration, SCIM feeds, EPCS policy) requires depth, not volume.

Pro Tip: Ask your engineering partner to deliver the architecture spike as a standalone deliverable with a fixed scope and timeline. A partner who cannot scope a two-week discovery engagement is unlikely to scope a six-month implementation accurately either.

Sources

The following primary sources are worth bookmarking for planning and implementation validation:

• Creating Single Sign-On (SSO) Solutions for Healthcare to Improve Efficiency | HealthTech Magazine
• Configure Cerner Central for Single sign-on with Microsoft Entra ID - Microsoft Entra ID | Microsoft Learn
• Handling app launch (SSO) from EHR systems | Redox
• Identity and access management in healthcare market statistics (Single sign-on SSO) | Grand View Research

“A note on regulatory sources: Always validate HIPAA Security Rule requirements against the Hhs directly, and DEA EPCS requirements against the DEA’s published interim final rule. Third-party summaries (including this article) reflect the rules as understood at the time of writing; the primary sources govern.

FAQ

What is the difference between SSO and federated identity in healthcare? SSO is the user experience: one login, access to many apps. Federated identity is the underlying technical model: a trust relationship between an IdP and multiple SPs that makes SSO possible. In practice, healthcare teams use the terms interchangeably, but the distinction matters when scoping cross-organization access (federated identity between two health systems, for example).

Does SSO eliminate the need for MFA? No. SSO consolidates authentication into one event, which makes MFA enforcement easier and more consistent, but it does not replace MFA. HIPAA and DEA EPCS both require MFA controls that SSO alone cannot satisfy. Treat SSO and MFA as complementary layers.

How long does a healthcare SSO implementation typically take? A realistic timeline for a mid-size health system (500–2,000 users, 20–40 applications) is 5–6 months from discovery to full rollout. Organizations with a large legacy application portfolio or multiple facilities should plan for 9–12 months.

What happens to SSO access during an IdP outage? This is the most important question most teams forget to ask during design. The answer depends on your IdP’s availability SLA and your fallback authentication plan. Most enterprise IdPs offer 99.9% uptime SLAs, but you need a documented break-glass procedure for the remaining window. Local cached credentials or a secondary IdP in a different availability zone are the standard mitigations.

Can SSO work across multiple hospital facilities or health systems? Yes, through identity federation between IdPs. Each facility maintains its own IdP, and a federation trust allows users from one organization to access resources in another without a separate account. This is common in health system mergers and academic medical center affiliations. The governance complexity is significant: attribute mapping, role translation, and BAA coverage must be negotiated between organizations.

What is a break-glass account, and how should it be managed? A break-glass account is an emergency access credential that bypasses normal SSO controls, used when the IdP is unavailable or a clinician needs immediate access to a system they are not normally provisioned for. Break-glass accounts should be stored in a physical safe or a privileged access management (PAM) vault, require dual approval to activate, and trigger an immediate alert to the security team. Every use must be reviewed within 24 hours.

What the SSO trade-offs actually look like in practice

Healthcare SSO is one of those projects where the gap between “we deployed SSO” and “we deployed SSO correctly” is enormous, and the difference is almost entirely in the controls that surround the IdP, not the IdP itself.

The teams I see struggle most are the ones that treat SSO as an IT project rather than a clinical operations project. They configure the IdP, connect the top five apps, and declare success. Then the first HIPAA audit surfaces a shared-workstation session that persisted for four hours after the clinician walked away, or a terminated employee whose SCIM deprovisioning silently failed three months ago.

The honest trade-off in most healthcare SSO projects is between breadth and depth. You can connect 40 apps in six months, or you can connect 15 apps with rigorous session controls, tested rollback procedures, and validated audit logs. The second approach is harder to sell to leadership because the app count looks smaller. It is the right answer.

The “buy vs. build” question for SSO is mostly settled: buy the IdP (Entra ID, Okta, Ping), buy the proximity-logoff hardware, and buy the credential-proxying middleware for legacy apps. Where you need an engineering partner is in the integration layer: the attribute mapping, the SCIM feed design, the EPCS step-up policy, and the operational runbook. That work is custom to your environment, and it is where generic implementation guides run out of answers.

If your team is looking at an SSO project and the application inventory is still incomplete, or the EPCS workflow has not been mapped, or the break-glass procedure exists only as a paragraph in a policy document, those are the signals that external engineering support will pay for itself.

Bitrupt’s SSO engineering services for healthcare organizations

Healthcare SSO projects that stall usually do so at the integration layer, not the IdP configuration. Bitrupt’s enterprise engineering practice is built specifically for that gap: senior engineers who have worked through EHR metadata exchanges, SCIM feed failures, and EPCS step-up policy design in real clinical environments.

Three engagement options fit most SSO project stages. An architecture spike (2–3 weeks, fixed scope) delivers a prioritized application inventory, protocol classification, IdP recommendation, and provisioning design, giving your team a scoping document that can go straight into a budget request. An implementation pod (senior engineer plus integration specialist) handles the full integration sprint sequence from SAML federation through credential-proxying agents, with security hardening and audit log validation included. Staff augmentation places a senior identity engineer alongside your existing team for organizations that have the internal capacity but need specific EHR integration depth.

Bitrupt’s healthcare platform work covers clinical-grade delivery with BAA coverage and compliance-oriented engineering built into the engagement from day one. To scope a conversation about your SSO project, reach out directly through the Bitrupt site.

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