This guide explains how to build a telemedicine SaaS platform that serves many clinics from one codebase. You will learn the core features, multi-tenant architecture, HIPAA safeguards, 2026 regulatory rules, a phase-by-phase timeline, and realistic costs, starting at $3,000 for a proof of concept and $20,000 for a telemedicine MVP. It also shows two Technource healthcare platforms and the results they delivered.
Telehealth is no longer a pandemic workaround. It is a permanent care channel, and investment is following it.
According to Grand View Research, the global telehealth market was valued at about $77 billion in 2025. It is projected to reach roughly $188 billion by 2033, growing at 11.5% a year.
North America holds about 45% of that market. U.S. policy also became more predictable in 2026, with Medicare telehealth coverage extended to the end of 2027.
The opportunity has shifted from single-clinic apps to platforms. Pharmacies, provider groups, and healthtech companies want to offer virtual care under their own brand, without building it themselves.
That is what a telemedicine SaaS platform does. But it is a regulated, multi-tenant product, not a video app with a calendar.
This guide takes a product engineering view. It covers what to build, how to architect it, how to stay HIPAA-ready, how long it takes, and what it costs.
A telemedicine SaaS platform is cloud software that lets multiple healthcare organizations deliver virtual care under their own brand, on shared infrastructure, for a recurring subscription fee. Each organization, called a tenant, gets its own portal, providers, patients, and settings, while the vendor runs one codebase.
Building it is a product engineering problem as much as a healthcare one. The same multi-tenant patterns used in SaaS development apply here, with stricter rules on data access, audit, and isolation.
A telemedicine app serves one practice, while a telemedicine SaaS platform serves many organizations from one product. The difference changes your architecture, compliance role, and revenue model.
| Factor | Single Telemedicine App | Telemedicine SaaS Platform |
|---|---|---|
| Customers | One clinic or provider group | Many clinics, pharmacies, or health brands |
| Branding | One brand | White-label branding and custom domains per tenant |
| Data model | Single database, single owner | Tenant-isolated data with strict access scoping |
| Compliance role | Covered entity (or its vendor) | Business associate to every tenant |
| Revenue | Visit fees | Subscriptions, usage fees, setup fees |
| Build complexity | Moderate | High: tenancy, billing, admin consoles, onboarding |
Five types of organizations build telemedicine SaaS platforms: digital health startups, pharmacy and direct-to-consumer brands, management services organizations, healthtech vendors, and health systems. Each one builds for a different reason, but they all need to serve multiple clinics or brands from one product.
Telemedicine SaaS is a strong bet in 2026 because reimbursement is stable through 2027, telehealth has settled into routine care, and buyers now prefer compliant platforms over building their own. Each of these trends also shapes what your product must support.
The Consolidated Appropriations Act, 2026 extended key Medicare telehealth flexibilities through December 31, 2027.
These include home as the originating site, no geographic restrictions, and coverage for audio-only visits.
The law also requires CMS to create new telehealth billing modifiers by January 1, 2027.
Product Implication: keep billing codes and modifiers configurable, not hard-coded.
About 3 in 10 U.S. adults used telemedicine in 2022, down from the pandemic peak (NCHS, via HealthDay).
That is not a decline. It is normalization. Patients now mix virtual and in-person visits.
Product implication: your platform must support hybrid care, follow-ups, and handoffs to in-person workflows, not just isolated video calls.
Healthcare has had the highest data breach costs of any industry for 13 consecutive years, averaging $6.64 million per breach in 2026.
IBM also found 53% of breached organizations had not encrypted sensitive data at rest and in transit.
Product implication: expect security questionnaires in every enterprise sale. SOC 2 readiness and documented HIPAA controls shorten your sales cycle.
Build custom when virtual care is your core product or differentiator; use white-label when you need standard workflows live within weeks; choose a hybrid when you want to launch fast and move to owned IP later. The right choice depends on margin, control, and how unique your clinical workflow is.
| Factor | Custom Build | White-Label | Hybrid |
|---|---|---|---|
| Time to launch | 14–20 weeks (MVP) | Typically 4–10 weeks | 4–10 weeks, then phased migration |
| Upfront cost | Starts from $20k | Low setup fee | Low first, custom spend later |
| Recurring cost | Hosting + maintenance | Per-provider or per-visit license | License until migration |
| Customization | Full control | Limited to vendor roadmap | Grows over time |
| IP ownership | 100% yours | Vendor owns it | Yours after migration |
| SaaS margin | High at scale | Squeezed by license fees | Improves after migration |
| Best for | Specialty workflows, platforms you resell | Pilots, single-service clinics | Startups validating demand |
Technource’s Recommendation: If you plan to sell the platform to other organizations, you need to own the code. Reselling a white-label product rarely leaves enough margin to build a SaaS business. If you’re still validating demand, understanding how to build an MVP can help you define the smallest version of the platform worth testing before expanding into a full multi-tenant saas product.
A telemedicine SaaS platform needs four feature groups: patient features, provider features, tenant admin features, and SaaS business features such as subscription billing and white-label branding. An MVP should ship the full patient-to-provider care loop first and defer advanced analytics and AI.
Patient features in a telemedicine SaaS platform cover the full path from sign-up to visit summary. In the table below, 8 of the 9 features belong in the MVP, and only visit summaries and records wait for V2.
| Feature | What It Does | Phase |
|---|---|---|
| Registration and identity check | Account creation, ID verification, consent capture | MVP |
| Intake forms | Medical history, symptoms, insurance details before the visit | MVP |
| Scheduling and on-demand queue | Book a slot or join a live queue | MVP |
| Virtual waiting room | Device check and wait status before the provider joins | MVP |
| Video and audio visits | Encrypted consults with audio-only fallback | MVP |
| Secure messaging | Asynchronous chat with care team, file sharing | MVP |
| Prescriptions and pharmacy choice | Select pharmacy, track prescription status | MVP |
| Payments | Card payments, copays, subscriptions | MVP |
| Visit summaries and records | Care plans, notes, and documents after the visit | V2 |
Provider features give clinicians what they need to run a visit without switching tools, from the patient queue to e-prescribing. Six of the seven features below ship in the MVP, and lab orders and referrals follow in V2.
| Feature | What It Does | Phase |
|---|---|---|
| Availability calendar | Shifts, time zones, and visit types | MVP |
| Patient queue and dashboard | Who is waiting, triage notes, priority | MVP |
| Video console with chart panel | See history and notes during the call | MVP |
| Clinical notes and templates | SOAP notes and specialty templates | MVP |
| E-prescribing | Send prescriptions electronically, including EPCS if approved | MVP |
| Licensure and state matching | Route patients only to providers licensed in their state | MVP |
| Lab orders and referrals | Order labs, share results, refer onward | V2 |
Tenant admin features let each clinic, pharmacy, or health brand manage its own portal without engineering help. The five areas below are branding, provider onboarding, service catalog, role-based access, and reports with audit logs.
SaaS business features let the platform owner onboard tenants, charge for access, and support them safely. The five features below are tenant provisioning, subscription and usage billing, feature flags per plan, a super-admin console, and break-glass support access.
Planning a telemedicine platform for multiple clinics?
A production telemedicine SaaS platform is built from seven layers: client apps, an API gateway, identity and tenancy, core clinical services, real-time communication, integrations, and a compliance-grade data and audit layer. All of it runs on HIPAA-eligible cloud services covered by a BAA.
A telemedicine SaaS platform runs on seven layers: client apps, API gateway, identity and tenancy, core services, real-time layer, integration layer, and data and audit layer. Each layer has one job, so you can scale or replace it without rebuilding the rest.
| Layer | Responsibility | Typical Technology |
|---|---|---|
| Client apps | Patient app, provider app, admin web consoles | React / Next.js, React Native or Flutter |
| API gateway | Routing, rate limits, tenant resolution, WAF | AWS API Gateway, Kong, NGINX |
| Identity and tenancy | Login, MFA, roles, tenant context on every request | Cognito, Auth0, Keycloak |
| Core services | Scheduling, visits, notes, prescriptions, billing | Node.js / NestJS, Python services |
| Real-time layer | Video, audio, chat, presence, notifications | WebRTC, SFU media servers, WebSockets |
| Integration layer | EHR, e-prescribing, labs, pharmacy, payments | FHIR R4, HL7 v2, vendor APIs |
| Data and audit layer | Encrypted storage, audit trail, backups, analytics | PostgreSQL, S3, KMS, CloudTrail |
Keep services modular from the start. Scheduling, video, and billing scale differently, so you should be able to scale them independently.
Telehealth SaaS platforms use one of three tenancy models: silo (separate stack per tenant), bridge (shared app with a separate database or schema per tenant), or pool (shared database with tenant IDs and row-level security). Understanding multi-tenant SaaS architecture helps you choose the right balance of isolation, cost, and scalability for your platform. Most platforms start with a pool or bridge for clinics and offer silo as an enterprise tier.
| Model | Isolation | Cost per Tenant | Onboarding | Best Fit |
|---|---|---|---|---|
| Silo | Highest: dedicated stack | Highest | Days | Hospitals, health systems |
| Bridge | High: separate schema or DB | Medium | Minutes to hours | Mid-size provider groups |
| Pool | Logical: tenant ID + row-level security | Lowest | Minutes | Small clinics, solo practices |
Four engineering rules prevent tenant data leaks in a multi-tenant telehealth platform: resolve the tenant at the gateway, enforce row-level security in the database, use per-tenant encryption keys for enterprise tenants, and test cross-tenant access on every release.
Most telemedicine platforms use WebRTC for real-time video, routed through a media server (SFU) or a managed video API whose vendor will sign a BAA. Managed APIs launch faster; self-hosted media servers cut per-minute cost at high volume.
| Option | Pros | Cons | Best For |
|---|---|---|---|
| Managed video API (e.g., Twilio, Daily, Vonage, Agora) | Fast launch, global edge network, SDKs | Per-minute cost grows with volume; confirm BAA on your plan | MVPs and most SaaS platforms |
| Self-hosted SFU (e.g., LiveKit, mediasoup, Jitsi) | Lower unit cost, full control | You run TURN servers, scaling, and uptime | High-volume platforms |
Telemedicine platforms connect to EHRs through FHIR R4 APIs for modern systems and HL7 v2 interfaces for older ones. Budget 6–12 weeks per EHR integration, with cost depending on the EHR vendor and whether you need read-only access or write-back.z
ONC’s Cures Act rule requires certified EHRs to offer standardized FHIR APIs, which makes read access more predictable.
A telemedicine SaaS platform connects to four outside services: e-prescribing, pharmacy and shipping, payments, and notifications. Each one handles patient data differently, so each needs its own HIPAA rule.
Technource recommends React or Next.js for the web frontend, Node.js with NestJS for the backend, PostgreSQL with row-level security for data, and WebRTC for video, all on HIPAA-eligible cloud services under a signed BAA. For mobile apps, React Native or Flutter are strong cross-platform options, while Swift and Kotlin are better suited to device-heavy applications. This stack keeps hiring easy and tenant isolation enforceable at the database level.
| Layer | Recommended Options |
|---|---|
| Web frontend | React.js or Next.js |
| Mobile apps | React Native or Flutter; Swift/Kotlin for device-heavy apps |
| Backend | Node.js / NestJS; Python for AI and data services |
| Database | PostgreSQL with row-level security; MongoDB for flexible clinical forms; Redis for queues |
| Video | WebRTC via managed API or self-hosted SFU |
| Cloud | AWS, Azure, or Google Cloud HIPAA-eligible services under a signed BAA |
| Interoperability | FHIR R4, HL7 v2, SMART on FHIR |
| Security | KMS encryption, MFA, WAF, SIEM, centralized audit logging |
A HIPAA-compliant telemedicine platform needs encryption in transit and at rest, MFA, role-based access, immutable audit logs, BAAs with every vendor that touches PHI, and a documented risk analysis. These controls must be built into the architecture, not added before launch.
This is where general development shops struggle and where a specialized healthcare software development company saves months of rework.
If your platform creates, receives, stores, or transmits PHI for clinics, your company is a HIPAA business associate.
That means you sign a BAA with every tenant. You also need BAAs with your own subcontractors, such as cloud and video vendors.
Build a BAA template, a vendor inventory, and an incident response plan before your first tenant goes live.
A HIPAA compliant telemedicine platform needs nine technical safeguards built into the architecture from the first sprint, from encryption in transit and at rest to audit logging and data minimization. Adding them just before launch costs more and often means rework.
| Safeguard | How to Implement It |
|---|---|
| Encryption in transit | TLS 1.2+ for APIs; DTLS-SRTP for WebRTC media |
| Encryption at rest | AES-256 via cloud KMS; per-tenant keys for enterprise tiers |
| Access control | Role-based access scoped to tenant, least privilege by default |
| Multi-factor authentication | Required for providers, admins, and support staff |
| Audit logging | Immutable log of every PHI read, write, export, and admin action |
| Automatic logoff | Session timeouts on shared clinical devices |
| Backup and recovery | Encrypted, tested backups with defined RPO and RTO |
| Vulnerability management | Regular scans, annual penetration tests, patch SLAs |
| Data minimization | No PHI in logs, URLs, analytics events, or push text |
For a full control-by-control list, see our HIPAA compliance checklist.
Cloud hosting, video API, e-prescribing, and AI vendors must all sign a BAA, while payment processors often will not. Check each vendor type in the table below before you commit to a contract.
| Vendor Type | BAA Needed? | Practical Note |
|---|---|---|
| Cloud hosting | Yes | Use only HIPAA-eligible services listed in the provider’s BAA |
| Video API | Yes | Confirm BAA coverage on your specific plan |
| E-prescribing partner | Yes | Usually part of the onboarding contract |
| AI / LLM APIs | Yes | Use zero-retention or healthcare plans only |
| Email and SMS | Yes, if PHI is sent | Better: keep messages PHI-free |
| Analytics and error tracking | Yes, or strip PHI | Scrub PHI before events leave your system |
| Payment processor | Often unavailable | Send amounts and IDs only |
HHS proposed the largest update to the HIPAA Security Rule in two decades in January 2025 (HHS).
It would make encryption and MFA mandatory, remove the “addressable” option, and require asset inventories, vulnerability scans, and annual compliance audits.
As of mid-2026, the rule is still proposed, with no confirmed final date.
Technource Recommendation: Build to the proposed rule now. These controls are already standard in enterprise security reviews, and retrofitting them later costs more.
A telemedicine SaaS platform also has to follow state licensure rules, DEA prescribing rules, and, for non-U.S. tenants, regional privacy laws like GDPR. The three areas below show what each one means for your product.
1. Interstate Licensure
Providers must be licensed in the state where the patient is located during the visit. The Interstate Medical Licensure Compact now covers more than 40 states, plus DC and Guam.
2. Controlled Substance Prescribing
DEA telemedicine flexibilities for controlled substances run through December 31, 2026. A permanent special registration framework was proposed but not finalized.
3. GDPR and Non-U.S. Markets
Selling in the UK, EU, Canada, or Australia adds GDPR, PIPEDA, or Privacy Act duties and often data residency rules. Plan region-specific deployments early if global tenants are on your roadmap.
Telepath, a scalable SaaS pharmacy platform for healthcare organizations that needed branded portals, e-prescriptions, medicine ordering, telehealth appointments, and multi-tenant organization management. Technource solved this by building a multi-tenant platform that allowed different organizations to operate independent branded pharmacy portals from a shared system.
The platform used a scalable architecture with custom subdomains, flexible onboarding, and automated cart abandonment workflows. The technology stack included React.js, AWS S3, DoseSpot, Agora, Carepoint & TransitionRx, Easypost, and Paytheory to support e-prescribing, telehealth, pharmacy coordination, shipping, and payments.
To build a telemedicine platform, define the care model, map compliance and data flows, design clinician-first UX, build the multi-tenant core, integrate video, EHR, and e-prescribing, test security and load, then pilot with one to three tenants before scaling. An MVP following these steps typically takes 14–20 weeks.
This is the same discovery-to-scale lifecycle we use in our software product development services, adapted for regulated health data.
Decide what care you deliver: urgent care, behavioral health, chronic care, weight management, or pharmacy.
Then decide who pays: clinics, employers, patients, or payers.
Output: care model, tenant profile, and MVP scope.
Draw every place PHI is created, stored, and sent. List each vendor and confirm its BAA.
Run a HIPAA risk analysis on the design.
Output: data flow diagram, vendor list, risk register.
Clinicians judge a platform by clicks per visit. Patients judge it by how fast they reach a provider.
Test clickable prototypes with 3–5 real clinicians before coding.
Output: validated UX for patient, provider, and admin flows.
Build identity, tenancy, roles, scheduling, and audit logging first. Every other feature depends on them.
Output: a secure core that new modules plug into.
Start with one EHR and one e-prescribing partner. Add more only when tenants demand them.
Output: a working end-to-end visit, from booking to prescription.
Run penetration tests, cross-tenant access tests, and load tests for peak hours.
Have clinicians complete real visit scenarios in staging.
Output: a signed-off, production-ready release.
Launch with one to three pilot tenants. Track visit completion rate, wait time, and video failure rate.
Fix friction, then open self-serve onboarding.
Output: a repeatable tenant onboarding playbook.
A telemedicine MVP takes 14–20 weeks, a multi-tenant SaaS platform takes 5–8 months, and an enterprise platform with multiple EHR integrations takes 9–14 months. EHR approvals and BAA negotiations are the most common causes of delay. For teams looking to validate the core care workflow before investing in a larger platform, MVP development services can provide a focused starting point.
| Phase | Duration | Key Output |
|---|---|---|
| Discovery and compliance architecture | 2–4 weeks | Scope, data flows, risk analysis, architecture |
| UX/UI design and prototype | 3–4 weeks (overlaps discovery) | Validated patient, provider, and admin flows |
| Core platform build | 8–12 weeks | Identity, tenancy, scheduling, visits, notes |
| Integrations | 4–8 weeks (runs in parallel) | Video, e-prescribing, payments, first EHR |
| Security testing and UAT | 2–3 weeks | Pen test, load test, clinical sign-off |
| Pilot launch | 2–4 weeks | First tenants live, feedback loop |
The timeline by platform scope depends on how many tenants, EHR integrations, and compliance controls the first release must support. A telemedicine MVP takes 14 to 20 weeks, and an enterprise platform can take up to 14 months.
| Platform Scope | Typical Timeline |
|---|---|
| Telemedicine MVP (single brand, core visit loop) | 14–20 weeks |
| Multi-tenant SaaS platform (white-label, billing, one EHR) | 5–8 months |
| Enterprise platform (multiple EHRs, RPM, AI, insurance billing) | 9–14 months |
What usually slows a build: EHR marketplace approvals, vendor BAA reviews, state-specific prescribing rules, and late scope changes from pilot clinics.
Want a realistic timeline for your telemedicine platform?
A telemedicine platform starts at $3,000 for a proof of concept, $6,000 for a prototype, and $20,000 – $30,000 for a HIPAA-ready MVP. Multi-tenant SaaS platforms start at $30,000+, and enterprise builds are custom-quoted. The biggest cost drivers are EHR integrations, tenancy and billing features, and compliance work.
A telemedicine SaaS platform costs $20,000 to $30,000 for an MVP and $30,000+ for an enterprise build. Scope, mainly the number of EHR integrations and tenant features, decides where your project lands.
| Scope | Cost Range | Timeline | What’s Included |
|---|---|---|---|
| Telemedicine MVP | $20k – $30K | 14–20 weeks | Patient and provider apps, video, scheduling, messaging, e-Rx, payments |
| Multi-tenant SaaS platform | $30k+ | 5–8 months | MVP + white-label tenancy, subscription billing, admin consoles, one EHR |
| Enterprise platform | Custom quote | 9–14 months | Multiple EHRs, insurance claims, RPM devices, AI features, SOC 2 readiness |
Plan for 15 to 20% of the initial build cost every year after launch, plus cloud hosting, video usage, licenses, and compliance. These costs recur, so they belong in your budget from day one.
You can lower the build cost by launching with one EHR, a managed video API and cross-platform mobile apps, without removing any HIPAA safeguards. The six options below show where the savings come from.
Telemedicine SaaS platforms usually charge tenants a monthly subscription per provider or per location, plus usage fees for visits or video minutes and one-time setup fees for white-label onboarding. Many combine two or more models.
| Model | How It Works | Best For | Watch Out For |
|---|---|---|---|
| Per-provider seat | Monthly fee per active provider | Clinics and group practices | Inactive seats cause churn |
| Tiered plans | Feature bundles by plan | Mixed SMB and enterprise | Needs feature flags in code |
| Usage-based | Fee per visit or video minute | Variable-volume tenants | Revenue is less predictable |
| Setup fee | One-time onboarding and branding fee | White-label deployments | Can slow small-tenant sales |
| Revenue share | Percentage of visit or product revenue | Pharmacy and DTC platforms | Requires clean payment data |
Product Implication: build metering into the architecture from day one. Retrofitting usage tracking is slow and error-prone.
We built My Vital View, a B2B SaaS remote health monitoring platform for a U.S. healthcare organization offering remote patient monitoring (RPM) and chronic care management (CCM). The client needed one system to connect providers with patients at home, manage medical devices, and automate RPM and CCM workflows.
Technource built role-based dashboards for patients, providers, staff, clients, and admins, with device data synced via Bluetooth (BLE) and an IMEI-based BodyTrace API. We added a retest logic that asks patients to confirm extreme readings before alerting providers, plus automated session tracking for RPM and CCM billing. The stack included Node.js, React.js, React Native, MongoDB, Twilio, SendGrid, WestFax, and the BodyTrace API.
The most common challenges are unstable video on weak networks, low clinician adoption, tenant data isolation, slow EHR integrations, and sudden demand spikes. Each one has a known architecture or product fix.
| Challenge | Why It Happens | How to Solve It |
|---|---|---|
| Dropped or frozen video | Weak patient networks, strict hospital firewalls | TURN servers, adaptive bitrate, audio-only fallback, pre-call device check |
| Low clinician adoption | Extra clicks, double documentation | Chart beside video, specialty templates, EHR write-back |
| Tenant data leakage risk | Tenant checks only in app code | Row-level security, signed tenant tokens, cross-tenant tests |
| Slow EHR integrations | Marketplace approvals, data mapping | Start approvals in discovery, use FHIR read-first |
| Demand spikes | Flu season, Monday mornings | Autoscaling, queue-based services, load tests at 3× peak |
| Alert fatigue in RPM | False extreme readings | Retest logic and threshold rules per patient |
Three lessons from our Telepath and My Vital View builds shaped how we plan healthcare SaaS platforms today:
Stuck on video quality, EHR integration, or tenant isolation?
The biggest telemedicine SaaS trends for 2026–2028 are AI-powered clinical documentation, AI-powered workflow automation for intake and triage, the merger of telehealth with remote patient monitoring, and hospital-at-home programs. Platforms that build for these now will win enterprise deals later.
Ambient AI can draft visit notes from the consultation, which clinicians review and sign.
Build requirement: BAA with the AI vendor, zero data retention, and clear human approval before notes enter the record.
AI can automate intake summaries, visit routing, follow-up reminders, and prior authorization paperwork. AI automation services can support these workflows while keeping clinical decisions with clinicians.
Keep clinical decisions with clinicians. Software that diagnoses or recommends treatment may fall under FDA oversight.
Buyers want one platform for virtual visits and continuous monitoring. Connected devices turn one-off consults into ongoing care programs.
This is why device integration and alert logic now appear in enterprise RFPs.
The Acute Hospital Care at Home program has been extended through 2030.
Expect demand for platforms that coordinate video visits, devices, and in-person staff in one workflow.
Technource is an AI-powered product engineering company. We design, build, and scale SaaS platforms, not one-off apps.
We help you shape the care model, tenancy strategy, and pricing model before writing code. That prevents expensive rebuilds after your first tenants go live.
Our healthcare work includes Telepath (65% faster e-prescribing approvals) and My Vital View (50% faster clinical decision-making).
We have served 50+ healthcare clients across 14+ years and 1,000+ delivered projects.
HIPAA safeguards, BAA-ready vendors, audit logging, and tenant isolation are part of our default architecture, not add-ons.
We use AI across our engineering process for code review, test generation, and documentation. That shortens delivery without cutting quality.
A telemedicine SaaS platform is a regulated, multi-tenant product. Success depends on decisions made in the first few weeks.
Choose your tenancy model early. Design HIPAA safeguards into the architecture. Start with one EHR and one prescribing partner.
Plan for 14–20 weeks for an MVP and 5–8 months for a full multi-tenant platform. Validate with a PoC from $3,000, launch an MVP starting from $20,000+, and get multi-tenant and enterprise builds quoted by scope.
The market is growing, and Medicare coverage is stable through 2027. The window favors teams that launch a compliant, focused product and scale from real tenant feedback.
The right partner for SaaS product development services treats your platform as a long-term business solution, not a project. That means owning architecture, compliance, and outcomes together.
Planning a telemedicine SaaS platform for your clinics or pharmacy network?
A telemedicine MVP takes 14–20 weeks. A multi-tenant SaaS platform with white-label branding, subscription billing, and one EHR integration takes 5–8 months. Enterprise platforms with multiple EHRs, RPM, and AI features take 9–14 months. EHR marketplace approvals and vendor BAA reviews are the most common causes of delay. A telemedicine PoC costs $3000 to $ 8,000, and a prototype costs $ 6,000 to $12,000. A HIPAA-ready MVP costs $20,000 to $30,000, and AI-powered MVPs range from $10,000 to $50,000+. Multi-tenant SaaS platforms start at $30,000+, and enterprise builds are custom-quoted. After launch, plan for 15–20% of build cost per year for maintenance. Compliance work makes up 20–30% of the build. Yes. If your platform creates, receives, stores, or transmits PHI for healthcare providers, you are a business associate. You must sign a BAA with each tenant and get BAAs from your own vendors, such as cloud and video providers. Healthcare breaches averaged $6.64 million in 2026, so tenants will check this closely. WebRTC is the standard for real-time video. Most platforms use a managed video API whose vendor signs a BAA on the chosen plan. Self-hosted SFU servers make sense at high volume. Either way, add TURN servers, adaptive bitrate, and an audio-only fallback, since Medicare covers many audio-only visits through December 31, 2027. Use multi-tenant (pool or bridge) for small and mid-size clinics, because it keeps cost per tenant low and onboarding fast. Offer single-tenant (silo) deployments as a premium tier for hospitals and health systems. Multi-tenant platforms with white-label branding start at $30,000+, while single-tenant enterprise deployments are custom-quoted. Yes. The Consolidated Appropriations Act, 2026 extended key Medicare telehealth flexibilities through December 31, 2027. Patients can receive covered telehealth at home in any location, and many audio-only visits remain covered. CMS must also introduce new telehealth billing modifiers by January 1, 2027. Yes, for now. DEA flexibilities allow prescribing controlled substances via telemedicine without a prior in-person visit through December 31, 2026. A permanent special registration framework has been proposed but not finalized, so build prescribing rules as configurable policies you can update without a new release. Use white-label if you need a standard service live in about 4–10 weeks. Build custom if you plan to resell the platform, need specialty workflows, or want to own your IP. A custom MVP takes 14–20 weeks but protects your SaaS margin. Start with AI-powered workflow automation that saves clinician time: intake summaries, visit routing, follow-up reminders, and draft clinical notes. AI features typically cost 15,000–60,000. Use only AI vendors that sign a BAA and keep a clinician review step before anything enters the medical record. Each EHR integration typically takes 6–12 weeks. Read-only FHIR R4 access is the fastest path. Writing notes and orders back to the chart takes longer, costs more, and needs clinical testing. Final cost depends on the EHR vendor and integration scope. Start EHR marketplace approvals during discovery to avoid delays.