Signaling and carrier integration
Integrate SIP trunks, carriers, numbering, routing, gateways, session control, transfer, failover, and policy.
Communications Service Providers
Programmable Communications & Service Provider Platforms
Engineer communications products from signaling, routing, media, recording, interconnect, and multi-tenancy through APIs, meetings, contact center, AI agents, translation, billing, applications, and operations.
OPTIME combines deep telecom and media engineering with the Baasi communications foundation, allowing providers to build differentiated platforms without recreating every signaling, media, conferencing, and contact-center primitive from zero.
WHY THIS MATTERS
A communications product spans carrier interconnect, media, applications, APIs, and operations.
Communications providers must make signaling, media, routing, applications, APIs, billing, identity, quality, compliance controls, infrastructure, and operations behave as one product.
Many teams can build a browser UI or integrate a public API.
Far fewer can engineer the full path from carrier interconnect and RTP through WebRTC, media servers, distributed infrastructure, APIs, contact center, AI, and customer applications.
Build or modernize programmable communications platforms from SIP, WebRTC, media, routing, and carrier interconnect through APIs, applications, multi-tenancy, AI, billing, and operations.
SYSTEM PRESSURES
Why simple implementations break down.
Communications layers are developed independently
Signaling, media, applications, recording, billing, and administration may evolve without one product architecture.
Platform differentiation is difficult
Providers spend engineering capacity recreating commodity functions instead of building differentiated workflows.
Multi-tenancy creates hidden complexity
Identity, numbers, policy, media, data, billing, limits, and operations must remain isolated and observable.
AI is bolted onto the platform
Agents, transcription, translation, summaries, and quality intelligence may not share session state or product permissions.
Carrier and browser worlds do not align automatically
SIP, PSTN, RTP, WebRTC, codecs, network behavior, and device constraints require careful integration.
Growth exposes capacity and reliability limits
Media, signaling, storage, recording, AI, and regional infrastructure scale differently.
COMPLETE SOLUTION
Engineer the workflow as one controlled production system.
The complete system can connect Baasi, SIP, WebRTC, RTP, voice, video, messaging, meetings, conferencing, media servers, recording, routing, carrier interconnect, CPaaS, UCaaS, CCaaS, contact center, multi-tenancy, provisioning, number management, billing integration, APIs, SDKs, web and mobile applications, AI agents, transcription, translation, meeting intelligence, privacy filters, observability, regional infrastructure.
CAPABILITY GROUPS
What the complete Solution can contain.
Real-time media
Engineer RTP, WebRTC, codecs, media servers, SFU, MCU, mixing, transcoding, recording, playback, and quality.
CPaaS APIs and developer experience
Provide programmable voice, video, messaging, meetings, webhooks, SDKs, authentication, documentation, and usage controls.
UCaaS applications
Build calling, messaging, presence, meetings, directories, administration, clients, and collaboration workflows.
CCaaS and contact center
Support queues, skills, routing, agent state, supervisors, recording, quality, disposition, integrations, and analytics.
Multi-tenancy and provisioning
Manage tenants, users, numbers, policies, resources, applications, limits, data, and lifecycle.
Billing and commercial integration
Connect usage, subscriptions, rating, invoices, entitlements, customer systems, and reporting.
Communications AI
Add voice and video agents, transcription, summaries, translation, meeting intelligence, retrieval, and approved tool use.
Platform operations
Observe session state, media quality, signaling, capacity, failures, regions, releases, and customer-impacting incidents.
ARCHITECTURE FLOW
Connect the complete path from source and session to operation.
The flow begins with carriers, pstn, sip trunks, browsers, devices, applications, and messaging channels and preserves control through every processing and operating layer.
Carriers
Carriers, PSTN, SIP trunks, browsers, devices, applications, and messaging channels
Signaling
Signaling, identity, numbers, routing, presence, policy, and session control
RTP
RTP, WebRTC, media servers, codecs, conferencing, recording, and quality
Baasi communications services
Baasi communications services, APIs, and orchestration
CPaaS
CPaaS, UCaaS, CCaaS, meeting, agent, and administration applications
AI agents
AI agents, transcription, translation, meeting intelligence, and privacy services
Tenant
Tenant, provisioning, entitlement, billing, and customer systems
Regional compute
Regional compute, networking, storage, media, and model infrastructure
Observability
Observability, capacity, deployment, security boundaries, and support
Developer
Developer, operator, customer, and partner experiences
ARCHITECTURE DECISIONS
Make important trade-offs explicit before they become operating constraints.
Build from zero or extend Baasi
Approach A
Build from zero
Approach B
extend Baasi
Selection considerations
Use Baasi to accelerate core communications and focus custom development on differentiated provider value.
Centralized media or regional media
Approach A
Centralized media
Approach B
regional media
Selection considerations
Place media according to latency, network cost, jurisdiction, failure scope, and capacity.
Single-tenant or multi-tenant architecture
Approach A
Single-tenant
Approach B
multi-tenant architecture
Selection considerations
Select isolation, customizability, operations, and economics according to customer requirements.
Public SaaS or deployable private platform
Approach A
Public SaaS
Approach B
deployable private platform
Selection considerations
Support provider-hosted, customer-hosted, or hybrid models where strategically justified.
Native AI or external AI services
Approach A
Native AI
Approach B
external AI services
Selection considerations
Integrate AI into session state and product controls rather than treating it as a detached API.
REPRESENTATIVE SCENARIOS
How the Solution applies in representative situations.
Representative examples: Each scenario combines carrier connectivity, session and media control, product applications, APIs, tenancy, and operations in a provider-ready platform.
New CPaaS product
- Scenario
- A provider launches programmable voice, video, messaging, and meeting APIs using Baasi as the communications foundation.
UCaaS modernization
- Scenario
- An established calling platform adds modern WebRTC clients, meetings, messaging, administration, and AI.
CCaaS expansion
- Scenario
- A communications provider adds routing, agent applications, supervisors, recording, AI assistance, and CRM integration.
Regional media architecture
- Scenario
- A provider moves media processing closer to users while preserving central control and observability.
Private customer deployment
- Scenario
- A provider offers a customer-controlled deployment using the same platform architecture.
AI communications package
- Scenario
- The platform adds agents, transcription, translation, summaries, and privacy controls with session-aware integration.
ENGAGEMENT APPROACH
Move from operating context to a validated production system.
Phase 1
Product and platform assessment
Map market, tenants, signaling, media, applications, APIs, billing, regions, capacity, operations, and differentiation.
Phase 2
Representative product proof
Prove one communication, API, media, contact-center, or AI path.
Phase 3
Platform implementation
Build or integrate Baasi, signaling, media, APIs, applications, tenants, billing, AI, and infrastructure.
Phase 4
Capacity and product rollout
Validate quality, scale, isolation, failure, upgrade, support, and customer onboarding.
POSSIBLE DELIVERABLES
Evidence and implementation that can transfer into operation.
Communications-platform architecture
Baasi platform integration
SIP and carrier interconnect
WebRTC and media services
CPaaS APIs and SDKs
UCaaS applications
CCaaS applications
Multi-tenant provisioning
Billing integration
AI communications services
Regional infrastructure
Observability and quality platform
Deployment automation and runbooks
Final deliverables depend on the selected architecture, validation evidence, and engagement scope.
Start with the workflow, evidence, integration, deployment, performance, and operating constraints that determine whether this system can work in production.
START A TECHNICAL CONVERSATION
Discuss the system, constraints, and engineering outcome.
Share the product, workload, architecture, infrastructure, performance, security, or delivery constraint that must be resolved.
Austin, Texas
Distributed engineering teams across North America, Europe, the Caucasus, and Latin America.
[email protected]