LYNAPSE™ STUDIO · MISSION CRITICAL HARDWARE INTEGRATED IN DAYS

The AI-Powered Hardware Integration Platform for Mission-Critical Space Systems

The AI-Powered Hardware Integration Platform for Mission-Critical Space Systems

Lynapse™ Studio turns hardware documentation into engineer-approved interface models, then generates flight software requirements and MISRA C/C++ code validated in simulation, before hardware arrives.

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LYNAPSE / IMPACT

TOTAL ENGINEERING EFFORT*

Small satellite · 10 COTS components

−84%

−84%

Current manual workflow

9–18 months

Lynapse™

ICD → FSW REQUIREMENTS

Days

Current manual workflow

2 weeks

2 months

Lynapse™

TRUSTED AND SUPPORTED BY TOP PLAYERS IN THE SPACE INDUSTRY

01 — THE PROBLEM

Integration Is Slow, and Failures Are Discovered Too Late

Integration Is Slow, and Failures Are Discovered Too Late

Aerospace teams spend months manually inspecting, engineering requirements, implementing, testing and validating hardware-software interfaces from fragmented, static ICDs. Ambiguous documentation leads to wrong assumptions, and most interface failures only surface during integration and test, when they are most expensive to fix.

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THE SOLUTION

Accelerate Mission-Critical Hardware Integration with Lynapse™

Accelerate Mission-Critical Hardware Integration with Lynapse™

Lynapse™ digitizes static engineering sources such as ICDs and datasheets into one executable digital model. From that model it automates flight software requirements engineering, code generation, and SiL test benches with emulation.

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STATIC SOURCES

ICDs

Datasheets

Existing driver code · for SiL validation

Lynapse™ templates

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EXECUTABLE DIGITAL MODEL

One Source of Truth

One Source of Truth

ENGINEER-APPROVED · VERSIONED · TRACEABLE

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AUTOMATED OUTPUTS

FSW Requirements Engineering

SEQUENCES → FSW REQUIREMENTS (SSS)

Code Generation

MISRA C · C99 / C++11

SiL Test Benches & Emulation

EMULATORS · TEST CASES · CI

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RESULT 01

Catch interface failures at design time

Not during integration and test, when they are most expensive to fix.

RESULT 02

FSW requirements in days

Not months, generated and traced from the approved digital model.

RESULT 03

Code and SiL before hardware arrives

Validate software interfaces in emulation, months before the bench.

02 — BUILT FOR

Built for the Teams Who Own Integration

Built for the Teams Who Own Integration

Built for the Teams Who Own Integration

Flight software, systems and AIT teams, and the COTS suppliers who support them, work from the same approved digital model.

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FSW

Flight Software Teams

CHALLENGE

Turning ambiguous ICDs into implementable specifications takes weeks and several engineering reviews before code implementation even starts.

WITH LYNAPSE

Approved sequences become traceable FSW requirements and deterministic MISRA C / C++ code, generated from the digital model.

SYSTEMS · AIT

Systems & AIT Teams

CHALLENGE

System-level testing is where everything comes together and nothing works. With all components connected, it is unclear where in the system the failure happens.

WITH LYNAPSE

Validate system-level behaviour early in SiL, then mix emulators and hardware nodes to pinpoint timing events and failures.

SUPPLIERS

COTS Suppliers

CHALLENGE

Custom integration support requests pile up because ICDs drift from the firmware.

WITH LYNAPSE

Model your hardware interfaces once, validate your existing firmware against the same model, and give integrators a plug-and-play experience.

03 — WORKFLOW

How Lynapse™ Works

How Lynapse™ Works

How Lynapse™ Works

From hardware documentation to validated flight software. Every step produces an artifact your engineers review and approve before the next one starts.

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AI-Accelerated Drafting

AI handles the heavy lifting of data extraction and initial drafting of models, sequences and requirements.

Human Approval

Every critical decision and generated output requires explicit engineer approval before the next step.

Deterministic, Not a Black Box

Output is generated from your approved digital model: transparent, repeatable and fully auditable.

STEP 01

System Modeling & Interface Ingestion

System Modeling & Interface Ingestion

System Modeling & Interface Ingestion

Compose your integration project from multiple components, imported from ICDs, datasheets or Lynapse™ templates. Each becomes part of one unified, machine-readable digital model of your hardware interfaces.

OUTPUT →

Digital model

STEP 02

Ambiguity Analysis & Engineer Inspection

Ambiguity Analysis & Engineer Inspection

Ambiguity Analysis & Engineer Inspection

AI detects gaps, ambiguities and logic conflicts, with parsed, ambiguous and missing counts per component beside the source datasheet. Engineers review and resolve every finding, then approve the digital model.

OUTPUT →

Approved digital model

STEP 03

Automated Flight Software Requirements Engineering

Automated Flight Software Requirements Engineering

Automated Flight Software Requirements Engineering

Lynapse™ suggests execution sequences for your mission context, from commands and time delays to conditional logic, PUS services and event triggers. Engineers refine and approve them in a visual sequence editor, and each approved sequence becomes a traceable FSW requirement with rationale and verification method.

OUTPUT →

Traceable FSW requirements

STEP 04

Exporting Flight Software Requirements (SSS)

Exporting Flight Software Requirements (SSS)

Exporting Flight Software Requirements (SSS)

Export the subsystem specification generated from the approved model, ready for review and sign-off by your flight software team. Already have requirements? Import them from PDF or Jira.

OUTPUT →

FSW requirements report (SSS)

STEP 05

Deterministic Code Generation

Deterministic Code Generation

Deterministic Code Generation

Generate MISRA C compliant C99 and C++11 driver and application layers, platform- and flight-software-agnostic. Each output is stamped with its component, ICD version, requirements revision, model version and target platform, and versioned in Git.

OUTPUT →

MISRA C / C++ source code

STEP 06

Coming 2027

SiL Test & Validation

SiL Test & Validation

SiL Test & Validation

SiL emulators are generated with the driver, consistent by construction. Auto-generated test cases run in a Software-in-the-Loop environment, and every Git push triggers a new validation cycle.

Already have driver code?

Connect its Git repository and validate it on the same SiL bench.

OUTPUT →

SiL validation results

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Coming soon

STEP 07

Coming 2027

HiL & System-Level Validation

HiL & System-Level Validation

HiL & System-Level Validation

Mix emulators and physical hardware nodes in one test environment. Lynapse™ hooks into the TM/TC streams between nodes and pinpoints the exact message, packet or timing event behind a failure.

OUTPUT →

System-level validation results

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Coming soon

Build Integration Readiness
before Hardware Integration Begins

Build Integration Readiness
before Hardware Integration Begins

Lynapse™ decouples software readiness from hardware availability. Your team implements, tests and validates software interfaces in a virtual environment from the design phase onward, reaching integration readiness on day one, months before the hardware arrives on the bench.

Book a demo

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04 — CAPABILITIES

Everything Your Integration Team Needs

Everything Your Integration Team Needs

Everything Your Integration Team Needs

One workspace for every component, subsystem and full-system integration project.

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Version Control & Traceability

Built-in versioning of digital models across the whole integration project, with generated code managed in Git. Trace every line from ICD to model, sequences, requirements and code.

Collaborative Engineering

Multiple users and teams work in the same project across components, subsystems and integrations.

System & Component-Level Workflows

Integrate a single COTS component or manage full-system projects with dozens to hundreds of components, imported from ICDs or Lynapse™ templates.

Lynapse role-based access control settings
Lynapse role-based access control settings

Role-Based Access Management

Control who can edit, review and approve models, requirements and code. Enterprise SSO via SAML / OIDC, with Microsoft Entra ID supported.

/* MISRA C:2012 · C99 */

/* component: RW_UNIT icd: v18 */

/* reqs: rev C model: v12 */

rw_status_t rw_set_speed(…)

MISRA-Compliant Code Generation

Deterministic, MISRA C compliant C99 and C++11 driver and application layers, platform- and flight-software-agnostic.

05 — DEPLOYMENT & SECURITY

Built for Your Tech Stack
and Security Requirements

Built for Your Tech Stack and Security Requirements

Built for Your Tech Stack and Security Requirements

Deploy in a secure cloud or fully on-premise, and target anything from RTOS and bare-metal MCUs to MPU and Linux environments.

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CLOUD

Secure Cloud

A hosted workspace for distributed teams to import ICDs, manage models, run tests and share validation results.

ON-PREM

On-Premises

Run Lynapse™ Studio behind your firewall, including air-gapped environments, so sensitive ICDs and models never leave your facility.

SDK

SDK & API (Coming Soon)

Embed ICD parsing, analysis, code generation and test automation into CI/CD pipelines such as Jenkins, GitLab and GitHub Actions.

PLATFORM

Platform Agnostic

Hardware-, OS- and flight-software-agnostic. Bus libraries and OS-specific implementations extend easily to new platforms.

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On-Premise: What Your Team Retains

On-Premise: What Your Team Retains

On-Premise: What Your Team Retains

Your ICDs, models and telemetry stay inside your perimeter.

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Maximum Data Sovereignty

Deployed inside your own secure infrastructure, isolated from external cloud providers and third-party networks.

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No Model Training on Your Data

Customer data is never used to train or fine-tune AI models. ICDs and telemetry remain within your perimeter.

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Enterprise Authentication & Access Control

SAML / OIDC / SSO and advanced user provisioning, with Microsoft Entra ID supported out of the box.

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Zero-Access Policy

The platform runs entirely in your environment. Spacebackend personnel have no remote access.

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Isolated Infrastructure

No dependency on external internet or cloud availability, and no shared public-cloud latency or risk.

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Request early access

Request Early Access

Join the Early Access Waiting List

Join the Early Access Waiting List

Early-access trial seats for Lynapse™ Studio are limited. Seats are offered first come, first served. Request access now and tell us what you’re integrating.

Prefer to talk first?

Book a demo

Still have questions?

Still have questions?

Still have questions?

Talk to our integration experts about your mission and your ICDs.

Book a demo

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*Hands-on engineering effort for a first-time integration of 10 COTS units on a smallsat bus, across the full workflow including the 2027 releases. Excludes waiting on suppliers, hardware and reviews; actual effort varies by team, supplier and mission.