Background Paths
Background Paths
Formally verified · Mathematically proven · Safety-critical software

High-assurancesoftware,formallyverified.

Giolit Labs advances the science and engineering of high-assurance software systems — the formal specification, proofs, formal verification, formal methods, synthesis, testing, and integration of systems whose correctness, safety, security, and reliability are of critical importance.

Computational artifacts we verify

Software Programs
Communication Protocols
Embedded Controllers
Autonomous & Intelligent Systems
Neural Networks & AI Models
Hardware & RTL Designs
Cyber-Physical Systems
Hybrid Architectures
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Aligned to industry standards

ISO 26262
IEC 61508
IEC 62304
DO-178C
EN 50128
MISRA
Secure SD
§01

Marketplace — Ecosystem of Healthcare Software Components

A curated ecosystem of verified healthcare software

A marketplace for healthcare software components that enables organizations to discover, integrate, verify, and deploy interoperable software solutions efficiently and reliably — designed to promote interoperability, reliability, maintainability, and assurance.

Integration-first by design. Every component ships verification-ready and interoperable — so teams can integrate verified modules into larger systems while preserving correctness guarantees.

The marketplace facilitates

  • Discovery of Healthcare Software Components
  • Verification-Ready Software Assets
  • Interoperable Clinical Modules
  • Electronic Medical Record (EMR) Components
  • Reusable Domain-Specific Services
  • Standards-Oriented Integration Frameworks

Assurance Differentiator

Every component is formally specified, verification-ready, and Giolit-signed — the differentiator versus generic healthcare software. Built with IEC 62304 alignment and HL7 / FHIR interoperability support.

IEC 62304HL7FHIRVerification-ReadyGiolit-Signed

IEC 62304

Aligned lifecycle

HL7 / FHIR

Native interoperability

Giolit-Signed

Every module, before deployment

HMS functional coverage — reference

Patient Management
Clinical Operations
Laboratory
Pharmacy
Hospital Operations
Finance
Human Resources
Supply Chain & Procurement
Analytics & Reporting
Integration Layer
AI Layer
Security & Compliance
§02

About Us

The formal verification company.

Our methodologies are founded upon formal methods, automated reasoning, model checking, theorem proving, constraint solving, abstract interpretation, program synthesis, and software assurance techniques. We develop advanced technologies for the automated verification, synthesis, and integration of software ecosystems — and for the seamless integration of verified components into larger systems while preserving correctness guarantees.

Mission

To enhance the reliability, safety, security, and correctness of software ecosystems through mathematically rigorous verification techniques — and to advance the state of the art in software assurance, enabling the systematic construction of trustworthy computational systems with mathematically demonstrable correctness properties.

Vision

To establish a unified framework for specification, verification, synthesis, testing, and integration that enables the systematic construction of trustworthy software ecosystems with mathematically demonstrable correctness properties.

Core Competencies

Formal VerificationAutomated ReasoningProgram AnalysisProgram SynthesisController Verification & SynthesisSoftware Testing & ValidationNeural Network VerificationCyber-Physical System VerificationHardware VerificationSoftware Integration & Assurance

Computational Artifacts We Cover

Software Programs
Communication Protocols
Embedded Controllers
Autonomous & Intelligent Systems
Neural Networks & AI Models
Hardware & RTL Designs
Cyber-Physical Systems
Hybrid Architectures
§03

Services

What we deliver — and prove

Project-delivered verification, testing, synthesis, and engineering — each engagement grounded in formal methods, each result backed by mathematical evidence.

Automated Testing of Software Systems
01

TEST

Automated Testing of Software Systems

Comprehensive testing and validation services for complex software-intensive systems.

Capabilities

Automated Test GenerationRegression TestingFuzz TestingProtocol TestingAPI ValidationEmbedded System TestingAI System EvaluationCoverage & Reliability Analysis
Formal Verification of Software Systems
02

VERIFY

Formal Verification of Software Systems

Rigorous mathematical verification of system properties through automated and semi-automated reasoning techniques.

Verification Targets

ProgramsProtocolsControllersNeural NetworksHardware ModelsCyber-Physical SystemsDistributed SystemsHybrid Architectures

Properties Verified

Functional CorrectnessSafetySecurityRobustnessConsistencyReachabilityDeadlock FreedomLivenessCompliance
Automated Generation of Software System Components
03

GENERATE

Automated Generation of Software System Components

Generation of software artifacts from formal specifications, models, and declarative requirements.

Research Areas

Correct-by-Construction GenerationModel-Driven DevelopmentProgram SynthesisController SynthesisSpecification-Guided Development
Building Formally Verified Software Systems
04

BUILD

Building Formally Verified Software Systems

Development of software systems in which verification activities are integrated throughout the engineering lifecycle.

Application Domains

Safety-Critical SystemsMedical TechnologiesAutonomous SystemsIndustrial AutomationEmbedded PlatformsSecure Computing SystemsAI-Enabled Systems
§04

Consulting

How we partner with you

From a single verification study to an organization-wide assurance program — we advise on process, methodology, and the engineering culture that makes correctness sustainable.

Consulting & Partnership
Engagement model

Engagement starts with a focused advisory scope and scales to embedded, long-term partnership on assurance programs — from a single verification study to organization-wide process engineering.

01

Formal Verification

Mathematically rigorous methods to establish correctness properties of software and hardware systems.

02

Automated Testing

Advanced testing infrastructures, automated test generation frameworks, fuzzing technologies, and validation pipelines.

03

Building Software Systems

Design, development, integration, and deployment of dependable software systems with emphasis on quality, traceability, and assurance.

04

Verification Process Engineering

Verification-oriented software development processes suitable for safety-critical and mission-critical applications.

05

Research & Technology Development

Collaboration with academic, industrial, and governmental organizations on advanced verification and assurance technologies.

§05

Tools & Research Platforms

The engine behind the assurance

Proprietary verification, synthesis, and testing tools — built from our research, battle-tested on our own products. The same engines that verify the HMS.

Tools

CHC Solver

Constraint Horn Clause solving for verification backends.

Automated Software Verifier

End-to-end automated verification of programs.

Controller Verifier

Verification of control logic and embedded controllers.

Verified Program Generator

Synthesis of programs with correctness guarantees.

Verified Controller Generator

Synthesis of verified controllers.

Fuzzer

Intelligent fuzzing for vulnerability and edge-case discovery.

Neural Network Simulator

Simulation and behavioral analysis of AI models.

Automated Software Integrator

Composition of heterogeneous components with preserved correctness.

Research Platforms

Software Verification Platform

Automated verification of software systems against formal specifications and correctness requirements.

Controller Verification Platform

Analysis and verification of control logic under diverse operational conditions.

Neural Network Assurance Platform

Formal analysis of safety, robustness, and behavioral properties of machine learning systems.

Automated Testing Platform

Intelligent generation and execution of test suites for software validation.

Verified Software Generation Platform

Synthesis of software components from formal specifications with correctness guarantees.

Automated Software Integration Platform

Integration of heterogeneous software components while preserving behavioral consistency and system-level correctness.

§06

Standards & Assurance

Aligned to the frameworks that count

Our methodologies are applicable to systems developed under assurance and certification frameworks — including those governing medical, automotive, aerospace, railway, and secure software development.

Industries we serve

Medical & HealthcareAutomotiveAerospace & AviationRailwayIndustrial AutomationAutonomous SystemsAI-Enabled SystemsSecure & Critical Infrastructure

ISO 26262

Automotive functional safety

IEC 61508

Functional safety of E/E/PE systems

IEC 62304

Medical device software lifecycle

DO-178C

Airborne systems software

EN 50128

Railway software

MISRA

Software development guidelines

Secure SD

Secure software development standards

Continuously applicable across

ISO 26262
IEC 61508
IEC 62304
DO-178C
EN 50128
MISRA
Secure SD
ISO 26262
IEC 61508
IEC 62304
DO-178C
EN 50128
MISRA
Secure SD
§07

Research

The research behind the assurance

The formal-methods foundations, research platforms, publications, and developer tooling that underpin our verification, synthesis, and integration work — for academic, regulatory, and R&D partners.

Formal Methods

Model checking, theorem proving, constraint solving, abstract interpretation.

Research Platforms

Six internal platforms powering our tools — verification, synthesis, testing, integration.

Publications

Peer-reviewed advances across formal methods, program analysis, AI assurance, cyber-physical systems.

Developer Pipeline

Natural-language → transition systems → programs → simulation, with traceability throughout.

Engage Giolit Labs

Build with mathematically demonstrable correctness.

Whether you’re deploying a hospital management system, verifying a safety-critical controller, or engineering an assurance program — we apply formal methods, mathematical proofs, and rigorous formal verification techniques from specification to deployment.