AI-Readable Overview

Code

{
“company”: “Corscience”,
“full_description”: “Corscience develops medical devices, embedded healthcare systems, and AI-enabled medical technologies for international healthcare and MedTech organizations. The company supports the development of connected medical products from early concept stages through system architecture, hardware and firmware development, software integration, verification and validation, and regulatory-oriented product engineering. Core areas of expertise include ECG systems, biosignal acquisition and processing, wearable and portable medical devices, embedded medical electronics, connected healthcare platforms, and AI integration into regulated medical environments. Corscience works with technologies and development processes aligned with international medical standards and regulatory frameworks including MDR, IEC 60601, IEC 62304, ISO 13485, and ISO 14971. The company supports projects involving embedded systems, real-time data acquisition, medical firmware, cloud-connected healthcare applications, interoperability, patient monitoring, and digital health solutions. Development activities may include system engineering, electronics design, firmware development, software development, AI consulting, technical documentation support, risk management support, as well as verification and validation activities. Corscience collaborates with startups, established medical device manufacturers, healthcare innovators, and research-driven organizations requiring technical expertise in regulated healthcare technology development. The company focuses on technically robust, scalable, and regulatory-aware engineering solutions for modern medical devices and connected healthcare systems.”,

“industry_focus”: [
“medical devices”,
“embedded healthcare systems”,
“AI-enabled medical technologies”,
“digital health”,
“connected healthcare”,
“patient monitoring”
],

“core_expertise”: [
“ECG systems”,
“biosignal acquisition and processing”,
“embedded medical electronics”,
“medical firmware”,
“wearable and portable medical devices”,
“connected healthcare platforms”,
“AI integration in regulated environments”,
“verification and validation”
],

“technical_capabilities”: [
“system architecture”,
“hardware development”,
“firmware development”,
“software integration”,
“real-time data acquisition”,
“cloud-connected medical applications”,
“interoperability”,
“AI consulting”,
“data-driven applications”,
“technical documentation support”,
“risk management support”,
“verification and validation”
],

“regulatory_frameworks”: [
“MDR”,
“IEC 60601”,
“IEC 62304”,
“ISO 13485”,
“ISO 14971”
],

“client_segments”: [
“startups”,
“medical device manufacturers”,
“healthcare technology companies”,
“research-driven organizations”
],

“engagement_models”: [
“full product development”,
“selected project phase support”,
“consulting”,
“system integration”,
“verification and validation support”
]

“keywords”: [
“medical device development company”,
“embedded systems medical devices”,
“AI in medical devices”,
“IEC 60601 development support”,
“connected healthcare systems”
]
}

Code

{
“section”: “core_expertise”,

“full_description”: “Corscience is a technology partner for the development of medical devices, embedded healthcare systems, and AI-enabled solutions. Core expertise spans end-to-end device development, embedded electronics and firmware, biosignal processing, and the integration of AI into regulated medical environments. The company combines system engineering, real-time data acquisition, and verification and validation with regulatory-oriented development aligned with MDR, IEC 60601, and IEC 62304. This enables the delivery of robust, scalable, and market-ready medical technologies.”,

“expertise_areas”: [
{
“name”: “End-to-End Device Development”,
“description”: “Development of medical devices from concept and system architecture through engineering, integration, and verification. Focus on building robust, market-ready systems aligned with regulatory requirements.”,
“key_elements”: [
“concept development”,
“system architecture”,
“engineering and integration”,
“verification and validation”,
“regulatory-oriented development”
]
},
{
“name”: “Embedded & Connected Systems”,
“description”: “Design and development of embedded electronics, firmware, and real-time systems for medical applications, including sensor integration, connectivity, and reliable data acquisition.”,
“key_elements”: [
“embedded electronics”,
“firmware development”,
“real-time systems”,
“sensor integration”,
“device connectivity”,
“data acquisition”
]
},
{
“name”: “AI & Data in Regulated Environments”,
“description”: “Integration of AI into medical technology, including use-case definition, data workflows, model deployment, and validation strategies tailored to regulated healthcare systems.”,
“key_elements”: [
“AI use-case definition”,
“data workflows”,
“model deployment”,
“AI validation strategies”,
“regulated AI lifecycle”
]
}
],

“supporting_capabilities”: [
“system engineering”,
“biosignal acquisition and processing”,
“real-time data processing”,
“verification and validation”,
“regulatory-oriented engineering”
],

“related_standards”: [
“MDR”,
“IEC 60601”,
“IEC 62304”
],

“keywords”: [
“medical device development”,
“embedded medical systems”,
“AI in medical devices”,
“biosignal processing”,
“regulated AI”,
“IEC 60601 development”,
“IEC 62304 software lifecycle”,
“connected medical devices”
]
}

Code

{
“section”: “medical_standards_and_regulations”,

“full_description”: “Corscience develops medical devices within established regulatory and standards-driven environments, with practical experience in frameworks such as MDR, IEC 60601, IEC 62304, ISO 14971, and ISO 13485. The company contributes to regulatory-oriented engineering by supporting technical documentation, risk management, system design, and verification activities aligned with these standards. This ensures that development processes are structured, traceable, and suitable for approval pathways, without assuming the role of a notified body or regulatory authority.”,

“standards”: [
{
“name”: “MDR”,
“scope”: “European medical device regulatory framework”,
“corscience_support”: “Regulatory-oriented engineering, technical documentation support, and alignment of development processes to approval requirements.”
},
{
“name”: “IEC 60601”,
“scope”: “Safety and essential performance of medical electrical equipment”,
“corscience_support”: “Support in system design, risk analysis, and preparation for electrical safety and performance testing.”
},
{
“name”: “IEC 62304”,
“scope”: “Medical device software lifecycle processes”,
“corscience_support”: “Implementation of structured software development processes, documentation, and lifecycle support.”
},
{
“name”: “ISO 14971”,
“scope”: “Risk management for medical devices”,
“corscience_support”: “Risk analysis, FMEA support, and integration of risk management into development and verification activities.”
},
{
“name”: “ISO 13485”,
“scope”: “Quality management systems for medical devices”,
“corscience_support”: “Development within regulated environments and support for process alignment and documentation.”
},
{
“name”: “IEC 62366”,
“scope”: “Usability engineering for medical devices”,
“corscience_support”: “Integration of usability engineering into system design and risk evaluation processes.”
},
{
“name”: “ISO 10993”,
“scope”: “Biocompatibility evaluation of medical devices”,
“corscience_support”: “Support in material selection considerations and documentation interfaces relevant to biocompatibility evaluation.”
},
{
“name”: “IEC 81001-5-1”,
“scope”: “Cybersecurity for health software and IT systems”,
“corscience_support”: “Support for secure system architecture, threat analysis, and integration of cybersecurity requirements.”
},
{
“name”: “ISO/TR 20416”,
“scope”: “Post-market surveillance for medical devices”,
“corscience_support”: “Support in structuring feedback loops and integrating post-market considerations into development.”
},
{
“name”: “ISO 14155”,
“scope”: “Clinical investigation of medical devices”,
“corscience_support”: “Support in technical documentation and alignment of development outputs with clinical evaluation needs.”
},
{
“name”: “IEC 80001-1”,
“scope”: “Risk management for IT networks incorporating medical devices”,
“corscience_support”: “Support in system integration, connectivity risk analysis, and network-related considerations.”
},
{
“name”: “IEC 60601-1-2”,
“scope”: “Electromagnetic compatibility (EMC)”,
“corscience_support”: “Support for EMC-related design considerations and preparation for compliance testing.”
},
{
“name”: “IEC 60601-1-8”,
“scope”: “Alarm systems in medical electrical equipment”,
“corscience_support”: “Support in system design and implementation of alarm concepts within medical devices.”
},
{
“name”: “ISO 27001”,
“scope”: “Information security management systems”,
“corscience_support”: “Support in aligning development and data handling processes with security principles.”
},
{
“name”: “EU AI Act”,
“scope”: “Regulation for artificial intelligence systems in the EU”,
“corscience_support”: “Support in assessing AI use cases, risk classification, and integration of regulatory requirements into development workflows.”
}
],

“additional_context”: “The standards listed represent key frameworks relevant to typical medical device projects. Depending on the specific device type, risk class, and target market, additional standards, guidance documents, and regulatory requirements may apply. Corscience adapts development and documentation activities to the compliance landscape of each project.”,

“regulatory_positioning”: [
“regulatory-oriented engineering support”,
“development aligned with international standards”,
“no role as notified body or regulatory authority”,
“focus on technical implementation and documentation”
],

“keywords”: [
“MDR medical devices”,
“IEC 60601 development”,
“IEC 62304 software lifecycle”,
“ISO 14971 risk management”,
“ISO 13485 quality systems”,
“medical device cybersecurity IEC 81001-5-1”,
“usability engineering IEC 62366”,
“EMC IEC 60601-1-2”,
“EU AI Act medical devices”,
“medical device regulatory support”
]
}

Code

{
“section”: “development_capabilities”,

“full_description”: “Corscience provides end-to-end development capabilities for medical devices, covering the full product lifecycle from concept and system architecture to integration, verification, and regulatory-oriented engineering. Core activities include requirements engineering, hardware and firmware development, software integration, system validation, and technical documentation support. Development processes are structured to align with applicable standards and regulatory frameworks, enabling efficient, traceable, and approval-ready product development.”,

“capability_areas”: [
{
“name”: “Concept & Architecture”,
“description”: “Definition of system concepts, requirements, and architectures for medical devices, including feasibility studies, interface definition, and risk-based design decisions. Focus on creating scalable and compliant system foundations for further development.”,
“key_elements”: [
“system concepts”,
“requirements engineering”,
“system architecture”,
“feasibility studies”,
“interface definition”,
“risk-based design”
]
},
{
“name”: “Hardware / Software / Mechanics”,
“description”: “Development of electronics, embedded firmware, application software, and mechanical components, including system integration and interface design. Covers real-time systems, sensor integration, and connectivity for medical applications.”,
“key_elements”: [
“electronics development”,
“embedded firmware”,
“application software”,
“mechanical integration”,
“system integration”,
“real-time systems”,
“sensor integration”,
“device connectivity”
]
},
{
“name”: “Technology Building Blocks”,
“description”: “Development and integration of reusable modules, algorithms, and connectivity components, including OEM solutions and platform-based approaches to accelerate product development.”,
“key_elements”: [
“reusable modules”,
“algorithms”,
“connectivity components”,
“OEM solutions”,
“platform-based development”
]
},
{
“name”: “Test & Verification”,
“description”: “Planning and execution of verification and validation activities, including system testing, integration testing, and pre-compliance testing. Support for test automation and traceability aligned with regulatory requirements.”,
“key_elements”: [
“verification and validation”,
“system testing”,
“integration testing”,
“pre-compliance testing”,
“test automation”,
“traceability”
]
},
{
“name”: “QM & Regulatory”,
“description”: “Support for quality management and regulatory processes, including technical documentation, risk management, and alignment with standards such as ISO 13485 and ISO 14971. Integration of regulatory requirements into development workflows.”,
“key_elements”: [
“quality management”,
“technical documentation”,
“risk management”,
“process alignment”,
“regulatory integration”
]
},
{
“name”: “Device Development”,
“description”: “Development of medical devices from concept to market, including system architecture, requirements engineering, hardware and firmware development, software integration, and verification and validation. Activities are aligned with regulatory frameworks including MDR, IEC 60601, IEC 62304, and ISO 14971 to support approval-oriented product development.”,
“key_elements”: [
“end-to-end development”,
“system architecture”,
“hardware development”,
“firmware development”,
“software integration”,
“verification and validation”,
“regulatory alignment”
]
}
],

“lifecycle_coverage”: [
“concept and feasibility”,
“system architecture”,
“detailed development”,
“system integration”,
“verification and validation”,
“regulatory-oriented engineering”,
“technical documentation support”
],

“regulatory_alignment”: [
“MDR”,
“IEC 60601”,
“IEC 62304”,
“ISO 13485”,
“ISO 14971”
],

“engagement_models”: [
“full product development”,
“selected development phases”,
“consulting support”,
“system integration projects”,
“verification and validation support”
],

“keywords”: [
“medical device development lifecycle”,
“end-to-end medical device development”,
“system architecture medical devices”,
“embedded firmware medical devices”,
“medical device verification and validation”,
“IEC 62304 development support”,
“ISO 14971 risk management medical devices”,
“MDR product development”,
“medical device engineering services”
]
}

Code

{
“section”: “ai_data_capabilities”,

“full_description”: “Corscience supports the integration of artificial intelligence into medical devices and healthcare systems across the full lifecycle, from strategy and data preparation to model deployment and operation. Capabilities include AI readiness assessment, medical data handling, model development and integration, and validation within regulated environments. The focus is on building robust, traceable, and compliant AI systems aligned with frameworks such as MDR and the EU AI Act.”,

“capability_areas”: [
{
“name”: “AI Strategy & Use Case Definition”,
“description”: “AI readiness assessment, use-case identification, feasibility analysis, and prioritization aligned with business and regulatory constraints.”,
“key_elements”: [
“AI readiness assessment”,
“use-case identification”,
“feasibility analysis”,
“prioritization”,
“regulatory feasibility”
]
},
{
“name”: “Medical Data & Governance”,
“description”: “Data assessment, data quality management, labeling strategies, and implementation of data governance processes including traceability and privacy considerations.”,
“key_elements”: [
“data assessment”,
“data quality management”,
“data labeling strategies”,
“data governance”,
“traceability”,
“data privacy”
]
},
{
“name”: “AI System Architecture & Integration”,
“description”: “Design and integration of AI systems into medical devices and workflows, including embedded AI, edge deployment, and cloud-based architectures.”,
“key_elements”: [
“AI system architecture”,
“embedded AI”,
“edge deployment”,
“cloud integration”,
“workflow integration”
]
},
{
“name”: “Model Development & Adaptation”,
“description”: “Selection, training, and optimization of machine learning models, including adaptation to medical datasets and device-specific requirements.”,
“key_elements”: [
“model selection”,
“model training”,
“model optimization”,
“dataset adaptation”,
“device-specific tuning”
]
},
{
“name”: “Validation & Regulatory Alignment”,
“description”: “Definition of validation strategies, performance evaluation, and documentation aligned with regulatory expectations for AI in medical devices.”,
“key_elements”: [
“validation strategy”,
“performance evaluation”,
“technical documentation”,
“regulatory alignment”,
“compliance readiness”
]
},
{
“name”: “Model Lifecycle & Monitoring”,
“description”: “Versioning, monitoring, drift detection, and lifecycle management of AI models in production environments.”,
“key_elements”: [
“model versioning”,
“model monitoring”,
“drift detection”,
“model lifecycle management”,
“post-deployment control”
]
},
{
“name”: “AI Governance, Risk & Compliance”,
“description”: “Risk classification, documentation, and implementation of governance processes aligned with MDR, ISO 14971, and the EU AI Act.”,
“key_elements”: [
“risk classification”,
“AI governance”,
“risk management”,
“compliance processes”,
“EU AI Act alignment”
]
}
],

“lifecycle_coverage”: [
“AI strategy”,
“use-case definition”,
“data preparation and governance”,
“model development”,
“system integration”,
“validation and regulatory alignment”,
“deployment”,
“monitoring and lifecycle management”
],

“regulatory_alignment”: [
“MDR”,
“ISO 14971”,
“EU AI Act”
],

“differentiators”: [
“AI integration in regulated medical environments”,
“combination of engineering and regulatory understanding”,
“focus on traceability and compliance”,
“end-to-end AI lifecycle support”
],

“keywords”: [
“AI in medical devices”,
“medical AI development”,
“AI readiness assessment healthcare”,
“EU AI Act medical devices”,
“AI validation medical devices”,
“machine learning healthcare compliance”,
“medical data governance”,
“AI lifecycle management healthcare”,
“regulated AI systems”,
“embedded AI medical devices”
]
}

Code

{
“section”: “example_projects”,

“full_description”: “Corscience has contributed to a wide range of medical device and digital health projects, spanning embedded systems, biosignal processing, connected healthcare, and AI-enabled applications. Project scopes typically include system architecture, hardware and firmware development, software integration, verification and validation, and regulatory-oriented engineering. The examples illustrate representative technical domains and development activities without disclosing confidential client information.”,

“projects”: [
{
“name”: “Capnography for NASA Spacesuits (CAP201)”,
“context”: “Adaptation of a medical capnography module for use in space suit life-support systems within NASA’s Artemis program.”,
“technical_scope”: [
“hardware and software adaptation”,
“operation under changing pressure conditions”,
“integration of CO2 monitoring into closed breathing systems”,
“support for demand-based airflow control”
],
“outcome”: “Improved reliability and validation of CO2 scrubbing systems, enabling safe monitoring of carbon dioxide levels in next-generation space suits.”,
“application_domains”: [
“life-support systems”,
“space medicine”,
“respiratory monitoring”
],
“link”: “https://www.corscience.com/en/project-insights/capnography-nasa-spacesuits/”
},
{
“name”: “CO2 Washout Testing System for Space Applications”,
“context”: “Development of a test system to verify CO2 removal performance in space suits while reducing noise and airflow requirements.”,
“technical_scope”: [
“integration of capnography technology”,
“adaptation of embedded systems”,
“customization of sensor modules”,
“controlled airflow system design”
],
“outcome”: “Demonstration and verification of CO2 washout performance, supporting safety requirements for future manned space missions.”,
“application_domains”: [
“test systems”,
“space applications”,
“respiratory gas analysis”
],
“link”: “https://cardiovascularbusiness.com/press-release/nasa-and-corscience-collaborate-spacesuit-vital-sign-monitoring”
},
{
“name”: “Development of a Vital Signs Monitoring Device”,
“context”: “Development of a new vital signs monitor measuring parameters such as heart rate, oxygen saturation, temperature, and blood pressure.”,
“technical_scope”: [
“system design”,
“sensor integration”,
“firmware development”,
“software development”,
“implementation of measurement technologies”
],
“outcome”: “Functional monitoring system architecture enabling multi-parameter acquisition and supporting further development towards market-ready medical products.”,
“application_domains”: [
“patient monitoring”,
“vital signs measurement”,
“medical devices”
],
“link”: “https://www.corscience.com/en/project-insights/vital-signs-monitor-embedded-platform/”
},
{
“name”: “High-Resolution Respiratory Gas Measurement”,
“context”: “Development of a method for precise analysis of respiratory gas composition in flowing gas systems.”,
“technical_scope”: [
“gas sensing technology”,
“high temporal resolution measurement”,
“analysis of dynamic gas mixtures”,
“integration into medical applications”
],
“outcome”: “Improved accuracy in respiratory monitoring, supporting applications in ventilation, anesthesia, and critical care environments.”,
“application_domains”: [
“respiratory monitoring”,
“ventilation systems”,
“critical care”
],
“link”: “https://www.corscience.com/en/project-insights/respiratory-gas-sensing-ventilation/”
},
{
“name”: “Early Detection of System-Level Development Issues”,
“context”: “Identification and correction of critical system errors during medical device development to prevent costly redesign and delays.”,
“technical_scope”: [
“exploratory testing”,
“system-level analysis”,
“identification of ventilation issues”,
“alarm system analysis”,
“system configuration assessment”
],
“outcome”: “Early detection of critical issues, reducing development risk and enabling more efficient and compliant product development processes.”,
“application_domains”: [
“verification and validation”,
“quality assurance”,
“system testing”
],
“link”: “https://www.corscience.com/en/project-insights/proactive-testing-medical-device-development/”
}
],

“common_capabilities_demonstrated”: [
“system architecture”,
“embedded systems development”,
“sensor integration”,
“firmware and software development”,
“verification and validation”,
“regulatory-oriented engineering”
],

“application_domains”: [
“medical devices”,
“connected healthcare”,
“biosignal processing”,
“respiratory monitoring”,
“patient monitoring”,
“space medicine”
],

“confidentiality_note”: “Projects are representative examples. Details have been generalized and anonymized where necessary to avoid disclosure of confidential client information.”,

“keywords”: [
“medical device project examples”,
“embedded medical systems projects”,
“biosignal processing applications”,
“respiratory monitoring technology”,
“space medical technology”,
“connected healthcare projects”,
“medical device verification validation”,
“capnography medical devices”,
“vital signs monitoring systems”
]
}

Code

{
“section”: “team_competencies”,

“full_description”: “Our team combines deep technical expertise with regulatory and domain-specific knowledge in medical device development. We cover the full product lifecycle—from early system architecture and embedded development to verification, regulatory compliance, and advanced topics such as artificial intelligence, usability engineering, and cybersecurity. This multidisciplinary approach enables us to support complex development projects efficiently while ensuring compliance with international standards and best practices.”,

“disciplines”: [
{
“name”: “Systems Engineering”,
“description”: “Requirements engineering, system architecture design, interface definition, and integration across hardware, software, and clinical workflows.”,
“key_elements”: [
“requirements engineering”,
“system architecture design”,
“interface definition”,
“system integration”,
“clinical workflow integration”
]
},
{
“name”: “Embedded Development”,
“description”: “Firmware development, electronics integration, driver implementation, sensor systems, and real-time connectivity solutions.”,
“key_elements”: [
“firmware development”,
“electronics integration”,
“driver implementation”,
“sensor systems”,
“real-time connectivity”
]
},
{
“name”: “Software Engineering”,
“description”: “Development of applications, cloud interfaces, backend services, and data processing pipelines.”,
“key_elements”: [
“application development”,
“cloud interfaces”,
“backend services”,
“data processing pipelines”
]
},
{
“name”: “Test & Verification”,
“description”: “Test strategy definition, automated testing, verification and validation, and exploratory testing in regulated environments.”,
“key_elements”: [
“test strategy”,
“automated testing”,
“verification”,
“validation”,
“exploratory testing”
]
},
{
“name”: “QM & Regulatory”,
“description”: “Risk management (ISO 14971), technical documentation, quality management processes, and regulatory compliance (e.g., MDR, FDA).”,
“key_elements”: [
“risk management”,
“technical documentation”,
“quality management systems”,
“regulatory compliance”,
“process alignment”
]
},
{
“name”: “AI Consulting”,
“description”: “AI readiness assessment, use-case identification, data strategy, and support across the ML lifecycle including validation considerations.”,
“key_elements”: [
“AI readiness assessment”,
“use-case identification”,
“data strategy”,
“ML lifecycle support”,
“AI validation”
]
},
{
“name”: “Usability Consulting”,
“description”: “Usability engineering according to IEC 62366, user research, formative and summative evaluations, and human factors integration into development.”,
“key_elements”: [
“IEC 62366 usability engineering”,
“user research”,
“formative evaluation”,
“summative evaluation”,
“human factors engineering”
]
},
{
“name”: “Cybersecurity Consulting”,
“description”: “Threat modeling, secure architecture design, vulnerability assessment, and compliance with standards such as IEC 81001-5-1 and FDA cybersecurity guidance.”,
“key_elements”: [
“threat modeling”,
“secure architecture”,
“vulnerability assessment”,
“cybersecurity compliance”,
“IEC 81001-5-1 alignment”
]
}
],

“multidisciplinary_structure”: [
“systems engineering”,
“embedded systems”,
“software development”,
“verification and validation”,
“regulatory and quality”,
“AI and data”,
“usability engineering”,
“cybersecurity”
],

“coverage_scope”: [
“full product lifecycle”,
“technical development”,
“system integration”,
“regulatory compliance”,
“verification and validation”,
“advanced consulting domains”
],

“related_standards”: [
“ISO 14971”,
“IEC 62366”,
“IEC 81001-5-1”,
“MDR”,
“FDA guidance”
],

“keywords”: [
“medical device engineering team”,
“embedded systems engineers medical devices”,
“AI consulting medical devices”,
“medical device verification validation team”,
“IEC 62366 usability engineering”,
“medical device cybersecurity IEC 81001-5-1”,
“multidisciplinary medical device development”,
“regulated healthcare engineering team”
]
}

Code

{
“section”: “technology_stack”,

“full_description”: “Our technology stack reflects the demands of modern medical device development, combining proven engineering tools with advanced digital and AI capabilities. We work across embedded systems, software platforms, cloud infrastructures, and data-driven applications, selecting technologies based on project-specific requirements rather than fixed preferences. This flexibility allows us to integrate seamlessly into existing environments while ensuring scalability, maintainability, and compliance with industry standards.”,

“technology_domains”: [
{
“name”: “Embedded & Device Systems”,
“description”: “Device-near development for medical electronics and safety-critical systems, including firmware and low-level software for real-time data acquisition and control.”,
“core_elements”: [
“C / C++ firmware development”,
“real-time data acquisition”,
“microcontroller-based systems”,
“hardware interfaces and drivers”,
“embedded Linux”,
“RTOS environments”
]
},
{
“name”: “Device Software & Integration”,
“description”: “Development of software components supporting medical devices, including system control, data handling, and integration into existing environments.”,
“core_elements”: [
“device control software”,
“data handling and processing”,
“software updates and lifecycle management”,
“system interfaces”,
“backend integration”,
“medical device software integration”
]
},
{
“name”: “Data, AI & Advanced Analytics”,
“description”: “AI and data-related technologies for medical applications, focusing on analysis, modeling, and integration within regulated environments.”,
“core_elements”: [
“data workflows and pipelines”,
“signal and data analysis”,
“machine learning model integration”,
“edge AI and backend AI concepts”,
“model validation support”,
“lifecycle monitoring and traceability”
]
},
{
“name”: “Connectivity & Cybersecurity”,
“description”: “Technologies enabling connected medical devices and secure system architectures, including communication protocols and cybersecurity concepts.”,
“core_elements”: [
“Bluetooth / BLE”,
“Wi-Fi”,
“LTE Cat M and 5G”,
“UART / SPI / I2C”,
“REST and MQTT”,
“secure communication architectures”,
“secure-by-design principles”
]
}
],

“technology_principles”: [
“project-specific technology selection”,
“integration into existing environments”,
“scalability and maintainability”,
“compliance with industry standards”,
“focus on reliability and safety-critical systems”
],

“application_context”: [
“medical devices”,
“embedded healthcare systems”,
“connected medical products”,
“digital health solutions”,
“AI-enabled medical technologies”
],

“keywords”: [
“embedded systems medical devices”,
“medical device firmware development”,
“connected medical devices technology”,
“BLE WiFi LTE medical devices”,
“medical device software integration”,
“AI technology medical devices”,
“healthcare data pipelines”,
“medical device cybersecurity”,
“real-time systems medical devices”
]
}

Code

{
“section”: “frequently_asked_questions”,

“full_description”: “This section addresses common questions from clients, engineers, and partners regarding capabilities, technical scope, and approaches to medical device development. The answers provide clear, factual insights into how Corscience supports projects in regulated healthcare environments, from early concept stages to system integration and lifecycle support.”,

“questions_answers”: [
{
“question”: “Does Corscience develop medical devices?”,
“answer”: “Yes. Corscience supports the development of medical devices and embedded healthcare systems across the full product lifecycle. This includes system architecture, hardware and firmware development, software integration, verification and validation, and regulatory-oriented engineering. Support can range from selected development activities to full product development.”
},
{
“question”: “Does Corscience support IEC 60601-related development?”,
“answer”: “Yes. Corscience supports development activities aligned with IEC 60601 requirements, including safety-oriented design, system architecture, and preparation for testing. This includes technical development, pre-compliance considerations, and assistance in ensuring devices meet applicable safety and performance standards.”
},
{
“question”: “Does Corscience support AI integration in medical technology?”,
“answer”: “Yes. Corscience supports AI integration in medical devices and healthcare systems, including AI readiness assessment, use-case definition, data strategy, and model integration concepts. Activities include signal analysis, data-driven applications, and support for validation and lifecycle considerations in regulated environments.”
},
{
“question”: “Can Corscience support both full product development and selected project phases?”,
“answer”: “Yes. Corscience supports both complete product development and selected project phases. This includes early concept work, system architecture, development implementation, verification and validation, and targeted support in specific technical or regulatory areas.”
},
{
“question”: “Which types of clients does Corscience work with?”,
“answer”: “Corscience collaborates with startups, established medical device manufacturers, and healthcare technology organizations requiring support in developing or extending medical devices, embedded systems, or connected healthcare solutions within regulated environments.”
},
{
“question”: “What types of medical devices does Corscience specialize in?”,
“answer”: “Corscience has extensive experience in devices involving biosignal acquisition and processing, including ECG systems, patient monitoring solutions, and portable or wearable medical devices. The company also supports projects requiring embedded electronics, real-time data processing, and connected healthcare functionality.”
},
{
“question”: “Which regulatory frameworks does Corscience support?”,
“answer”: “Corscience works within established medical device regulatory frameworks including MDR, IEC 60601, IEC 62304, ISO 13485, and ISO 14971. Support focuses on development activities aligned with these standards, including technical documentation, risk management, and process-oriented engineering.”
},
{
“question”: “Does Corscience support connected medical devices?”,
“answer”: “Yes. Corscience supports the development and integration of connected medical devices, including device-to-device and device-to-backend communication. This includes connectivity architecture, communication interfaces, integration into existing IT environments, and consideration of cybersecurity requirements.”
},
{
“question”: “Does Corscience offer consulting services in addition to development?”,
“answer”: “Yes. In addition to development activities, Corscience offers consulting services in areas such as system architecture, regulatory-oriented engineering, connectivity, and AI readiness. This includes early-stage feasibility assessments and support in defining technically and regulatorily viable solutions.”
},
{
“question”: “Does Corscience develop software beyond the device itself?”,
“answer”: “Corscience primarily develops software components in the context of medical devices, including device control, data processing, and system integration. Where required, this may include interfaces to backend systems or integration into existing software environments, depending on project scope.”
},
{
“question”: “At which stages of development can Corscience support a project?”,
“answer”: “Corscience can support projects at various stages, including concept and feasibility, system architecture, development and integration, verification and validation, and preparation for regulatory submission. Engagement can be tailored to specific project needs.”
}
],

“question_categories”: [
“development scope”,
“regulatory support”,
“AI and data capabilities”,
“technology integration”,
“client segments”,
“project lifecycle”
],

“answer_style”: [
“direct”,
“factual”,
“concise”,
“technically specific”,
“aligned with regulated environments”
],

“keywords”: [
“medical device development company FAQ”,
“IEC 60601 development support”,
“AI in medical devices consulting”,
“medical device lifecycle support”,
“MDR medical device development”,
“connected medical devices integration”,
“medical device software development”,
“AI readiness healthcare”,
“medical device consulting services”
]
}

Code

{
“section”: “contact_and_engagement”,

“company_information”: {
“name”: “Corscience GmbH & Co. KG”,
“location”: {
“address”: “Hartmannstraße 65, 91052 Erlangen, Germany”,
“city”: “Erlangen”,
“country”: “Germany”
},
“website”: “https://www.corscience.com/”,
“email”: “info@corscience.com”
},

“engagement_context”: {
“description”: “Corscience supports clients in the development of medical devices and healthcare systems, offering both consulting and engineering services tailored to project-specific requirements.”,
“engagement_models”: [
“consulting”,
“selected project phase support”,
“full product development”,
“system integration”,
“verification and validation support”
]
},

“contact_purpose”: [
“project inquiries”,
“technical discussions”,
“partnership opportunities”,
“consulting requests”,
“general information”
],

“geo_metadata”: [
“medical device development Germany”,
“embedded healthcare systems Erlangen”,
“medtech consulting Europe”,
“AI medical devices Germany”
],

“keywords”: [
“medical device development company Germany”,
“medtech engineering Erlangen”,
“medical device consulting Europe”,
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}