Industrial electronics and machinery play significant role in efficiently conduct and automate complex tasks, improve accuracy, and help businesses maintain consistent quality control while reducing human involvement. Industrial electronics and Machinery is critical in modern industries, offering benefits like increased productivity, reduced operational costs, and enhanced safety.

However, with increased complexity and role of industrial electronics safety and security is paramount. It is essential to design systems with established functional safety standards to protect workers and minimize the risks of costly regulatory penalties, downtime, and legal liabilities.

VerveTronics is trusted partner to bridge that gap by offering advanced industrial automation solutions. Our deep expertise spans the design and implementation of Functional Safety (FuSa) and Device Security systems, ensuring safer / secure, more efficient, and compliant industrial systems.

Domain Expertise in Industrial Electronics

Power/ Energy Storage Systems ESS

Industrial power electronics and energy storage electronics involves designing and implementing safety and security measures to mitigate risks arising from equipment failures or hazardous conditions. These systems include:

  • Circuit Protection: Overcurrent protection systems to prevent electrical hazards.
  • Arc Fault Detection: Identifies and mitigates hazardous electrical arcs in industrial systems.
  • Battery Management Systems: Ensures safe operation of industrial batteries and prevents overcharging or overheating.
  • Battery Energy Storage Systems (ESS/ BESS): Residential or Industrial grid connected energy storage systems with high voltage battery management systems.
  • Inverters: High power and low power AC to DC, DC-AC or bidirectional AC-DC grid connected inverters
  • DC-DC Converters: Various DC-DC converters covering wide range of application requirements.
  • Fuse Boxes, Load Distributions: Safety Critical fuse boxes and load distribution units.

Connectivity

Industrial connectivity systems play a critical role and hence safeguarding and securing the transmission is critical. These systems include:

  • Secure Communication Protocols: Protect against cyber threats that could compromise safety systems.
  • Industrial Communication Protocols: Profibus, Profinet, HART, CAN, Wireless Protocols like WIFI, Blue tooth

Sensors

Industrial sensor electronics can have cascading impact on performance, reliability and safety the over industrial. These industrial sensors include:

  • Safety-rated Encoders: Ensure accurate position tracking in critical applications.
  • Gas and Radiation Detectors: Alert operators to hazardous environmental conditions.
  • Fire Detection and Suppression Systems: Monitors for fire hazards and deploys automated suppression systems.
  • HVAC Safety Systems: Prevent equipment failures and ensure safe ventilation and temperature control.
  • Pressure Transmitters: Detect pressure levels in various fluids in Safety critical applications.
  • Temperature Transmitters: Detect Temperatures levels of various systems in Safety critical applications.
  • Flow meters : Detect flow rates of various fluids in Safety critical applications.
  • Light Curtains and Safety Sensors: Detect the presence of operators in hazardous zones and stop machinery as needed.

Machinery

Industrial agricultural machinery and material handling machines consists of critical components such as:

  • Earth Moving Machinery: Ensuring robots can safely interact with humans through sensors and safety protocols.
  • Agricultural Machinery: Ensuring safe and secure operation of agriculture machinery like tractors, combines, harvesters which include safety critical electronics systems for agriculture machinery like steering sensors, joysticks, hydraulic actuators , motors etc
  • Heavy Material handling machinery:  Ensuring safe and secure operation of industrial machinery like forklifts, cranes, which include safety critical electronics systems like sensors, joysticks, hydraulic actuators, power management systems, motors etc

Controllers

Industrial control electronics like PLCs, Remote Controls, Central controllers/gateways, safety interlocks are central to industrial electronics infrastructure. These systems include:

  • Emergency Stop Systems (E-Stops): Devices to immediately halt machinery during an emergency.
  • Safety Interlocks: Prevent operation unless certain conditions are met, ensuring safe operation of machines.
  • Safety Instrumented Systems (SIS): Ensure safe shutdown or control of industrial processes to prevent accidents, especially in chemical plants, refineries, and power plants.
  • Programmable Logic Controllers (PLCs): Fail-safe PLCs are used in automation to maintain operational safety in case of system failures.
  • Distributed Control Systems (DCS): Monitor and control industrial processes with built-in safety mechanisms.
  • Remote Monitoring and control Systems: Ensure safe operation of equipment even when monitored and controlled remotely.
  • Edge Computing Safety Devices: Analyze and act on safety-critical data at the edge of networks.

Robotics

Industrial power electronics and energy storage electronics involves designing and implementing safety and security measures to mitigate risks arising from equipment failures or hazardous conditions. These systems include:

  • Collaborative Robot (Cobot) Safety: Ensuring robots can safely interact with humans through sensors and safety protocols.
  • Safety-rated Motion Control: Monitors robot movements to prevent collisions or unsafe operations.
  • Power and Force Limiting Systems: Restrict the force and speed of robots to safe levels.

Challenges in Industrial Electronics

Organizations in the industry face several key challenges related to functional safety and device security:

  • Increased System Complexity: With the rise of electrification, automation, connectivity and  the complexity of industrial systems has grown significantly. Managing functional safety and device security in such complex environments requires specialized expertise.
  • Adapting to Evolving Standards: The industry is governed by stringent functional safety and cyber security standards such as IEC 61508, ISO 13849, Machinery Directives, IEC 62443 m UN ECE regulations etc which are continuously evolving. Ensuring that safety and security processes remain compliant with these standards is challenging for organizations that lack dedicated resources.
  • Heterogeneous Interconnected Systems: Coexistence of legacy systems and new technologies like sensors, actuators, controllers, and software from multiple vendors makes uniform safety and security implementation difficult. Use of protocols like Modbus, PROFINET, or OPC-UA, which may lack inherent security mechanisms.
  • Sensors & Actuators: Safety-critical systems rely on sensors and actuators, and even minor inaccuracies or delays can lead to failures.
  • Malicious Usage: Employees or contractors with access to systems may intentionally or unintentionally cause harm or steal sensitive data.
  • Compliance and Certification Costs: Meeting both safety and security certifications can be time-consuming and expensive, especially for small businesses.

Why VerveTronics?

VerveTronics brings deep expertise in delivering functional safety and device cyber security solutions tailored to the industrial electronics sector. Our core strengths include:

  • Deep Expertise in IEC 61508/ISO 13849 and ISO 21434: Our team has extensive experience with the IEC 61508/ISO 13849 standard, ensuring that industrial systems meet the required safety and security integrity levels.
  • Deep Expertise in Industrial Electronics : With specialized experience in controls, sensors,  and electric vehicle systems, VerveTronics is well-equipped to manage the safety challenges posed by industrial controls and Electrification development.
  • Holistic Approach to Safety and Security: We provide comprehensive functional safety services, from early-stage risk assessments to full-scale system validation, covering both hardware and software safety aspects.
  • Innovative Solutions for Emerging Technologies: VerveTronics has a proven track record in addressing the unique safety challenges posed by industrial BESS, Controls and Sensors systems, ensuring compliance while enabling technological innovation.
  • Safety Analysis and Risk Mitigation: We conduct in-depth safety analyses, including Failure Modes and Effects Analysis (FMEA) and Fault Tree Analysis (FTA), to identify and mitigate potential hazards.
  • Training and Consulting: VerveTronics offers training and consulting sessions to enhance your team’s knowledge of functional safety and cyber security standards and methodologies, enabling them to manage safety-critical systems more effectively.

Our Approach

VerveTronics provides a structured and holistic approach develop state of the art safety and security critical systems by focusing on People, Process, Tools and Continuous improvements for following stage of development

  • People Knowledge & Competencies: A culture focused with building deep knowledge and competencies across domains and standards.
  • Tools & Process Automation: Emphasis on tools to automate process and thus achieve best in class quality through
    • Requirements Management
    • Dev Ops for CI/CD Continuous integration and Continuous Delivery.
    • Traceability
    • Hardware in Loop & Fault Insertion Testing
  • Culture of precision, attention to details and excellence through continuous improvement.
  • Requirements Engineering: Core competency of Requirement engineering and decomposition considering multifaceted systems engineering approach for architectural components.
  • Safety/Security Analysis and Risk Reductions: Carry out thorough failure and threat analysis at various phases with optimum risk reduction techniques.
  • Re-usable & Proven in use accelerators: Development and Usage of ready to use, time tested, proven in use accelerators that faced rigorous levels of compliances and testing.

VerveTronics Case Studies/Solutions: 

We worked with European Tier-1 for Electronics Power Steering & Vehicle Control unit as per IEC 61508 SIL3 / ISO 13849 Ple for end to end  concept to certification support for their heavy machinery application

VerveTronics Role:

  • Support for end to end IEC 61508 SIL3 | ISO 13849 Ple compliance and certification
  • Safety/Technical Concept and specifications ,
  • Safety Analysis for System (HARA), Hardware(FMEDA), Software(FMEA) and Mechanical (FMEA)
  • Safety Compliant Hardware Specifications and Assessment
  • Hardware Design and development
  • Safety Compliant Software Specifications, Validation and Assessment
  •  SIL3 Process Development and Improvements
  • Safety Assessment and Certifications

Connect with us


We successfully contributed in development for a leading Tier-1 supplier in US  BESS Energy Storage Electronics and Battery Management System according to IEC 61508/ ISO 13849 SIL3 rating

VerveTronics Role:

  • Support for end to end EC 61508/ ISO 13849 SIL3 compliance
  • Safety/Technical Concept and specifications ,
  • Safety Analysis for Hardware(FMEDA), Software (FMEA) and Mechanical (FMEA)
  • Safety Compliant Hardware Specifications and Assessment
  • Safety Compliant Software Specifications and Assessment
  • SIL-3 Process Development and Improvements
  • Safety Assessment

Connect with us


We worked with a leading Tier-1 supplier in Europe to develop Wireless Remote Control for Robotocis according to SIL3 rating

VerveTronics Role:

  • Safety/Technical Concept and specifications ,
  • Safety Analysis for Hardware(FMEDA), Software (FMEA) and Mechanical (FMEA)
  • Safety Compliant Hardware Specifications, Development and Assessment
  • Safety Compliant Software Specifications, Development and Assessment
  • Safety Assessment.

Connect with us


Knowledge Center

Energy storage systems (ESS)

Energy storage systems (ESS) are key to making renewable energy sources, like solar and wind, more reliable. These systems are responsible for store and providing large amounts of electricity,  it’s important to make sure they are safe and reliable

Hydrogen based Energy Systems

Hydrogen fuel cells and electrification technologies introduces unique safety challenges that must be addressed for these vehicles to achieve mainstream acceptance. In this blog, we’ll explore FCEV safety, covering both hydrogen-specific and general EV safety concerns

Functional Safety in Industrial Sensors

Industrial sensors play a crucial role in modern manufacturing and automation processes by providing real-time data on various parameters such as temperature, pressure, flow, and position.

Trusted partner, Industrial electronics and machinery, safety& Security SystemsIndustrial Functional Safety & Security Expertise – IEC 61508, ISO 13849

VerveTronics provides Industrial Functional Safety engineering and consulting expertise for safety-critical industrial electronics, machinery, automation and energy systems. Our domain expertise spans IEC 61508 and ISO 13849 applications across power and energy, BESS, industrial controls, PLCs, robotics, sensors, actuators, power electronics and industrial connectivity. 

We support safety-critical products from hazard identification and safety requirements through safety concepts, architecture, hardware/software safety analysis, verification and validation, safety assessment and certification support. The current VerveTronics industrial offering specifically describes expertise in power/energy storage, connectivity, sensors, machinery, controllers and robotics, including IEC 61508/ISO 13849 applications. 

The page should position VerveTronics as an industrial-domain Functional Safety partner rather than as a generic IEC 61508 information page: customers should immediately see the industrial technologies and applications for which the safety engineering capability can be applied.

 

  • Electrification and high-energy systems: Industrial power electronics, BESS, inverters, DC-DC converters, battery systems and power distribution can create safety-critical electrical and thermal hazards. 
  • Complex machinery and motion: Industrial machinery combines controllers, sensors, actuators, motors, hydraulics and mechanical systems. A safety function may depend on multiple technologies and failure modes. 
  • Mixed legacy and connected systems: Legacy equipment increasingly interacts with modern controllers, gateways and industrial networks, making safety and security boundaries more complex. 
  • Sensor and actuator dependence: Safety functions often rely on accurate sensing and timely actuator response. Sensor inaccuracies, delays or faults can propagate into hazardous behavior. 
  • Safety integrity and architecture: Achieving a target SIL or Performance Level requires appropriate architecture, diagnostics, failure-rate assumptions, independence and fault reaction. 
  • Changing standards and market requirements: Organizations may need to coordinate IEC 61508 with ISO 13849, IEC 62061, ISO 10218, ISO 25119, IEC 61511 or other sector-specific standards depending on the product. 
  • Safety and cybersecurity convergence: Connected industrial systems require consideration of both Functional Safety and cybersecurity, especially where communication or remote access can influence safety-related functions. 

  • Power & Energy Electronics — Industrial power supplies, high-power electronics, inverters, DC-DC converters, motor controllers, power distribution and protection electronics. 
  • Energy Storage & BESS — Battery Energy Storage Systems, BMS, cell monitoring, thermal monitoring, contactor control, high-voltage protection, energy management, emergency shutdown and fault detection. 
  • Industrial Controls & Automation — PLCs, safety PLCs, remote controllers, central controllers/gateways, safety I/O, emergency stops, safety interlocks, DCS and remote monitoring/control systems. 
  • Industrial Drives & Motion Control — Motor drives, inverters, motion controllers and safety functions involving torque, speed, motion, shutdown, overcurrent, overvoltage and thermal protection. 
  • Robotics — Industrial robots, AMRs, AGVs, collaborative robots, robot cells, wireless robot controls, safety-rated controllers, protective stops, emergency stops, speed monitoring and separation monitoring. citeturn0search3 
  • Sensors & Instrumentation — Safety encoders, gas/radiation detectors, fire detection and suppression, HVAC safety, pressure/temperature/flow transmitters, light curtains and safety sensors. 
  • Industrial Connectivity — PROFIBUS, PROFINET, HART, CAN, Wi-Fi, Bluetooth and other industrial communication interfaces where safety and security of data transmission are relevant. 
  • Agricultural & Material-Handling Machinery — Tractors, combines, harvesters, forklifts, cranes and other mobile/heavy machinery using safety-critical sensors, joysticks, hydraulic actuators, motors and power-management electronics. citeturn0search0 

  • IEC 61508 — Core Functional Safety Standard: Foundational Functional Safety framework for electrical, electronic and programmable electronic safety-related systems; supports SIL-oriented lifecycle activities. 
  • ISO 13849 — Machinery Safety: Safety-related parts of control systems and Performance Level-oriented design, analysis and validation. 
  • IEC 62061 — Machinery Functional Safety: Relevant machinery safety standard to consider alongside ISO 13849 depending on product and project. 
  • IEC 61511 — Process Industry Safety: Relevant for Safety Instrumented Systems in process industries. 
  • ISO 10218 — Industrial Robot Safety: Relevant to industrial robot safety depending on application. 
  • ISO 25119 — Agricultural Machinery: Relevant to safety-related control systems for agricultural and forestry machinery. 
  • IEC 62443 — Industrial Cybersecurity: Relevant security framework for industrial automation and control systems. 
  • Sector-specific requirements: The applicable standard set should be determined from the product, intended use, market and safety architecture rather than assumed generically.

VerveTronics brings deep expertise in delivering functional safety and device cyber security solutions tailored to the industrial electronics sector. Our core strengths include: 

  • Deep Expertise in IEC 61508/ISO 13849 and ISO 21434: Our team has extensive experience with the IEC 61508/ISO 13849 standard, ensuring that industrial systems meet the required safety and security integrity levels. 
  • Deep Expertise in Industrial Electronics : With specialized experience in controls, sensors,  and electric vehicle systems, VerveTronics is well-equipped to manage the safety challenges posed by industrial controls and Electrification development. 
  • Holistic Approach to Safety and Security: We provide comprehensive functional safety services, from early-stage risk assessments to full-scale system validation, covering both hardware and software safety aspects. 
  • Innovative Solutions for Emerging Technologies: VerveTronics has a proven track record in addressing the unique safety challenges posed by industrial BESS, Controls and Sensors systems, ensuring compliance while enabling technological innovation. 
  • Safety Analysis and Risk Mitigation: We conduct in-depth safety analyses, including Failure Modes and Effects Analysis (FMEA) and Fault Tree Analysis (FTA), to identify and mitigate potential hazards. 
  • Training and Consulting: VerveTronics offers training and consulting sessions to enhance your team’s knowledge of functional safety and cyber security standards and methodologies, enabling them to manage safety-critical systems more effectively. 

  • IEC 61508 Functional Safety Consulting — Safety lifecycle, SIL-oriented engineering, safety requirements, architecture, analysis, verification, validation and assessment support. 
  • ISO 13849 Machinery Safety — Risk reduction, safety functions, safety-related control architecture and PL-oriented analysis/validation. 
  • Safety Concept & Requirements Engineering — Hazard identification, safety functions, safety requirements, allocation, decomposition and traceability. 
  • HARA / HAZOP / Risk Analysis — Systematic hazard and risk identification for industrial products and machinery. 
  • FMEA / FMEDA / FTA / DFA — Qualitative and quantitative safety analyses across system, hardware, software and mechanical domains. 
  • Safety Hardware Engineering — Safety architecture, diagnostics, redundancy, failure-rate analysis, safety mechanisms and safety metrics. 
  • Safety Software Engineering — Safety software requirements, architecture, implementation support, verification and assessment. 
  • Verification & Validation — Unit, integration, system, HIL, fault insertion, regression, performance/timing and safety-function validation. 
  • Functional Safety Audit & Assessment — Process audits, gap assessments, work-product reviews, safety evidence, assessment readiness and certification support. 
  • Industrial Cybersecurity — Security concept and safety/security interface considerations for connected industrial electronics, aligned to applicable security frameworks. 
  • Training & Process Improvement — IEC 61508, ISO 13849, safety analysis, safety lifecycle, engineering process and assessment training. 
  • Industrial Safety Engineering Lifecycle 

  • Hazard Identification → Risk Assessment → Safety Functions → Safety Requirements → Safety Concept → Architecture → Hardware/Software Development → FMEA/FMEDA/FTA/DFA → Verification & Validation → Safety Case → Assessment/Certification 

industrial_Heavy_Machinery_CSSIL3 / PL e Electronics Power Steering & Vehicle Control – European Tier-1 / Heavy Machinery

VerveTronics supported:

  •  End-to-end IEC 61508 SIL3 / ISO 13849 PL e compliance and certification for a heavy-machinery Electronics Power Steering & Vehicle Control unit. The documented role included safety/technical concepts and specifications, system HARA, hardware FMEDA, software and mechanical FMEA, safety-compliant hardware/software specifications, hardware development, software validation/assessment, SIL3 process development/improvement and safety assessment/certification. 

Connect with us


industrial_Heavy_Machinery_BMS_CSSIL3 BESS & Battery Management System – US Tier-1 VerveTronics contributed:

  • To development of BESS energy-storage electronics and a Battery Management System according to IEC 61508 / ISO 13849 SIL3. The documented role included safety/technical concepts, hardware FMEDA, software/mechanical FMEA, safety-compliant hardware/software specifications and assessment, SIL3 process development/improvement and safety assessment. 

Connect with us


 

Robotics_Functional_Safety

Robotics_Functional_Safety

SIL3 Wireless Remote Control for Robotics – European Tier-1

VerveTronics:

  •  Worked with a European Tier-1 supplier to develop a wireless remote control for robotics according to SIL3, including safety/technical concepts, hardware FMEDA, software/mechanical FMEA, safety-compliant hardware/software specifications, development/assessment and safety assessment. 

Connect with us

Industrial systems increasingly combine safety-related controllers with connected networks, remote monitoring, gateways, wireless controls and cloud-connected infrastructure. The existing VerveTronics industrial page therefore positions Functional Safety and Device Security together. citeturn0search0 

  • Industrial communication security considerations for safety-related data and control paths. 
  • Safety/security interface analysis for connected controllers and gateways. 
  • Cybersecurity considerations for remote monitoring, wireless controls and connected industrial systems. 
  • IEC 62443-oriented security considerations where applicable. 
  • Risk reduction that considers both accidental failures and relevant security-related scenarios without conflating the two disciplines. 

  • IEC 61508 / ISO 13849 Consulting — Advisory and engineering support for industrial OEMs, Tier-1 suppliers and technology companies. 
  • Project-Based Safety Engineering — Defined safety concept, analysis, hardware/software, V&V or assessment work packages. 
  • Embedded Safety Engineering — Safety engineers integrated with systems, hardware, software, quality and project teams. 
  • Independent Review / Gap Assessment — Review of safety lifecycle, requirements, analysis, architecture and assessment evidence. 
  • Assessment & Certification Support — Preparation, evidence review, finding closure and support around independent assessment/certification. 
  • Training & Workshops — IEC 61508, ISO 13849, safety analysis, robotics safety, machinery safety and safety lifecycle workshops. 
  • CTA: Need Industrial Functional Safety Support for Your IEC 61508 or ISO 13849 Project? 

Talk to VerveTronics about your power, energy, BESS, robotics, controls, sensors or connectivity safety requirements. Share your target SIL/PL, product architecture and development stage to discuss the appropriate safety engineering scope. 

  • Request Industrial Functional Safety Consultation 
  • Discuss an IEC 61508 / ISO 13849 Project 
  • Review Your SIL / PL Safety Architecture 
  • Talk to an Industrial Functional Safety Expert 

  • What is Industrial Functional Safety? – Industrial Functional Safety addresses risks arising from malfunctioning behavior of electrical, electronic and programmable electronic systems and safety-related control systems. IEC 61508 provides a foundational Functional Safety framework, while sector-specific standards may apply. 
  • What is IEC 61508? – IEC 61508 is an international Functional Safety standard for electrical, electronic and programmable electronic safety-related systems. It provides a lifecycle framework for managing safety and SIL-oriented requirements. 
  • What is ISO 13849? –  ISO 13849 addresses safety-related parts of control systems for machinery and provides methods for designing and validating safety functions using Performance Level concepts. 
  • When should IEC 61508 or ISO 13849 be used? – The applicable standard depends on the product, intended use, machinery/process context and market. IEC 61508 is a foundational Functional Safety standard, while ISO 13849 is specifically focused on safety-related parts of machinery control systems. 
  • Does VerveTronics support SIL3 projects? – Yes. The current industrial page documents IEC 61508/ISO 13849 SIL3 projects in heavy machinery, BESS and robotics.
  • Does VerveTronics support PL e? – Yes. The current page documents a European Tier-1 heavy-machinery Electronics Power Steering & Vehicle Control project according to IEC 61508 SIL3 / ISO 13849 PL e.
  • Does VerveTronics support BESS Functional Safety? – Yes. The current page documents IEC 61508 / ISO 13849 SIL3 BESS energy-storage electronics and BMS work. Does VerveTronics support robotics safety? – Yes. The documented industrial domain includes industrial robots, AMRs, AGVs, collaborative robots, robot cells, wireless robot controls and safety-rated motion/protective functions. A documented SIL3 wireless robotics remote-control project is also listed.
  • Can you support industrial controls and safety PLCs? – Yes. The current industrial offering covers PLCs, safety PLCs, remote/central controllers, safety I/O, emergency stops, safety interlocks, SIS, DCS and edge safety devices.
  • Can you support industrial sensors and instrumentation? – Yes. The documented scope includes safety-rated encoders, gas/radiation detectors, fire detection, HVAC safety, pressure/temperature/flow transmitters, light curtains and safety sensors. 
  • Can IEC 61508 be used with machinery standards? – Depending on the product and application, IEC 61508 can be used as a foundational standard while machinery-specific standards such as ISO 13849 or IEC 62061 define the applicable machinery safety approach. 
  • Can you support industrial connectivity and cybersecurity? – Yes. The current page identifies industrial communication protocols including PROFIBUS, PROFINET, HART, CAN, Wi-Fi and Bluetooth and emphasizes safety/security of industrial connectivity. 
  • What safety analyses do you perform? – The documented industrial offering includes HARA, FMEA, FMEDA and FTA, with broader safety analysis and risk-reduction support. 
  • Do you provide certification? – VerveTronics provides engineering, consulting, assessment and certification support. Formal independent certification is performed by the applicable independent assessment/certification organization. 
  • What information is needed to start? – Typical inputs include product definition, intended use, hazard/risk information, safety target, architecture, requirements, hardware/software information, safety mechanisms, existing analysis and V&V evidence. The exact input set depends on the project scope.