Drive technology innovation while balancing operational stability, cybersecurity, cost, and ... Aerospace * Semiconductor * Battery manufacturing Technical Expertise Strong knowledge of:
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Drive technology innovation while balancing operational stability, cybersecurity, cost, and ... Aerospace * Semiconductor * Battery manufacturing Technical Expertise Strong knowledge of:
Sr. IT Technician
Kissimmee, FL · On-site
$24.39 - $36.58/hr
In-depth understanding of networking protocols (LAN/WAN, TCP/IP, DNS, DHCP) and cybersecurity ... Experience in semiconductor or manufacturing including experience with operational technology and ...
Sr. IT Technician
Kissimmee, FL · On-site
$24.39 - $36.58/hr
In-depth understanding of networking protocols (LAN/WAN, TCP/IP, DNS, DHCP) and cybersecurity ... Experience in semiconductor or manufacturing including experience with operational technology and ...
Semiconductor Cybersecurity information
What is semiconductor cybersecurity?
Semiconductor cybersecurity refers to the practice of protecting semiconductor devices, such as microchips and integrated circuits, from cyber threats and attacks. As semiconductors are foundational to modern electronics, ensuring their security is critical to prevent vulnerabilities that could impact everything from smartphones to national infrastructure. This field involves securing the design, manufacturing, and deployment processes of chips against hacking, intellectual property theft, and tampering. It also covers the development of secure architectures and protocols to safeguard data and device operations throughout their lifecycle.
What are the key skills and qualifications needed to thrive as a semiconductor cybersecurity professional?
To excel in Semiconductor Cybersecurity, you need a solid background in cybersecurity principles, hardware security, and computer engineering, often supported by degrees in electrical engineering, computer science, or related fields. Familiarity with hardware description languages (e.g., Verilog, VHDL), security testing tools, and certifications like CISSP or CEH are highly valuable. Strong analytical thinking, attention to detail, and effective communication skills help professionals address complex threats and collaborate across multidisciplinary teams. These competencies are essential for protecting sensitive semiconductor technologies against evolving cyber risks and ensuring the integrity of critical hardware systems.
What are the typical challenges faced by professionals in semiconductor cybersecurity, and how can they be addressed?
Professionals in semiconductor cybersecurity often encounter challenges such as staying ahead of rapidly evolving threats targeting hardware-level vulnerabilities and ensuring secure design throughout the chip development lifecycle. Collaboration with design engineers, IT security teams, and compliance specialists is essential to mitigate risks. Keeping up with industry standards and regularly conducting security assessments helps address these challenges. Additionally, ongoing professional development and staying informed about new attack vectors are crucial for maintaining effective security measures.
What is the difference between Semiconductor Cybersecurity vs Semiconductor Hardware Engineer?
| Aspect | Semiconductor Cybersecurity | Semiconductor Hardware Engineer |
|---|---|---|
| Required Credentials | Cybersecurity certifications (e.g., CISSP, CEH), relevant degrees in cybersecurity or computer engineering | Electrical engineering degrees, hardware design certifications |
| Work Environment | Security-focused teams, R&D labs, IT departments | Design labs, manufacturing facilities, R&D centers |
| Employer & Industry Usage | Semiconductor companies, tech firms, defense contractors | Semiconductor manufacturers, electronics companies |
| Common Search & Comparison Intent | Understanding cybersecurity roles in semiconductors | Hardware design and development in semiconductors |
Semiconductor Cybersecurity professionals focus on protecting semiconductor devices and systems from cyber threats, emphasizing security protocols and risk mitigation. In contrast, Semiconductor Hardware Engineers design and develop the physical semiconductor components. While both roles operate within the semiconductor industry and may share some technical knowledge, their core responsibilities and skill sets differ significantly.
What are popular job titles related to Semiconductor Cybersecurity jobs in Florida?
For Semiconductor Cybersecurity jobs in Florida, the most frequently searched job titles are:
What job categories do people searching Semiconductor Cybersecurity jobs in Florida look for?
The top searched job categories for Semiconductor Cybersecurity jobs in Florida are:
What cities in Florida are hiring for Semiconductor Cybersecurity jobs?
Cities in Florida with the most Semiconductor Cybersecurity job openings:
Full-time
Re-posted yesterday
Job description
The Director of Manufacturing Technology is responsible for defining, delivering, and operating the technology strategy that enables world-class manufacturing operations across the organization's industrial businesses. This leader role serves as the strategic technology partner to Manufacturing and Operations leadership to ensure technology capabilities drive operational excellence, product quality, workforce productivity, and business growth.
The role owns the enterprise manufacturing application portfolio, including ERP manufacturing capabilities, Manufacturing Execution Systems (MES), Supply Chain systems, Warehouse Management, Quality Management Systems (QMS), Manufacturing Intelligence, Environmental Health & Safety systems, Learning & Training platforms, Product Lifecycle Management (PLM) integrations, and emerging Industry 4.0 technologies.
Working across multiple business units, the Director establishes common enterprise capabilities while enabling the unique operational requirements of each manufacturing business. The successful candidate combines deep manufacturing technology expertise with strong business acumen, enterprise architecture experience, and transformational leadership.
Key Responsibilities
Strategic Leadership
• Develop and execute the enterprise manufacturing technology strategy aligned with business objectives and digital initiatives.
• Serve as the trusted technology advisor to executive manufacturing and systems leadership.
• Build multi-year technology roadmaps supporting capacity expansion, operational excellence, automation, and digital manufacturing.
• Establish enterprise standards, governance, and best practices for manufacturing systems.
• Drive technology innovation while balancing operational stability, cybersecurity, cost, and business value.
Manufacturing Systems Leadership
Provide strategic ownership for enterprise manufacturing technology including:
Enterprise Resource Planning (ERP)
• Manufacturing
• Production Planning
• Material Requirements Planning (MRP)
• Shop Floor Integration
• Inventory Management
• Cost Accounting
• Procurement
• Supplier Collaboration
Manufacturing Execution Systems (MES)
• Production execution
• Work order management
• Electronic work instructions
• Genealogy and traceability
• Labor tracking
• Production line equipment integration
• Manufacturing data collection
• Performance analytics
Supply Chain Technology
• Supply Chain Planning
• Demand Planning
• Supplier Management
• Transportation Management
• Warehouse Management
• Inventory Optimization
• Procurement platforms
• Logistics visibility
Quality Management Systems (QMS)
• Incoming inspection
• Statistical Process Control (SPC)
• Nonconformance Management
• CAPA
• Audits
• Document Control
• Calibration
• Supplier Quality
• Regulatory Compliance
Environmental Health & Safety (EHS)
• Safety incident management
• Compliance reporting
• Hazard management
• Environmental compliance
• Risk assessments
• Safety observations
• Occupational health systems
Learning & Workforce Enablement
• Manufacturing training
• Learning Management Systems
• Skills certification
• Operator qualification
• Digital work instructions
• Knowledge management
Digital Manufacturing & Industry 4.0
Lead the adoption of advanced manufacturing technologies including:
• Industrial IoT
• Connected factory initiatives
• Machine connectivity
• Predictive maintenance
• Artificial Intelligence
• Machine Learning
• Robotics integration
• Digital twins
• Advanced analytics
• Computer vision
• Edge computing
• Manufacturing data platforms
Identify opportunities to improve productivity, quality, throughput, and operational efficiency through technology innovation.
Cybersecurity & Operational Technology
Partner closely with the parent company’s Cloud, Infrastructure, and Cybersecurity teams to:
• Protect manufacturing operations from cyber threats.
• Ensure compliance with industrial cybersecurity standards.
• Strengthen plant resiliency and disaster recovery.
• Manage risks associated with connected manufacturing equipment.
• Support regulatory and customer security requirements.
Qualifications
Education
• Bachelor's degree in Information Technology, Engineering, Computer Science, Manufacturing Engineering, Industrial Engineering, or related field.
• MBA or Master's degree preferred.
Experience
• 12+ years of progressive IT leadership experience supporting manufacturing organizations.
• 7+ years leading enterprise manufacturing technology teams.
• Experience supporting complex, multi-site manufacturing environments.
• Demonstrated success delivering enterprise ERP and MES implementations.
• Experience with supply chain and manufacturing transformation initiatives.
• Experience managing multimillion-dollar technology portfolios and budgets.
Preferred experience includes one or more of:
• Solar manufacturing
• Electronics manufacturing
• High-tech manufacturing
• Industrial manufacturing
• Automotive
• Aerospace
• Semiconductor
• Battery manufacturing
Technical Expertise
Strong knowledge of:
• Microsoft Dynamics 365 Business Central and F&O
• MES platforms
• Supply Chain Planning solutions
• Warehouse Management Systems
• Product Lifecycle Management (PLM)
• Manufacturing Data Historians
• Quality Management Systems
• EHS platforms
• Learning Management Systems
• Industrial IoT platforms
• Cloud technologies
• Integration platforms and APIs
• Manufacturing analytics and reporting
• Operational Technology (OT) environments
• Industrial networking and automation concepts
________________________________________
Success Measures
During the first 24 months, the Director will be expected to:
• Modernize the manufacturing technology roadmap across all production facilities.
• Improve manufacturing system reliability and availability to enterprise service-level targets.
• Increase plant productivity through digital manufacturing initiatives.
• Enhance manufacturing data quality and real-time operational visibility.
• Improve supply chain planning and inventory accuracy through integrated technology.
• Strengthen product traceability and quality compliance.
• Expand digital work instructions and workforce enablement capabilities.
• Improve cybersecurity posture across manufacturing environments.
• Standardize manufacturing technology governance across business units.
• Build a scalable technology organization capable of supporting future manufacturing growth.