Technical University of Liberec

Schemes of Service: Professional Officers Division: Professional Officers Employment Type: Permanent Job Purpose The Professional Officer leads SIT’s Design Factory in advancing design-led education, research, and enterprise collaboration. This role emphasizes strategic leadership in industrial design, guiding multidisciplinary teams to deliver impactful solutions across product, service, and system innovation. The incumbent will champion human-centred design, foster industry partnerships, and drive the Centre’s vision as a hub for applied innovation and leadership in design. Key Responsibilities Applied R&D and Design Innovation Leadership Human-Centred Research: Direct advanced research in ergonomics, usability, and design thinking, ensuring projects address real-world challenges. Lead integrated applied R&D and design projects for SMEs, MNCs, and public sector partners, overseeing full project lifecycles from research framing, ideation, and user insights through to prototyping, validation, and manufacturing considerations. Apply human-centred design, systems thinking, and futures methodologies to translate research insights into functional prototypes, design frameworks, and scalable innovation outcomes. Spearhead the curation and growth of specialist labs and material exploration environments, supporting experimentation across emerging materials, structural design, and advanced fabrication methods. Bridge creative design with engineering feasibility to develop manufacturable, real-world product and service solutions. Industrial Design Leadership Set Strategic Direction: Lead the vision and standards for industrial design across the Design Factory’s initiatives, ensuring excellence in product aesthetics, usability, and manufacturability. Define and oversee mechanical design standards across projects, ensuring structural integrity, manufacturability, and performance excellence. Champion Human-Centred Design: Embed ergonomics, user research, and co-creation practices into all projects, aligning outcomes with real-world needs and industry expectations. Engineering Integration: Champion the fusion of mechanical engineering principles with design innovation, bridging technical feasibility with creative outcomes. Mentorship & Technical Oversight: Provide critique, guidance, and quality assurance for student and project team outputs, cultivating design rigor and professional practice. Guide students and project teams in CAD modelling, simulation, and mechanical prototyping, ensuring precision and reliability in outputs. Drive Innovation: Lead the integration of sustainable design, circular innovation, and advanced prototyping into project deliverables, ensuring relevance in evolving markets. Innovation in Mechanical Systems: Drive the adoption of advanced materials, sustainable engineering practices, and emerging technologies into mechanical design projects Capability Building: Develop toolkits, frameworks, and learning pathways that strengthen SIT’s industrial design capacity and equip collaborators with transferable design skills. Strategic Platform and Programme Development Co-lead the Design Factory as a design-led platform bridging applied R&D, industry collaboration, education, and enterprise adoption; growing its role within SIT's innovation ecosystem. Identify and develop opportunities for programme growth in human-centred design, circular innovation, applied R&D, and cross-disciplinary learning. Contribute to strategic planning and long-term development of the Design Factory in alignment with SIT's institutional goals. Partnership and Business Development Build Strategic Relationships: Establish and manage partnerships with industry, academia, government, and international design ecosystems. Drive Collaboration: Identify opportunities, develop proposals, and formalize agreements to advance innovation projects. Activate Networks: Lead a multi-stakeholder innovation community spanning students, researchers, and external partners. Capability Building and Education Build SIT’s mechanical design expertise through curated methodologies, workshops, and collaborative frameworks that strengthen applied engineering design skills. Design and deliver applied learning programmes, masterclasses, workshops, and structured learning experiences integrating design thinking, human-centred research, prototyping, and real-world application. Translate Design Factory methodologies, applied R&D projects, and industry case studies into structured content for internal and external programmes, including CET modules and industry workshops. Support academic delivery through preparation of learning resources, demonstrations, and supervision of student work across interdisciplinary projects. Mentor and guide interdisciplinary teams across design, engineering, and research domains within lab, workshop, and applied project environments. Project and Operational Management Plan, implement, and monitor multiple concurrent applied R&D and innovation projects, ensuring delivery on time and within budget. Manage budgets, procurement, and reporting for internal and external initiatives, with a strong track record of on-time and on-budget performance. Oversee daily operations of the Design Factory, including facilities, safety, scheduling, and resource utilisation. Maintain records, documentation, and performance metrics for projects, programmes, and collaborations. Requirements Degree in Industrial Design, Mechanical Engineering, Human Factors, or Innovation Management; postgraduate qualifications in design leadership or applied engineering are advantageous. Minimum 5–8 years in industrial design, mechanical design, innovation management, or R&D, with a proven record of delivering industry-relevant outcomes. Project Leadership: Demonstrated ability to lead complex projects and multi-stakeholder collaborations across academic, research, and industry contexts. Technical Proficiency: Expertise in design research, prototyping, fabrication, CAD modelling, simulation, and applied learning environments. Team Leadership: Proven track record in guiding multidisciplinary teams, mentoring talent, and ensuring design rigor in both industrial and mechanical outputs. Industrial Design Practice: Strong proficiency in product development, ergonomics, usability testing, and industry-standard design tools; portfolio evidencing leadership in industrial design projects is preferred. Mechanical Design Expertise: Experience in mechanical systems, material selection, structural design, and integration of engineering principles into innovative solutions.

Rooted in 90 years of heritage and intellectual achievement, The Hong Kong Polytechnic University (PolyU) has evolved alongside society and made pivotal contributions to the development of Hong Kong, the Nation and the world. The University pursues world-class excellence in education, research and knowledge transfer to nurture socially responsible professionals and leaders, as well as to drive impactful research and innovation. PolyU will strive to continually excel as an innovative world-class university that makes a positive impact on society, living up to the University’s motto: “To learn and to apply, for the benefit of mankind”. Ranked among the top 100 universities globally by well-known ranking organisations such as Quacquarelli Symonds (QS), Times Higher Education (THE) and U.S. News & World Report, PolyU offers a wide range of world-class educational and research programmes in seven faculties and three independent schools. PolyU has furthermore achieved commendable results in the QS World University Rankings by Subject 2026 – it is ranked in the global top 30 for five subjects, is first in Hong Kong for four subjects, and is in the global top 100 for 24 subjects. For further details about the University, please visit PolyU’s website at https://www.polyu.edu.hk/. DEPARTMENT OF ELECTRICAL AND ELECTRONIC ENGINEERING Professor / Associate Professor / Assistant Professor in Microelectronics and Quantum Technology under Strategic Hiring Scheme (several posts) (Ref. 260521007) Since its inception in 1974, the Department of Electrical and Electronic Engineering (EEE), formed through the merger of the Department of Electronic and Information Engineering and the Department of Electrical Engineering, has maintained a distinguished history of providing outstanding engineering education and applied research in Hong Kong. The Unit offers extensive resources to support a wide variety of teaching activities and research interests, frequently hosting leading scholars for collaboration to enhance its global research profile. Please visit the website at https://www.polyu.edu.hk/eee for more information about the Unit. EEE is a constituent unit in the Faculty of Engineering. Information on the Faculty is available at https://www.polyu.edu.hk/feng/. To boost the leadership and impact of PolyU’s research work in areas of significant societal needs and strategic importance, the Strategic Hiring Scheme is introduced to recruit faculty members at all levels and outstanding scholars are invited to join the University under the Strategic Hiring Scheme.  Appointees recruited under the Strategic Hiring Scheme should have conducted / led world-leading research that is commensurate with the stage of their academic career. EEE is now seeking highly qualified candidates for Professor / Associate Professor / Assistant Professor positions across several strategic research tracks. Duties (A) Microelectronics and Silicon Photonics Appointees for this track should possess substantial research experience in devices design, cleanroom fabrication and device characterization etc. EEE prioritizes expertise in device design, simulation, fabrication and packaging, specifically encouraging those with experience bridging microelectronics with silicon photonics or heterogeneous integration. Teaching Duties: The appointees will be responsible for delivering courses at both undergraduate and postgraduate levels specifically focused on silicon photonics and microelectronics. (B) Embedded Circuits and Packaging Appointees for this track should possess substantial research experience in advanced embedded circuits and electronic packaging technologies. EEE prioritizes expertise in embedded circuit design, simulation and system-level integration, specifically encouraging those with experience in SoC architectures, 2.5D/3D integration, chiplet packaging or co-packaged optics with FPGA. Teaching Duties: The appointees will be responsible for delivering courses at both undergraduate and postgraduate levels specifically focused on embedded circuit design and advanced packaging technologies. (C) Photonic Quantum Computing Appointees for this track should possess substantial research experience in quantum optics, integrated quantum photonics and photonic quantum computing experiments. EEE prioritizes expertise in quantum light sources and programmable photonic circuits, specifically encouraging those with experience in optical quantum information processing or hardware implementation of quantum algorithms. Teaching Duties: The appointees will be responsible for delivering courses at both undergraduate and postgraduate levels specifically focused on quantum optics, quantum computing, and quantum information processing. (D) Quantum Theory and Algorithms Appointees for this track should possess substantial research experience in quantum optics, photonic quantum computing theory, architectures and quantum error correction. EEE prioritizes expertise in developing architectures for scalable photonic quantum computers and designing quantum machine learning models, specifically encouraging those with experience in practical quantum applications or collaborating closely with experimental teams. Teaching Duties: The appointees will be responsible for delivering courses at both undergraduate and postgraduate levels specifically focused on quantum algorithms and quantum information theory. For all the above tracks, the appointees will also be required to: (a)    undertake teaching duties at undergraduate and postgraduate levels in the area of Microelectronics, Photonics, Quantum Physics or Quantum Technology. Beyond these primary areas, the candidate should be prepared to contribute to multidisciplinary subjects across the EEE curriculum; (b)    conduct research that leads to publications in top-tier refereed journals; (c)    attract research fundings and support industrial researches; (d)    supervise student projects and theses; (e)    engage in scholarly research/consultancy in their area of expertise;  (f)     contribute to departmental services and activities; and (g)    perform any other duties as assigned by the Head of Unit or his/her delegates. Qualifications Applicants should: (a)    have a doctoral degree in a relevant discipline; (b)    have the relevant postdoctoral research experience and a publication record that is commensurate with the level of appointment; (c)    demonstrate excellence in original research and strong fundamental knowledge in one or more of the above-mentioned core research areas; (d)    demonstrate potential to establish significant externally funded research programmes; (e)    be able to demonstrate evidence of effective classroom teaching skills; and (f)     have excellent communication skills and the ability to use English as the medium of instruction. Applicants for appointment at Professor or Associate Professor level should have a substantial number of years of experience and an excellent record of relevant academic and/or research achievement in the specified field. Applicants with less experience will be considered for appointment at the level of Assistant Professor.  Conditions of Service A highly competitive remuneration package will be offered. Appointees under the Strategic Hiring Scheme will be offered a start-up grant of not less than HK$3 million to support research activities (including the admission of PhD students, purchasing of equipment, and hiring of research staff) in the initial three years. Initial appointment for Assistant Professor will be on a fixed-term gratuity-bearing contract. Re-engagement thereafter is subject to mutual agreement. An appropriate term will be provided for appointment at Professor / Associate Professor levels. For general information on terms and conditions for appointment of academic staff in the University, please visit the website at https://www.polyu.edu.hk/hro/docdrive/careers/doc/Prof.pdf. Application Please submit an application through PolyU’s career website (https://jobs.polyu.edu.hk/academic). Consideration of applications will commence on 28 May 2026 until the positions are filled. The University’s Personal Information Collection Statement for recruitment can be found at https://www.polyu.edu.hk/hro/careers/pics_for_recruitment/. PolyU is an equal opportunity employer, dedicated to fostering an environment that embraces diversity and demonstrates inclusion of people from all backgrounds, cultures, identities and experiences where all members of the University are treated with fairness, dignity and respect. To learn more about the University’s “Statement on Equal Opportunities, Diversity, and Inclusion”, please visit our website at https://www.polyu.edu.hk/hro/equal_opportunities_diversity_and_inclusion/.

As a University of Applied Learning, SIT works closely with industry in our research pursuits. Our research staff will have the opportunity to be equipped with applied research skill sets that are relevant to industry demands while working on research projects in SIT. The Future Ship and System Design (FSSD) programme aims to develop strategic and innovative design capabilities for the maritime industry in Singapore and globally. Within this programme, Work Package WP2.2 focuses on research in several key areas: design Failure Modes, Effects, and Criticality Analysis (FMECA), functional FMECA, advanced sensing techniques, sensor and operational data fusion, data analytics, and machine learning algorithms for condition monitoring, fault diagnosis, and early fault prediction in electric vessels. The primary responsibility of this role is to contribute to research in design FMECA, functional FMECA, and ship sensing, as part of the WP2.2 research team within the FSSD programme. Key Responsibilities Work closely with the Principal Investigator (PI), Co-PI, and research team members to manage and execute the project, ensuring that all deliverables are successfully achieved. Key responsibilities in this project include: Developing an FMECA analysis solution that integrates condition monitoring data to update actual failure modes, effects, and severity assessments. Designing and conducting experiments to simulate various ship fault conditions, implementing sensing for data collection, and developing an equipment health monitoring system. Carry out Risk Assessment, and ensure compliance with Work, Safety and Health Regulations. The Research staff is to liaise with all relevant internal and external stakeholders to ensure project deliverables are met. Any other adhoc duties as assigned by Supervisor. Job Requirements Work independently, as well as within a team, to ensure proper operation and maintenance of equipment. Have relevant knowledge in the areas of shipboard system design, FMECA and reliability analysis. Have a degree in Electrical Engineering/Mechanical engineering or equivalent. Knowledge of sensing, FMECA, equipment health management and programming will be advantageous. Knowledge of intelligent decision agents based on graph neural network or similar will an advantage. Key Competencies Good knowledge in reliability analysis. Experience in FMECA and equipment health management will be advantageous. Possess strong analytical and critical thinking skills. Show strong initiative and take ownership of work. Major Challenges Integrating Multidisciplinary Knowledge The role requires expertise across multiple domains—FMECA, sensing technologies, data fusion, data analytics, and machine learning. Combining these diverse skill sets to develop a unified and reliable solution can be technically demanding. Complexity of Ship Systems Ship systems are large-scale, interconnected, and subject to complex operating conditions. Accurately modelling failure modes, effects, and criticality requires deep domain knowledge and careful analysis. Collecting High-Quality Sensor Data. Simulating Realistic Fault Conditions. Developing Reliable Fault Prediction Models. Ensuring System Integration and Practical Deployment Meeting Project Milestones and Deliverables