Welcome
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I'm Dr. Dani Samer Assi, an Assistant Professor at Hong Kong Metropolitan University.
My research focuses on advanced materials, neuromorphic electronics, and quantum technologies, with particular interests in artificial synaptic systems, brain–computer interfaces, and plasmonic sensing. The goal is to translate device‑level innovation into intelligent and biomedical technologies with real‑world relevance.
I joined HKMU as a Lecturer in January 2024 after completing my PhD in Electrical and Electronic Engineering at the University of Glasgow on a full scholarship. Alongside research, I care deeply about creating engaging, student‑centred learning experiences.
My work has appeared in journals including Advanced Materials, Advanced Science, ACS Nano, and Materials Horizons, and has received Editors' Choice recognition and coverage by Advanced Science News.
Teaching is equally important to me. I received HKMU's President's Award for Excellence in Inspirational Teaching and contribute to university‑wide learning and teaching initiatives as a Learning and Teaching Evangelist.
My research connects materials science, device physics, neuromorphic electronics, and biomedical sensing. I am interested in how emerging quantum and functional materials can be engineered into ultra‑low‑power devices that learn, remember, sense, and interact with biological systems.
Engineering material platforms whose electronic and ionic behaviour can unlock new device functions. Current interests include topological insulators and halide perovskites for next‑generation electronic and photonic systems.
Designing artificial synaptic devices and Quantum Topological Neuristors that reproduce key features of biological learning — including memory, forgetting, plasticity, and re‑learning — while targeting dramatically lower energy consumption.
Translating novel devices into systems with human relevance — from brain–computer interfaces and wearable cognitive‑health technologies to emerging plasmonic sensing platforms for highly sensitive biomedical detection.
Advanced Materials (IF 27.4) — Discovered that Bismuth Selenide Telluride (Bi₂Se₂Te) can serve as a highly effective quantum topological insulator, forming the core of a new class of neuroelectronic synaptic modulators. Unlike conventional devices, these modulators operate at ultra‑low power with long‑term stability, and were shown to modulate EEG responses in real time — consistent with improved cognitive outcomes in elderly individuals, pointing toward applications in Alzheimer's and Parkinson's intervention. Featured by Advanced Science News (Wiley).
DOI: 10.1002/adma.202306254 ↗Advanced Science (IF 14.1) — Developed Quantum Topological Neuristors (QTNs), a new class of artificial synapse built on an SnSe‑based quantum topological insulator family (SnSe, SnTe, SnSeTe) that mimic short‑ and long‑term memory, learning, forgetting, and re‑learning. QTNs operate at roughly 90× lower energy than conventional Si‑CMOS neuromorphic circuits, demonstrated in a real‑world hand‑gesture recognition system.
DOI: 10.1002/advs.202300791 ↗Advanced Electronic Materials (IF 5.3) — Showed for the first time that the CsFAPbI₃ perovskite system can be engineered to exhibit brain‑like synaptic plasticity — learning, forgetting, and fast re‑learning — under ultra‑low switching power, addressing a major energy bottleneck in neuromorphic hardware.
DOI: 10.1002/aelm.202300285 ↗Materials Horizons (IF 10) — Co‑led a field‑shaping review decoding halide perovskites as a materials platform for neuromorphic and memristive devices, linking composition, defect chemistry, and device architecture to synaptic performance — setting out a design roadmap for the next generation of perovskite‑based artificial synapses.
DOI: 10.1039/D5MH00534E ↗Featured research (Wiley) — coverage of neuroelectronic synaptic modulator work and its potential impact on gerontechnology and cognitive health.
Read the feature ↗Interested candidates are encouraged to reach out with a CV and a note on research interests.
Get in touch →
I design learning experiences that make complex ideas feel approachable, practical, and worth exploring. My goal is not simply to help students pass a course — it is to help them understand deeply, ask better questions, and build the confidence to use what they learn.
At HKMU, I contribute to the advancement of teaching practice across the University — sharing approaches to student engagement, educational innovation, and effective learning design.
Recognised for creating engaging, inclusive, and student‑centred learning experiences that encourage participation, confidence, and a genuine interest in learning.
Moving beyond a one‑size‑fits‑all format, I design layered learning resources for different learning styles — visual supports (diagrams, infographics, short videos), guided conversational recordings for self‑paced review, and hands‑on tutorial tasks connecting theory to real‑world scenarios. Simplified bullet‑point summaries for every lecture and tutorial further support students facing language barriers, so every student has a workable path to understanding.
Complex topics are broken into manageable stages and introduced step by step, so students engage with new material without feeling overwhelmed. In HCI/UX, this means starting from user‑centred design fundamentals before layering in usability evaluation and case studies; in Computing Fundamentals, from basic architecture and programming before progressing to more complex scenarios — letting students master concepts at their own pace and build confidence for advanced topics later in the course.
From the first lecture, I remind students that not knowing the basics is completely normal — that's what they're there to learn. Students can send questions individually before class, which I address anonymously during the session, normalising questioning for everyone. Weekly consultation hours (4–6h) give a further safe channel for one‑to‑one or small‑group discussion and deeper clarification.
At the end of lectures on challenging topics, I use the e‑learning tool Quizzzy for an interactive, low‑stakes summary — closer to a fun recap than a real test. It also acts as a feedback mechanism, highlighting exactly where students are still struggling so I can revisit and clarify that material the following week, reinforcing retention and confidence.
Before each exam, full lectures are dedicated to revision, structured around Quizzzy results, student‑submitted questions, and consultation‑hour insights. A further 2‑hour weekend Zoom session offers an open forum for final questions and reassurance, so students go into exams feeling prepared and calm rather than anxious.
The lecturer is very interactive with students in class, which makes the class very interesting and easy to understand.
IT 1020SEF, 2025Teacher is enthusiastic, helpful, provides a lot of help and feedback whenever needed.
IT 1020SEF, 2025Dani is good. We all love Dani.
IT 2900SEF, 2025His willingness to book time with students for extra support and clearance of any doubts.
IT 2900SEF, 2025Best teacher ever — very friendly and approachable, and helps me a lot with my studies.
IT 1020SEF, 2024Clear thinking, humor, and strong professional knowledge make me full of confidence in the course.
IT 1020SEF, 2024Patient and meticulous — the classes are lively and engaging.
IT 1020SEF, 2024 (translated)Very willing to help me understand the concepts listed in this course.
IT S290F, 2024 (translated)As Principal Investigator of the Q‑Platform project — "Fostering Next‑Generation Quantum Education with a Student‑Centered Quantum Learning Platform" — I built a hands‑on learning ecosystem that brings quantum technology out of the textbook and into practice. Rather than teaching quantum concepts as abstract theory, the platform gives students a genuine, practical route into an emerging field.
IT1020SEF and IT2900SEF.
IT S234 / IT2340SED.
Contributing member for programme development, delivery, and QA student mentorship.
Age‑appropriate STEM courses and hands‑on activities for Girls STEMergy (Zubin Foundation).
2nd Prize & 3rd Prize
3rd Prize
"Shaping Tomorrow's Innovation and Technology in the Heart of Europe" — GLA‑funded experiential learning programme connecting classroom concepts to real‑world technology practice.
"Wenshan Lakeside Innovation: Practical Camp on Resistive Memory Chips" — international innovation and research immersion building intercultural communication and professional confidence.
Open to new teaching collaborations and student mentorship opportunities — get in touch →
My funding portfolio spans neuromorphic systems, plasmonic sensing, biomedical diagnostics, quantum education, AI‑enabled sensing and interdisciplinary technology development — supporting work from fundamental discovery through to real‑world application.
Research Grants Council, Faculty Development Scheme (RGC FDS) — HK$593,000
UGC Research Matching Grant Scheme — HK$447,500 + HK$1,790,000 matched donation
UGC Research Matching Grant Scheme — HK$738,360 + HK$2,109,600 matched donation
Seed Funding, Shenzhen Research Institute (SZRI) — RMB 1,000,000
Quality Enhancement Measures (QEM) — HK$1,948,385.2
Global Learning Activities (GLA) — HK$749,700
Research and Development Fund — HK$200,000
Innovation and Technology Fund (ITF) — HK$3,071,058.24
Shenzhen Research Institute (SZRI) — RMB 1,000,000
Quality Enhancement Measures (QEM) — HK$582,052
Open to new collaborative and co‑investigator funding opportunities — get in touch →
I see academic leadership as more than holding a title. It is about creating the conditions for people, ideas, and collaborations to thrive — across the university, professional communities, student initiatives, and industry.
Four areas where I contribute time, expertise, and leadership beyond my core research and teaching responsibilities.
Shaping learning, infrastructure, international engagement, and the student experience within HKMU and EECS.
Contributing to the wider research community through peer review, professional networks, conferences, and knowledge exchange.
Using education, mentoring, and public engagement to create opportunities for students and communities beyond the classroom.
Bridging academic expertise with applied technology, industry needs, and international collaboration.
Open to new advisory, leadership, and community partnership opportunities — get in touch →
Recognition across teaching, research, public engagement and academic achievement — from university‑level teaching excellence and international research recognition to competitive awards and scholarships.
Hong Kong Metropolitan University (HKMU) — appointed to promote innovative teaching practices, enhance student engagement, and support pedagogical development across the University. Learning and Teaching Evangelists are nominated by their School's Dean and appointed by the Provost to champion excellence in pedagogy and educational technology, disseminating effective teaching practices and sharing experience through HKMU's Office for the Advancement of Learning and Teaching.
Hong Kong Metropolitan University — awarded in recognition of a commitment to creating engaging, inclusive, and student‑centred learning experiences. The award reflects a dedication to inspiring students, encouraging active participation, and continuously developing innovative approaches to teaching and learning.
In recognition of dedication, leadership, and outstanding contribution to Girls STEM Program development. Represented Hong Kong Metropolitan University (HKMU) in the STEM workshops for ethnic minority girls, "Girls STEMergy," organized by The Zubin Foundation — a program aimed to inspire and empower young girls aged 8 to 12 through engaging STEM education. Developed and delivered age‑appropriate electronic and electrical engineering courses and lesson plans, blending core theoretical concepts with hands‑on experiments and practical demonstrations in a fun, accessible format to build confidence and curiosity in STEM.
Research on Neuroelectronic Synaptic Modulators was featured in Advanced Science News (Wiley) under the headline "A Brain‑Computer Interface Could Slow Cognitive Decline." This recognition underscores the significance of the research and its potential to drive real‑world advancements in Gerontechnology — paving the way for novel treatments for cognitive decline and neurological disorders, with potential to enhance quality of life for aging populations and individuals affected by neurodegenerative diseases.
Read the feature ↗"Topological Quantum Switching Enabled Neuroelectronic Synaptic Modulators for Brain‑Computer Interface" (first author, Advanced Materials 2024, 2306254) was selected as an Editors' Choice — a distinction awarded to research of exceptional innovation and impact. This recognition by the journal's editorial board highlights the groundbreaking contributions of this work and its significance in advancing neuroelectronics and brain‑computer interface technologies.
University of Glasgow — presenting research on "Fountain of Youth" (Synaptic Plasticity research).
Association of Polish Electrical Engineers — for innovative BSc research on Medical Electronics Systems.
Faculty of Electrical, Electronic, Computer and Control Engineering, Lodz University of Technology — presenting research on Medical Electronics Systems.
Scholarship support accompanied each stage of my academic journey, from undergraduate engineering through postgraduate study and doctoral research.
University of Glasgow, UK
University of Glasgow, UK
Lodz University of Technology, Poland
Instituto Superior de Engenharia do Porto, Portugal
Recognition matters most when it reflects
work that moves people, ideas and technology forward.
My research output spans neuromorphic electronics, quantum and functional materials, biomedical sensing, wearable systems and advanced device engineering — with a focus on translating materials innovation into intelligent and clinically relevant technologies.
Materials Science and Engineering: B (IF 4.6), 2026, 326, 119169
DOI: 10.1016/j.mseb.2025.119169 ↗Advanced Science, 2026, 13(34), e19332
DOI: 10.1002/advs.202519332 ↗RSC Advances, 2026, 16(33), 30093–30110
DOI: 10.1039/d6ra01640e ↗Journal of Environmental Chemical Engineering (IF 7.2), 2025, 13, 120338
DOI: 10.1016/j.jece.2025.120338 ↗IEEE Journal of Biomedical and Health Informatics (IF 6.8), 2025
DOI: 10.1109/JBHI.2025.3622491 ↗ACS Nano (IF 16.1), 2025, 19, 32822
DOI: 10.1021/acsnano.5c11375 ↗Journal of Chemical & Engineering Data (IF 2.1), 2025, 70, 3491
DOI: 10.1021/acs.jced.5c00053 ↗Advanced Functional Materials (IF 19), 2025, 35, 2417355
DOI: 10.1002/adfm.202417355 ↗Materials Horizons (IF 10), 2025, 12, 8430
DOI: 10.1039/D5MH00534E ↗Advanced Materials Technologies (IF 6.2), 2024, 9, 2301722
DOI: 10.1002/admt.202301722 ↗Advanced Materials (IF 27.4), 2024, 36, 2306254
DOI: 10.1002/adma.202306254 ↗ACS Omega (IF 4.3), 2024, 12, 14580
DOI: 10.1021/acsomega.4c00843 ↗Advanced Materials Interfaces (IF 4.4), 2023, 10, 2300440
DOI: 10.1002/admi.202300440 ↗Advanced Energy Sustainability Research (IF 5.7), 2023, 4, 2300125
DOI: 10.1002/aesr.202300125 ↗Physica Status Solidi RRL (IF 2), 2023, 17, 2300191
DOI: 10.1002/pssr.202300191 ↗Advanced Electronic Materials (IF 5.3), 2023, 9, 2300285
DOI: 10.1002/aelm.202300285 ↗Advanced Science (IF 14.1), 2023, 10, 2300791
DOI: 10.1002/advs.202300791 ↗IEEE Sensors Journal (IF 4.5), 2023, 23, 27154
DOI: 10.1109/JSEN.2023.3297254 ↗Journal of Physics and Chemistry of Solids (IF 4.9), 2023, 178, 111329
DOI: 10.1016/j.jpcs.2023.111329 ↗ACS Omega (IF 4.3), 2022, 7, 51
DOI: 10.1021/acsomega.2c06823 ↗ACS Applied Electronic Materials (IF 4.7), 2022, 4(10), 4781
DOI: 10.1021/acsaelm.2c00617 ↗Submitted 2 Mar 2026
Submitted 30 Jan 2026
Submitted 15 Dec 2025
US Non‑Provisional Patent Application No. 19/079,584 · Filed 14 Mar 2025
Australian Standard Patent Application No. 2025201849 · Filed 14 Mar 2025
Open to new research collaborations and co‑authorship opportunities — get in touch →
I welcome enquiries from motivated students and early‑career researchers who want to work across advanced materials, neuromorphic electronics, quantum technologies, neurotechnology and biomedical sensing — especially where disciplines meet and new ideas can emerge.
You do not need to arrive knowing everything. What matters most is strong motivation, intellectual curiosity, reliability, and a willingness to learn. Depending on the project, opportunities may involve experimental device work, materials and sensor development, data analysis, intelligent systems, biomedical applications, or combinations of these.
Electronics & device engineering — circuits, semiconductor devices, instrumentation or electrical characterisation.
Materials & nanotechnology — fabrication, thin films, surface engineering or materials characterisation.
Programming & data — Python/MATLAB, signal processing, machine learning or experimental data analysis.
Biomedical engineering — biosensing, physiological signals, wearable systems or health‑technology applications.
Curiosity — asking good questions and wanting to understand why something works.
Ownership — taking responsibility for your work and following ideas through.
Resilience — experiments fail, code breaks, papers get rejected; we learn and keep moving.
Collaboration — sharing ideas, helping others and being comfortable working across disciplines.
Please include your current programme or position, your research interests, the area of my work that interests you most, and your CV. If you already have a project idea, paper, portfolio, GitHub profile or relevant technical work, feel free to include it.
I'm always interested in conversations that can turn research, education, or technology into
something meaningful — whether that begins with a scientific question, a student idea, an
industry challenge, or a new collaboration.