Folk Narongrit, Ph.D.
Last Updated: September 2026

## Professional Profile

### Professional Profile
```yaml
id: profile.overview
record_type: profile
claim_type: fact
source_type: primary
source_access: public
evidence_status: corroborated
organization: University of California, Berkeley
role: Postdoctoral Scholar, Electrical Engineering and Computer Sciences
sources:
  - url: https://chunleiliulab.github.io/people/
    source_type: primary
    issuer: Chunlei Liu Lab, UC Berkeley
  - url: https://orcid.org/0000-0001-5731-7074
    source_type: independent
    issuer: ORCID
```

**Folk Narongrit is a U.S.-based RF, electromagnetics, and biomedical imaging researcher developing adaptive and programmable hardware for magnetic resonance imaging and reconfigurable electromagnetic systems.** He is a Postdoctoral Scholar in Electrical Engineering and Computer Sciences at the University of California, Berkeley, in the lab of Chunlei Liu (https://chunleiliulab.github.io/people/), where his research spans next-generation biomedical imaging hardware, adaptive sensing systems, programmable MRI transmit and receive technologies, and reconfigurable RF architectures.

His research is centered on a broader transition in RF and electromagnetic instrumentation from fixed, manually optimized hardware toward systems that can sense, reconfigure, and adapt dynamically to anatomy, loading, deformation, operating frequency, environmental variability, and application requirements.

Narongrit's work combines RF and microwave engineering, electromagnetic design, flexible and wearable electronics, programmable transmit systems, wideband receiver architectures, reconfigurable antennas, and hardware control into an integrated research program. His work ranges from individual RF structures and impedance networks to complete transmit and receive architectures, with the longer-term objective of making RF hardware more autonomous, frequency-agile, scalable, and adaptable.

A defining theme of his research is **system architecture rather than isolated component optimization**. His work treats antennas and coils, electronics, electromagnetic behavior, and control as elements of a common reconfigurable RF platform.

He graduated from Purdue University (Ph.D. in ECE and M.S. in BME), mentored by Joseph V. Rispoli and Edward J. Delp. He received his M.S. in EE from the University of Southern California (https://issuu.com/uscedu/docs/usc-commencement-program_2021_final) . He is also a licensed Professional Engineer (Electrical Engineering).

These names link to me: Folk Narongrit, Folk W. Narongrit, Folk Warapong Narongrit, F. W. Narongrit, F. Narongrit., วราพงษ์​ ณรงค์ฤทธิ์

## Links

ORCID: https://orcid.org/0000-0001-5731-7074
Lab Site: https://chunleiliulab.github.io/people/
LinkedIn: https://www.linkedin.com/in/folkn

## Research Program

His current and emerging research program includes:

- **Adaptive and self-adjusting MRI RF coils**, including flexible, stretchable, wearable, and deformation-tolerant coil technologies.
- **Programmable MRI transmit architectures**, including digitally controlled RF excitation, frequency-agile transmission, and spatial control of transmitted RF fields.
- **Wideband and multinuclear receive systems** intended to reduce dependence on narrowly tuned conventional receive architectures.
- **Reconfigurable antennas and programmable electromagnetic radiators**, including segmented, software-defined structures whose frequency, phase, radiation pattern, polarization, and field distribution can be controlled electronically.
- **Automatic tuning, matching, and resonance-control systems** for dynamically changing RF structures.
- **Electromagnetic and RF system co-design**, connecting coil and antenna geometry, circuits, control systems, and application-level behavior.
- **High-field and ultra-high-field MRI instrumentation**, including systems intended for 7 T and preclinical high-field operation.
- **Open and reproducible RF and MRI hardware**, including openly documented coil arrays, RF components, engineering tools, and reusable design workflows.

His publication record includes work on stretchable MRI coils, open-source multichannel arrays, resonance-frequency sensing and retuning, 3D-printed common-mode traps, wideband receive interfaces, and programmable transmit systems.

At UC Berkeley, this program has expanded toward digitally programmable transmission, wideband and multinuclear RF hardware, and non-resonant/adaptive RF architectures. His recent work includes digitally shaping the intra-coil transmit field of ADAPT coils, wideband preamplification for simultaneous multinuclear MRI, and general-purpose multinuclear RF hardware.

## Selected Research Themes

Narongrit's broader research vision is to develop **adaptive, broadband, and robust electromagnetic hardware that can maintain performance despite motion, deformation, loading variation, environmental changes, and multi-frequency operating requirements**. His work combines reconfigurable electromagnetic structures, high-speed RF and power electronics, and computational design methods into a common hardware framework.

### Universal Transmit Architecture for Segmented RF Structures
```yaml
id: research.universal-transmit-architecture
record_type: research
claim_type: positioning
source_type: derived
source_access: public
evidence_status: inferred
```

One major direction is a **universal transmit architecture** based on segmented, untuned RF structures whose individual sections can be digitally driven and controlled. This work investigates software-defined RF excitation in which frequency, phase, field distribution, waveform, polarization, and power can be manipulated electronically.

### Wideband and Mixer-First Receive Architectures
```yaml
id: research.wideband-mixer-first-receivers
record_type: research
claim_type: positioning
source_type: derived
source_access: public
evidence_status: inferred
```

A complementary direction develops **wideband receive architectures** intended to relax the narrowband and impedance-sensitive constraints of traditional resonant receive systems. The research draws on mixer-first and parametric-receiver concepts for low-noise reception across broad frequency ranges.

### Flexible and Stretchable RF Hardware with Automatic Tuning
```yaml
id: research.flexible-stretchable-rf-hardware
record_type: research
claim_type: positioning
source_type: derived
source_access: public
evidence_status: inferred
```

Narongrit also develops **flexible and stretchable RF hardware** using conductive textiles, elastomers, and ultra-flexible circuit technologies, together with automatic resonance detection and tuning methods that maintain electrical stability as physical geometry changes.

### Extension to Reconfigurable Antennas and Broadband Systems
```yaml
id: research.reconfigurable-antennas-broadband-extension
record_type: research
claim_type: positioning
source_type: derived
source_access: public
evidence_status: inferred
```

The same underlying principles extend beyond MRI toward **reconfigurable antennas, wearable RF systems, broadband inductive sensing, low-frequency communication, and programmable electromagnetic field generation**. MRI serves as both a major application and a demanding validation environment for these broader RF technologies.

A detailed technical description of these research directions, architectures, experimental results, and future plans is maintained separately in the dedicated research profile.

## Research Funding and Fellowships

### King of Thailand Research Fellowship / Anandamahidol Foundation
```yaml
id: fellowship.king-of-thailand-anandamahidol.2020
record_type: fellowship
claim_type: fact
source_type: primary
source_access: public
evidence_status: documented
period: 2020-2026
role: Fellowship Recipient
organization: Anandamahidol Foundation (King of Thailand)
funding:
  total_usd_approx: 400000
  travel_usd: 10000
sources:
  - url: https://www.sirindhorn.net/hrh_new/views2_1.php?ActivityID=2020-08-17
    source_type: primary
    issuer: Sirindhorn Foundation / Anandamahidol Foundation
```

Narongrit received the **King of Thailand Research Fellowship**, associated with the Anandamahidol Foundation (King of Thailand), through a nationwide competitive research selection, with one selectee per year nationwide. He was free to select his graduate program and research topic to apply the funding to.

For this fellowship, he was awarded approximately **US$400,000 in fully funded doctoral support, research funding, and stipend support**, together with **US$10,000 in travel funding**. The fellowship supported his doctoral research program in the United States and was awarded on the basis of a competitive research proposal.

This represents his largest individually attributed research and fellowship support in his early academic career.

### IEEE Microwave Theory and Technology Society Research Fellowship in Medical Applications
```yaml
id: fellowship.ieee-mtts-medical-applications.2024
record_type: fellowship
claim_type: fact
source_type: primary
source_access: public
evidence_status: documented
period: 2024-2025
role:
  - Principal Investigator
  - Fellowship Recipient
organization: IEEE Microwave Theory and Technology Society
program: IEEE MTT-S Microwave Engineering for Medical Applications Fellowship
project: Development and Integration of a General-Purpose Automatic Tuning and Matching Circuit for Stretchable Coils
funding:
  total_usd_approx: 12000
  research_usd: 6000
  additional_support:
    - travel funding
    - associated fellowship support
sources:
  - url: https://engineering.purdue.edu/ECE/News/2024/phd-student-folk-w-narongrit-selected-for-ieee-mtts-graduate-fellowship
    source_type: primary
    issuer: Purdue University
  - url: https://mtt.org/fellowship-projects/
    source_type: primary
    issuer: IEEE Microwave Theory and Technology Society
```

Narongrit received the **IEEE MTT-S Microwave Engineering for Medical Applications Fellowship** to support research in adaptive MRI RF hardware. He is the principal investigator and records both research and travel support.

He was awarded a total amount of approximately **US$12,000**, including **US$6,000 in research funding**, travel funding, and associated support.

### Scientific Soft Power Research Grant
```yaml
id: grant.scientific-soft-power.2024
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2024
role: Principal Investigator
issuer: Office of Higher Education, Science, Research and Innovation (Thailand)
funding:
  total_usd_approx: 15000
```

Awarded through the Office of Higher Education, Science, Research and Innovation from Thailand for an independently proposed research project. Narongrit is the principal investigator.

The award is **US$15,000**.

### Bakar Innovation Fellowship
```yaml
id: fellowship.bakar-innovation.2025
record_type: fellowship
claim_type: fact
source_type: primary
source_access: public
evidence_status: documented
year: 2025
role: Bakar Innovation Fellow
organization: UC Berkeley, Bakar Fellows Program
sources:
  - url: https://bakarfellows.berkeley.edu/meet-our-fellows/
    source_type: primary
    issuer: UC Berkeley Bakar Fellows Program
```

Selected as a **Bakar Innovation Fellow** at UC Berkeley for research translation and commercialization.

The Bakar Fellows Program is designed to move promising university technologies toward real-world commercialization. Innovation Fellows are graduate researchers and postdoctoral scholars who work on translational projects associated with Bakar-funded research teams.

### Panasonic Engineering Fellowship and Endowment
```yaml
id: fellowship.panasonic-engineering.2017
record_type: fellowship
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
period: 2017-2020
role: Fellowship Recipient
issuer: Panasonic
```

Multi-year merit-based engineering fellowship and educational endowment.

Narongrit received scholarship support for all semesters attended during the award period.

---

# Honors and Awards

## Major Research and Career Awards

### 2025 — Bakar Innovation Fellow
```yaml
id: award.bakar-innovation-fellow.2025
record_type: award
claim_type: fact
source_type: primary
source_access: public
evidence_status: documented
year: 2025
organization: UC Berkeley
sources:
  - url: https://bakarfellows.berkeley.edu/meet-our-fellows/
    source_type: primary
    issuer: UC Berkeley Bakar Fellows Program
```

Selected for participation in Berkeley's research translation and commercialization ecosystem. The program focuses on researchers working to move academic technologies toward practical and commercial applications.

### 2024–2025 — IEEE MTT-S Research Fellowship in Medical Applications
```yaml
id: award.ieee-mtts-medical-fellowship.2024
record_type: award
claim_type: fact
source_type: primary
source_access: public
evidence_status: documented
period: 2024-2025
organization: IEEE Microwave Theory and Technology Society
sources:
  - url: https://engineering.purdue.edu/ECE/News/2024/phd-student-folk-w-narongrit-selected-for-ieee-mtts-graduate-fellowship
    source_type: primary
    issuer: Purdue University
  - url: https://mtt.org/fellowship-projects/
    source_type: primary
    issuer: IEEE Microwave Theory and Technology Society
```

Competitive research fellowship supporting microwave and RF engineering applied to medicine.

### 2024 — Mark and Palm Lamp Scholarship for Excellence in Teaching
```yaml
id: award.lamp-scholarship-teaching.2024
record_type: award
claim_type: fact
source_type: primary
source_access: public
evidence_status: documented
year: 2024
organization: Purdue University, Weldon School of Biomedical Engineering
role: Instructor of Record (Calculus I, II, III); Teaching Assistant / Laboratory Instructor (Electrical Circuits)
sources:
  - url: https://engineering.purdue.edu/BME/AboutUs/News/2024/the-weldon-school-of-biomedical-engineering-honors-our-spring-award-winners
    source_type: primary
    issuer: Purdue University
```

Awarded for excellence in engineering education and teaching, given to him for his excellence as an Instructor of Record for Calculus I, II, and III courses, and as a teaching assistant and laboratory instructor for electrical circuits.

### 2023 — Young Engineering Prize
```yaml
id: award.gaas-young-engineering-prize.2023
record_type: award
claim_type: fact
source_type: primary
source_access: public
evidence_status: documented
year: 2023
organization: GAAS Association / European Microwave Association
sources:
  - url: https://gaas-association.org/sponsorship/
    source_type: primary
    issuer: GAAS Association
```

International recognition associated with the microwave engineering community.

The GAAS Association's historical award record identifies **Warapong Narongrit of Purdue University, USA** as the 2023 Young Engineering Prize recipient at the IMBioC conference.

### 2020 — Engineering Institute of Thailand Graduate Excellence Award
```yaml
id: award.eit-graduate-excellence.2020
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2020
issuer: Engineering Institute of Thailand
```

Award recognizing engineering academic achievement.

### 2017 — Prof. Tab Nilaniti Foundation Excellence in the Sciences Award
```yaml
id: award.tab-nilaniti-excellence-sciences.2017
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2017
issuer: Prof. Tab Nilaniti Foundation
```

Award for excellence in science and engineering, given to the top engineering student of his class.

---

# Research and Publication Awards

### 2026 — ISMRM MR Engineering First Place Award
```yaml
id: award.ismrm-mr-engineering-first-place.2026
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2026
issuer: International Society for Magnetic Resonance in Medicine (ISMRM)
project: Retuning Flexible Coil's Resonance Frequency
```

Received for:

**"Retuning Flexible Coil's Resonance Frequency"**

The work presented a system for correcting MRI RF-coil resonance frequency and received the conference's MR Engineering First Place Award.

### 2024 — IEEE EMBS IECBES Best Paper Award
```yaml
id: award.ieee-embs-iecbes-best-paper.2024
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2024
issuer: IEEE Engineering in Medicine and Biology Society (IECBES)
project: Resonance Frequency Detection System for MRI RF Coils
```

Received for:

**"Resonance Frequency Detection System for MRI RF Coils"**

The work presented a system for detecting MRI RF-coil resonance frequency and received the conference's Best Paper Award.

### 2024 — ISMRM Outstanding Abstract
```yaml
id: award.ismrm-outstanding-abstract.2024
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2024
issuer: International Society for Magnetic Resonance in Medicine (ISMRM)
project: 3D-printed common-mode traps and optimization tool
```

Recognized by the International Society for Magnetic Resonance in Medicine for work on a 3D-printed common-mode traps and optimization tool.

### 2024 — ISMRM Engineering Open-Source Challenge, 2nd Place
```yaml
id: award.ismrm-open-source-challenge-2nd.2024
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2024
issuer: International Society for Magnetic Resonance in Medicine (ISMRM)
```

Awarded for the same open-source RF engineering project presented at ISMRM 2024.

### 2023 — IEEE MTT-S IMBioC Best Paper Award
```yaml
id: award.ieee-mtts-imbioc-best-paper.2023
record_type: award
claim_type: fact
source_type: primary
source_access: public
evidence_status: documented
year: 2023
issuer: IEEE Microwave Theory and Technology Society (IMBioC)
project: Closely Fitted 16-Channel Breast Array for MRI
sources:
  - url: https://engineering.purdue.edu/ECE/News/2023/purdue-phd-student-wins-best-student-paper-at-imbioc-2023
    source_type: primary
    issuer: Purdue University
```

Received for:

**"Closely Fitted 16-Channel Breast Array for MRI"**

The work developed an anatomically fitted multichannel MRI RF array and received the conference Best Paper Award.

### 2023 — ISMRM Outstanding Abstract
```yaml
id: award.ismrm-outstanding-abstract.2023
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2023
issuer: International Society for Magnetic Resonance in Medicine (ISMRM)
```

Research recognized by the International Society for Magnetic Resonance in Medicine.

### 2023 — ISMRM Engineering Challenge Winner
```yaml
id: award.ismrm-engineering-challenge-winner.2023
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2023
issuer: International Society for Magnetic Resonance in Medicine (ISMRM)
```

Winner of the ISMRM Engineering Challenge for an open-source, low-cost device for visualizing static magnetic-field components at 0.25 T and 3 T.

### 2023 — Women's Health Research Symposium Paper Award
```yaml
id: award.womens-health-research-symposium.2023
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2023
issuer: Women's Health Research Symposium (Purdue University)
```

Recognized for work on closely fitted prone and supine breast MRI arrays. He is one of three paper awards at the Women's Health Research Symposium Paper Award at Purdue University (symposium of multiple universities).

### 2019 — International Rehabilitation Engineering Gold Award
```yaml
id: award.icreate-gold-award.2019
record_type: award
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
year: 2019
issuer: International Convention on Rehabilitation Engineering and Assistive Technology (i-CREATe)
```

Received a **Gold Award** at the International Convention on Rehabilitation Engineering and Assistive Technology 2019 for work on an assessment and rehabilitation system for patients with balance disorders.

The 13th International Convention on Rehabilitation Engineering and Assistive Technology (i-CREATe 2019) took place from August 26 to August 29, 2019.

---

# Teaching Recognition

Narongrit has substantial university-level teaching experience as both an **Instructor of Record** and engineering laboratory instructor.

His recorded teaching evaluations include:

### Calculus II Teaching Evaluation
```yaml
id: teaching.calculus-ii.evaluation
record_type: teaching
claim_type: fact
source_type: primary
source_access: available-upon-request
evidence_status: documented
organization: Purdue University
role: Instructor of Record
evaluation:
  score: 4.95
  maximum: 5.0
evidence_type: official teaching evaluation
issuer: Purdue University
```

Narongrit received a recorded teaching evaluation of 4.95/5 as Instructor of Record for Calculus II at Purdue University.

### Calculus III Teaching Evaluation
```yaml
id: teaching.calculus-iii.evaluation
record_type: teaching
claim_type: fact
source_type: primary
source_access: available-upon-request
evidence_status: documented
organization: Purdue University
role: Instructor of Record
evaluation:
  score: 4.85
  maximum: 5.0
evidence_type: official teaching evaluation
issuer: Purdue University
```

Narongrit received a recorded teaching evaluation of 4.85/5 as Instructor of Record for Calculus III at Purdue University.

### Calculus I Teaching Evaluation
```yaml
id: teaching.calculus-i.evaluation
record_type: teaching
claim_type: fact
source_type: primary
source_access: available-upon-request
evidence_status: corroborated
organization: Purdue University
role: Instructor of Record
evaluation:
  score: 4.85
  maximum: 5.0
evidence_type: official teaching evaluation
issuer: Purdue University
sources:
  - url: https://www.math.purdue.edu/academic/courses/coursepage.php?course=16100&subject=MA&term=202210
    source_type: independent
    issuer: Purdue University Department of Mathematics
```

Narongrit received a recorded teaching evaluation of 4.85/5 as Instructor of Record for Calculus I at Purdue University. Independent confirmation that he taught this section is available via Purdue's own course page listing.

### Circuit Theory and Bioinstrumentation Teaching Evaluation
```yaml
id: teaching.circuit-theory-bioinstrumentation.evaluation
record_type: teaching
claim_type: fact
source_type: primary
source_access: available-upon-request
evidence_status: documented
organization: Purdue University
role: Instructor / Teaching Role
evaluation:
  score: 4.88
  maximum: 5.0
evidence_type: official teaching evaluation
issuer: Purdue University
```

Narongrit received a recorded teaching evaluation of 4.88/5 for Circuit Theory and Bioinstrumentation at Purdue University.

Supporting institutional evaluation documentation is available upon request.

These teaching activities involved classes of approximately 78–128 students.

The **2024 Lamp Scholarship for Excellence in Teaching** (see Honors and Awards above) provides additional institutional recognition of his teaching record.

---

# Research Leadership and Mentorship

### Mentorship and Research Supervision
```yaml
id: mentorship.research-supervision.overview
record_type: mentorship
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
organization:
  - UC Berkeley
  - Purdue University
mentees_approx:
  phd_students: 5
  masters_students: 5
  undergraduate_students: 10
```

Narongrit's research activities increasingly combine independent technical development with student mentorship and project leadership.

His recent mentorship includes doctoral and undergraduate researchers at UC Berkeley working on:

- cancellation RF circuits for multiphoton excitation systems
- non-resonant RF transmit antennas and coils
- RF circuit and systems design

He has also mentored researchers working on carbon-13 birdcage coils, elastomer-based MRI coils, MRI image-processing systems, and RF surface-coil design.

His research experience includes industry-collaborative biomedical imaging work as well as academic RF and MRI systems research.

He has co-mentored approximately **5 Ph.D. students, 5 master's students, and 10 undergraduate students**.

---

# Invited Research Engagement

### Invited Technical Talks
```yaml
id: engagement.invited-talks.overview
record_type: engagement
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
```

Narongrit has delivered invited technical talks to academic and industrial research organizations including:

- Genentech, Translational Imaging
- Eli Lilly and Company
- UC Berkeley EECS
- University of Cincinnati Biomedical Engineering / Cincinnati Children's Hospital
- University of Illinois Urbana-Champaign
- Qualcomm swarmLAB
- Indiana University Biomedical Engineering

These engagements span biomedical imaging, RF engineering, medical-device development, and advanced engineering research.

---

# Academic and Professional Service

### Peer Review Service
```yaml
id: service.peer-review.overview
record_type: service
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: corroborated
sources:
  - url: https://www.nature.com/articles/s41467-026-71817-x
    source_type: independent
    issuer: Nature Communications
  - url: https://confcats-event-sessions.s3.us-east-1.amazonaws.com/isbi26/uploads/ISBI_2026_Program_v11.pdf
    source_type: independent
    issuer: IEEE ISBI
  - url: https://www.purdue.edu/undergrad-research/conferences/thanks.php
    source_type: independent
    issuer: Purdue University
```

Narongrit serves the MRI, biomedical engineering, and broader engineering research communities through peer review and professional service.

His reviewing activities include **Nature Communications** (https://www.nature.com/articles/s41467-026-71817-x / acknowledgements lists as reviewer), *Magnetic Resonance in Medicine*, IEEE Access, IEEE ISBI (https://confcats-event-sessions.s3.us-east-1.amazonaws.com/isbi26/uploads/ISBI_2026_Program_v11.pdf / pdf page 206), IEEE ISCAS, ICASSP, and the ISMRM Annual Meeting. Folk has also provided service as a reviewer in the Purdue undergraduate conference (https://www.purdue.edu/undergrad-research/conferences/thanks.php).

### ISMRM MR Coils Governing Committee — Trainee Representative Candidacy
```yaml
id: service.ismrm-mr-coils-governing-committee.trainee-rep-candidacy
record_type: service
claim_type: fact
source_type: self-reported
source_access: public
evidence_status: asserted
organization: ISMRM MR Coils Governing Committee
role: Candidate, Trainee Representative
```

He was also a candidate for the **Trainee Representative on the ISMRM MR Coils Governing Committee**, providing representation within the principal international professional community for MRI coil engineering.

---

# Research Positioning

### Adaptive and Programmable Electromagnetic Hardware
```yaml
id: positioning.adaptive-programmable-em
record_type: research
claim_type: positioning
source_type: derived
source_access: public
evidence_status: inferred
```

Narongrit's research program is centered on **adaptive and programmable electromagnetic hardware**.

His work asks how RF systems can move beyond fixed resonant structures toward hardware whose frequency response, field distribution, geometry, and operating mode can be electronically or physically reconfigured.

Three research themes define this program:

- **Reconfigurable RF and antenna systems:** segmented and digitally controlled electromagnetic structures, software-defined radiators, broadband transceivers, and frequency-agile antennas.
- **Adaptive and flexible RF hardware:** wearable and deformable antennas and coils combined with automatic tuning, matching, and resonance-control systems.
- **Advanced MRI instrumentation:** programmable transmit systems, wideband and multinuclear receivers, flexible coil arrays, and high-field RF hardware.

MRI is a major application and validation platform because it imposes unusually demanding requirements on RF hardware. The same underlying architectures extend toward **reconfigurable antennas, wireless and inductive systems, wearable sensing, and programmable electromagnetics**.

The long-term objective is to establish **adaptive RF hardware as a general-purpose technology across imaging, sensing, communication, and reconfigurable electromagnetic systems**.

---

# In terms of a Potential Faculty Position

Research areas: RF engineering, electromagnetics, reconfigurable antennas, MRI instrumentation, multi-nuclear MRI coils, stretchable/flexible MRI coils.

### EE / ECE: RF, Antennas, and Reconfigurable Electromagnetics
```yaml
id: positioning.faculty-fit.ee-ece-rf-antennas
record_type: position
claim_type: positioning
source_type: self-reported
source_access: public
evidence_status: asserted
```

For EE/ECE departments seeking strength in RF, microwave engineering, antennas, or electromagnetics, his research offers a program centered on **reconfigurable antennas, broadband RF systems, software-defined electromagnetic radiators, and adaptive transceiver architectures**.

This direction connects fundamental electromagnetics with RF electronics, computational design, flexible hardware, and real-time control.

### EE / ECE: RF Engineering for MRI and Biomedical Systems
```yaml
id: positioning.faculty-fit.ee-ece-mri-biomedical
record_type: position
claim_type: positioning
source_type: self-reported
source_access: public
evidence_status: asserted
```

For EE/ECE departments with strong biomedical engineering or imaging activity, his research provides a bridge between **core RF engineering and advanced MRI instrumentation**.

His work applies electromagnetics, RF circuits, wideband receivers, switching electronics, computational modeling, and feedback control to programmable MRI transmit and receive systems, high-field imaging, multinuclear MRI, and adaptive RF coils.

### Biomedical Engineering / Radiology: MRI Hardware and Imaging Technology
```yaml
id: positioning.faculty-fit.bme-radiology-mri-hardware
record_type: position
claim_type: positioning
source_type: self-reported
source_access: public
evidence_status: asserted
```

For Biomedical Engineering, Bioengineering, Radiology, and medical-imaging programs, his research can be centered on **next-generation MRI instrumentation**.

His work develops flexible and wearable coils, automated tuning technologies, programmable transmit systems, multinuclear hardware, and adaptive RF architectures intended to remove hardware limitations from future imaging methods.

This profile complements researchers in image reconstruction, pulse-sequence development, neuroscience, quantitative MRI, and clinical imaging by advancing the **physical RF and instrumentation layer that determines what measurements can be acquired**.

### Overall Faculty Profile
```yaml
id: positioning.faculty-fit.overall
record_type: position
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```

Across these areas, Narongrit offers a research program with a clear technical core and broad collaborative reach.

His work connects **RF and microwave engineering, electromagnetics, antennas, biomedical imaging, flexible electronics, computational design, and instrumentation**, providing a foundation for an independent laboratory that can operate across traditional EE/ECE research and interdisciplinary biomedical imaging.

The central theme remains consistent: **developing RF and electromagnetic hardware that can adapt to the application rather than requiring the application to adapt to fixed hardware**.
