diff --git a/404.html b/404.html index 2db39fbc..877b1b73 100644 --- a/404.html +++ b/404.html @@ -1 +1 @@ - Page not found | Joshua Brown

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This website is still under construction, maybe check back later.

You will be redirected to the main page within 3 seconds. If not redirected, please go back to the home page.

\ No newline at end of file diff --git a/_pages/dropdown/index.html b/_pages/dropdown/index.html index 96a7836c..a8f52c7a 100644 --- a/_pages/dropdown/index.html +++ b/_pages/dropdown/index.html @@ -1 +1 @@ - Real-world Impact | Joshua Brown

Real-world Impact

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Real-world Impact

\ No newline at end of file diff --git a/blog/index.html b/blog/index.html index 84f7c825..0748d536 100644 --- a/blog/index.html +++ b/blog/index.html @@ -1 +1 @@ - blog | Joshua Brown

a simple whitespace theme for academics

\ No newline at end of file + blog | Joshua Brown

a simple whitespace theme for academics

\ No newline at end of file diff --git a/cv/index.html b/cv/index.html index 1e19a82e..6670e641 100644 --- a/cv/index.html +++ b/cv/index.html @@ -1 +1 @@ - CV | Joshua Brown

CV

This is a summary of my CV. See the pdf download for the full version.

General Information

Full Name Joshua Brown
Languages English

Education

  • 2024
    PhD, Haptics
    Queen Mary University of London, United Kingdom
    • Developed soft haptic technologies for real-time robot operation in difficult environments
    • Co-designed a 3D printable face shield visor for COVID-19 protection
    • Equipment manager for the Centre for Advanced Robotics rapid prototyping lab
    • Won funding for and participated in a 3-month visit to York University, Canada
    • Supported undergraduate students competing in the 2020 Cybathlon (all-terrain wheelchair) competition
    • Supervised/co-supervised 8 MSc, MEng and BSc project students to completion (2 prize winning projects)
    • Webmaster for the Centre for Advanced Robotics public website
    • Funded by the Engineering and Physical Sciences Research Council
  • 2018
    MEng, Electronic and Information Engineering
    Imperial College London, United Kingdom
    • Master's project
      • Developed a fingertip tactile display to impart a tactile representation of printed text, shape and colour
      • Awarded 85% mark and the Eric Laithwaite prize for outstanding innovation in an individual project
      • Demonstrated this and other HCI projects at the Imperial College and Great Exhibition Road Festivals
    • Projects
      • Built a robotic walking aid featuring obstacle avoidance and detection of falls and clinical gait disorders
      • Built a voice controlled, smart exoskeleton for a coffee machine (sponsored by IBM)
      • Studied the human perception of depth cues in 3D images, and associated performance improvements when incorporated into visual interfaces. Published and presented a paper at IEEE Symposium on Information Visualization (IV2017).
      • Developed a small-scale C to MIPS compiler in C++ using FLEX, BISON and a MIPS simulator
      • Developed my own single camera 2D-3D image conversion algorithm, and implemented this on an FPGA
      • Designed an automated water monitoring system for the Nepal Water for Health Challenge

Positions Held

  • 2023-present
    Haptics Research Associate
    Imperial College London, United Kingdom
    • Conducted research into using haptic feedback and XR to support the training of dexterous medical skills, focusing on physical examinations.
    • Working towards deploying haptic medical simulations as part of the Imperial College medical curriculum.
    • Close collaboration with surgeons and clinical teaching staff in multiple disciplines.
    • Designing and executing user studies with both non-specialist and expert participants.
    • Led a team of three researchers investigating optimized 3D printing of lower limb prosthetics.
    • Funded by the Imperial College Digital Innovation Fund
  • 2024
    Visiting Researcher
    Seoul National University, South Korea
    • Conducted research into soft, shape changing tactile displays to simulate medical lumps
    • Embedded in the HeRo (Healthcare Robotics) Lab
    • Funded by UKRI (UK) and NRF (Korea)
  • 2021-present
    Co-Founder and Chief Engineer
    Human Robotix Ltd., London, United Kingdom
    • Designed and built a back-drivable wrist interface now being used in universities across the UK and Europe.
    • Co-founded Human Robotix Ltd. to sell this robot to researchers and clinicians.
  • 2022
    Visiting Researcher
    York University, Toronto, Canada
    • Conducted research into haptic rendering of environmental information when controlling underwater ROVs.
    • Built and deployed an underwater robot, controlled by experimental haptic interfaces.
    • Designed and executed a user study investigating haptic presentation of environmental information to ROV operators.
    • Funded by UKRI (UK) and Mitacs (Canada)
  • 2022
    Visiting Researcher
    Royal London Dental Hospital, London, United Kingdom
    • Designed an approved, 3D printable, reusable face shield visor for rapid manufacturing and deployment early in the COVID-19 pandemic. Made and delivered nearly 3000 of these to hospitals and clinics in London.
    • Designed and built a smartphone-based face scanner to automatically generate 3D printable, personalized face mask adapters and implemented a pipeline to automatically 3D print these for hospital staff.
    • Designed innovative 3D printable implants and models to support novel maxillofacial surgeries, now being used clinically.
    • Designed and prototyped a personalisible, sensorised jaw exerciser to support jaw rehabilitation after surgery.
    • Developing biocompatible 3D printing materials for use in dentistry in collaboration with a market leader in 3D printing (project details under NDA).
  • 2020-2021
    Research Assistant
    Imperial College London, United Kingdom
    • Developing an affordable, portable, backdrivable force feedback interface for human motor control and haptics research and robotic physical rehabilitation.
    • Supervised by Professor Etienne Burdet
  • 2019-2022
    Teaching Assistant
    Queen Mary University of London, United Kingdom

Honors and Awards

  • 2024
    • 2023 UK Best PhD in Robotics Award (joint 2nd place)
    • Honorable Mention for Best Paper, IEEE Haptics Symposium
  • 2021
    • Engagement and Impact - Local Champion Award
  • 2020
    • Best paper nominee, IEEE Haptics Symposium
  • 2019
    • Best poster, Materials Research Institute Christmas Symposium
  • 2018
    • Eric Laithwaite Prize
  • 2014
    • Imperial College President’s Scholarship
  • 2013
    • Bloodhound SSC Award for Excellence in Engineering
    • Advanced STEM Leaders Award
  • 2012
    • Rolls-Royce Arkwright Engineering Scholarship

Teaching

  • Educational leadership
    • Co-chair, Imperial College Special Interest Group on Extended Reality in Education (2023-present)
  • Lecturing
    • Guest lecturer, Design and Control of Medical Robots, Seoul National University
  • Laboratory teaching
    • Roboics Design and Build Project, Queen Mary University of London
    • Skills for Robotics Engineering, Queen Mary University of London
    • Skills for Electronic Engineering, Queen Mary University of London
    • Interaction Design, Queen Mary University of London
    • Software Engineering group project, Queen Mary University of London
  • Supervision
    • I have supervised or co-supervised 19 research project students on MRes, MSc, MEng, BEng, BSc and iBSc programmes
    • 4 of my past students recieved awards for their projects
    • 2 of my past students have gone on to undertake PhDs relevant to their projects

Research Interests

  • Haptics
    • Soft haptic devices
    • Multimodal haptic interfaces
    • Medical simulation using haptics
    • Haptic information representation
    • Haptic assistance in telerobotics
  • Soft Robotics
    • Soft actuator design
    • Soft sensor design
  • Medical Robotics
    • Prosthetics
    • Personalised medical devices
    • Robotics for rehabilitation

Technical Skills

  • Mechanical CAD
    • Fusion 360
    • Solidworks
    • Autodesk Inventor
    • Siemens NX
  • Electrical CAD
    • Autodesk Eagle
    • Altium Designer
  • Fabrication and Rapid Proptotyping
    • 3D printing (FDM, SLA, DLP)
    • Laser cutting
    • CNC machining (milling and turning)
    • PCB manufacturing (chemical etching and milling)
    • PCB assembly
    • Water jet cutting
    • Thermoforming plastics
    • Casting silicone, plaster and metal
    • Manual machining
    • Preparation of engineering drawings
    • General workshop skills
  • Embedded Systems Development
    • Raspberry Pi
    • STM32
    • ESP32/ESP8266
    • Arduino
    • ARM mbed
    • Altera FPGA
  • Programming Languages
    • Python
    • C/C++
    • C#
    • Java
    • SQL
  • Software Tools
    • Matlab
    • Unity
    • OpenCV
    • OpenPose
    • SFML
    • AWS
    • Git
    • ROS
    • LaTeX
  • Specific Platforms and Technologies
    • BlueRobotics BlueROV2
    • Human Robotix HRX-1
    • Meta Quest (2,3,Pro)
    • SenseGlove Nova
    • Maxon EPOS/ESCON motion control
    • Actronika HSD high-definition haptics controller
    • HAAS CNC controller
  • Other academic/research skills
    • Good clinical practice (clinical studies certification)
    • Human participant studies
    • Medical device certification (CE marking)
    • IP management and commercialisation
  • Other software
    • Adobe Illustrator
    • Adobe Premiere Pro
\ No newline at end of file + CV | Joshua Brown

CV

This is a summary of my CV. See the pdf download for the full version.

General Information

Full Name Joshua Brown
Languages English

Education

  • 2024
    PhD, Haptics
    Queen Mary University of London, United Kingdom
    • Developed soft haptic technologies for real-time robot operation in difficult environments
    • Co-designed a 3D printable face shield visor for COVID-19 protection
    • Equipment manager for the Centre for Advanced Robotics rapid prototyping lab
    • Won funding for and participated in a 3-month visit to York University, Canada
    • Supported undergraduate students competing in the 2020 Cybathlon (all-terrain wheelchair) competition
    • Supervised/co-supervised 8 MSc, MEng and BSc project students to completion (2 prize winning projects)
    • Webmaster for the Centre for Advanced Robotics public website
    • Funded by the Engineering and Physical Sciences Research Council
  • 2018
    MEng, Electronic and Information Engineering
    Imperial College London, United Kingdom
    • Master's project
      • Developed a fingertip tactile display to impart a tactile representation of printed text, shape and colour
      • Awarded 85% mark and the Eric Laithwaite prize for outstanding innovation in an individual project
      • Demonstrated this and other HCI projects at the Imperial College and Great Exhibition Road Festivals
    • Projects
      • Built a robotic walking aid featuring obstacle avoidance and detection of falls and clinical gait disorders
      • Built a voice controlled, smart exoskeleton for a coffee machine (sponsored by IBM)
      • Studied the human perception of depth cues in 3D images, and associated performance improvements when incorporated into visual interfaces. Published and presented a paper at IEEE Symposium on Information Visualization (IV2017).
      • Developed a small-scale C to MIPS compiler in C++ using FLEX, BISON and a MIPS simulator
      • Developed my own single camera 2D-3D image conversion algorithm, and implemented this on an FPGA
      • Designed an automated water monitoring system for the Nepal Water for Health Challenge

Positions Held

  • 2023-present
    Haptics Research Associate
    Imperial College London, United Kingdom
    • Conducted research into using haptic feedback and XR to support the training of dexterous medical skills, focusing on physical examinations.
    • Working towards deploying haptic medical simulations as part of the Imperial College medical curriculum.
    • Close collaboration with surgeons and clinical teaching staff in multiple disciplines.
    • Designing and executing user studies with both non-specialist and expert participants.
    • Led a team of three researchers investigating optimized 3D printing of lower limb prosthetics.
    • Funded by the Imperial College Digital Innovation Fund
  • 2024
    Visiting Researcher
    Seoul National University, South Korea
    • Conducted research into soft, shape changing tactile displays to simulate medical lumps
    • Embedded in the HeRo (Healthcare Robotics) Lab
    • Funded by UKRI (UK) and NRF (Korea)
  • 2021-present
    Co-Founder and Chief Engineer
    Human Robotix Ltd., London, United Kingdom
    • Designed and built a back-drivable wrist interface now being used in universities across the UK and Europe.
    • Co-founded Human Robotix Ltd. to sell this robot to researchers and clinicians.
  • 2022
    Visiting Researcher
    York University, Toronto, Canada
    • Conducted research into haptic rendering of environmental information when controlling underwater ROVs.
    • Built and deployed an underwater robot, controlled by experimental haptic interfaces.
    • Designed and executed a user study investigating haptic presentation of environmental information to ROV operators.
    • Funded by UKRI (UK) and Mitacs (Canada)
  • 2022
    Visiting Researcher
    Royal London Dental Hospital, London, United Kingdom
    • Designed an approved, 3D printable, reusable face shield visor for rapid manufacturing and deployment early in the COVID-19 pandemic. Made and delivered nearly 3000 of these to hospitals and clinics in London.
    • Designed and built a smartphone-based face scanner to automatically generate 3D printable, personalized face mask adapters and implemented a pipeline to automatically 3D print these for hospital staff.
    • Designed innovative 3D printable implants and models to support novel maxillofacial surgeries, now being used clinically.
    • Designed and prototyped a personalisible, sensorised jaw exerciser to support jaw rehabilitation after surgery.
    • Developing biocompatible 3D printing materials for use in dentistry in collaboration with a market leader in 3D printing (project details under NDA).
  • 2020-2021
    Research Assistant
    Imperial College London, United Kingdom
    • Developing an affordable, portable, backdrivable force feedback interface for human motor control and haptics research and robotic physical rehabilitation.
    • Supervised by Professor Etienne Burdet
  • 2019-2022
    Teaching Assistant
    Queen Mary University of London, United Kingdom

Honors and Awards

  • 2024
    • 2023 UK Best PhD in Robotics Award (joint 2nd place)
    • Honorable Mention for Best Paper, IEEE Haptics Symposium
  • 2021
    • Engagement and Impact - Local Champion Award
  • 2020
    • Best paper nominee, IEEE Haptics Symposium
  • 2019
    • Best poster, Materials Research Institute Christmas Symposium
  • 2018
    • Eric Laithwaite Prize
  • 2014
    • Imperial College President’s Scholarship
  • 2013
    • Bloodhound SSC Award for Excellence in Engineering
    • Advanced STEM Leaders Award
  • 2012
    • Rolls-Royce Arkwright Engineering Scholarship

Teaching

  • Educational leadership
    • Co-chair, Imperial College Special Interest Group on Extended Reality in Education (2023-present)
  • Lecturing
    • Guest lecturer, Design and Control of Medical Robots, Seoul National University
  • Laboratory teaching
    • Roboics Design and Build Project, Queen Mary University of London
    • Skills for Robotics Engineering, Queen Mary University of London
    • Skills for Electronic Engineering, Queen Mary University of London
    • Interaction Design, Queen Mary University of London
    • Software Engineering group project, Queen Mary University of London
  • Supervision
    • I have supervised or co-supervised 19 research project students on MRes, MSc, MEng, BEng, BSc and iBSc programmes
    • 4 of my past students recieved awards for their projects
    • 2 of my past students have gone on to undertake PhDs relevant to their projects

Research Interests

  • Haptics
    • Soft haptic devices
    • Multimodal haptic interfaces
    • Medical simulation using haptics
    • Haptic information representation
    • Haptic assistance in telerobotics
  • Soft Robotics
    • Soft actuator design
    • Soft sensor design
  • Medical Robotics
    • Prosthetics
    • Personalised medical devices
    • Robotics for rehabilitation

Technical Skills

  • Mechanical CAD
    • Fusion 360
    • Solidworks
    • Autodesk Inventor
    • Siemens NX
  • Electrical CAD
    • Autodesk Eagle
    • Altium Designer
  • Fabrication and Rapid Proptotyping
    • 3D printing (FDM, SLA, DLP)
    • Laser cutting
    • CNC machining (milling and turning)
    • PCB manufacturing (chemical etching and milling)
    • PCB assembly
    • Water jet cutting
    • Thermoforming plastics
    • Casting silicone, plaster and metal
    • Manual machining
    • Preparation of engineering drawings
    • General workshop skills
  • Embedded Systems Development
    • Raspberry Pi
    • STM32
    • ESP32/ESP8266
    • Arduino
    • ARM mbed
    • Altera FPGA
  • Programming Languages
    • Python
    • C/C++
    • C#
    • Java
    • SQL
  • Software Tools
    • Matlab
    • Unity
    • OpenCV
    • OpenPose
    • SFML
    • AWS
    • Git
    • ROS
    • LaTeX
  • Specific Platforms and Technologies
    • BlueRobotics BlueROV2
    • Human Robotix HRX-1
    • Meta Quest (2,3,Pro)
    • SenseGlove Nova
    • Maxon EPOS/ESCON motion control
    • Actronika HSD high-definition haptics controller
    • HAAS CNC controller
  • Other academic/research skills
    • Good clinical practice (clinical studies certification)
    • Human participant studies
    • Medical device certification (CE marking)
    • IP management and commercialisation
  • Other software
    • Adobe Illustrator
    • Adobe Premiere Pro
\ No newline at end of file diff --git a/feed.xml b/feed.xml index b68e652a..f905b2b9 100644 --- a/feed.xml +++ b/feed.xml @@ -1 +1 @@ -Jekyll2024-10-17T09:57:57+00:00https://jb-robotics.com/feed.xmlJoshua BrownHaptics researcher at Imperial College London \ No newline at end of file +Jekyll2024-11-15T17:14:54+00:00https://jb-robotics.com/feed.xmlJoshua BrownHaptics researcher at Imperial College London \ No newline at end of file diff --git a/hrx-link/index.html b/hrx-link/index.html index 5c7eb8dc..26d65cb6 100644 --- a/hrx-link/index.html +++ b/hrx-link/index.html @@ -1 +1 @@ - Human Robotix | Joshua Brown

Human Robotix

A link to Human Robotix Ltd.

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Human Robotix

A link to Human Robotix Ltd.

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Joshua Brown

Haptics Research Associate | Imperial College London

joshua.jpg

Chelsea and Westminster Hospital

369 Fulham Road,

London, United Kingdom

I’m a Research Associate (postdoc) at Imperial College London where I work at the intersection of robotics, human-computer interaction and surgery. I am based in the Simulation and Modelling in Medicine and Surgery (SiMMS) group in the Department of Surgery and Cancer. My primary research interest is in haptics though my past research has covered topics including digital manufacturing, personalised medical devices, robotics for muscular rehabilitation and information visualisation. I am currently working on haptic simulations of physical medical examinations which will be deployed to support Imperial’s MBBS in Medicine curriculum.

I first joined Imperial as an undergraduate student in the Department of Electrical and Electronic Engineering in 2014, before returning as a researcher in Bioengineering in 2020. I am currently with the Department of Surgery and Cancer as part of the Centre for Engagement and Simulation Science and SiMMS research group. I completed my PhD in Haptics at Queen Mary University of London and have been a visiting researcher at York University in Canada and Seoul National University in South Korea. I am also a co-founder of Human Robotix Ltd.

News

Sep 26, 2024 Great to see my student presenting his MEng project on shape sensing for continuum robots at ICRA@40. Great work Murilo!
Sep 23, 2024 It's fantastic to be representing the SiMMS lab with a 4 day demo stall at ICRA@40, showcasing our work in using haptics, robotics and AI to simulate physical medical examinations. Huge thanks to my students Zumeng, Prateek and Murilo for supporting the demos and represenring our lab so well!
Aug 22, 2024 I was surprised and deeply honored to recieve joint second place in the 2023 UK Best PhD in Robotics Award, sponsored by my former university - Queen Mary University of London.
Aug 22, 2024 I presented a summary of the results from my PhD at TAROS2024.
Jul 26, 2024 Pleased that the full results of my work on non-pneumatic particle jamming have been accepted for the Advancing Soft, Tactile and Haptic Technologies: Recent Developments for Healthcare Applications special issue of Frontiers in Robotics and AI! Check out the fully open access article here!

Selected Publications

  1. HAPTICS2024img.jpg
    Design and Characterisation of Particle Jamming-Based Variable Stiffness Displays using Non-pneumatic Actuators
    Joshua Brown, and Fernando Bello
    In IEEE Haptics Symposium, HAPTICS , Apr 2024
\ No newline at end of file diff --git a/news/EuroHaptics2024-accept/index.html b/news/EuroHaptics2024-accept/index.html index fb612a2c..432854cd 100644 --- a/news/EuroHaptics2024-accept/index.html +++ b/news/EuroHaptics2024-accept/index.html @@ -1 +1 @@ - Eurohaptics2024 accept | Joshua Brown

Eurohaptics2024 accept

Delighted that my student’s demo and WIP paper have been accepted for EuroHaptics 2024. Well done Aleera!

\ No newline at end of file + Eurohaptics2024 accept | Joshua Brown

Eurohaptics2024 accept

Delighted that my student’s demo and WIP paper have been accepted for EuroHaptics 2024. Well done Aleera!

\ No newline at end of file diff --git a/news/EuroHaptics2024-wip_demo/index.html b/news/EuroHaptics2024-wip_demo/index.html index c9f6bec8..8252b385 100644 --- a/news/EuroHaptics2024-wip_demo/index.html +++ b/news/EuroHaptics2024-wip_demo/index.html @@ -1 +1 @@ - Eurohaptics2024 wip demo | Joshua Brown

Eurohaptics2024 wip demo

I presented my student’s MEng project - Dermaphone - at EuroHaptics 2024.

\ No newline at end of file + Eurohaptics2024 wip demo | Joshua Brown

Eurohaptics2024 wip demo

I presented my student’s MEng project - Dermaphone - at EuroHaptics 2024.

\ No newline at end of file diff --git a/news/EuroHaptics2024-workshop/index.html b/news/EuroHaptics2024-workshop/index.html index ee364118..e63ca4ce 100644 --- a/news/EuroHaptics2024-workshop/index.html +++ b/news/EuroHaptics2024-workshop/index.html @@ -1 +1 @@ - Eurohaptics2024 workshop | Joshua Brown

Eurohaptics2024 workshop

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Eurohaptics2024 workshop

\ No newline at end of file diff --git a/news/Frontiers-accept/index.html b/news/Frontiers-accept/index.html index 1de402e3..ddc3d70c 100644 --- a/news/Frontiers-accept/index.html +++ b/news/Frontiers-accept/index.html @@ -1 +1 @@ - Frontiers accept | Joshua Brown

Frontiers accept

Pleased that the full results of my work on non-pneumatic particle jamming have been accepted for the Advancing Soft, Tactile and Haptic Technologies: Recent Developments for Healthcare Applications special issue of Frontiers in Robotics and AI! Check out the fully open access article here!

\ No newline at end of file + Frontiers accept | Joshua Brown

Frontiers accept

Pleased that the full results of my work on non-pneumatic particle jamming have been accepted for the Advancing Soft, Tactile and Haptic Technologies: Recent Developments for Healthcare Applications special issue of Frontiers in Robotics and AI! Check out the fully open access article here!

\ No newline at end of file diff --git a/news/HRX-article/index.html b/news/HRX-article/index.html index 89a369ed..ea694e50 100644 --- a/news/HRX-article/index.html +++ b/news/HRX-article/index.html @@ -1 +1 @@ - Hrx article | Joshua Brown

Hrx article

\ No newline at end of file + Hrx article | Joshua Brown

Hrx article

\ No newline at end of file diff --git a/news/HS2024-ccc/index.html b/news/HS2024-ccc/index.html index 6a694d0a..41376fec 100644 --- a/news/HS2024-ccc/index.html +++ b/news/HS2024-ccc/index.html @@ -1 +1 @@ - Hs2024 ccc | Joshua Brown

Hs2024 ccc

I presented a poster at the IEEE Haptics Symposium Cross-Cutting Challenges session on Frontiers of Softness in Science and Engineering. Many thanks to Prof Shogo Okamoto for the invitation!

\ No newline at end of file + Hs2024 ccc | Joshua Brown

Hs2024 ccc

I presented a poster at the IEEE Haptics Symposium Cross-Cutting Challenges session on Frontiers of Softness in Science and Engineering. Many thanks to Prof Shogo Okamoto for the invitation!

\ No newline at end of file diff --git a/news/HS2024-honorable-mention/index.html b/news/HS2024-honorable-mention/index.html index 2aedeb4a..0f601308 100644 --- a/news/HS2024-honorable-mention/index.html +++ b/news/HS2024-honorable-mention/index.html @@ -1 +1 @@ - Hs2024 honorable mention | Joshua Brown

Hs2024 honorable mention

I was surprised and honored to recieve an Honorable Mention for the Best Paper Award at the IEEE Haptics Symposium in Long Beach, California for my work on mechanical approaches to actuating particle jamming-based tactile displays. Thanks to my co-author, Prof Fernando Bello and the IET and Brain charity for funding my attendance!

\ No newline at end of file + Hs2024 honorable mention | Joshua Brown

Hs2024 honorable mention

I was surprised and honored to recieve an Honorable Mention for the Best Paper Award at the IEEE Haptics Symposium in Long Beach, California for my work on mechanical approaches to actuating particle jamming-based tactile displays. Thanks to my co-author, Prof Fernando Bello and the IET and Brain charity for funding my attendance!

\ No newline at end of file diff --git a/news/HSMR-POLAR/index.html b/news/HSMR-POLAR/index.html index b9a4664d..6171a5ea 100644 --- a/news/HSMR-POLAR/index.html +++ b/news/HSMR-POLAR/index.html @@ -1 +1 @@ - Hsmr polar | Joshua Brown

Hsmr polar

It was great to present early results from my new project - POLAR: Prosthetics and Orthoses for Limited Access Regions - at the Hamlyn Symposium on Medical Robotics 2024.

\ No newline at end of file + Hsmr polar | Joshua Brown

Hsmr polar

It was great to present early results from my new project - POLAR: Prosthetics and Orthoses for Limited Access Regions - at the Hamlyn Symposium on Medical Robotics 2024.

\ No newline at end of file diff --git a/news/HSMR-workshop/index.html b/news/HSMR-workshop/index.html index b0da4421..8868e8b5 100644 --- a/news/HSMR-workshop/index.html +++ b/news/HSMR-workshop/index.html @@ -1 +1 @@ - Hsmr workshop | Joshua Brown

Hsmr workshop

Delighted to run the workshop “From virtual palpation to clinical integration: Exploring the role of touch in medicine and surgery” at the Hamlyn Symposium 2024. Amazing to see months of planning come to life! Many thanks to Prof. Roger Kneebone, Dr. Lynette Jones, Prof. Amy Kyungwon Han among many excellent speakers.

\ No newline at end of file + Hsmr workshop | Joshua Brown

Hsmr workshop

Delighted to run the workshop “From virtual palpation to clinical integration: Exploring the role of touch in medicine and surgery” at the Hamlyn Symposium 2024. Amazing to see months of planning come to life! Many thanks to Prof. Roger Kneebone, Dr. Lynette Jones, Prof. Amy Kyungwon Han among many excellent speakers.

\ No newline at end of file diff --git a/news/ICRA40-accept/index.html b/news/ICRA40-accept/index.html index bca9ebbf..50bdea10 100644 --- a/news/ICRA40-accept/index.html +++ b/news/ICRA40-accept/index.html @@ -1 +1 @@ - Icra40 accept | Joshua Brown

Icra40 accept

Another success for one of my students, this time at ICRA@40. Congratulations Murilo!
\ No newline at end of file + Icra40 accept | Joshua Brown

Icra40 accept

Another success for one of my students, this time at ICRA@40. Congratulations Murilo!
\ No newline at end of file diff --git a/news/ICRA40-demo/index.html b/news/ICRA40-demo/index.html index b4c649ca..9c2eccf2 100644 --- a/news/ICRA40-demo/index.html +++ b/news/ICRA40-demo/index.html @@ -1 +1 @@ - Icra40 demo | Joshua Brown

Icra40 demo

It's fantastic to be representing the SiMMS lab with a 4 day demo stall at ICRA@40, showcasing our work in using haptics, robotics and AI to simulate physical medical examinations. Huge thanks to my students Zumeng, Prateek and Murilo for supporting the demos and represenring our lab so well!
\ No newline at end of file + Icra40 demo | Joshua Brown

Icra40 demo

It's fantastic to be representing the SiMMS lab with a 4 day demo stall at ICRA@40, showcasing our work in using haptics, robotics and AI to simulate physical medical examinations. Huge thanks to my students Zumeng, Prateek and Murilo for supporting the demos and represenring our lab so well!
\ No newline at end of file diff --git a/news/ICRA40-poster/index.html b/news/ICRA40-poster/index.html index ea3f9ff8..c4a3603f 100644 --- a/news/ICRA40-poster/index.html +++ b/news/ICRA40-poster/index.html @@ -1 +1 @@ - Icra40 poster | Joshua Brown

Icra40 poster

Great to see my student presenting his MEng project on shape sensing for continuum robots at ICRA@40. Great work Murilo!
\ No newline at end of file + Icra40 poster | Joshua Brown

Icra40 poster

Great to see my student presenting his MEng project on shape sensing for continuum robots at ICRA@40. Great work Murilo!
\ No newline at end of file diff --git a/news/KoreaHaptics/index.html b/news/KoreaHaptics/index.html index 68134f36..cc36fbba 100644 --- a/news/KoreaHaptics/index.html +++ b/news/KoreaHaptics/index.html @@ -1 +1 @@ - Koreahaptics | Joshua Brown

Koreahaptics

I was thrilled to be able to present some of my recent and ongoing research at the Korea-UK workshop on Haptics and Medical Robotics

\ No newline at end of file + Koreahaptics | Joshua Brown

Koreahaptics

I was thrilled to be able to present some of my recent and ongoing research at the Korea-UK workshop on Haptics and Medical Robotics

\ No newline at end of file diff --git a/news/MIT-grant/index.html b/news/MIT-grant/index.html index 81885866..89dca1a0 100644 --- a/news/MIT-grant/index.html +++ b/news/MIT-grant/index.html @@ -1 +1 @@ - Mit grant | Joshua Brown

Mit grant

I am very excited to be awarded funding from the Imperial College Global Seed Fund and MIT International Science and Technonogy Initiative to work with Dr Lynette Jones and the Cutaneous Sensory Lab on the development of soft thermotactile displays.

\ No newline at end of file + Mit grant | Joshua Brown

Mit grant

I am very excited to be awarded funding from the Imperial College Global Seed Fund and MIT International Science and Technonogy Initiative to work with Dr Lynette Jones and the Cutaneous Sensory Lab on the development of soft thermotactile displays.

\ No newline at end of file diff --git a/news/SC-seed-fund/index.html b/news/SC-seed-fund/index.html index acfb4f9e..adee9ae2 100644 --- a/news/SC-seed-fund/index.html +++ b/news/SC-seed-fund/index.html @@ -1 +1 @@ - Sc seed fund | Joshua Brown

Sc seed fund

I’ve been awarded funding from Imperial College to continue my work on prosthetics manufacturing in resource limited countries. Than you to the Department of Surgery and Cancer for the support!

\ No newline at end of file + Sc seed fund | Joshua Brown

Sc seed fund

I’ve been awarded funding from Imperial College to continue my work on prosthetics manufacturing in resource limited countries. Than you to the Department of Surgery and Cancer for the support!

\ No newline at end of file diff --git a/news/SIG-talk/index.html b/news/SIG-talk/index.html index 6cb2872c..f97c437d 100644 --- a/news/SIG-talk/index.html +++ b/news/SIG-talk/index.html @@ -1 +1 @@ - Sig talk | Joshua Brown

Sig talk

I co-chaired a meeting of the Imperial College Special Interest Group on XR in Education, and enjoyed sharing my work on combining XR and haptics in clinical skills teaching.

\ No newline at end of file + Sig talk | Joshua Brown

Sig talk

I co-chaired a meeting of the Imperial College Special Interest Group on XR in Education, and enjoyed sharing my work on combining XR and haptics in clinical skills teaching.

\ No newline at end of file diff --git a/news/StudentShapers/index.html b/news/StudentShapers/index.html new file mode 100644 index 00000000..3f7e393b --- /dev/null +++ b/news/StudentShapers/index.html @@ -0,0 +1 @@ + Studentshapers | Joshua Brown

Studentshapers

I am recruiting a PAID ‘student shaper’ to work on LLMs for gamified medical education. If you are a current Imperial College student and passionate software engineer and/or interested in medical technology, please apply here!

\ No newline at end of file diff --git a/news/TAROS2024-award/index.html b/news/TAROS2024-award/index.html index 5d710ef2..76394819 100644 --- a/news/TAROS2024-award/index.html +++ b/news/TAROS2024-award/index.html @@ -1 +1 @@ - Taros2024 award | Joshua Brown

Taros2024 award

I was surprised and deeply honored to recieve joint second place in the 2023 UK Best PhD in Robotics Award, sponsored by my former university - Queen Mary University of London.

\ No newline at end of file + Taros2024 award | Joshua Brown

Taros2024 award

I was surprised and deeply honored to recieve joint second place in the 2023 UK Best PhD in Robotics Award, sponsored by my former university - Queen Mary University of London.

\ No newline at end of file diff --git a/news/TAROS2024-talk/index.html b/news/TAROS2024-talk/index.html index a2516341..99d67959 100644 --- a/news/TAROS2024-talk/index.html +++ b/news/TAROS2024-talk/index.html @@ -1 +1 @@ - Taros2024 talk | Joshua Brown

Taros2024 talk

I presented a summary of the results from my PhD at TAROS2024.

\ No newline at end of file + Taros2024 talk | Joshua Brown

Taros2024 talk

I presented a summary of the results from my PhD at TAROS2024.

\ No newline at end of file diff --git a/news/hero-talk/index.html b/news/hero-talk/index.html index 0f6d8c27..0ce8cc97 100644 --- a/news/hero-talk/index.html +++ b/news/hero-talk/index.html @@ -1 +1 @@ - Hero talk | Joshua Brown

Hero talk

I enjoyed presenting a selection of recent research projects to members of the Healthcare Robotics (HeRo) Lab at Seoul National University in South Korea

\ No newline at end of file + Hero talk | Joshua Brown

Hero talk

I enjoyed presenting a selection of recent research projects to members of the Healthcare Robotics (HeRo) Lab at Seoul National University in South Korea

\ No newline at end of file diff --git a/news/index.html b/news/index.html index 0c30576f..73dbc9c7 100644 --- a/news/index.html +++ b/news/index.html @@ -1 +1 @@ - News | Joshua Brown

News

Sep 26, 2024 Great to see my student presenting his MEng project on shape sensing for continuum robots at ICRA@40. Great work Murilo!
Sep 23, 2024 It's fantastic to be representing the SiMMS lab with a 4 day demo stall at ICRA@40, showcasing our work in using haptics, robotics and AI to simulate physical medical examinations. Huge thanks to my students Zumeng, Prateek and Murilo for supporting the demos and represenring our lab so well!
Aug 22, 2024 I was surprised and deeply honored to recieve joint second place in the 2023 UK Best PhD in Robotics Award, sponsored by my former university - Queen Mary University of London.
Aug 22, 2024 I presented a summary of the results from my PhD at TAROS2024.
Jul 26, 2024 Pleased that the full results of my work on non-pneumatic particle jamming have been accepted for the Advancing Soft, Tactile and Haptic Technologies: Recent Developments for Healthcare Applications special issue of Frontiers in Robotics and AI! Check out the fully open access article here!
Jul 16, 2024 Another success for one of my students, this time at ICRA@40. Congratulations Murilo!
Jul 12, 2024 I’ve been awarded funding from Imperial College to continue my work on prosthetics manufacturing in resource limited countries. Than you to the Department of Surgery and Cancer for the support!
Jul 11, 2024 I co-chaired a meeting of the Imperial College Special Interest Group on XR in Education, and enjoyed sharing my work on combining XR and haptics in clinical skills teaching.
Jul 01, 2024 I presented my student’s MEng project - Dermaphone - at EuroHaptics 2024.
Jun 30, 2024 I enjoyed presenting my recent work on particle jamming-based soft haptics at the EuroHaptics 2024 workshop on Haptic Intelligence Embodied in Artificial Soft Systems. Huge thanks to Michaël Wiertlewski and Thomas Daunizeau for the invitation. Check out the video recording!
Jun 28, 2024 Delighted to run the workshop “From virtual palpation to clinical integration: Exploring the role of touch in medicine and surgery” at the Hamlyn Symposium 2024. Amazing to see months of planning come to life! Many thanks to Prof. Roger Kneebone, Dr. Lynette Jones, Prof. Amy Kyungwon Han among many excellent speakers.
Jun 27, 2024 It was great to present early results from my new project - POLAR: Prosthetics and Orthoses for Limited Access Regions - at the Hamlyn Symposium on Medical Robotics 2024.
May 17, 2024 Delighted that my student’s demo and WIP paper have been accepted for EuroHaptics 2024. Well done Aleera!
May 14, 2024 Great to see Human Robotix featured by Process & Control Today!
Apr 19, 2024 I am very excited to be awarded funding from the Imperial College Global Seed Fund and MIT International Science and Technonogy Initiative to work with Dr Lynette Jones and the Cutaneous Sensory Lab on the development of soft thermotactile displays.
Apr 18, 2024 I had a great time presenting and demonstrating my work on mechanical and magnetic particle jamming at RoboSoft 2024!
Apr 10, 2024 I was surprised and honored to recieve an Honorable Mention for the Best Paper Award at the IEEE Haptics Symposium in Long Beach, California for my work on mechanical approaches to actuating particle jamming-based tactile displays. Thanks to my co-author, Prof Fernando Bello and the IET and Brain charity for funding my attendance!
Apr 07, 2024 I presented a poster at the IEEE Haptics Symposium Cross-Cutting Challenges session on Frontiers of Softness in Science and Engineering. Many thanks to Prof Shogo Okamoto for the invitation!
Apr 01, 2024 I enjoyed presenting a selection of recent research projects to members of the Healthcare Robotics (HeRo) Lab at Seoul National University in South Korea
Mar 26, 2024 I was delighted to give a guest lecture about Haptics in Medicine on the Design and Control of Medical Robots course at Seoul National University. Many thanks to Prof Amy Han for the invitation and the students for such engaging and insightful questions!
Jan 19, 2024 I was thrilled to be able to present some of my recent and ongoing research at the Korea-UK workshop on Haptics and Medical Robotics
\ No newline at end of file + News | Joshua Brown

News

Nov 09, 2024 I am recruiting a PAID ‘student shaper’ to work on LLMs for gamified medical education. If you are a current Imperial College student and passionate software engineer and/or interested in medical technology, please apply here!
Sep 26, 2024 Great to see my student presenting his MEng project on shape sensing for continuum robots at ICRA@40. Great work Murilo!
Sep 23, 2024 It's fantastic to be representing the SiMMS lab with a 4 day demo stall at ICRA@40, showcasing our work in using haptics, robotics and AI to simulate physical medical examinations. Huge thanks to my students Zumeng, Prateek and Murilo for supporting the demos and represenring our lab so well!
Aug 22, 2024 I was surprised and deeply honored to recieve joint second place in the 2023 UK Best PhD in Robotics Award, sponsored by my former university - Queen Mary University of London.
Aug 22, 2024 I presented a summary of the results from my PhD at TAROS2024.
Jul 26, 2024 Pleased that the full results of my work on non-pneumatic particle jamming have been accepted for the Advancing Soft, Tactile and Haptic Technologies: Recent Developments for Healthcare Applications special issue of Frontiers in Robotics and AI! Check out the fully open access article here!
Jul 16, 2024 Another success for one of my students, this time at ICRA@40. Congratulations Murilo!
Jul 12, 2024 I’ve been awarded funding from Imperial College to continue my work on prosthetics manufacturing in resource limited countries. Than you to the Department of Surgery and Cancer for the support!
Jul 11, 2024 I co-chaired a meeting of the Imperial College Special Interest Group on XR in Education, and enjoyed sharing my work on combining XR and haptics in clinical skills teaching.
Jul 01, 2024 I presented my student’s MEng project - Dermaphone - at EuroHaptics 2024.
Jun 30, 2024 I enjoyed presenting my recent work on particle jamming-based soft haptics at the EuroHaptics 2024 workshop on Haptic Intelligence Embodied in Artificial Soft Systems. Huge thanks to Michaël Wiertlewski and Thomas Daunizeau for the invitation. Check out the video recording!
Jun 28, 2024 Delighted to run the workshop “From virtual palpation to clinical integration: Exploring the role of touch in medicine and surgery” at the Hamlyn Symposium 2024. Amazing to see months of planning come to life! Many thanks to Prof. Roger Kneebone, Dr. Lynette Jones, Prof. Amy Kyungwon Han among many excellent speakers.
Jun 27, 2024 It was great to present early results from my new project - POLAR: Prosthetics and Orthoses for Limited Access Regions - at the Hamlyn Symposium on Medical Robotics 2024.
May 17, 2024 Delighted that my student’s demo and WIP paper have been accepted for EuroHaptics 2024. Well done Aleera!
May 14, 2024 Great to see Human Robotix featured by Process & Control Today!
Apr 19, 2024 I am very excited to be awarded funding from the Imperial College Global Seed Fund and MIT International Science and Technonogy Initiative to work with Dr Lynette Jones and the Cutaneous Sensory Lab on the development of soft thermotactile displays.
Apr 18, 2024 I had a great time presenting and demonstrating my work on mechanical and magnetic particle jamming at RoboSoft 2024!
Apr 10, 2024 I was surprised and honored to recieve an Honorable Mention for the Best Paper Award at the IEEE Haptics Symposium in Long Beach, California for my work on mechanical approaches to actuating particle jamming-based tactile displays. Thanks to my co-author, Prof Fernando Bello and the IET and Brain charity for funding my attendance!
Apr 07, 2024 I presented a poster at the IEEE Haptics Symposium Cross-Cutting Challenges session on Frontiers of Softness in Science and Engineering. Many thanks to Prof Shogo Okamoto for the invitation!
Apr 01, 2024 I enjoyed presenting a selection of recent research projects to members of the Healthcare Robotics (HeRo) Lab at Seoul National University in South Korea
Mar 26, 2024 I was delighted to give a guest lecture about Haptics in Medicine on the Design and Control of Medical Robots course at Seoul National University. Many thanks to Prof Amy Han for the invitation and the students for such engaging and insightful questions!
Jan 19, 2024 I was thrilled to be able to present some of my recent and ongoing research at the Korea-UK workshop on Haptics and Medical Robotics
\ No newline at end of file diff --git a/news/robosoft24/index.html b/news/robosoft24/index.html index 2c0f32bd..b4bbaa01 100644 --- a/news/robosoft24/index.html +++ b/news/robosoft24/index.html @@ -1 +1 @@ - Robosoft24 | Joshua Brown

Robosoft24

I had a great time presenting and demonstrating my work on mechanical and magnetic particle jamming at RoboSoft 2024!

\ No newline at end of file + Robosoft24 | Joshua Brown

Robosoft24

I had a great time presenting and demonstrating my work on mechanical and magnetic particle jamming at RoboSoft 2024!

\ No newline at end of file diff --git a/news/snu-lecture/index.html b/news/snu-lecture/index.html index 494a11ed..b5934b47 100644 --- a/news/snu-lecture/index.html +++ b/news/snu-lecture/index.html @@ -1 +1 @@ - Snu lecture | Joshua Brown

Snu lecture

I was delighted to give a guest lecture about Haptics in Medicine on the Design and Control of Medical Robots course at Seoul National University. Many thanks to Prof Amy Han for the invitation and the students for such engaging and insightful questions!

\ No newline at end of file + Snu lecture | Joshua Brown

Snu lecture

I was delighted to give a guest lecture about Haptics in Medicine on the Design and Control of Medical Robots course at Seoul National University. Many thanks to Prof Amy Han for the invitation and the students for such engaging and insightful questions!

\ No newline at end of file diff --git a/people/index.html b/people/index.html index 075cffde..c55ec559 100644 --- a/people/index.html +++ b/people/index.html @@ -1 +1 @@ - people | Joshua Brown

people

members of the lab or group


prof_pic.jpg

555 your office number

123 your address street

Your City, State 12345

I’m a Research Associate (postdoc) at Imperial College London where I am based in the Simulation and Modelling in Medicine and Surgery (SiMMS) group. I am also a co-founder and lead engineer at Human Robotix Ltd. My main research interest is the design of multimodal haptic inferfaces for simulation and physical information presentation. I also work extensively in 3D printing/digital manufacturing and other areas of mechatronics.


prof_pic.jpg

555 your office number

123 your address street

Your City, State 12345

I’m a Research Associate (postdoc) at Imperial College London where I am based in the Simulation and Modelling in Medicine and Surgery (SiMMS) group. I am also a co-founder and lead engineer at Human Robotix Ltd. My main research interest is the design of multimodal haptic inferfaces for simulation and physical information presentation. I also work extensively in 3D printing/digital manufacturing and other areas of mechatronics.

\ No newline at end of file + people | Joshua Brown

people

members of the lab or group


prof_pic.jpg

555 your office number

123 your address street

Your City, State 12345

I’m a Research Associate (postdoc) at Imperial College London where I am based in the Simulation and Modelling in Medicine and Surgery (SiMMS) group. I am also a co-founder and lead engineer at Human Robotix Ltd. My main research interest is the design of multimodal haptic inferfaces for simulation and physical information presentation. I also work extensively in 3D printing/digital manufacturing and other areas of mechatronics.


prof_pic.jpg

555 your office number

123 your address street

Your City, State 12345

I’m a Research Associate (postdoc) at Imperial College London where I am based in the Simulation and Modelling in Medicine and Surgery (SiMMS) group. I am also a co-founder and lead engineer at Human Robotix Ltd. My main research interest is the design of multimodal haptic inferfaces for simulation and physical information presentation. I also work extensively in 3D printing/digital manufacturing and other areas of mechatronics.

\ No newline at end of file diff --git a/projects/coffee-machine/index.html b/projects/coffee-machine/index.html index 2cf39e11..43443600 100644 --- a/projects/coffee-machine/index.html +++ b/projects/coffee-machine/index.html @@ -1 +1 @@ - CASE | Joshua Brown

CASE

AI Coffee Machine

One interesting HMI project I was able to take part in during my undergraduate degree was the creation of an internet connected, mechatronic exoskeleton for an office coffee machine. The project was set and sponsored by IBM, who at the time were interested in ways of retrofitting smart functionality to traditional household applicances.

Project Aims

  • To better understand the visual impact of two strong visual perspective cues: magnification and environmental artefacs.

  • To investigate (in a specific and limited way) the hypothesis that humans have an evolutionary preference for 3D environments.

  • To investigate the possibility of a previously unidentified visual cue, rotation, via the Deep-Flat optical illusion.

Non-Invasive Modification

The obvious approach to adding smart functionality to ‘dumb’ appliances is to add a small microcontroller to simulate the inputs from the various manually operated switches and knobs. One of the aims of this project, however, was to create a system that could be fitted by an end user, meaning that it became necessary to develop mechanical solutions to the problems of how to press a button or how to turn a dial. Reading status outputs externally was also a challenge, as bi-colour and flashing LEDs all report vital information which needed to be transmitted to the smart system. The resulting product was therefore effectively an exoskeleton around the machine, which used voice commands, a GUI and web interface for user input.

Funding

  • Imperial College London
  • IBM
\ No newline at end of file + CASE | Joshua Brown

CASE

AI Coffee Machine

One interesting HMI project I was able to take part in during my undergraduate degree was the creation of an internet connected, mechatronic exoskeleton for an office coffee machine. The project was set and sponsored by IBM, who at the time were interested in ways of retrofitting smart functionality to traditional household applicances.

Project Aims

  • To better understand the visual impact of two strong visual perspective cues: magnification and environmental artefacs.

  • To investigate (in a specific and limited way) the hypothesis that humans have an evolutionary preference for 3D environments.

  • To investigate the possibility of a previously unidentified visual cue, rotation, via the Deep-Flat optical illusion.

Non-Invasive Modification

The obvious approach to adding smart functionality to ‘dumb’ appliances is to add a small microcontroller to simulate the inputs from the various manually operated switches and knobs. One of the aims of this project, however, was to create a system that could be fitted by an end user, meaning that it became necessary to develop mechanical solutions to the problems of how to press a button or how to turn a dial. Reading status outputs externally was also a challenge, as bi-colour and flashing LEDs all report vital information which needed to be transmitted to the smart system. The resulting product was therefore effectively an exoskeleton around the machine, which used voice commands, a GUI and web interface for user input.

Funding

  • Imperial College London
  • IBM
\ No newline at end of file diff --git a/projects/covid-ppe/index.html b/projects/covid-ppe/index.html index 3ea83ebb..59c1ee93 100644 --- a/projects/covid-ppe/index.html +++ b/projects/covid-ppe/index.html @@ -1 +1 @@ - COVID-PPE | Joshua Brown

COVID-PPE

Community engagement and impact

In March 2020, at the start of the global COVID-19 pandemic, the UK’s supply chain for medical grade PPE collapsed under unprecedented demand and a workforce that could be sent into quarantine at a moment’s notice. As a result frontline clinical staff in some of the UK’s busiest hospitals were left to care for patients without adequate protective equipment. To respond to this, a coalition of experts in medicine and surgery, medical devices, product design and digital manufacturing was formed between Queen Mary University of London and the Royal London Dental Hospital to design safe, effective and reusable PPE (Personal Protective Equipment) that could be manufactured quickly to meet the urgent demands of London’s hospitals and medical and dental surgeries.

You can also have artistically styled 2/3 + 1/3 images, like these.

Outcomes

This project resulted in the manufacture of over 3,000 3D printed face visors, and a further 20,000 injection moulded visors which were distributed to hospitals, schools and community medical practices within days of the nationwide PPE shortage. These were also the second 3D printed face visors to gain regulatory apporoval (CE mark) in the UK, and the first to be specifically designed for high-risk aerosol generating dental procedures. The accompanying paper, “Innovation in the time of SARS-CoV-2: A collaborative journey between NHS clinicians, engineers, academics and industry” was published in the Journal of the Royal College of Surgeons of Edinburgh and goes into more detail about the manufacturing and logistical steps required to design and distribute a product, from scratch, within a matter of days.

Collaborators

  • Professor Shakeel Shahdad, Royal London Hospital
  • Dr Ahmed Din, Royal London Hospital
  • Dr Sarah Waia, Royal London Hospital
  • Hristina Cvetanovska, Royal London Hospital
  • Professor Kaspar Althoefer, Queen Mary University of London
  • Dr Ildar Farkhatdinov, University of London
  • Dr Bukeikhan Omarali, Queen Mary University of London

Funding

  • Bart's Charity
  • Queen Mary University of London
  • Charitable donations from a Facebook fundraiser

References

\ No newline at end of file + COVID-PPE | Joshua Brown

COVID-PPE

Community engagement and impact

In March 2020, at the start of the global COVID-19 pandemic, the UK’s supply chain for medical grade PPE collapsed under unprecedented demand and a workforce that could be sent into quarantine at a moment’s notice. As a result frontline clinical staff in some of the UK’s busiest hospitals were left to care for patients without adequate protective equipment. To respond to this, a coalition of experts in medicine and surgery, medical devices, product design and digital manufacturing was formed between Queen Mary University of London and the Royal London Dental Hospital to design safe, effective and reusable PPE (Personal Protective Equipment) that could be manufactured quickly to meet the urgent demands of London’s hospitals and medical and dental surgeries.

You can also have artistically styled 2/3 + 1/3 images, like these.

Outcomes

This project resulted in the manufacture of over 3,000 3D printed face visors, and a further 20,000 injection moulded visors which were distributed to hospitals, schools and community medical practices within days of the nationwide PPE shortage. These were also the second 3D printed face visors to gain regulatory apporoval (CE mark) in the UK, and the first to be specifically designed for high-risk aerosol generating dental procedures. The accompanying paper, “Innovation in the time of SARS-CoV-2: A collaborative journey between NHS clinicians, engineers, academics and industry” was published in the Journal of the Royal College of Surgeons of Edinburgh and goes into more detail about the manufacturing and logistical steps required to design and distribute a product, from scratch, within a matter of days.

Collaborators

  • Professor Shakeel Shahdad, Royal London Hospital
  • Dr Ahmed Din, Royal London Hospital
  • Dr Sarah Waia, Royal London Hospital
  • Hristina Cvetanovska, Royal London Hospital
  • Professor Kaspar Althoefer, Queen Mary University of London
  • Dr Ildar Farkhatdinov, University of London
  • Dr Bukeikhan Omarali, Queen Mary University of London

Funding

  • Bart's Charity
  • Queen Mary University of London
  • Charitable donations from a Facebook fundraiser

References

\ No newline at end of file diff --git a/projects/decompression-stents/index.html b/projects/decompression-stents/index.html index 1cfeb50c..43ee4aa8 100644 --- a/projects/decompression-stents/index.html +++ b/projects/decompression-stents/index.html @@ -1 +1 @@ - Surgical Stents | Joshua Brown

Surgical Stents

Creating clinical impact through design and manufacturing engineering

Odontogenic cysts are fluid-filled voids in the jaw that can cause severe and painful swelling of the face. Treatment often involves drainage and promoting new bone growth in the empty space. Traditionally, surgeons might utilize an open surgical approach to drain the cyst and pack the cavity with bone graft material from the arm or leg. As well as being a long and expensive procedure, this can leave a significant opening in the jaw requiring facial stitches and a long recovery. An alternative, minimally invasive approach drains the cyst through the mouth and, rather than performing a bone graft, allows the bone is allowed to regrow naturally. To allow the cyst to be kept clean whilst healing, a nasopharyngeal tube is inserted down into the cyst via the gingiva. While preferable, this method can be uncomfortable for patients due to the tube’s irritating presence in the mouth, and there is an ongoing risk of food or other foreign bodies entering the cyst. This project investigtaed soft mateiral 3D printing as a way of producing personalised stents [1].

A 3D printed model of a patient's skull showing the odontogenic cyst

Research Aims

  • Investigate whether 3D printing is a viable method of producing personalised surgical implants

  • Identify safe, soft 3D printable materials to use for manufacturing decompression stents

Stent design

The stents are customised for each patient, but feature: a semi closed end with a one-way valve to exclude food debris from the cyst and several slots to aid in suturing to the gingiva; a bell shaped end to aid in the positioning of the stent inside the gingiva and opening into the cyst; an optional angled profile to allow the stent to be more easily located around the patient’s remaining teeth. The dimensions of the stent are determined for each patient and usually based on a 3D printed model of the patient’s skull, reconstructed from CT scans performed whilst investigating and diagonsing the cyst.

A 3D printed decompression stent (L) being inserted into a patient's mouth during surgery (R)

Material selection

The stents are manufactured from silicone on a Formlabs 3D printer. Silicone is non-irritating and has low water absoption which is essential inside the mouth - generally considered a hostile environment for many materials. Additionally, silicone is soft, making the stent more comfortable for the patient to accommodate in the mouth for an extended period of time (generally 6 months or longer).

Clinical impact and use

The stents are now being used with patients in several London hospitals. Odontogenic cysts are uncommon in the UK, however are extremely common in South Asia and Africa, where the project team also has strong clinical links. Early patients have been monitored and show good bone regrowth after around 6 months.

Collaborators

  • Mr Leo Cheng, Royal London Hospital
  • Hristina Cvetanovska, Royal London Hospital
\ No newline at end of file + Surgical Stents | Joshua Brown

Surgical Stents

Creating clinical impact through design and manufacturing engineering

Odontogenic cysts are fluid-filled voids in the jaw that can cause severe and painful swelling of the face. Treatment often involves drainage and promoting new bone growth in the empty space. Traditionally, surgeons might utilize an open surgical approach to drain the cyst and pack the cavity with bone graft material from the arm or leg. As well as being a long and expensive procedure, this can leave a significant opening in the jaw requiring facial stitches and a long recovery. An alternative, minimally invasive approach drains the cyst through the mouth and, rather than performing a bone graft, allows the bone is allowed to regrow naturally. To allow the cyst to be kept clean whilst healing, a nasopharyngeal tube is inserted down into the cyst via the gingiva. While preferable, this method can be uncomfortable for patients due to the tube’s irritating presence in the mouth, and there is an ongoing risk of food or other foreign bodies entering the cyst. This project investigtaed soft mateiral 3D printing as a way of producing personalised stents [1].

A 3D printed model of a patient's skull showing the odontogenic cyst

Research Aims

  • Investigate whether 3D printing is a viable method of producing personalised surgical implants

  • Identify safe, soft 3D printable materials to use for manufacturing decompression stents

Stent design

The stents are customised for each patient, but feature: a semi closed end with a one-way valve to exclude food debris from the cyst and several slots to aid in suturing to the gingiva; a bell shaped end to aid in the positioning of the stent inside the gingiva and opening into the cyst; an optional angled profile to allow the stent to be more easily located around the patient’s remaining teeth. The dimensions of the stent are determined for each patient and usually based on a 3D printed model of the patient’s skull, reconstructed from CT scans performed whilst investigating and diagonsing the cyst.

A 3D printed decompression stent (L) being inserted into a patient's mouth during surgery (R)

Material selection

The stents are manufactured from silicone on a Formlabs 3D printer. Silicone is non-irritating and has low water absoption which is essential inside the mouth - generally considered a hostile environment for many materials. Additionally, silicone is soft, making the stent more comfortable for the patient to accommodate in the mouth for an extended period of time (generally 6 months or longer).

Clinical impact and use

The stents are now being used with patients in several London hospitals. Odontogenic cysts are uncommon in the UK, however are extremely common in South Asia and Africa, where the project team also has strong clinical links. Early patients have been monitored and show good bone regrowth after around 6 months.

Collaborators

  • Mr Leo Cheng, Royal London Hospital
  • Hristina Cvetanovska, Royal London Hospital
\ No newline at end of file diff --git a/projects/dermaphone/index.html b/projects/dermaphone/index.html index 35545745..eb68541c 100644 --- a/projects/dermaphone/index.html +++ b/projects/dermaphone/index.html @@ -6,4 +6,4 @@ {% include figure.liquid path="assets/img/11.jpg" title="example image" class="img-fluid rounded z-depth-1" %} </div> </div> -

Collaborators

Students

The following students made major contributions to this project whilst under my supervision:
\ No newline at end of file +

Collaborators

Students

The following students made major contributions to this project whilst under my supervision:
\ No newline at end of file diff --git a/projects/human-robotix/index.html b/projects/human-robotix/index.html index dca50c2d..595c9c5c 100644 --- a/projects/human-robotix/index.html +++ b/projects/human-robotix/index.html @@ -1 +1 @@ - Wrist Manipulation Robot | Joshua Brown

Wrist Manipulation Robot

Startup Company

In 2011, the Human Robotics Group at Imperial College London designed and built Hi5 - a high performance torque feedback interface for the wrist which has been used in studies ranging from human motor control to haptic sensations and even physical treatments for neurodegenerative disorders like Parkinson’s disease. In 2020, I returned to Imperial College tasked with taking the full sized robot and producing a portable, commercialisable version.

The HRX-1 wrist manipulation robot.

The result - the HRX-1 - is a fully portable reimagining of the original robot. At less than 10KG fully packaged, it can be easily transported between research labs, clinics and researchers’ or patients’ homes. It’s 600W brushless DC motor can generate up to 4Nm of torque and the handle can measure up to 11Nm of input torque. Software is provided for control and data logging through MATLAB, which also offers integration with a variety of other devices, sensors and software packages.

The robot is now being sold through a start-up - Human Robotix Ltd. Based out of my garage in South-East London, each robot is proudly built in Britain. The robots are already being used in universities in Europe and North America with hopefully more to come.

Collaborators

  • Professor Etienne Burdet, Imperial College London
  • Professor Aaron Yurkewich, Ontario Technical University
  • Dr Ildar Farkhatdinov, University of London
\ No newline at end of file + Wrist Manipulation Robot | Joshua Brown

Wrist Manipulation Robot

Startup Company

In 2011, the Human Robotics Group at Imperial College London designed and built Hi5 - a high performance torque feedback interface for the wrist which has been used in studies ranging from human motor control to haptic sensations and even physical treatments for neurodegenerative disorders like Parkinson’s disease. In 2020, I returned to Imperial College tasked with taking the full sized robot and producing a portable, commercialisable version.

The HRX-1 wrist manipulation robot.

The result - the HRX-1 - is a fully portable reimagining of the original robot. At less than 10KG fully packaged, it can be easily transported between research labs, clinics and researchers’ or patients’ homes. It’s 600W brushless DC motor can generate up to 4Nm of torque and the handle can measure up to 11Nm of input torque. Software is provided for control and data logging through MATLAB, which also offers integration with a variety of other devices, sensors and software packages.

The robot is now being sold through a start-up - Human Robotix Ltd. Based out of my garage in South-East London, each robot is proudly built in Britain. The robots are already being used in universities in Europe and North America with hopefully more to come.

Collaborators

  • Professor Etienne Burdet, Imperial College London
  • Professor Aaron Yurkewich, Ontario Technical University
  • Dr Ildar Farkhatdinov, University of London
\ No newline at end of file diff --git a/projects/index.html b/projects/index.html index d47233a8..d593820d 100644 --- a/projects/index.html +++ b/projects/index.html @@ -1 +1 @@ - Projects | Joshua Brown

Projects

Design. Make. Experiment.

\ No newline at end of file + Projects | Joshua Brown

Projects

Design. Make. Experiment.

\ No newline at end of file diff --git a/projects/polar/index.html b/projects/polar/index.html index fe445310..cc67ab25 100644 --- a/projects/polar/index.html +++ b/projects/polar/index.html @@ -8,4 +8,4 @@ volume = {2024-June}, year = {2024}, doi = {10.31256/HSMR2024.62}, -} \ No newline at end of file +} \ No newline at end of file diff --git a/projects/robo-chick/index.html b/projects/robo-chick/index.html index 46f7447f..e6f52b93 100644 --- a/projects/robo-chick/index.html +++ b/projects/robo-chick/index.html @@ -1 +1 @@ - Robo-Chick | Joshua Brown

Robo-Chick

Investigating haptics in Animal-Robot Interaction

I spent 2019 working with a team of animal psychologists to study the effects of multi-modal stimulation on infant chicks (0-5 days old). This has involved designing and building relatively compact robots to vibrate and play sounds when pecked by a chick. It is hoped that the results from this study will inform ongoing effors to automate chicken farming using robotic and electronic devices, as well as ever fascinating strides toward creating realistic, helpful, robotic pets.

Research Aims

  • To investigate the effect of physical (vibrotactile) stimulation on infant chicks.
  • To propose a machine learning approach to classifying chick calls.
  • To inform future developments in the field of agri-robotics with ah emphasis on improving animal welfare.

Social Robots

Social robots are robots whose key purpose is to elicit some form of attachment in another agent, rather tham providing a more conventional service. Unlike many conventional social robotics projects, this exercise aims to develop social robots for animals. To this end, we take a multimodal approach to interaction design, with experiments ongoing to study the use of visual, auditory and tactile stimuli, as well as the automated classification and understanding of auditory calls from infant chicks.

Collaborators

  • Dr Elisabetta Versace, Queen Mary University of London
  • Dr Lorenzo Jamone, Queen Mary University of London
  • Dr Shuge Wang, Queen Mary University of London

Funding

  • UK Research and Innovation

References

\ No newline at end of file + Robo-Chick | Joshua Brown

Robo-Chick

Investigating haptics in Animal-Robot Interaction

I spent 2019 working with a team of animal psychologists to study the effects of multi-modal stimulation on infant chicks (0-5 days old). This has involved designing and building relatively compact robots to vibrate and play sounds when pecked by a chick. It is hoped that the results from this study will inform ongoing effors to automate chicken farming using robotic and electronic devices, as well as ever fascinating strides toward creating realistic, helpful, robotic pets.

Research Aims

  • To investigate the effect of physical (vibrotactile) stimulation on infant chicks.
  • To propose a machine learning approach to classifying chick calls.
  • To inform future developments in the field of agri-robotics with ah emphasis on improving animal welfare.

Social Robots

Social robots are robots whose key purpose is to elicit some form of attachment in another agent, rather tham providing a more conventional service. Unlike many conventional social robotics projects, this exercise aims to develop social robots for animals. To this end, we take a multimodal approach to interaction design, with experiments ongoing to study the use of visual, auditory and tactile stimuli, as well as the automated classification and understanding of auditory calls from infant chicks.

Collaborators

  • Dr Elisabetta Versace, Queen Mary University of London
  • Dr Lorenzo Jamone, Queen Mary University of London
  • Dr Shuge Wang, Queen Mary University of London

Funding

  • UK Research and Innovation

References

\ No newline at end of file diff --git a/projects/rsvp/index.html b/projects/rsvp/index.html index 1fe41051..62968b1b 100644 --- a/projects/rsvp/index.html +++ b/projects/rsvp/index.html @@ -10,4 +10,4 @@ title = {The Role of Perspective Cues in RSVP}, url = {http://ieeexplore.ieee.org/document/8107944/}, year = {2017}, -} \ No newline at end of file +} \ No newline at end of file diff --git a/projects/soft-haptics/index.html b/projects/soft-haptics/index.html index c11d520c..934ffb95 100644 --- a/projects/soft-haptics/index.html +++ b/projects/soft-haptics/index.html @@ -40,4 +40,4 @@ title = {Soft Haptic Interface based on Vibration and Particle Jamming}, volume = {2020-March}, year = {2020}, -} \ No newline at end of file +} \ No newline at end of file diff --git a/projects/surgical-models/index.html b/projects/surgical-models/index.html index 79f1c2d9..a4192c82 100644 --- a/projects/surgical-models/index.html +++ b/projects/surgical-models/index.html @@ -1 +1 @@ - 3D Printed Surgical Models | Joshua Brown

3D Printed Surgical Models

Real-feel surgical simulators

Complex surgical procedures are difficult to train with computer generated simulations due to the dexterity required by surgeons. In some cases, physical models cannot be matched, however commercially avaialble models are expensive and often oversimplified to be easily mass producable. This project investigates 3D printing and silicone casting as a means of producing highly accurate surgical models with realistic anatomy and tactile feel.

Research Aims

  • To investigate ways of using 3D printing to produce highly realistic surgical models
  • To assess which surgical specialisms can benefit from physical anatomical models for simulation training
  • To evaluate the benefit of physical models for training surgeons in complex procedures
  • To identify affordable and easily workable materials that can realistically simulate the properties of soft tissues

Orthopaedic Hand Surgery

The first model I was involed in creating was a simulation of a carpal tunnel patient. In carpal tunnel syndrome, the transverse carpal ligament traps and exerts pressure on the median nerve, so it must be cut open to release pressure on the nerve. To do this, an incision is made in the palm of the hand and the ligament cut from below. A CT scan of a real hand was used to create a skeleton and skin model, which were composited together to make a mould that could accommodate 3D printed plastic bones. A section of the palm of the hand was then cut away and redesigned to feature the major tissue layers that a surgeon would expect to encounter whilst making their incision: skin; superficial fat; fascia; deep fat; ligament; and muscle. A nerve was pre-cast and inserted under the ligament before casting. The model is currently undergoing being validated with hand surgeons at several London hospitals.

The carpal tunnel release model

Collaborators

  • Mr Maxim Horwitz, Chelsea and Westminster Hospital
  • Dr Sofia Chacon, Chelsea and Westminster Hospital
  • Dr Reza Haghighi Osgouei, Imperial College London
  • Dr Orene Greer, Imperial College London
\ No newline at end of file + 3D Printed Surgical Models | Joshua Brown

3D Printed Surgical Models

Real-feel surgical simulators

Complex surgical procedures are difficult to train with computer generated simulations due to the dexterity required by surgeons. In some cases, physical models cannot be matched, however commercially avaialble models are expensive and often oversimplified to be easily mass producable. This project investigates 3D printing and silicone casting as a means of producing highly accurate surgical models with realistic anatomy and tactile feel.

Research Aims

  • To investigate ways of using 3D printing to produce highly realistic surgical models
  • To assess which surgical specialisms can benefit from physical anatomical models for simulation training
  • To evaluate the benefit of physical models for training surgeons in complex procedures
  • To identify affordable and easily workable materials that can realistically simulate the properties of soft tissues

Orthopaedic Hand Surgery

The first model I was involed in creating was a simulation of a carpal tunnel patient. In carpal tunnel syndrome, the transverse carpal ligament traps and exerts pressure on the median nerve, so it must be cut open to release pressure on the nerve. To do this, an incision is made in the palm of the hand and the ligament cut from below. A CT scan of a real hand was used to create a skeleton and skin model, which were composited together to make a mould that could accommodate 3D printed plastic bones. A section of the palm of the hand was then cut away and redesigned to feature the major tissue layers that a surgeon would expect to encounter whilst making their incision: skin; superficial fat; fascia; deep fat; ligament; and muscle. A nerve was pre-cast and inserted under the ligament before casting. The model is currently undergoing being validated with hand surgeons at several London hospitals.

The carpal tunnel release model

Collaborators

  • Mr Maxim Horwitz, Chelsea and Westminster Hospital
  • Dr Sofia Chacon, Chelsea and Westminster Hospital
  • Dr Reza Haghighi Osgouei, Imperial College London
  • Dr Orene Greer, Imperial College London
\ No newline at end of file diff --git a/projects/tactile-mouse/index.html b/projects/tactile-mouse/index.html index 861b6b97..f3502f48 100644 --- a/projects/tactile-mouse/index.html +++ b/projects/tactile-mouse/index.html @@ -6,4 +6,4 @@ pages = {1152}, title = {Towards a Portable, Affordable Tactile Display}, year = {2021}, -} \ No newline at end of file +} \ No newline at end of file diff --git a/projects/teleoperation/index.html b/projects/teleoperation/index.html index 0266cdcb..1ccb464f 100644 --- a/projects/teleoperation/index.html +++ b/projects/teleoperation/index.html @@ -1 +1 @@ - Underwater Robot Teleoperation | Joshua Brown

Underwater Robot Teleoperation

Applied haptics

Towards the end of my PhD, I was able to visit York University in Canada to conduct a study investigating the usefulness of haptic feedback when presenting environmental information from a teleoperated underwater robot. This consisted of an experiment in which my interactive soft haptic touchpad was connected to a Blue Robotics BlueROV2. The touchpad was used to control speed and direction whilst the robot passed through a cross-current to reach and inspect a floating target.

Research Aims

  • To understand the usefulness of multimodal haptic feedback in interpreting the movements of a remote robot.

  • To understand how different aspects of the robot’s motion and environment can be represented by different haptic effects.

  • To assess the benefit of haptic feedback in a difficult real world task.

Particle Jamming

Particle jamming refers to an active area of research in condensed matter physics. The jamming of particles in a fluid has been proposed as a physical phase transition and refers to a state where the particles that make up that fluid are packed in such a way that they are physically connected to any adjacent particles. Jammed fluids are, by definition, denser than the same material in an unjammed state, and this leads to many changes in their properties, such as increased viscosity and stiffness.

Prorotype Haptic Device

A prototype for a novel haptic device based on the particle jamming effect described above was completed in early 2019 (photo at the top of the page) and very kindly funded by the IEEE Technical Committee on Haptics. The initial prototype consists of a rigid case filled with small particles, covered by a silicone touch pad. This mechanical device can be connected to an electronic vacuum regulator to control the strength of the jamming effect. This device uses a simple vacuum pump to generate an area of low pressure inside the case, forcing the soft cover into the device and causing the particles to jam. An ERM type vibrating motor is loosly suspended in the fluid to provide vibrations which are then restricted by the jamming of the particles.

User Studies

Once the phsyical characterization of this device is completed, I plan to undertake some simple user studies to determine the psychophysical effect of using particle jamming to control the ‘intensity’ of the vibrations. I will then use the device, either on its own or integrated into a joystick or other computer input device, to perform a number of application based experiments such as material identification from a recorded vibrotactile texture and telerobot control in difficult environments, for example underwater in the presence of a strong cross-current.

Collaborators

  • Professor Michael Jenkin, York University

Funding

  • UKRI and Mitacs via the Globalink UK-Canada Doctoral Exchange Scheme
  • NSERC National Canadian Robotics Network
\ No newline at end of file + Underwater Robot Teleoperation | Joshua Brown

Underwater Robot Teleoperation

Applied haptics

Towards the end of my PhD, I was able to visit York University in Canada to conduct a study investigating the usefulness of haptic feedback when presenting environmental information from a teleoperated underwater robot. This consisted of an experiment in which my interactive soft haptic touchpad was connected to a Blue Robotics BlueROV2. The touchpad was used to control speed and direction whilst the robot passed through a cross-current to reach and inspect a floating target.

Research Aims

  • To understand the usefulness of multimodal haptic feedback in interpreting the movements of a remote robot.

  • To understand how different aspects of the robot’s motion and environment can be represented by different haptic effects.

  • To assess the benefit of haptic feedback in a difficult real world task.

Particle Jamming

Particle jamming refers to an active area of research in condensed matter physics. The jamming of particles in a fluid has been proposed as a physical phase transition and refers to a state where the particles that make up that fluid are packed in such a way that they are physically connected to any adjacent particles. Jammed fluids are, by definition, denser than the same material in an unjammed state, and this leads to many changes in their properties, such as increased viscosity and stiffness.

Prorotype Haptic Device

A prototype for a novel haptic device based on the particle jamming effect described above was completed in early 2019 (photo at the top of the page) and very kindly funded by the IEEE Technical Committee on Haptics. The initial prototype consists of a rigid case filled with small particles, covered by a silicone touch pad. This mechanical device can be connected to an electronic vacuum regulator to control the strength of the jamming effect. This device uses a simple vacuum pump to generate an area of low pressure inside the case, forcing the soft cover into the device and causing the particles to jam. An ERM type vibrating motor is loosly suspended in the fluid to provide vibrations which are then restricted by the jamming of the particles.

User Studies

Once the phsyical characterization of this device is completed, I plan to undertake some simple user studies to determine the psychophysical effect of using particle jamming to control the ‘intensity’ of the vibrations. I will then use the device, either on its own or integrated into a joystick or other computer input device, to perform a number of application based experiments such as material identification from a recorded vibrotactile texture and telerobot control in difficult environments, for example underwater in the presence of a strong cross-current.

Collaborators

  • Professor Michael Jenkin, York University

Funding

  • UKRI and Mitacs via the Globalink UK-Canada Doctoral Exchange Scheme
  • NSERC National Canadian Robotics Network
\ No newline at end of file diff --git a/projects/walking-aid/index.html b/projects/walking-aid/index.html index 15a2742e..9b1ed6e5 100644 --- a/projects/walking-aid/index.html +++ b/projects/walking-aid/index.html @@ -1 +1 @@ - WA-LLE | Joshua Brown

WA-LLE

Walking Aid - Limitless Living for the Elderly

During the final year of my degree, I was part of a team of students working on a robotic walking aid to improve mobility and activity levels among the elderly and disabled. This consisted of a number of ‘passive’ features to make moving around without a wheelchair easier. Unfortunately, course constraints prevented us from undertaking any extended user studies with our system, but the project was still a fun and interesting effort to produce a robot for a demographic that can sometimes have a fraught relationship with technology.

Research Aims

  • To improve activity levels among elderly and disabled people.
  • To investigate technological approaches to early diagnosis of lower-limb affecting skeletal and neurological disorders.

Obstacle Avoidance and Differential Braking

One of the key aims of the project was to improve activity among elderly people through the use of technology. One factor we identified as an inhibitor to activity is lack of confidence in being able to navigate what can be quite busy, constrained indoor environments. The smart walking aid attempts to combat this with an array of distance sensors to detect static obstacles and steer the user away from them. For safety reasons, and so as not to remove the user’s sense of autonomy, we decided not to outfit the walking aid with a powered propulsion system, so I devised a system of differential braking that would steer the user away from objects in their path without actually powering the walking aid’s wheels.

Fall Detection

An important aspect of activity and wellbeing for elderly and disabled people is independence. We therefore wanted to develop systems that would make it easier for users to walk in the walking aid without needing carers to escort them. A solution to one part of this problem was the development of a fall detection system that would register if the user had fallen over and alert emergency services and/or relatives to the user’s situation and location. This was done using a combination of an IMU fitted to the user’s belt and a body tracking camera.

Gait analysis

As an extension of the initial project, aimed at mobile healthcare technologies, we were challenged to develop a system that could use machine learning to warn of possible abnormalities in the user’s gait that might indicate a sleletal or neurological disorder. A more advanced visual lower limb tracking system was developed for this, as well as grip force sensors in the walking aid’s handles. This was used to record medical students mimicing several recognised abnormal gaits, with machine learning software then matching the symmetry and step periodicity against the user’s gait. Recordings of abnormal gaits are then saved on a smartphone app for review by medical professinals, who can make a proper assessment and give an offical diagnosis if they deem it necessary.

Project Supervision

  • Professor Yiannis Demiris, Imperial College London
\ No newline at end of file + WA-LLE | Joshua Brown

WA-LLE

Walking Aid - Limitless Living for the Elderly

During the final year of my degree, I was part of a team of students working on a robotic walking aid to improve mobility and activity levels among the elderly and disabled. This consisted of a number of ‘passive’ features to make moving around without a wheelchair easier. Unfortunately, course constraints prevented us from undertaking any extended user studies with our system, but the project was still a fun and interesting effort to produce a robot for a demographic that can sometimes have a fraught relationship with technology.

Research Aims

  • To improve activity levels among elderly and disabled people.
  • To investigate technological approaches to early diagnosis of lower-limb affecting skeletal and neurological disorders.

Obstacle Avoidance and Differential Braking

One of the key aims of the project was to improve activity among elderly people through the use of technology. One factor we identified as an inhibitor to activity is lack of confidence in being able to navigate what can be quite busy, constrained indoor environments. The smart walking aid attempts to combat this with an array of distance sensors to detect static obstacles and steer the user away from them. For safety reasons, and so as not to remove the user’s sense of autonomy, we decided not to outfit the walking aid with a powered propulsion system, so I devised a system of differential braking that would steer the user away from objects in their path without actually powering the walking aid’s wheels.

Fall Detection

An important aspect of activity and wellbeing for elderly and disabled people is independence. We therefore wanted to develop systems that would make it easier for users to walk in the walking aid without needing carers to escort them. A solution to one part of this problem was the development of a fall detection system that would register if the user had fallen over and alert emergency services and/or relatives to the user’s situation and location. This was done using a combination of an IMU fitted to the user’s belt and a body tracking camera.

Gait analysis

As an extension of the initial project, aimed at mobile healthcare technologies, we were challenged to develop a system that could use machine learning to warn of possible abnormalities in the user’s gait that might indicate a sleletal or neurological disorder. A more advanced visual lower limb tracking system was developed for this, as well as grip force sensors in the walking aid’s handles. This was used to record medical students mimicing several recognised abnormal gaits, with machine learning software then matching the symmetry and step periodicity against the user’s gait. Recordings of abnormal gaits are then saved on a smartphone app for review by medical professinals, who can make a proper assessment and give an offical diagnosis if they deem it necessary.

Project Supervision

  • Professor Yiannis Demiris, Imperial College London
\ No newline at end of file diff --git a/projects/xr-med-ed/index.html b/projects/xr-med-ed/index.html index 38df645f..85f32dfd 100644 --- a/projects/xr-med-ed/index.html +++ b/projects/xr-med-ed/index.html @@ -1 +1 @@ - Haptics in Medical Training | Joshua Brown

Haptics in Medical Training

Haptics and XR for Medical Education

Medicine is an inherently hands-on field of study, with students needing to learn important dexterous clinical skills used in physical examination and surgery. Whilst students are often given opportunities to practice these during placements and residencies, these opportunities are inherently ad-hoc and there is never any guarantee that a medical student will encounter a full range of examinations and conditions during their time in hospital. Student experience in some supernumary specialisms such as dermatology is particularly inconsistent. This project aims to combine haptics and extended reality to create realistic, instructive simulations of the physical examinations taught in the undergraduate medical curriculum to allow students to learn and practice these skills in a consistent and low-risk environment before being asked to perform them on a patient.

Research Aims

  • Investigate the challenges in teaching manual skills to medical students
  • Investigate approaches to simulating soft tissues using haptic devices
  • Explore the benefits of haptic extended reality simulations on student engagement, information retention and confindence

Physical Exmaination

Undergraduate medical students need to learn a wide range of physical examinations, from intimate examinations of the rectum and breast to complex and highly procedural examinations of the neurological end vascular systems. These are examined during medical school throigh practical examinations known as OSCEs which students must pass to continue their studies. Whilst some of these examinations are taught using benchtop models, students usually practice examinations on healthy peers or simulated patients, recieving limited feedback and no exposure to pathology. This project focusses on four physical exmainations for which there is not currently any educational simulation: dermatology, lumps, vascular, and the peripheral neurological examination.

Virtual reality simulations of an abdominal exmaination (L) and neurological examination (R)

The Role of Haptics

The advantages of including haptic feedback in simulations of physical exmainations is obvious. When examining a lump, a doctor must take note if it’s hardness, texture, mobility, any indications of fluid build up or plusation. Similarly, an examination of the vascular system may reveal high or low skin temperature (indicaitng abnormal blood flow) and a variety of pulse characters. Using haptics to simulate these physical symptoms teaches students to recognise potentially subtle or unintuitive indications, and has the potential to coach dexterous skills that are often missed in conventional teaching.

Deployment and Impact

The project is a collaboration with the Imprial College School of Medicine. Medical students will participant in pilots of the simulations during their clinical skills and methods classes, and work is underway to organize the long-term inclusion of these simulations in the undergraduate medical curriculum.

Collaborators

  • Professor Fernando Bello, Imperial College London
  • Dr Lynette Jones, Massachusetts Institute of Technology

Funding

  • Imperial College London Digital Innovation Fund
\ No newline at end of file + Haptics in Medical Training | Joshua Brown

Haptics in Medical Training

Haptics and XR for Medical Education

Medicine is an inherently hands-on field of study, with students needing to learn important dexterous clinical skills used in physical examination and surgery. Whilst students are often given opportunities to practice these during placements and residencies, these opportunities are inherently ad-hoc and there is never any guarantee that a medical student will encounter a full range of examinations and conditions during their time in hospital. Student experience in some supernumary specialisms such as dermatology is particularly inconsistent. This project aims to combine haptics and extended reality to create realistic, instructive simulations of the physical examinations taught in the undergraduate medical curriculum to allow students to learn and practice these skills in a consistent and low-risk environment before being asked to perform them on a patient.

Research Aims

  • Investigate the challenges in teaching manual skills to medical students
  • Investigate approaches to simulating soft tissues using haptic devices
  • Explore the benefits of haptic extended reality simulations on student engagement, information retention and confindence

Physical Exmaination

Undergraduate medical students need to learn a wide range of physical examinations, from intimate examinations of the rectum and breast to complex and highly procedural examinations of the neurological end vascular systems. These are examined during medical school throigh practical examinations known as OSCEs which students must pass to continue their studies. Whilst some of these examinations are taught using benchtop models, students usually practice examinations on healthy peers or simulated patients, recieving limited feedback and no exposure to pathology. This project focusses on four physical exmainations for which there is not currently any educational simulation: dermatology, lumps, vascular, and the peripheral neurological examination.

Virtual reality simulations of an abdominal exmaination (L) and neurological examination (R)

The Role of Haptics

The advantages of including haptic feedback in simulations of physical exmainations is obvious. When examining a lump, a doctor must take note if it’s hardness, texture, mobility, any indications of fluid build up or plusation. Similarly, an examination of the vascular system may reveal high or low skin temperature (indicaitng abnormal blood flow) and a variety of pulse characters. Using haptics to simulate these physical symptoms teaches students to recognise potentially subtle or unintuitive indications, and has the potential to coach dexterous skills that are often missed in conventional teaching.

Deployment and Impact

The project is a collaboration with the Imprial College School of Medicine. Medical students will participant in pilots of the simulations during their clinical skills and methods classes, and work is underway to organize the long-term inclusion of these simulations in the undergraduate medical curriculum.

Collaborators

  • Professor Fernando Bello, Imperial College London
  • Dr Lynette Jones, Massachusetts Institute of Technology

Funding

  • Imperial College London Digital Innovation Fund
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teaching

Materials for courses you taught. Replace this text with your description.

For now, this page is assumed to be a static description of your courses. You can convert it to a collection similar to _projects/ so that you can have a dedicated page for each course.

Organize your courses by years, topics, or universities, however you like!

\ No newline at end of file + teaching | Joshua Brown

teaching

Materials for courses you taught. Replace this text with your description.

For now, this page is assumed to be a static description of your courses. You can convert it to a collection similar to _projects/ so that you can have a dedicated page for each course.

Organize your courses by years, topics, or universities, however you like!

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