Overview
Chris joined UEMS in August 2017. He is a qualified Diagnostic Radiographer and has developed a high profile career to encompass academic, clinical, and commercial settings. His primary research themes are Thermal Imaging (DiTI) and decision making, particularly image interpretation, and is the creator of RadBench®
He qualified as a Diagnostic Radiographer (Bradford) in 1981 and began teaching at the North West Lancashire School of Radiography in 1986. In 1989 he joined Philips Medical Systems and had a pivotal role in the commercialization of short-bore MRI scanners. He moved to General Electric in 1995 and continued to develop his MRI expertise, particularly in the development of phased array spine coil technology (6 Sigma Black Belt); and led the public-private partnership (PPP) for the North Wales Cancer Treatment Centre. He diversified to service management in 2001 and developed the e-procurement platform with NHS PaSA. In 2003 became European Service Sales and Marketing Director, and led the development of the European Call Centre in Budapest.
He returned to higher education in 2005 as head of the Carlisle Campus at the University of Cumbria and post graduate MRI lead and commence his PhD. He is the creator of RadBench, a tool used to develop image interpretation skills. In 2012 he joined Sheffield Hallam University, developing a platform to enable eAssessment of clinical practice in partnership with MyKnowledgeMap, and developed his interest in infra-red thermal imaging. In early 2016 he joined London South Bank University as Associate Professor and professional lead for Diagnostic Radiography and also post-registration lead for the Allied Health Professions.
Chris is a qualified microlight pilot and has ratings for both flex-wing and fixed-wing aircraft.
Qualifications
- CAT1 Thermography
- PhD Lancaster (2013)
- MSc Salford (1993)
- HDCR(R) (1983)
- CertEd
- SFHEA
Research
Research interests
Chris is primarily a quantitative researcher. His primary reseach is now focussed on Thermal Imaging.
Research projects
Breast Thermal Imaging - Royal Devon & Exeter NHS Trust
Foot Thermal Imaging - Torbay NHS Trust
Imaging Interpretation skills development - Poiters, France
Research grants
- 2021 Torbay Hospital Devon.
Pilot study exploring the use of Digital infra-red thermal imaging (DITI) to help manage foot health
- 2020 Royal Devon & Exeter Foundation Trust
Pilot study exploring the potential of thermal imaging (DITI) as a diagnostic tool in routine NHS symptomatic breast cancer care.
- 2019 University of Exeter Medical School
Digital Infra-Red Thermography (DITI) and iButtons®: A Comparative Assessment of Measurement Reliability in Humans
- 0 Breast Cancer Now
Digital Infra-Red Thermal Imaging (DITI) in Symptomatic Breast Cancer
Publications
Key publications | Publications by category | Publications by year
Key publications
Wright C, Collings R, Morris J, Clausen R, Farress-Gregg V (2020). Plantar Quad-Zone Analysis: a study of healthy feet.
Thermology International,
40, 113-120.
Full text.
Publications by category
Journal articles
Knapp KM, Wright C, Clarke H, McAnulla SJ, Nightingale J (In Press). The academic radiography workforce: Age profile, succession planning and academic development.
Radiography Full text.
Wright C, Collings R, Morris J, Clausen R, Farress-Gregg V (2020). Plantar Quad-Zone Analysis: a study of healthy feet.
Thermology International,
40, 113-120.
Full text.
Tay YX, Wright C (2018). Image interpretation: Experiences from a Singapore in-house education program.
Radiography (Lond),
24(3), e69-e73.
Abstract:
Image interpretation: Experiences from a Singapore in-house education program.
INTRODUCTION: the aim of this study is to take a longitudinal approach to assess the value of an in-house program developed in a Singapore hospital over a two year period. METHODS: Radiographers (n = 48) consented to take part in the study. The control group (CG: n = 40) continued with normal working practice whilst the remaining 'additional training group' (ATG: n = 8) participated in the hospital's in-house image interpretation program. Upon completion, all participants were assessed using a RadBench® test bank. All participants then continued to work in their normal clinical practice; however the ATG received regular peer support to reinforce learning and aid further development. One year later, the same populations were invited to sit another RadBench® assessment. RESULTS: the mean accuracy of both groups was very similar at phase one (70v71%). The ATG demonstrated higher mean sensitivity (83v72%) but the CG higher mean specificity (68v56%). One year later, with continued mentor support, the ATG demonstrated a marked improvement in mean accuracy over CG (86v70%) largely driven by a marked increase in mean specificity from 56 to 87%. 43% of the ATG could deliver exceptional standards for accuracy, sensitivity and specificity, ready and able to provide reliable preliminary clinical evaluation, versus none of the CG. CONCLUSION: In-house programmes could be a cost effective approach to skills development and ideally suited to preceptorship and new employee orientation in order to assess, develop and monitor image interpretation performance.
Abstract.
Author URL.
Wright C, Reeves P (2017). Image interpretation performance: a longitudinal study from novice to professional.
Radiography,
23(1), e1-e7.
Full text.
Wright C, Reeves P (2016). RadBench: Benchmarking image interpretation skills.
Radiography,
22(2), e131-e136.
Full text.
Cole LM, Selvan AN, Partridge R, Reed H, Wright C, Clench MR (2015). Communication of medical images to diverse audiences using multimodal imaging. Advanced Structural and Chemical Imaging, 1(1).
Chapters
Wright CJ, Cole L, Selvan A, Spackman L (2017). Imaging Mass Spectroscopy: Methods and Protocols. In (Ed)
Imaging Mass Spectrometry Methods and Protocols, 2017: Humana Press, 95-123.
Abstract:
Imaging Mass Spectroscopy: Methods and Protocols
Abstract.
Publications by year
In Press
Knapp KM, Wright C, Clarke H, McAnulla SJ, Nightingale J (In Press). The academic radiography workforce: Age profile, succession planning and academic development.
Radiography Full text.
2020
Wright C, Collings R, Morris J, Clausen R, Farress-Gregg V (2020). Plantar Quad-Zone Analysis: a study of healthy feet.
Thermology International,
40, 113-120.
Full text.
2018
Tay YX, Wright C (2018). Image interpretation: Experiences from a Singapore in-house education program.
Radiography (Lond),
24(3), e69-e73.
Abstract:
Image interpretation: Experiences from a Singapore in-house education program.
INTRODUCTION: the aim of this study is to take a longitudinal approach to assess the value of an in-house program developed in a Singapore hospital over a two year period. METHODS: Radiographers (n = 48) consented to take part in the study. The control group (CG: n = 40) continued with normal working practice whilst the remaining 'additional training group' (ATG: n = 8) participated in the hospital's in-house image interpretation program. Upon completion, all participants were assessed using a RadBench® test bank. All participants then continued to work in their normal clinical practice; however the ATG received regular peer support to reinforce learning and aid further development. One year later, the same populations were invited to sit another RadBench® assessment. RESULTS: the mean accuracy of both groups was very similar at phase one (70v71%). The ATG demonstrated higher mean sensitivity (83v72%) but the CG higher mean specificity (68v56%). One year later, with continued mentor support, the ATG demonstrated a marked improvement in mean accuracy over CG (86v70%) largely driven by a marked increase in mean specificity from 56 to 87%. 43% of the ATG could deliver exceptional standards for accuracy, sensitivity and specificity, ready and able to provide reliable preliminary clinical evaluation, versus none of the CG. CONCLUSION: In-house programmes could be a cost effective approach to skills development and ideally suited to preceptorship and new employee orientation in order to assess, develop and monitor image interpretation performance.
Abstract.
Author URL.
Wright CJ, Langley C, Banks A, Hooker F, Old L (2018). Infra-Red Thermal Imaging: Evaluation of the Healthy Lower Limbs.
UKRCAbstract:
Infra-Red Thermal Imaging: Evaluation of the Healthy Lower Limbs
Lower limb ischemia is common in peripheral artery disease and diabetes. This study explores the use of Infra-Red (IR) Thermal imaging to assess upper to lower leg temperature in healthy volunteers (n=4) to consider a normal point of reference.
A FLIR T650 IR thermal imaging camera was used in a temperature controlled environment. BMI was calculated from height and weight. Phase 1; 12 single shot standing images acquired over several hours. Phase 2; 16 images with added thigh marker and foot positioner two days later. Reviewers measured the temperature in both legs from thigh to ankle. Assessments were made of intra and inter operator reliability using the root mean square standard deviation (RMSSD) and the root mean square coefficient of variation (RMSCV%).
Both legs are the same temperature in healthy volunteers (+/-0.05 degrees), typically with a negative gradient from thigh to ankle and a warm ‘spike’ around the knee. Intra-operator RMSCV% (RMSSD) for Phase 1: 18.65% (0.74); Phase 2: 3.84% (0.28). Inter-operator RMSCV% (RMSSD) for Phase 1: 9.31% (0.38); Phase 2: 3.70% (0.24). A moderate correlation is noted between temperature gradient and BMI (r=0.45).
IR Thermal imaging of the lower limbs is a non-invasive technique that is relatively easy to perform, with positioning technique closely related to projection imaging, and ideally suited to the extended radiographer role. Use of the thermo-sensitive thigh maker combined with development and application of a foot template to aid positioning reduced measurement error and deliver increased reliability.
Abstract.
2017
Wright CJ, Akimoto T, Reeves P (2017). Benchmarking Image Interpretation Performance: a Multicentre Undergraduate Study.
UKRCAbstract:
Benchmarking Image Interpretation Performance: a Multicentre Undergraduate Study
Aim: the SCoR (2013) policy expects radiographers to be able to make reliable decisions on the images they produce. Image interpretation has been integrated into all undergraduate degree programmes. Therefore this project aimed to benchmark and compare PCE competencies of undergraduate diagnostic radiography students from different universities.
Methods: all 21 Universities in England & Wales delivering diagnostic radiography education were invited to participate; 9 agreed. Final year students (n=87) at the point of graduation participated. The test contained 30 blind double reported MSK images with equal prevalence of normal and abnormal.
Results: Accuracy ranged from 56 to 87%; mean 73.4, SD 8.01. Sensitivity ranged from 47 to 100%; mean 79.6, SD 10.78. Specificity ranged from 20 to 100%; mean 67.1, SD 16.42. A weak correlation in accuracy by university was demonstrated (r2=0.266) highlighting the wide range of graduate performance. One-way ANOVA (with PostHoc Tukey) highlighted a statistically significant difference in Specificity (F (8, 78) = 3.40, p = 0.002) at University a (CI: -47.4/-4.5).
Conclusion: This project is the first to benchmark and compare PCE competencies of radiography students from multiple universities. Whilst image interpretation is now a routine part of undergraduate degree education, the capability of graduates varies and few appear to be able to meet a 'reliable' standard, highlighting the need for further training prior to participation in abnormality signalling systems. A follow-up study is recommended to increase reliability.
Abstract.
Wright C, Reeves P (2017). Image interpretation performance: a longitudinal study from novice to professional.
Radiography,
23(1), e1-e7.
Full text.
Wright CJ, Cole L, Selvan A, Spackman L (2017). Imaging Mass Spectroscopy: Methods and Protocols. In (Ed)
Imaging Mass Spectrometry Methods and Protocols, 2017: Humana Press, 95-123.
Abstract:
Imaging Mass Spectroscopy: Methods and Protocols
Abstract.
2016
Wright C, Reeves P (2016). RadBench: Benchmarking image interpretation skills.
Radiography,
22(2), e131-e136.
Full text.
Wright CJ, Higgins S (2016). Traffic Light: an Alternative Approach to Abnormality Signalling.
Abstract:
Traffic Light: an Alternative Approach to Abnormality Signalling
'Red dot' is the most common form of abnormality detection system in clinical practice. The SCoR 2013 policy recommends replacement with preliminary clinical evaluation (PCE) however this requires a different skill set and radiographers are arguably not yet ready for this change. Radiographers (n=39) at a busy NHS hospital were required to make a decision on every patient examined for three weeks. 'Red' = Abnormal, 'Green' = Normal, 'Amber' = Unsure; and provide a preliminary clinical evaluation (PCE). Quantitative analysis of responses enabled assessment of accuracy, sensitivity and specificity. Qualitative analysis of the PCE’s enabled assessment of written description versus the actual report.
The total number of examinations undertaken in the accident and emergency department was 1411. 39 radiographers took part in the study although 14 effectively disengaged by simply applying an amber dot to all cases and made no attempt at PCE. 34% (n=484) of cases received a red or green response. Analysis of the red (n=133) decisions reveals an overall sensitivity performance range from 50 to 100% with a mean of 88.2%, green (n=355) reveals a specificity performance range from 67 to 100% with a mean of 96.1%. Overall accuracy ranged from 60 to 100% with a mean of 93.4%. 66% (n=927) received an amber response.
Analysis reveals the most problematic body parts.
The traffic light system requires a response to every image taken, providing a clear indication to the referring clinician; a major advantage over red dot. Further development of some radiographers may be necessary for them to reliably partake in ‘traffic light’. Establishing an individual image interpretation benchmark performance by radiographer is recommended before participating in any form of abnormality signalling system.
Abstract.
2015
Cole LM, Selvan AN, Partridge R, Reed H, Wright C, Clench MR (2015). Communication of medical images to diverse audiences using multimodal imaging. Advanced Structural and Chemical Imaging, 1(1).
Chris_Wright Details from cache as at 2020-12-05 04:54:08
Refresh publications
External Engagement and Impact
Committee/panel activities
2017-19 - Equality & Diversity Group - University of Exeter
2017- present - Admissions Selection and Advisory Group - University of Exeter
Editorial responsibilities
2013-Present Reviewer 'Radiography'
External positions
2019-2020- Co-Lead - CAHPR
2019- Present - Consultant - Poiter's Hospital, France
2019 - Present - External Examiner - Masters Program (MRI/CT/Image Interpretation), Glasgow Caledonian University
2019 External Examiner - MSc (MRI), Vivas, University of Malta
2017 External Examiner - MbyRes (MRI), Viva University College Dublin
2017-present - European Association of Thermology
2015 – Present – CHAIR - Magnetic Resonance Advisory Group (MRAG) – Society & College of Radiographers
2016-present Formal Radiography Research Mentorship (FoRRM) scheme mentor
2017-2019 – Research Advisory Group (RAG) - Society & College of Radiographers
Teaching
Image interpretation
Thermal Imaging
Modules
2020/21
Supervision / Group
Postgraduate researchers
- Salman Alharthi PhD
- James Girling
- Diane Smith M by Res
