Abstract
The use of hyperspectral imaging for medical applications is becoming more common in recent years. One of the main obstacles that researchers find when developing hyperspectral algorithms for medical applications is the lack of specific, publicly available, and hyperspectral medical data. The work described in this paper was developed within the framework of the European project HELICoiD (HypErspectraL Imaging Cancer Detection), which had as a main goal the application of hyperspectral imaging to the delineation of brain tumors in real-time during neurosurgical operations. In this paper, the methodology followed to generate the first hyperspectral database of in-vivo human brain tissues is presented. Data was acquired employing a customized hyperspectral acquisition system capable of capturing information in the Visual and Near InfraRed (VNIR) range from 400 to 1000 nm. Repeatability was assessed for the cases where two images of the same scene were captured consecutively. The analysis reveals that the system works more efficiently in the spectral range between 450 and 900 nm. A total of 36 hyperspectral images from 22 different patients were obtained. From these data, more than 300 000 spectral signatures were labeled employing a semi-automatic methodology based on the spectral angle mapper algorithm. Four different classes were defined: normal tissue, tumor tissue, blood vessel, and background elements. All the hyperspectral data has been made available in a public repository.
Original language | English |
---|---|
Article number | 6287639 |
Pages (from-to) | 39098-39116 |
Number of pages | 19 |
Journal | IEEE Access |
Volume | 7 |
DOIs | |
Publication status | Published - 2019 |
Keywords
- biomedical imaging
- cancer detection
- Hyperspectral imaging
- image databases
- medical diagnostic imaging
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In: IEEE Access, Vol. 7, 6287639, 2019, p. 39098-39116.
Research output: Contribution to journal › Article › peer-review
TY - JOUR
T1 - In-Vivo Hyperspectral Human Brain Image Database for Brain Cancer Detection
AU - Fabelo, Himar
AU - Ortega, Samuel
AU - Szolna, Adam
AU - Bulters, Diederik
AU - Pineiro, Juan F.
AU - Kabwama, Silvester
AU - J-O'Shanahan, Aruma
AU - Bulstrode, Harry
AU - Bisshopp, Sara
AU - Kiran, B. Ravi
AU - Ravi, Daniele
AU - Lazcano, Raquel
AU - Madronal, Daniel
AU - Sosa, Coralia
AU - Espino, Carlos
AU - Marquez, Mariano
AU - De La Luz Plaza, Maria
AU - Camacho, Rafael
AU - Carrera, David
AU - Hernandez, Maria
AU - Callico, Gustavo M.
AU - Morera Molina, Jesus
AU - Stanciulescu, Bogdan
AU - Yang, Guang Zhong
AU - Salvador Perea, Ruben
AU - Juarez, Eduardo
AU - Sanz, Cesar
AU - Sarmiento, Roberto
N1 - Funding Information: This work was supported in part by the European Project HELICoiD ‘‘HypErspectraL Imaging Cancer Detection’’ under Grant 618080, funded by the European Commission through the FP7 FET (Future and Emerging Technologies) Open Programme ICT-2011.9.2, in part by the ITHaCA Project ‘‘Hyperespectral Identification of Brain Tumors’’ under Grant ProID2017010164, funded by the Canary Islands Government through the Canarian Agency for Research, Innovation and the Information Society (ACIISI), in part by the 2016 Ph.D. Training Program for Research Staff of the University of Las Palmas de Gran Canaria. The work of S. Ortega was supported in part by the pre-doctoral grant given by the ‘‘Agencia Canaria de Investigacion, Innovacion y Sociedad de la Información (ACIISI)’’ of the ‘‘Conserjería de Economía, Industria, Comercio y Conocimiento’’ of the ‘‘Gobierno de Canarias’’, which is part-financed by the European Social Fund (FSE) (POC 2014-2020, Eje 3 Tema Prioritario 74 (85%)). Funding Information: This paper presents the first in-vivo HS human brain image database, mainly generated to study its ability to delineate and identify brain tumors during surgical operations using this non-invasive and non-ionizing image modality. This database has been generated within the HELICoiD (HypEr-spectraL Imaging Cancer Detection) project. HELICoiD was an European collaborative project funded by the Research Executive Agency (REA), through the Future and Emerging Technologies (FET-Open) Programme, under the 7th Frame-work Programme of the European Union. The project was a collaboration between four universities, three industrial partners and two hospitals, where the main goal was to employ HSI to develop a methodology to discriminate between tumor and normal brain tissue in surgical-time during surgical procedures by employing machine learning techniques [47]. The integration of HSI in an intraoperative image guided surgery system could have a direct impact on the patient outcomes. Potential benefits would include allowing confirmation of complete resection during the surgical procedures, avoiding complications due to the brain shift phenomenon, and providing confidence that the goals of the surgery have been successfully achieved. Funding Information: Neurosurgeon and an Honorary Senior Clinical Lecturer with the University of Southampton and trained in Edinburgh, Southampton, and Cambridge. The team received grants from EPSRC, TSB, NIHR, EU, and Wessex Medical Research. His current research interests include neurovascular disease, neurotrauma, and neuro-oncology. Funding Information: DANIELE RAVÌ received the master’s degree (summa cum laude) in computer science from the University of Catania, in 2007, and the Ph.D. degree with the Department of Mathematics and Computer Science, University of Catania, Italy, in 2014. From 2008 to 2010, he was with STMicro-electronics (Advanced System Technology Imag-ing Group) as a Consultant. He was with the Centre for Vision, Speech and Signal Processing, Univer-sity of Surrey, U.K. Since 2014, he has been a Research Associate with the Hamlyn Centre for Robotic Surgery, Imperial College London, for almost four years. He is currently a Senior Research Associate in computer vision, machine learning, image-guided surgery and smart sensing with the Wellcome/EPSRC Centre Interventional and Surgical Sciences, University College of London. He has contributed to several research projects funded by the EU and the industry. He has co-authored different papers including book chapters, international journals, and international conference proceedings. Funding Information: From 1996 to 1997, he was granted with a research grant from the National Educational Ministry and, in 1997, he was hired by the university as an Electronic Lecturer. In 1994, he joined the Institute for Applied Microelectronics (IUMA) and, from 2000 to 2001, he stayed at Philips Research Laboratories, Eindhoven, The Netherlands, as a Visiting Scientist, where he developed his Ph.D. thesis. He currently develops his research activities in the Integrated Systems Design Division, IUMA. He is currently an Associate Professor with ULPGC. Funding Information: Since 2015, he has been responsible for the scientific-technological equipment project called Hyperspectral image acquisition system of high spatial and spectral definition, granted by the General Directorate of research and management of the National R&D Plan, funded through the General Directorate of Scientific Infrastructure. He has been the Coordinator of the European Project HELICoiD (FET, Future, and Emerging Technologies) under the Seventh Framework Program. He has more than 110 publications in national and international journals, conferences, and book chapters. He has participated in 18 research projects funded by the European Community, the Spanish Government, and international private industries. His current research interests include hyperspectral imaging for real-time cancer detection, real-time super-resolution algorithms, synthesis-based design for SOCs and circuits for multimedia processing and video coding standards, especially for H.264 and SVC. He has been an Associate Editor of the IEEE TRANSACTIONS ON CONSUMER ELECTRONICS, since 2009, where he is currently a Senior Associate Editor. He has been an Associate Editor of the IEEE ACCESS, since 2016. Funding Information: Faculty with the Telecommunication Engineering School, from 1994 to 1995 and a Vice Chancellor for Academic Affairs and a Staff with ULPGC, from 1998 to 2003. In 1993, he was a Visiting Professor with The University of Adelaida, South Australia, and later at the University of Edith Cowan, Australia. He is currently a Full Professor with the Telecommunication Engineering School, University of Las Palmas de Gran Canaria, Spain, in electronic engineering. He is also a Founder of the Research Institute for Applied Microelectronics (IUMA), where he is also the Director of the Integrated Systems Design Division. Since 1990, he has been publishing more than 50 journal papers and book chapters and more than 140 conference papers. He has been awarded with four six years research periods by the National Agency for the Research Activity Evaluation, Spain. He has participated in more than 45 projects and research programmes funded by public and private organizations, from which he has been leader researcher in 16 of them. Between these projects, it has special mention those funded by the European Union like GARDEN and the GRASS workgroup and the funded by the European Spatial Agency TRPAO8032. He has gotten several agreements with companies for the design of high performance integrated circuits, where the most important are those performed with Vitesse Semiconductor Corporation, California, Ensilica Ltd., U.K., and Thales Alenia Space, Spain. Publisher Copyright: © 2013 IEEE. Copyright: Copyright 2019 Elsevier B.V., All rights reserved.
PY - 2019
Y1 - 2019
N2 - The use of hyperspectral imaging for medical applications is becoming more common in recent years. One of the main obstacles that researchers find when developing hyperspectral algorithms for medical applications is the lack of specific, publicly available, and hyperspectral medical data. The work described in this paper was developed within the framework of the European project HELICoiD (HypErspectraL Imaging Cancer Detection), which had as a main goal the application of hyperspectral imaging to the delineation of brain tumors in real-time during neurosurgical operations. In this paper, the methodology followed to generate the first hyperspectral database of in-vivo human brain tissues is presented. Data was acquired employing a customized hyperspectral acquisition system capable of capturing information in the Visual and Near InfraRed (VNIR) range from 400 to 1000 nm. Repeatability was assessed for the cases where two images of the same scene were captured consecutively. The analysis reveals that the system works more efficiently in the spectral range between 450 and 900 nm. A total of 36 hyperspectral images from 22 different patients were obtained. From these data, more than 300 000 spectral signatures were labeled employing a semi-automatic methodology based on the spectral angle mapper algorithm. Four different classes were defined: normal tissue, tumor tissue, blood vessel, and background elements. All the hyperspectral data has been made available in a public repository.
AB - The use of hyperspectral imaging for medical applications is becoming more common in recent years. One of the main obstacles that researchers find when developing hyperspectral algorithms for medical applications is the lack of specific, publicly available, and hyperspectral medical data. The work described in this paper was developed within the framework of the European project HELICoiD (HypErspectraL Imaging Cancer Detection), which had as a main goal the application of hyperspectral imaging to the delineation of brain tumors in real-time during neurosurgical operations. In this paper, the methodology followed to generate the first hyperspectral database of in-vivo human brain tissues is presented. Data was acquired employing a customized hyperspectral acquisition system capable of capturing information in the Visual and Near InfraRed (VNIR) range from 400 to 1000 nm. Repeatability was assessed for the cases where two images of the same scene were captured consecutively. The analysis reveals that the system works more efficiently in the spectral range between 450 and 900 nm. A total of 36 hyperspectral images from 22 different patients were obtained. From these data, more than 300 000 spectral signatures were labeled employing a semi-automatic methodology based on the spectral angle mapper algorithm. Four different classes were defined: normal tissue, tumor tissue, blood vessel, and background elements. All the hyperspectral data has been made available in a public repository.
KW - biomedical imaging
KW - cancer detection
KW - Hyperspectral imaging
KW - image databases
KW - medical diagnostic imaging
UR - http://www.scopus.com/inward/record.url?scp=85065192048&partnerID=8YFLogxK
U2 - 10.1109/ACCESS.2019.2904788
DO - 10.1109/ACCESS.2019.2904788
M3 - Article
AN - SCOPUS:85065192048
SN - 2169-3536
VL - 7
SP - 39098
EP - 39116
JO - IEEE Access
JF - IEEE Access
M1 - 6287639
ER -