Perspective review of what is needed for molecular-specific fluorescence-guided surgery
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Samuel Achilefu | Brian W Pogue | Eben L Rosenthal | Gooitzen M van Dam | B. Pogue | S. Achilefu | E. Rosenthal | G. V. van Dam
[1] Richard A. Gibbs,et al. Overview of the Development of Personalized Genomic Medicine and Surgery , 2011, World Journal of Surgery.
[2] R. Jain,et al. Challenges and key considerations of the enhanced permeability and retention effect for nanomedicine drug delivery in oncology. , 2013, Cancer research.
[3] Vasilis Ntziachristos,et al. Drug-Based Optical Agents: Infiltrating Clinics at Lower Risk , 2012, Science Translational Medicine.
[4] Vasilis Ntziachristos,et al. Emerging Intraoperative Imaging Modalities to Improve Surgical Precision , 2018, Molecular Imaging and Biology.
[5] E. Rosenthal,et al. Use of Panitumumab-IRDye800 to Image Microscopic Head and Neck Cancer in an Orthotopic Surgical Model , 2012, Annals of Surgical Oncology.
[6] Yukihiko Hiroshima,et al. Successful fluorescence-guided surgery on human colon cancer patient-derived orthotopic xenograft mouse models using a fluorophore-conjugated anti-CEA antibody and a portable imaging system. , 2014, Journal of laparoendoscopic & advanced surgical techniques. Part A.
[7] Banghe Zhu,et al. A matter of collection and detection for intraoperative and noninvasive near-infrared fluorescence molecular imaging: to see or not to see? , 2014, Medical physics.
[8] Michael M. Schmidt,et al. Factors determining antibody distribution in tumors. , 2008, Trends in pharmacological sciences.
[9] Leonora S. F. Boogerd,et al. Setting Standards for Reporting and Quantification in Fluorescence-Guided Surgery , 2018, Molecular Imaging and Biology.
[10] W. Gallagher,et al. RGD conjugated cell uptake off to on responsive NIR-AZA fluorophores: applications toward intraoperative fluorescence guided surgery , 2019, Chemical science.
[11] Ralph Weissleder,et al. A Systems Approach for Tumor Pharmacokinetics , 2011, PloS one.
[12] Linton T. Evans,et al. Simultaneous In Vivo Fluorescent Markers for Perfusion, Protoporphyrin Metabolism, and EGFR Expression for Optically Guided Identification of Orthotopic Glioma , 2016, Clinical Cancer Research.
[13] B. Tromberg,et al. SINGLET OXYGEN GENERATION OF PORPHYRINS, CHLORINS, AND PHTHALOCYANINES , 1989, Photochemistry and photobiology.
[14] Eben L. Rosenthal,et al. Putting Numbers to Fluorescent Guided Surgery , 2013, Molecular Imaging and Biology.
[15] Brian W Pogue,et al. Microdose fluorescence imaging of ABY-029 on an operating microscope adapted by custom illumination and imaging modules. , 2016, Biomedical optics express.
[16] Brian W Pogue,et al. Review of fluorescence guided surgery systems: identification of key performance capabilities beyond indocyanine green imaging , 2016, Journal of biomedical optics.
[17] P. Vogt,et al. Novadaq Spy Intraoperative Imaging System--current status. , 2003, The Thoracic and cardiovascular surgeon.
[18] Alexander L Vahrmeijer,et al. Oncologic Procedures Amenable to Fluorescence-guided Surgery , 2017, Annals of surgery.
[19] Dana H Brooks,et al. Multichannel correlation improves the noise tolerance of real-time hyperspectral microimage mosaicking , 2019, Journal of biomedical optics.
[20] Herbert Stepp,et al. Seven years' experience with 5-aminolevulinic acid in detection of transitional cell carcinoma of the bladder. , 2007, Urology.
[21] Eben L. Rosenthal,et al. Intraoperative Pancreatic Cancer Detection using Tumor-Specific Multimodality Molecular Imaging , 2018, Annals of Surgical Oncology.
[22] Kevin Petrecca,et al. Neural networks improve brain cancer detection with Raman spectroscopy in the presence of operating room light artifacts , 2016, Journal of biomedical optics.
[23] E. Rosenthal,et al. Use of Panitumumab-IRDye800 to Image Cutaneous Head and Neck Cancer in Mice , 2013, Otolaryngology--head and neck surgery : official journal of American Academy of Otolaryngology-Head and Neck Surgery.
[24] Brian W. Pogue,et al. Fluorescent Affibody Molecule Administered In Vivo at a Microdose Level Labels EGFR Expressing Glioma Tumor Regions , 2016, Molecular Imaging and Biology.
[25] V. Ntziachristos,et al. Optical innovations in surgery , 2015, The British journal of surgery.
[26] Milton V. Marshall,et al. Imaging of lymph flow in breast cancer patients after microdose administration of a near-infrared fluorophore: feasibility study. , 2008, Radiology.
[27] Banghe Zhu,et al. Non-invasive fluorescence imaging under ambient light conditions using a modulated ICCD and laser diode. , 2014, Biomedical optics express.
[28] M. Bawendi,et al. Renal clearance of quantum dots , 2007, Nature Biotechnology.
[29] A. Nunn. Molecular imaging and personalized medicine: an uncertain future. , 2007, Cancer biotherapy & radiopharmaceuticals.
[30] Mireille Rosenberg,et al. cGMP-Compatible preparative scale synthesis of near-infrared fluorophores. , 2012, Contrast media & molecular imaging.
[31] B. Pogue,et al. Application of Fluorescence-Guided Surgery to Subsurface Cancers Requiring Wide Local Excision , 2018, Cancer control : journal of the Moffitt Cancer Center.
[32] Bin Chen,et al. Fluorescence Imaging in Vivo: Raster Scanned Point-Source Imaging Provides More Accurate Quantification than Broad Beam Geometries , 2004, Technology in cancer research & treatment.
[33] Jeffrey Gahan,et al. Photodynamic diagnosis in urology: state of the art. , 2011, Archivos espanoles de urologia.
[34] G. Mowatt,et al. Photodynamic diagnosis of bladder cancer compared with white light cystoscopy: Systematic review and meta-analysis , 2011, International Journal of Technology Assessment in Health Care.
[35] Kevin Petrecca,et al. Highly Accurate Detection of Cancer In Situ with Intraoperative, Label-Free, Multimodal Optical Spectroscopy. , 2017, Cancer research.
[36] T. Shuin,et al. Oral 5-aminolevulinic acid mediated photodynamic diagnosis using fluorescence cystoscopy for non-muscle-invasive bladder cancer: A randomized, double-blind, multicentre phase II/III study. , 2015, Photodiagnosis and photodynamic therapy.
[37] Hak Soo Choi,et al. Design considerations for tumour-targeted nanoparticles. , 2010, Nature nanotechnology.
[38] V. Ntziachristos,et al. Towards a Successful Clinical Implementation of Fluorescence-Guided Surgery , 2013, Molecular Imaging and Biology.
[39] Vasilis Ntziachristos,et al. Tumor-Specific Uptake of Fluorescent Bevacizumab–IRDye800CW Microdosing in Patients with Primary Breast Cancer: A Phase I Feasibility Study , 2016, Clinical Cancer Research.
[40] A. Nunn,et al. The Cost of Developing Imaging Agents for Routine Clinical Use , 2006, Investigative radiology.
[41] Tayyaba Hasan,et al. Vision 20/20: Molecular-guided surgical oncology based upon tumor metabolism or immunologic phenotype: Technological pathways for point of care imaging and intervention. , 2016, Medical physics.
[42] Walter Stummer,et al. Simultaneous fluorescein sodium and 5-ALA in fluorescence-guided glioma surgery , 2015, Acta Neurochirurgica.
[43] Keith D Paulsen,et al. Successful Translation of Fluorescence Navigation During Oncologic Surgery: A Consensus Report , 2016, The Journal of Nuclear Medicine.
[44] B. Pogue,et al. Image-derived arterial input function for quantitative fluorescence imaging of receptor-drug binding in vivo. , 2016, Journal of biophotonics.
[45] S. Achilefu,et al. Binocular Goggle Augmented Imaging and Navigation System provides real-time fluorescence image guidance for tumor resection and sentinel lymph node mapping , 2015, Scientific Reports.
[46] M. Goldenberg,et al. Pharmaceutical approval update. , 2013, P & T : a peer-reviewed journal for formulary management.
[47] Timothy C Zhu,et al. Fluorescence‐guided surgery and intervention — An AAPM emerging technology blue paper , 2018, Medical physics.
[48] Abe Fingerhut,et al. Clinical applications of indocyanine green (ICG) enhanced fluorescence in laparoscopic surgery , 2014, Surgical Endoscopy.
[49] Alaattin Erkanli,et al. Oxygen and Perfusion Kinetics in Response to Fractionated Radiation Therapy in FaDu Head and Neck Cancer Xenografts Are Related to Treatment Outcome. , 2016, International journal of radiation oncology, biology, physics.
[50] T. Nagayasu,et al. In vivo fluorescence navigation of gastric and upper gastrointestinal tumors by 5-aminolevulinic acid mediated photodynamic diagnosis with a laser-equipped video image endoscope. , 2015, Photodiagnosis and photodynamic therapy.
[51] Joshua S Richman,et al. Safety and Tumor Specificity of Cetuximab-IRDye800 for Surgical Navigation in Head and Neck Cancer , 2015, Clinical Cancer Research.
[52] Vasilis Ntziachristos,et al. Towards clinically translatable NIR fluorescence molecular guidance for colonoscopy. , 2013, Biomedical optics express.
[53] Joseph C Liao,et al. New optical imaging technologies for bladder cancer: considerations and perspectives. , 2012, The Journal of urology.
[54] Christopher H Contag,et al. Regulatory Aspects of Optical Methods and Exogenous Targets for Cancer Detection. , 2017, Cancer research.
[55] Sylvain Gioux,et al. Real-time intra-operative near-infrared fluorescence identification of the extrahepatic bile ducts using clinically available contrast agents. , 2010, Surgery.
[56] James M. Olson,et al. A technology platform to assess multiple cancer agents simultaneously within a patient’s tumor , 2015, Science Translational Medicine.
[57] Jonathan T. C. Liu,et al. Quantitative in vivo cell-surface receptor imaging in oncology: kinetic modeling and paired-agent principles from nuclear medicine and optical imaging , 2015, Physics in medicine and biology.
[58] Ralph Weissleder,et al. Quantitating Antibody Uptake In Vivo: Conditional Dependence on Antigen Expression Levels , 2011, Molecular Imaging and Biology.
[59] T. Hasan,et al. Advantages of a dual-tracer model over reference tissue models for binding potential measurement in tumors , 2012, Physics in medicine and biology.
[60] Merlijn Hutteman,et al. The clinical use of indocyanine green as a near‐infrared fluorescent contrast agent for image‐guided oncologic surgery , 2011, Journal of surgical oncology.
[61] N. S. van den Berg,et al. First-in-human intraoperative near-infrared fluorescence imaging of glioblastoma using cetuximab-IRDye800 , 2018, Journal of Neuro-Oncology.
[62] Guolan Lu,et al. Determination of Tumor Margins with Surgical Specimen Mapping Using Near-Infrared Fluorescence. , 2018, Cancer research.
[63] Stephen A. Sastra,et al. Surface-enhanced resonance Raman scattering nanostars for high-precision cancer imaging , 2015, Science Translational Medicine.
[64] Tayyaba Hasan,et al. Microscopic lymph node tumor burden quantified by macroscopic dual-tracer molecular imaging , 2014, Nature Medicine.
[65] E M Sevick-Muraca,et al. Translation of near-infrared fluorescence imaging technologies: emerging clinical applications. , 2012, Annual review of medicine.
[66] T. Hasan,et al. Accounting for pharmacokinetic differences in dual-tracer receptor density imaging , 2014, Physics in medicine and biology.
[67] P. Workman,et al. Discovery of small molecule cancer drugs: Successes, challenges and opportunities , 2012, Molecular oncology.
[68] L. Pusztai,et al. Cancer heterogeneity: implications for targeted therapeutics , 2013, British Journal of Cancer.
[69] I. Tannock,et al. Limits to Personalized Cancer Medicine. , 2016, The New England journal of medicine.
[70] Joeky T. Senders,et al. Agents for fluorescence-guided glioma surgery: a systematic review of preclinical and clinical results , 2016, Acta Neurochirurgica.
[71] P. Woodard,et al. Analysis of FDA-approved imaging agents. , 2017, Drug Discovery Today.