Hadron Therapy Proposal Tata Memorial Centre Parel, Mumbai July 2012.

Slides:



Advertisements
Similar presentations
Danny Indelicato, MD CTOS 2012 Ewing Sarcoma of the Axial Skeleton: Early Outcomes from the University of Florida Proton Therapy Program.
Advertisements

Department of Radiation Oncology. Facilities Available 3 Linear Accelerators Namely 1. Novalis Tx with 2 photon and 6 Electron beems. OBI and RPM – Gating.
The TrueBeam System ™ Clinic Name Presenter’s name Clinic location
Advanced Practice in Radiotherapy
Tumour Therapy with Particle Beams Claus Grupen University of Siegen, Germany [physics/ ] Phy 224B Chapter 20: Applications of Nuclear Physics 24.
Radiotherapy in prostate cancer Dr.Mina Tajvidi Radiation oncologist.
Radiation Protection in Radiotherapy
Radiation oncology at JINR in brief Dzhelepov Laboratory of Nuclear Problems Joint Institute for Nuclear Research, Dubna, Russia  Accelerator technique.
Stereotactic RadiologyStereotactic Radiology By: Jeremy Lishner.
Neutron Therapy Treatment For Advanced and Radioresistant Tumors Fighting Cancer with Neutrons.
WELCOME!!! FDA & MITA RT Meeting
Stereotactic Body Radiation Therapy (SBRT): The optimal indication for operable tumors in inoperable patients D.Katsochi 1, S.Kosmidis 1, A.Fotopoulou.
Radiation and Prostate Cancer Past, Present and Future Dr
Introduction to Nuclear Medicine
Heavy Ion Tumor Therapy
The Skandion clinic, plans for the use of particle beams for radiation therapy in Sweden presented by Erik Grusell, medical radiation physicist Dept of.
PAMELA Contact Author: CONFORM is an RCUK-funded Basic Technology Programme Charged Particle Therapy Treating cancer with protons and light ions Ken Peach,
The external beam radiotherapy and Image-guided radiotherapy (2)
Clinical aspects of carbon ion RT Daniela Schulz-Ertner.
Medical requirements for FFAG as proton beam sources Jacques BALOSSO, MD, PhD Radiation oncologiste UJF / INSERM / ETOILE FFAG 2007, April 12-17, 2007.
Radiotherapy in Hungary: present status and future needs Tibor Major, PhD National Institute of Oncology Radiotherapy Department Budapest, Hungary Academia.
TREATMENT PLANNING Modelling chemo-hadron therapy Lara Barazzuol | Valencia | 19 June 2009.
Clinico-Dosimetric Correlation for Acute and Chronic Gastrointestinal Toxicity in Patients of Locally Advanced Carcinoma Cervix Treated With Conventional.
TPS & Simulations within PARTNER D. Bertrand, D. Prieels Valencia, SPAIN 19 JUNE 2009.
RADIATION THERAPY By: Zach Liss. How does Radiation Therapy Work? Uses high-energy radiation to shrink tumors and kill cancer cells by damaging the DNA.
Phase II Study of Dasatinib (BMS ) in Advanced Sarcomas and Chordoma Coordinating Center: U Michigan.
Introduction to Radiation Therapy
The Radiotherapy Application NMT 232 L 8 1. Radiotherapy Generators Kilovoltage X-rays are generally used in the treatment of skin cancers and superficial.
Photoneutron Distributions around 18 MV X-ray Radiotherapy Accelerators using Nuclear Track Detectors Fazal-ur-Rehman, H. Al-Ghamdi, M. I. Al-Jarallah.
Reducing excess imaging dose to cancer patients receiving radiotherapy Adam Schwertner, Justin Guan, Xiaofei Ying, Darrin Pelland, Ann Morris, Ryan Flynn.
Clinical Application of Carbon Therapy
Improvement in Quality of Radiotherapy for Frequent Cancers Chinese Academy of Medical Sciences Cancer Hospital Manni Huang.
The Australian Hadron Therapy and Research Facility.
THE IMPLEMENTATION OF ABLATIVE HYPOFRACTIONATED RADIOTHERAPY FOR STEREOTACTIC TREATMENTS IN THE BRAIN AND BODY: OBSERVATIONS ON EFFICACY AND TOXICITY IN.
BNCT, a binary radiotherapy at cellular level
Presentation By: Jonathan, Marty and Kiran
Development of an advanced practice radiographer role during the clinical implementation of image guided radiotherapy (IGRT) at The James Cook University.
Introductions Dr Emma Bowers Training Coordinator Talk about: NTC Blended learning Master’s Programme Joe Spoor 1 st year STP trainee Lauren Slater 1 st.
Research and Practical Conference “Accelerators and Radiation technologies for the Futures of Russia” September 2012, Saint-Petersburg Proton Radiation.
RBE: open issues and next challenges Francesco Tommasino Workshop: la radiobiologia in INFN Trento, Maggio 2016.
Treatment Chart Record of patients radiation therapy history. Must contain: History and diagnosis Rationale for treatment Treatment plan Consent Documentation.
Lung SBRT Implementation at the Regional Cancer Centre
Understanding Radiation Therapy Lecturer Radiological Science
Radiological Protection in Ion Beam Radiotherapy
Modern Radiation Oncology
Kasey Etreni BSc., MRT(T), RTT, CTIC
Extending intracranial treatment options with Leksell Gamma Knife® Icon™ Key Statements from Customer Perspective by University Medical Centre Mannheim.
ADSCaN A Randomised Phase II study of Accelerated, Dose escalated, Sequential Chemo-radiotherapy in Non-Small Cell Lung Cancer Rationale: Lung cancer.
Radiation Therapy Overview
MeV Ion Microbeams and Radiation Biology at the University of Surrey
Press release Release of ISOgray Proton Treatment Planning System
Image–Guided Radiation Therapy for Non–small Cell Lung Cancer
IMRT delivery of preoperative, high dose radiotherapy to a large volume, with Simultaneous Integrated Boost (SIB) in retroperitoneal sarcomas: The Ottawa.
A Comparative Study of Biological Effects of VHEE, Protons and other Radiotherapy Modalities Kristina Small University of Manchester, Christie NHS Foundation.
أجهزة العلاج الإشعاعي Clinical Radiation Generator
Median Volume (cc) of GTV Receiving Dose
Figure 6 Double opposed-field irradiation of an idealized geometry
Image–Guided Radiation Therapy for Non–small Cell Lung Cancer
Figure 5 The biological effects of charged particles
Chapter 17 Intensity-Modulated Radiation Therapy
Neoadjuvant Adjuvant Curative Palliative
Innovations in the Radiotherapy of Non–Small Cell Lung Cancer
Jay Douglas Department of Radiation Oncology
Nanoparticles for enhancing the effectiveness of proton therapy
An Introduction to Radiotherapy
United States Proton Therapy Market United States Proton Therapy Market.
Average Dose-Volume Ratio
Principles of Radiation Therapy
Presentation transcript:

Hadron Therapy Proposal Tata Memorial Centre Parel, Mumbai July 2012

Radiation Therapy Photons – Diagnostic X-rays - 20 to 150 kV – Superficial X-rays - 50 to 200 kV – Orthovoltage X-rays -200 to 500 kV – Supervoltage X-rays to 1000 kV – Megavoltage X-rays - 1 to 25 MV Electrons Hadron – Proton MeV – Neutron (Fast Neutron) - >50 Mev – Heavy Ions (Carbon, Neon, Oxygen, Helium) – MeV

Historical image showing Gordon Isaacs, the first patient treated with linear accelerator radiation therapy (in this case an electron beam) for retinoblastoma in Gordon's right eye was removed January 11, 1957 because the cancer had spread. His left eye, however, had only a localized tumor that prompted Henry Kaplanto try to treat it with the electron beam Radiation therapy of the pelvis Lasers and a mould under the legs are used to determine exact position Neutron Therapy: Comparison of Low LET electrons and High LET electrons Patient treating room for neutron radiation therapy

Advantages: Superior Dose Localization: Heavy ion therapy can severely damage the tumor while minimizing damage to surrounding tissues. Heavy ion therapy has less toxicity (adverse effects) than conventional radiotherapy. Effective Against Cancers which are Resistant to Conventional Radiation: Heavy ion beams have stronger biological effects than X-ray. For example, heavy ion therapy is more effective against tumors such as osteosarcoma, which are difficult to cure with conventional X-ray radiotherapy. Short Treatment Time: The treatment time for heavy-ion radiotherapy is relatively short (3 weeks on average). Compared to conventional X-ray radiotherapy, which requires 6-7 weeks, the treatment time can be reduced dramatically.

- Head & Neck Cancers - Occular tumors - Prostate Cancers - Gastrointestinal tumors -Esophagus -Hepatocellular cancer -Pancreatic cancer - Non Small Cell Lung Cancers - CNS tumors - Sarcomas - Pelvic tumors - Cervix cancer - Bladder cancer Cancers Treated

Results of Proton Clinical Trials Tumors where protons are superior to photons are: – Skull-base chordoma and chondrosarcoma – Arteriovenous malformations – Uveal melanoma Tumors where more research is needed are: – Skull-base meningioma, craniopharyngioma, pituitary adenoma – Lung – Esophageal – Liver – Uterine cervix – Prostate (pages 174, 178) – Wet macular degeneration Reference: Petti and Lennox, Hadronic Radiotherapy, Ann. Rev. Nuclear & Particle Science, :

Hadron at TMH Highly skilled and talented staff Expertise with modern state-of-the-art equipments 3D-CRT, IMRT, IGRT, Electrons, Teaching Experience with latest techniques ; IMRT, IGRT Large experience with clinical trials available

Societal aspect First of its kind facility Proven efficacy in some cancers Expected superior control in some cancers Large number of patients will benefit Known sites and experimental patients Opportunity for patients from all over India Opening new research avenues

Significance Service: – National Centre for Hadron – Several patients treated on challenging sites Education/Training: – Centre will act as the national HUB for training – Suitable training programmes and fellowships Research: – Will potentially generate landmark information. – Will collect unique physics, dosimetric and clinical data in a prospective fashion – To evaluate the role of hadron/charged particle therapy in clinical practice, phase II and well devised RCT to generate LEVEL 1 evidence – Studies performed will be unique to address a important question of assessing highest end technology as per strict world class scientific rigour.

Schedule Phase-I (12-18 months) – Setting-up facilities – Visits to centres Phase-II (6 months) – Physics QA – Training of staff – Treatment of patient Phase-III (24-36 months) – Implementation of techniques – Clinical Trials Local control Functional outcome Quality of Life

Hadron Therapy at Gunma, Japan Outline of the Physical Facilities: Gunma University Showa Campus, Maebashi, Japan Structure Reinforced concrete, partially steel-framed 1 below and 2 above ground Built-up area: 3130 ㎡ (~0.7 Acre) 45Mx65M Total Area: 6280 ㎡ (~1.6 Acre) Lobby, waiting room, control hall, irradiation room 1 (horizontal port), irradiation room 2 (horizontal and vertical ports), irradiation room 3 (vertical port), irradiation room 4 (vertical, R&D port), dispensary room, CT simulator room, staff room, conference room, accelerator room, machine room.

Finances Total budget: Rs. 450 Crores Procurements: – Indigenous 150 Crores – Import 300 Crores Land: 8 Crores Human Resource requirement 89 personnels Patient to be treated from March 2017