Single Room System Advances Proton Therapy Accessibility
By MedImaging International staff writers Posted on 17 Oct 2019 |

Image: The Radiance330 proton therapy system treatment room (Photo courtesy of ProTom International).
A compact proton therapy (PT) system equipped with advanced pencil beam scanning and integrated imaging and control systems expand the accessibility of PT.
The ProTom International (Wakefield, MA, USA) Radiance 330 proton therapy system boasts a compact synchrotron that serves as the source of the proton beam, composed of an injector that generates the proton beam and the synchrotron, which accumulates, accelerates, and extracts the proton beam. Depending on the configuration required, the transport and delivery sub-systems control the guidance, irradiation dose, and shape of the proton beam, and direct the beam appropriately. The Radiance 330 is installed at Massachusetts General Hospital (MGH; Boston, USA).
The Radiance 330 is designed to interface with a range of in-room imaging solutions, such as computed tomography (CT) or cone-beam computed tomography (CBCT), and its 330 MeV capacity also allows for proton imaging of any anatomical area. An additional feature is orthogonal imaging, including image-registration software, which generates a six-degree of freedom patient-alignment correction vector. The compact system can be installed within an interior accelerator vault space of just 6 x 9 meters, and requires up to 40% less radiation shielding.
“ProTom is a company devoted to proton therapy as its sole mission; this is all we do. We thank our customers, partners, and suppliers for their confidence and support throughout this process,” said Steve Spotts, CEO and co-founder of ProTom International, upon receipt of U.S. Food and Drug Administration (FDA) clearance. “This achievement accelerates ProTom's single and relentless mission to place this highly sophisticated and targeted cancer-fighting tool within reach of many more physicians.”
Photon radiation typically uses multiple X-ray beams to attack a tumor target, but unavoidably deposits radiation in the normal tissues beyond the target, potentially damaging those tissues as the beam exits the body. Proton therapy, an alternative radiation, works differently, by directing positively charged protons at the tumor target, where they deposit the bulk of the radiation dose, with minimal residual radiation delivered beyond the target, potentially reducing side effects and damage to surrounding tissue.
Related Links:
ProTom International
The ProTom International (Wakefield, MA, USA) Radiance 330 proton therapy system boasts a compact synchrotron that serves as the source of the proton beam, composed of an injector that generates the proton beam and the synchrotron, which accumulates, accelerates, and extracts the proton beam. Depending on the configuration required, the transport and delivery sub-systems control the guidance, irradiation dose, and shape of the proton beam, and direct the beam appropriately. The Radiance 330 is installed at Massachusetts General Hospital (MGH; Boston, USA).
The Radiance 330 is designed to interface with a range of in-room imaging solutions, such as computed tomography (CT) or cone-beam computed tomography (CBCT), and its 330 MeV capacity also allows for proton imaging of any anatomical area. An additional feature is orthogonal imaging, including image-registration software, which generates a six-degree of freedom patient-alignment correction vector. The compact system can be installed within an interior accelerator vault space of just 6 x 9 meters, and requires up to 40% less radiation shielding.
“ProTom is a company devoted to proton therapy as its sole mission; this is all we do. We thank our customers, partners, and suppliers for their confidence and support throughout this process,” said Steve Spotts, CEO and co-founder of ProTom International, upon receipt of U.S. Food and Drug Administration (FDA) clearance. “This achievement accelerates ProTom's single and relentless mission to place this highly sophisticated and targeted cancer-fighting tool within reach of many more physicians.”
Photon radiation typically uses multiple X-ray beams to attack a tumor target, but unavoidably deposits radiation in the normal tissues beyond the target, potentially damaging those tissues as the beam exits the body. Proton therapy, an alternative radiation, works differently, by directing positively charged protons at the tumor target, where they deposit the bulk of the radiation dose, with minimal residual radiation delivered beyond the target, potentially reducing side effects and damage to surrounding tissue.
Related Links:
ProTom International
Latest Nuclear Medicine News
- New Camera Sees Inside Human Body for Enhanced Scanning and Diagnosis
- Novel Bacteria-Specific PET Imaging Approach Detects Hard-To-Diagnose Lung Infections
- New Imaging Approach Could Reduce Need for Biopsies to Monitor Prostate Cancer
- Novel Radiolabeled Antibody Improves Diagnosis and Treatment of Solid Tumors
- Novel PET Imaging Approach Offers Never-Before-Seen View of Neuroinflammation
- Novel Radiotracer Identifies Biomarker for Triple-Negative Breast Cancer
- Innovative PET Imaging Technique to Help Diagnose Neurodegeneration
- New Molecular Imaging Test to Improve Lung Cancer Diagnosis
- Novel PET Technique Visualizes Spinal Cord Injuries to Predict Recovery
- Next-Gen Tau Radiotracers Outperform FDA-Approved Imaging Agents in Detecting Alzheimer’s
- Breakthrough Method Detects Inflammation in Body Using PET Imaging
- Advanced Imaging Reveals Hidden Metastases in High-Risk Prostate Cancer Patients
- Combining Advanced Imaging Technologies Offers Breakthrough in Glioblastoma Treatment
- New Molecular Imaging Agent Accurately Identifies Crucial Cancer Biomarker
- New Scans Light Up Aggressive Tumors for Better Treatment
- AI Stroke Brain Scan Readings Twice as Accurate as Current Method
Channels
Radiography
view channel
AI Hybrid Strategy Improves Mammogram Interpretation
Breast cancer screening programs rely heavily on radiologists interpreting mammograms, a process that is time-intensive and subject to errors. While artificial intelligence (AI) models have shown strong... Read more
AI Technology Predicts Personalized Five-Year Risk of Developing Breast Cancer
Breast cancer remains one of the most common cancers among women, with about one in eight receiving a diagnosis in their lifetime. Despite widespread use of mammography, about 34% of patients in the U.... Read moreMRI
view channel
AI-Assisted Model Enhances MRI Heart Scans
A cardiac MRI can reveal critical information about the heart’s function and any abnormalities, but traditional scans take 30 to 90 minutes and often suffer from poor image quality due to patient movement.... Read more
AI Model Outperforms Doctors at Identifying Patients Most At-Risk of Cardiac Arrest
Hypertrophic cardiomyopathy is one of the most common inherited heart conditions and a leading cause of sudden cardiac death in young individuals and athletes. While many patients live normal lives, some... Read moreUltrasound
view channel
Non-Invasive Ultrasound-Based Tool Accurately Detects Infant Meningitis
Meningitis, an inflammation of the membranes surrounding the brain and spinal cord, can be fatal in infants if not diagnosed and treated early. Even when treated, it may leave lasting damage, such as cognitive... Read more
Breakthrough Deep Learning Model Enhances Handheld 3D Medical Imaging
Ultrasound imaging is a vital diagnostic technique used to visualize internal organs and tissues in real time and to guide procedures such as biopsies and injections. When paired with photoacoustic imaging... Read moreGeneral/Advanced Imaging
view channel
Cutting-Edge Angio-CT Solution Offers New Therapeutic Possibilities
Maintaining accuracy and safety in interventional radiology is a constant challenge, especially as complex procedures require both high precision and efficiency. Traditional setups often involve multiple... Read more
Extending CT Imaging Detects Hidden Blood Clots in Stroke Patients
Strokes caused by blood clots or other mechanisms that obstruct blood flow in the brain account for about 85% of all strokes. Determining where a clot originates is crucial, since it guides safe and effective... Read more
Groundbreaking AI Model Accurately Segments Liver Tumors from CT Scans
Liver cancer is the sixth most common cancer worldwide and a leading cause of cancer-related deaths. Accurate segmentation of liver tumors is critical for diagnosis and therapy, but manual methods by radiologists... Read more
New CT-Based Indicator Helps Predict Life-Threatening Postpartum Bleeding Cases
Postpartum hemorrhage (PPH) is a leading cause of maternal death worldwide. While most cases can be controlled with medications and basic interventions, some become life-threatening and require invasive treatments.... Read moreImaging IT
view channel
New Google Cloud Medical Imaging Suite Makes Imaging Healthcare Data More Accessible
Medical imaging is a critical tool used to diagnose patients, and there are billions of medical images scanned globally each year. Imaging data accounts for about 90% of all healthcare data1 and, until... Read more
Global AI in Medical Diagnostics Market to Be Driven by Demand for Image Recognition in Radiology
The global artificial intelligence (AI) in medical diagnostics market is expanding with early disease detection being one of its key applications and image recognition becoming a compelling consumer proposition... Read moreIndustry News
view channel
GE HealthCare and NVIDIA Collaboration to Reimagine Diagnostic Imaging
GE HealthCare (Chicago, IL, USA) has entered into a collaboration with NVIDIA (Santa Clara, CA, USA), expanding the existing relationship between the two companies to focus on pioneering innovation in... Read more
Patient-Specific 3D-Printed Phantoms Transform CT Imaging
New research has highlighted how anatomically precise, patient-specific 3D-printed phantoms are proving to be scalable, cost-effective, and efficient tools in the development of new CT scan algorithms... Read more
Siemens and Sectra Collaborate on Enhancing Radiology Workflows
Siemens Healthineers (Forchheim, Germany) and Sectra (Linköping, Sweden) have entered into a collaboration aimed at enhancing radiologists' diagnostic capabilities and, in turn, improving patient care... Read more