SOMATOM go.Sim
Simulation reinvented
SOMATOM go.Sim is a highly flexible, intuitive CT simulator. With fully integrated hardware and software tailored specifically to your requirements, it increases certainty and reduces the likelihood of errors. It also features advanced algorithms, AI-powered organ-at-risk (OAR) autocontouring, and excellent soft-tissue contrast potentially decreasing target margins. What’s more, it is designed to care for both patients and users – with a calming environment, a simple operating concept, and a single vendor service contract.
SOMATOM go.Sim can increase workforce productivity and optimize clinical operations. It helps you get the full picture faster so you can spend less time managing CT simulation and more time focusing on patients.
Özellikler ve Faydalar
Klinik Kullanım
Reinventing CT simulation with SOMATOM go.Sim – a highly flexible, intuitive CT simulator that we designed in collaboration with over 300 RT specialists – radiation oncologists, medical physicists, dosimetrists, RTTs, and financial decision makers – to give us insights into your world. The result is a groundbreaking approach to CT simulation. It will give you everything you need to achieve the ultimate starting point for optimal RT planning, and will help you produce the most successful outcomes possible.
Be certain in simulation
60% of all RT incidents are caused by manual operation and data exchange4
- Successful CT simulation needs efficient and fail-safe workflows
- Current processes mean users have to switch between multiple software and hardware solutions
Lack of integration leads to errors and uncertainty in CT simulation.
Integration is a key factor to avoid potential error-prone CT simulation workflows
SOMATOM go.Sim comes with fully integrated hardware and software tailored specifically to your requirements. It offers unparalleled operational flexibility, and intuitive guidance.
This is a workflow that gives you certainty in simulation: It's smooth, fast and is able to deliver the reproducible and user-independent results you need.
Your benefits
- Seamless and less error-prone processes thanks to the new mobile workflow
- Streamlined laser QA thanks to fully integrated Direct Laser
- Intuitive and guided CT simulation thanks to GO technologies
"The interface of the system is very intuitive and easy to operate. The mobile tablet maximizes the time with the patient and helps us to provide the best care at the starting point of treatment.9" Juliane Krestine Fuglsang
Radiographer, Aarhus University Hospital, Aarhus, Denmark
Drive precision for contouring
Poor scope for accurate contouring hinders confident treatment planning
- Modern treatment techniques require precise planning
- CT simulation must consistently deliver high-quality patient modeling for the tumor and surrounding organs
- Yet the data provided for contouring are often not precise enough
Contouring is a major source of variability in RT planning6
Drive precision for OAR contouring
Radiation oncology professionals have to spend time manually correcting poor autocontouring
- The quality of autocontouring depends on the quality of the CT images
- Suboptimal image quality (caused by metal artifacts, poor soft-tissue contrast, etc.) leads to suboptimal autocontouring7,8
In the worst-case scenario, radiation oncology professionals have to redo the OAR contouring entirely by hand.
Viana do Castelo, Viana do Castelo, Portugal.
Consistent OAR contours generated directly by the CT simulator with DirectORGANS3
SOMATOM go.Sim features DirectORGANS3 (Optimized Reconstruction based contours trained by Generative Adversarial Networks) an AI-powered OAR contouring that automates and standardizes key steps in the CT simulation pathway. The high-quality information arrives directly as TPS-ready data.
An autocontouring algorithm needs a specific type of image to perform contouring
DirectORGANS3 optimizes the images specifically for the algorithm.
This paves the way for consistent OAR contouring powered by AI.
DirectORGANS3 is a revolutionary, AI-based OAR contouring solution. The result reduces unwarranted variations with high-quality contours that approach the level of consensus-based contours. It leverages optimized and standardized reconstruction parameters to deliver input to the deep learning based contouring solution.
Your benefits
- OAR contouring directly in the system, no need for manual interaction
- Optimized images designed for the deep-learning algorithm
- High-quality contours that approach the level of consensus-based contours
Courtesy of Leopoldina Krankenhaus, Schweinfurt, Germany
Courtesy of Leopoldina Krankenhaus, Schweinfurt, Germany
Drive precision in target contouring
A powerful combination of three innovative solutions delivers confident tumor visualization, precise target contours, and a straightforward 4D workflow: iMAR3 reduces metal artifacts, DirectDensity2,3 unlocks optimal kV settings with a single calibration curve, and Respiratory Motion Management3 optimizes scan parameters based on the patient’s breathing.
Your benefits
- Confident tumor visualization thanks to automated metal artifact reduction with iMAR3
- Precise target contours with optimum kV imaging and a single calibration curve thank to DirectDensity2,3
- Straightforward 4D workflow thanks to comprehensive respiratory motion management3
DirectDensity2,3 unlocks a wider range of tube voltages in CT scanners for better imaging quality while maintaining similar dosimetric accuracy.9 Tianyu Zhao, PhD
Assistant Professor in Radiation Oncology, Washington University School of Medicine, Department of Radiation Oncology, St. Louis, MO, USA
Care for patients and users
Anxious patients and time-pressured operators can lead to suboptimal CT simulation
- Current CT simulation can create anxiety for patients and pressure for operators
- Operators have to spend a lot of time outside the examination room
- Installing and maintaining a multi-vendor system is complex and time-consuming
49% of patients feel distressed and anxious.10
If operators are under less time pressure, they can devote more time to caring for patients and generating high-quality results. If patients feel at ease, their CT simulation will be more successful.
Improve the patient experience with a patient centric design, co-created with RT professionals
- Total freedom over how and where you set up the simulation, and more time with your patient thanks to the mobile workflow
- A calming environment for the patient thanks to the ring mood lighting
- More comfort for patients thanks to the large 85-cm bore
Benefit from a shorter learning curve and easier vendor management with an all-in-one solution
- One revolutionary user interface
- One call center
- One maintenance appointment
- One service contract
- One training session
SOMATOM go.Sim creates a comfortable and calming environment for patients, and enables staff to spend more time at their side.
Teknik Özellikler
| Bore size | 85 cm |
| Scan Field-of-View (sFoV) | 60 cm |
| Acquired slices/reconstruction slices | 32/64 |
| Z-axis coverage | 1.92 cm |
| Rotation time | 0.353, 0.5, 1.0 s |
| max. table load | 227/3073 kg (TG-66 compliant tables) |
| System footprint | 4 m2/43 ft2 (surface area covered by gantry and moving table top) |
| Min. room requirement | 17.3 m2/186.2 ft2 |
İlgili Ürünler, Servisler ve Kaynaklar
1syngo.via and syngo.via CT Dual Energy DirectSPR is required.
2As shown by measurements with a Gammex 467 Tissue Characterization Phantom comparing [T]standard reconstruction and DirectDensity reconstruction. Image value to relative electron/mass density conversion for the standard reconstruction was based on a two-linear-equations approach with individual calibration for each tube voltage. For DirectDensity images, a single tube-voltage-independent linear conversion was used.
DirectDensity reconstruction is designed for use in Radiation Therapy Planning (RTP) only. DirectDensity reconstruction is not intended to be used for diagnostic imaging.
3Optional.
4Greenwalt J et al. Reducing errors in radiation therapy through electronic safety checklists. Applied Radiation Oncology. 2014: 5–9.
5Up to 4 additional tablets are optional.
6Jameson MG et al. A review of methods of analysis in contouring studies for radiation oncology. J Med Imaging Radiation Oncol. 2010; 54(5): 401–10.
7Wu X, Udupa JK, Odhner D, et al. Knowledge-Based Auto Contouring for Radiation Therapy: Challenges in Standardizing Object Definitions, Ground Truth Delineations, Object Quality, and Image Quality. Int J Radiat Oncol Biol Phys. 2017; 99(2): E740.
8Cheung CW, Leung KY, Lam WW, et al. Application of Model-based Iterative Reconstruction in Auto-contouring of Head and Neck Cases. Scientific Informal (Poster) Presentation at: LL-ROS-TH Radiation Oncology and Radiobiology Lunch Hour CME Posters; 2012 Nov 29; Chicago, IL.
9The statements by Siemens Healthineers’ customers described herein are based on results that were achieved in the customer’s unique setting. Since there is no “typical” hospital and many variables exist (e.g., hospital size, case mix, level of IT adoption) there can be no guarantee that other customers will achieve the same results.
10Kelly E et al, Reduced patient anxiety as a result of radiation therapist‐led psychosocial support: a systematic review, J Med Radiat Sci Sep; 64(3): 220–231 2017.