Adaptive Workflow Capabilities and Software Integration in MRI-Guided Radiotherapy

Published On : October 2026

Why Adaptive Workflow Capability Drives Software Requirements

The hardware of an MRI-guided platform is visible and expensive, but how the platform is used day to day is decided largely by software. The workflow that surrounds each session, from imaging review through contouring to plan approval, runs on software layers that evolve long after installation.

In the global MRI-guided radiation therapy systems market, this software layer is where much of the continuing change occurs, because suppliers release new contouring, planning and informatics tools on a cycle much shorter than the life of the magnet and delivery unit.

This page describes the six workflow capability categories and the five software and informatics integration categories tracked in this report as one connected technology stack. They are treated as market segments only, and this report makes no claim about accuracy, speed or clinical outcome for any tool or algorithm.

The two dimensions are distinct. Workflow capability describes what the platform and its software can do in a session: adapt a plan, track a target, outline structures, plan automatically, manage motion and replan daily. Software and informatics integration describes the systems that carry out and connect those functions.

A buyer needs both views. A capability listed on a specification sheet is only useful if the software that provides it connects to the center's treatment planning system and oncology information system, and a software layer is only worth buying if it supports the capabilities the center intends to use.

For market analysis the software layer matters because it changes the revenue profile of the category. Licensing, upgrades and subscription arrangements recur over the life of the installation, so software content raises the share of value that arrives after the initial sale.

Online Adaptive Radiotherapy and Daily Adaptive Replanning

Online adaptive radiotherapy is the first workflow capability category. It refers to revising a treatment plan while the patient remains in position, using the imaging acquired at that session, rather than relying only on a plan prepared beforehand.

Daily adaptive replanning is the closely related category that describes doing so as a routine part of each session, rather than only when a particular circumstance calls for it. The two are tracked separately because a center can offer one without committing to the other.

Both capabilities add steps to a session: reviewing the day's images, adjusting contours, generating or revising a plan and checking it before delivery. Each step takes physics, physician and technologist time, which is why the staffing demand of adaptive work is a recognized restraint on its adoption.

Suppliers respond with workflow tools that automate or accelerate individual steps. The competitive discussion in this category is therefore largely about how much of the adaptive session can be handled by software and how much remains manual, a question this report records at capability level without ranking any tool.

Buyers tend to approach online adaptive work in stages. A center may begin by adapting plans in selected programs, then widen the scope as its team gains experience, which means the software must support a range of adaptation approaches from occasional to routine.

The capability also changes how a platform is scheduled. Adaptive sessions occupy a room for longer than non-adaptive ones, so departments weigh the capability against the number of patients they intend to treat per day.

PROCUREMENT INSIGHT

Adaptive capability is rarely bought as a single feature. Buyers usually scope it in stages, which is why upgrade roadmaps and licensing structures weigh as heavily as the capability list at the time of purchase.

 

Real-Time Tumor Tracking and Motion Management Integration

Real-time tumor tracking and motion management integration are two capability categories that address the same practical issue: targets in the thorax, abdomen and pelvis move during treatment, so a platform needs a way to follow or account for that movement.

Real-time tumor tracking refers to following the position of a target as treatment is delivered, using the imaging available on the platform. Motion management integration is the broader category covering the techniques and system connections that coordinate imaging, positioning and delivery in response to movement.

These capabilities are most relevant to the sites and programs described under treatment modalities and sites, particularly stereotactic and adaptive fractionated programs, where the combination of precision and few sessions puts weight on managing movement.

The two categories are separated in the segmentation because suppliers and buyers treat them differently. Tracking is a feature a buyer can ask to see demonstrated, while motion management integration is often judged by how well the platform's parts work together.

Both depend on the imaging chain of the platform and on the control software that links imaging to delivery, so they are specified as part of the platform rather than purchased afterward as add-ons in most cases.

This report records them as capability categories and does not compare how accurately any platform tracks or manages motion, a point on which it makes no claim.

Automated Contouring and AI-Assisted Planning

Automated contouring and AI-assisted planning are the two workflow capability categories most closely tied to the use of artificial intelligence (AI) in the category. Both aim to reduce the manual effort involved in an adaptive session.

Automated contouring refers to software that outlines the structures relevant to a treatment, such as the target and nearby organs, with a physician reviewing the outlines rather than drawing them from scratch. AI-assisted planning refers to software that assists in generating or optimizing a treatment plan.

These capabilities are the fastest-growing in the workflow dimension of this report. The reason is structural: staff effort is the main practical limit on adaptive sessions, so software that lowers the effort widens the group of centers able to consider an adaptive program.

The supplier landscape in this area is broader than the platform suppliers. Independent software companies, imaging companies and radiotherapy equipment suppliers all offer contouring and planning tools, and a center may run tools from a different supplier than its platform.

That breadth makes interoperability a purchasing criterion. A tool that cannot exchange data with the center's planning system and oncology information system adds work rather than removing it, so buyers examine integration before they examine features.

Governance is a related consideration. Buyers ask how a supplier updates its AI tools, how changes are documented and how users review results. This report records those questions as buying considerations and makes no claim about the correctness of any algorithm.

MARKET SHIFT

Contouring and planning automation is moving the competitive question from who has an adaptive capability to who makes it routine, because the same capability delivered with less staff effort is available to a much wider range of centers.

 

Treatment Planning Software and Oncology Information Systems

Treatment planning software is the first category in the software and informatics integration dimension. It is the system in which a treatment plan is created, evaluated and approved, and in an MRI-guided platform it must work with MRI imaging as well as with the delivery unit's own requirements.

Planning software ties directly to the platforms described under MR-Linac and hybrid platform types, because each platform has its own planning needs and the software must support the delivery arrangement and the imaging the platform produces.

Oncology information systems are the second category. They manage the records, schedules, prescriptions and treatment data of a radiation oncology department, and they are the backbone to which planning software, delivery platforms and imaging systems connect.

For the buyer, the oncology information system is a long-lived decision. A department rarely replaces it when it buys a new platform, so the platform and planning tools must connect to the system the center already runs, and in some centers this connection decides which suppliers are shortlisted.

Suppliers that offer planning software, oncology information systems and delivery platforms as one ecosystem emphasize the simplicity of that integration, while buyers who prefer to combine suppliers emphasize flexibility. This report records both approaches as market structure without preferring either.

Upgrades to these systems are scheduled events that need testing and staff training, so the frequency and manner of software releases is part of what a buyer assesses in a supplier.

Imaging Analytics and Cloud-Connected Oncology Workflows

Imaging analytics platforms and cloud-connected oncology workflows complete the software and informatics dimension. They cover software that analyzes and manages the imaging a platform produces and software that moves data and tasks between sites through cloud-based services.

Imaging analytics platforms process MRI data beyond what is needed for an individual session. They can be used to manage image archives, to support research and to organize data for review, and they are especially relevant to academic centers and research institutions.

Cloud-connected oncology workflows address multi-site organizations. A network of centers may want contouring, planning review or remote diagnostics handled across sites, and cloud-based services allow that coordination without moving a specialist to each location.

Both categories raise questions that are not purely technical. Buyers consider where data is stored, who can access it and how the supplier supports the service over time, and these questions are part of procurement in many regions and institutions.

AI-driven contouring platforms link to both categories, since they often run as cloud-connected services and generate data that analytics platforms then process. The categories are separate in the segmentation but connected in use.

This report records the categories for segmentation purposes, and the full report holds the detailed software and informatics integration breakdown. No claim is made about the performance or compliance of any platform.


Frequently Asked Questions

Six workflow capabilities are tracked: online adaptive radiotherapy, real-time tumor tracking, automated contouring, AI-assisted planning, motion management integration and daily adaptive replanning. They run on five software categories: treatment planning software, oncology information systems, AI-driven contouring platforms, imaging analytics platforms and cloud-connected oncology workflows

It refers to revising a treatment plan while the patient remains in position, using the imaging acquired at that session. This report records it as a workflow capability category and makes no claim about its clinical performance.

Treatment planning software, oncology information systems, AI-driven contouring platforms, imaging analytics platforms and cloud-connected oncology workflows. Together they carry out and connect the capabilities a platform offers.

AI-driven contouring platforms and AI-assisted planning aim to reduce the staff effort of adaptive sessions, which makes them the fastest-growing workflow capabilities in this report. They are recorded as product categories with no claim about algorithm performance.

They hold the records, schedules and treatment data of a department, and planning software, delivery platforms and imaging systems connect to them. Because departments seldom replace them, integration with the existing system is a common purchasing criterion.