25 Apr
2025
Highlights:
Tumor ablation has evolved into a key treatment option for patients who cannot undergo surgery or those with tumors in hard-to-reach areas. Rather than removing a tumor physically, ablation uses energy-based technologies to destroy cancer cells inside the body. This has opened up a range of treatment possibilities, especially in liver, kidney, lung, and breast tumors. For hospitals, cancer clinics, and imaging centers, understanding the latest techniques and developments is important when deciding on investments and service expansion.
Newer Techniques Making an Impact
In recent years, the focus has shifted from traditional methods like radiofrequency ablation to newer technologies such as microwave ablation and histotripsy. Microwave ablation is especially being looked at for renal cell carcinoma (a type of kidney cancer). It uses high-frequency electromagnetic waves to produce heat, destroying tumor cells quickly. Compared to other thermal methods, it can offer shorter treatment times and better outcomes in some patients. Clinical reports show that this method has promising potential for small tumors and offers a repeatable procedure with fewer complications.
Histotripsy is another technique that’s attracting attention, particularly because it’s non-invasive and does not involve heat. Instead, it uses focused ultrasound to create small bubbles in the targeted tissue. These bubbles rapidly expand and collapse, breaking down tumor cells without affecting nearby healthy tissue. Research published by the International Society of Ultrasound in Healthcare and Foundation (ISUHF) has highlighted how this method can be used for liver tumors, showing both accuracy and safety. This method is still under exploration but is opening new conversations in the field. The tumor ablation industry accounted for $1.6 billion in 2023 and is anticipated to gather a revenue of $7.5 billion by 2035, rising at a CAGR of 13.6% during 2024-2035.
Clinical Application and Equipment Insights
Hospitals and care centers looking to implement these solutions must consider several operational factors. For example, microwave ablation systems require imaging guidance tools, such as CT or ultrasound, for precise probe placement. This means institutions must have high-quality imaging systems and trained interventional radiologists. Disposable probes and cooling systems also add to operational needs.
Histotripsy, on the other hand, requires a completely different setup. Since it is non-invasive, the equipment is based on large ultrasound arrays and sophisticated computer algorithms to plan and monitor the treatment. Though currently limited to research settings, this method is gaining traction due to its potential to treat tumors that are otherwise considered inoperable. Facilities interested in early adoption should prepare for long training cycles and close collaboration with research institutions.
Ongoing Research Driving Product Development
Innovation in this field is often driven by academic institutions and research grants. A recent example includes a researcher from the University of Virginia who received a large federal grant to explore ultrasound-based tumor treatments for breast cancer. The focus of this project is on developing new ways to target tumors without the need for surgery or harmful side effects. This kind of funding supports product refinement and could eventually influence commercial availability and clinical guidelines.
With the expansion of clinical trials, companies working in ablation technologies are expected to offer improved tools with better precision and fewer complications. Collaboration between manufacturers and healthcare systems is important, particularly for user training, support, and integration with hospital systems. Software integration, imaging compatibility, and ease of use are also projected to play a big role in how these solutions are adopted in busy clinical settings.
Challenges in Equipment Use and Procedure Planning
While promising, these technologies are not without challenges. In microwave ablation, heat spread must be carefully controlled to avoid damage to surrounding tissue. In some cases, tumors close to critical structures like blood vessels or nerves can pose risks. For histotripsy, the main limitations right now are equipment availability, training requirements, and lack of long-term data in some tumor types. Institutions must evaluate these factors when choosing which methods to implement and how to train their staff.
Staffing is another important factor. Successful ablation programs often require collaboration between interventional radiologists, oncologists, imaging specialists, and sometimes surgeons. Without well-trained teams, the quality of care and outcomes can vary significantly. Ongoing training, practice with equipment, and hands-on workshops are key for safe and effective use.
Looking at Costs and Reimbursement Trends
Cost is a concern for many healthcare providers when introducing new technology. Microwave ablation is becoming more widely available and is often reimbursed for specific cancer types in several countries. However, histotripsy is still in the early stages of testing and may not be covered under standard treatment packages yet. Providers should closely follow updates from clinical trials and health policy changes, as these will shape which procedures get broader support.
It’s also worth noting that system costs vary depending on the manufacturer, number of probes, and imaging support. Decision-makers should evaluate whether the patient volume at their center justifies such investments or whether partnership models, such as shared equipment between departments, could be more efficient.
The Crux
Tumor ablation is no longer a niche service but is becoming a regular part of cancer care in many hospitals and treatment centers. With technologies like microwave ablation and histotripsy pushing boundaries, providers have more options than ever before. Staying updated on equipment, clinical results, and regulatory support is key. While not every hospital may be ready to adopt the latest systems right away, understanding the strengths, risks, and operational needs of each technique can help institutions plan better for the future of cancer care.
For more information on the leading growth drivers and investment opportunities in the market, contact our experts here!
Koyel Ghosh
Author’s Bio- Koyel Ghosh is a blogger with a strong passion and enjoys writing in miscellaneous domains, as she believes it lets her explore a wide variety of niches. She has an innate interest in creativity and enjoys experimenting with different writing styles. A writer who never stops imagining, she has been serving the corporate industry for the last five years.
Wireless Vital Signs Monitoring Devices: Cutting-Edge Technology for Better Medical Outcomes
How are Submarine Cables Transforming Global Connectivity with Enhanced User Experience?
How Integrating Advanced AC Electric Motors Does Optimize Equipment Potential?
How Industrial Fasteners Are Adapting to New Engineering Needs
Smart Tools in Mining: How Automation Is Changing Daily Operations
Accelerating Innovation: How SerDes Is Transforming Connectivity across Various Sectors
High-Precision Air Quality Sensors for Smarter Environmental Monitoring
Centrifugal Chillers: Meeting Efficient and Versatile Cooling Demands across Industries
How Technology and Material Innovation Leads to Next-Gen Industrial Noise Control
Enhancing Well Longevity with Real-Time Cementing Techniques