FAQ
We know this is a lot of information to digest all at once. To better help you
understand who we are and what we do, we've prepared a list of frequently
asked questions in order to address some of the concerns you may have
Categories:
This radiotherapy treatment allows for a pain-free process with a reduced risk of side effects. Patients complete the treatment in a series of one to five short appointments, so it will not take up their whole day nor constrict them to bed rest for recovery. The CyberKnife system is the only robotic radiotherapy that offers a non-invasive alternative to surgery.
Radiation damage to healthy areas of the body can cause a number of undesirable side effects. The CyberKnife system was designed to reduce the risk of unnecessary side effects caused by radiation. It successfully lowers risks by only including the tumor in its radiation field and tracking the tumors movements with pinpoint precision and submillimeter accuracy. This non-invasive procedure allows patients to complete treatment within 1 to 5 days rather than the several weeks traditional radiotherapy tends to take.
Conventional radiotherapy systems are limited in motion, restricting them from delivering radiation in the most precise possible angles. The CyberKnife System allows for radiation to be delivered from a wider variety of angles, making for precise and accurate radiation delivery to the tumor.
The CyberKnife System adjusts in real time to the patient’s breathing, rendering conventional radiation techniques like the patient holding their breath or being strapped down unnecessary. The Cyberknife System also reduces healthy tissue damage by narrowing the field of radiation delivery to only the tumor, rather than overcompensating for any accidently missed parts of the tumor like conventional radiation treatments. The CyberKnife System’s ability to minimize healthy tissue damage is unparalleled.
1. Radiosurgery: This radiation therapy is actually non-surgical despite its name, and delivers high doses of radiation to the tumor using robotics and advanced technology. This treatment option effectively destroys tumors in 1 to 5 treatments over 1 to 5 days. This outpatient procedure is completely non-invasive and requires no hospitalization.
2.Radiation Therapy: In this treatment, radiation is usually delivered 5 days a week over a course of 6-8 weeks. Unlike stereotactic radiosurgery, this treatment delivers radiation to a larger portion of the body than the tumor, thus effectively killing the tumor, but exposing the tissue surrounding the tumor to radiation as well. This treatment is generally an outpatient treatment, requiring no hospitalization.
3. Brachytherapy: This is a form of radiation therapy where small, radioactive sources are placed in and around a tumor. There are two types of brachytherapy:
• Low dose rate brachytherapy delivers radiation in low, prescribed doses over a long period of time, and radioactive sources are usually permanently implanted.
• High dose rate brachytherapy delivers high, prescribed doses of radiation from radioactive sources for a shorter period of time and are therefore implanted only temporarily.
Brachytherapy has been used to treat a wide variety of cancers such as head, neck, lung, breast, and prostate cancers.
4. Cryoablation: With cryoablation, also referred to as cryotherapy, a probe is inserted through an incision in the skin and sent straight to the tumor to freeze it and kill its cells. Depending on the advancement of the tumor, the procedure might be performed on an inpatient or an outpatient basis.
5. High intensity Focused Ultrasound (HIFU): HIFU uses an ultrasound beam to target and kill tissue containing cancer cells. The treatment has not been approved by the United States FDA but has been used in Europe as a prostate cancer treatment.
Other benefits include:
• No incision
• No pain
• No anesthesia
• No hospitalization
• Patients don’t have to hold their breath
• No recovery time
• Patient can return to daily activities immediately prior to treatment
The radiation is generated by a machine called a linear accelerator, which shapes beams of energy with varying intensities. These beams can be aimed at a tumor from multiple angles to attack it in a 3-D manner. The TrueBeam System delivers the lowest dose possible to the surrounding healthy tissue, while still delivering the maximum dose to the tumor.
When you hear the word “radiation,” you may immediately think of radioactive substances. However, no radioactive substances are involved in the creation of the beam by a medical linear accelerator. When a linear accelerator is switched “on,” radiation is produced and aimed directly at cancer cells. Then when the system is switched off, radiation is no longer emitted from the system.
• Speed – Simple treatments that once took 10 to 30 minutes can now be completed in less than two minutes. Faster treatment delivery not only is more comfortable for patients, requiring less time on the treatment couch, it also reduces the chance of tumor motion during treatment, which helps protect nearby healthy tissue and critical organs.
• Precision – The accuracy of the TrueBeam system is measured in increments of less than a millimeter, which is made possible by the system’s sophisticated architecture. The TrueBeam system synchronizes imaging, patient positioning, motion management, beam shaping and dose delivery, performing accuracy checks every ten milliseconds throughout the entire treatment.
• Imaging – TrueBeam imaging technology quickly produces the 3-D images used to fine-tune tumor targeting, using 25 percent less X-ray dose than previous systems.
• Motion Tracking - For lung and other tumors subject to respiratory motion, TrueBeam offers Gated RapidArc® radiotherapy, which makes it possible to monitor the patient’s breathing and compensate for movement of the tumor while the dose is being delivered in a continuous rotation of the treatment machine.
• Treatment Planning – After a diagnosis, the medical physicist generates 3-D diagnostic images (usually CT or MRI) of the tumor and the area around it. Using these images, a radiation oncologist will work with the physicist to plan your individualized treatment, specifying the dose of radiation needed to treat the tumor.
• Treatment Preparation – Most cases require a treatment preparation session. Special molded devices that help the patient maintain the same position every day are sometimes developed at this point. The radiation oncologist may request to have the treatment area marked on the patient’s skin to assist in aligning the equipment with the target area.
• Treatment - The individualized TrueBeam treatments will be delivered according to a schedule specific to the treatment plan. The total dose of radiation is usually divided into smaller doses, called fractions, which are delivered daily over a specific time period. During a TrueBeam treatment, the linear accelerator can rotate around the patient to deliver the radiation. The radiation is shaped and reshaped as it is continuously delivered from virtually every angle in a 360-degree revolution around the patient. Sometimes a marker block device is used to monitor breathing patterns to compensate for breathing motion during the treatment. Most treatments usually take only a few minutes each day.
• Radiation oncologist – A doctor who has had special training in using radiation to treat diseases and prescribes the type and amount of treatment. The radiation oncologist may work closely with other doctors and the rest of the healthcare team.
• Medical physicist - Participates in the planning process and ensures that the machines deliver the right dose of radiation.
• Dosimetrist – Plans the treatment with the oncologist and the physicist.
• Radiation therapy nurse – Provides nursing care and may help the patient learn about treatment or how to manage any side effects.
• Radiation therapist – Sets the patient up for treatment and operates the equipment that delivers the radiation.
This radiotherapy treatment allows for a pain-free process with a reduced risk of side effects. Patients complete the treatment in a series of one to five short appointments, so it will not take up their whole day nor constrict them to bed rest for recovery. The CyberKnife system is the only robotic radiotherapy that offers a non-invasive alternative to surgery.
Radiation damage to healthy areas of the body can cause a number of undesirable side effects. The CyberKnife system was designed to reduce the risk of unnecessary side effects caused by radiation. It successfully lowers risks by only including the tumor in its radiation field and tracking the tumors movements with pinpoint precision and submillimeter accuracy. This non-invasive procedure allows patients to complete treatment within 1 to 5 days rather than the several weeks traditional radiotherapy tends to take.
Conventional radiotherapy systems are limited in motion, restricting them from delivering radiation in the most precise possible angles. The CyberKnife System allows for radiation to be delivered from a wider variety of angles, making for precise and accurate radiation delivery to the tumor.
The CyberKnife System adjusts in real time to the patient’s breathing, rendering conventional radiation techniques like the patient holding their breath or being strapped down unnecessary. The Cyberknife System also reduces healthy tissue damage by narrowing the field of radiation delivery to only the tumor, rather than overcompensating for any accidentally missed parts of the tumor like conventional radiation treatments. The CyberKnife system’s ability to minimize healthy tissue damage is unparalleled.
1. Radiosurgery: This radiation therapy is actually non-surgical despite its name, and delivers high doses of radiation to the tumor using robotics and advanced technology. This treatment option effectively destroys tumors in 1 to 5 treatments over 1 to 5 days. This outpatient procedure is completely non-invasive and requires no hospitalization.
2. Radiation Therapy: In this treatment, radiation is usually delivered 5 days a week over a course of 6-8 weeks. Unlike stereotactic radiosurgery, this treatment delivers radiation to a larger portion of the body than the tumor, thus effectively killing the tumor, but exposing the tissue surrounding the tumor to radiation as well. This treatment is generally an outpatient treatment, requiring no hospitalization.
3. Brachytherapy: This is a form of radiation therapy where small, radioactive sources are placed in and around a tumor. There are two types of brachytherapy:
Low dose rate brachytherapy delivers radiation in low, prescribed doses over a long period of time, and radioactive sources are usually permanently implanted.
High dose rate brachytherapy delivers high, prescribed doses of radiation from radioactive sources for a shorter period of time and are therefore implanted only temporarily.
Brachytherapy has been used to treat a wide variety of cancers such as head, neck, lung, breast, and prostate cancers.
4. Cryoablation: With cryoablation, also referred to as cryotherapy, a probe is inserted through an incision in the skin and sent straight to the tumor to freeze it and kill its cells. Depending on the advancement of the tumor, the procedure might be performed on an inpatient or an outpatient basis.
5. High intensity Focused Ultrasound (HIFU): HIFU uses an ultrasound beam to target and kill tissue containing cancer cells. The treatment has not been approved by the United States FDA but has been used in Europe as a prostate cancer treatment.
Other benefits include:
• No incision
• No pain
• No anesthesia
• No hospitalization
• Patients don’t have to hold their breath
• No recovery time
• Patient can generally return to daily activities immediately after to treatment
The radiation is generated by a machine called a linear accelerator, which shapes beams of energy with varying intensities. These beams can be aimed at a tumor from multiple angles to attack it in a 3-D manner. The TrueBeam System delivers the lowest dose possible to the surrounding healthy tissue, while still delivering the maximum dose to the tumor.
When you hear the word “radiation,” you may immediately think of radioactive substances. However, no radioactive substances are involved in the creation of the beam by a medical linear accelerator. When a linear accelerator is switched “on,” radiation is produced and aimed directly at cancer cells. Then when the system is switched off, radiation is no longer emitted from the system.
• Speed – Simple treatments that once took 10 to 30 minutes can now be completed in less than two minutes. Faster treatment delivery not only is more comfortable for patients, requiring less time on the treatment couch, it also reduces the chance of tumor motion during treatment, which helps protect nearby healthy tissue and critical organs.
• Precision – The accuracy of the TrueBeam system is measured in increments of less than a millimeter, which is made possible by the system’s sophisticated architecture. The TrueBeam system synchronizes imaging, patient positioning, motion management, beam shaping and dose delivery, performing accuracy checks every ten milliseconds throughout the entire treatment.
• Imaging – TrueBeam imaging technology quickly produces the 3-D images used to fine-tune tumor targeting, using 25 percent less X-ray dose than previous systems.
• Motion Tracking - For lung and other tumors subject to respiratory motion, TrueBeam offers Gated RapidArc® radiotherapy, which makes it possible to monitor the patient’s breathing and compensate for movement of the tumor while the dose is being delivered in a continuous rotation of the treatment machine.
• Treatment Planning – After a diagnosis, the medical physicist generates 3-D diagnostic images (usually CT or MRI) of the tumor and the area around it. Using these images, a radiation oncologist will work with the physicist to plan your individualized treatment, specifying the dose of radiation needed to treat the tumor.
• Treatment Preparation – Most cases require a treatment preparation session. Special molded devices that help the patient maintain the same position every day are sometimes developed at this point. The radiation oncologist may request to have the treatment area marked on the patient’s skin to assist in aligning the equipment with the target area.
• Treatment - The individualized TrueBeam treatments will be delivered according to a schedule specific to the treatment plan. The total dose of radiation is usually divided into smaller doses, called fractions, which are delivered daily over a specific time period. During a TrueBeam treatment, the linear accelerator can rotate around the patient to deliver the radiation. The radiation is shaped and reshaped as it is continuously delivered from virtually every angle in a 360-degree revolution around the patient. Sometimes a marker block device is used to monitor breathing patterns to compensate for breathing motion during the treatment. Most treatments usually take only a few minutes each day.
• Radiation oncologist – A doctor who has had special training in using radiation to treat diseases and prescribes the type and amount of treatment. The radiation oncologist may work closely with other doctors and the rest of the healthcare team.
• Medical physicist - Participates in the planning process and ensures that the machines deliver the right dose of radiation.
• Dosimetrist – Plans the treatment with the oncologist and the physicist.
• Radiation therapy nurse – Provides nursing care and may help the patient learn about treatment or how to manage any side effects.
• Radiation therapist – Sets the patient up for treatment and operates the equipment that delivers the radiation.