The invention comprises a method and apparatus for using a single robotic positioning arm to simultaneously move, relative to a proton beam path entering a treatment room containing the patient, both: (1) a patient support and (2) an imaging system. The robotic arm moving the imaging system and patient independently from movement of a nozzle system directing protons into the treatment rooms allows: simultaneously translating past the patient and rotating around the patient an X-ray source of the imaging system; translating a rotatable unit, of the imaging system, longitudinally past the patient on a translation guide rail; moving the patient support and the imaging system through at least four degrees of freedom relative to a movable proton beam; and/or simultaneous or alternating movement of the proton treatment beam and the imaging system relative to the patient.

A rotatable targeting magnet apparatus and method of use thereof is described where the rotatable targeting magnet rotates independently of a beamline arc at the end of the beamline arc, where the arc is after an accelerator and before the patient in a cancer therapy system. The rotatable targeting magnet directs the charged particle beam, such as vertically, using applied current to the targeting magnet while rotation of the magnet allows scanning across the tumor. Rotation of the patient relative to the charged particle allows distribution of trailing Bragg peak energy within and/or circumferentially about the tumor.

Assembly of a carrier (3) for supporting a patient, an immobilisation mask (2) and connection means (13, 21, 22) for connecting the carrier (3) with the immobilisation mask (2), wherein the connection means (13, 21, 22) contain a profile (1) that is provided on a first side to be connected to the immobilisation mask (2) and on a second side contains first connection means (21) for connecting the immobilisation mask (2) to the carrier (3), the connection means (13, 21, 22) comprising carrier connection means (13) on the carrier (3), the first connection means (21) being provided to engage the corresponding carrier connection means (13), wherein a swivel and a swivel anchor point (36) are provided to cooperate such that when swivelling the swivel arm (34) around the swivel anchor point (36) towards the carrier (3), the first connection means (21) are guided to the connected state.

An immobilization apparatus having at least one or more straps that engage a surface; wherein at least one of the straps comprises a force gauge to determine the amount of force applied to a patient immobilized with said straps; wherein the position of the patient is replicable for treatment of radiation and other head or neck treatments.

The present invention describes a membrane mask for immobilization of a region of interest during radiation therapy. The mask comprises at least one material forming a matrix, and at least one radiation-sensitive material integrated as micro- or nano-sized material elements in or onto the matrix. The radiation-sensitive material advantageously provides the possibility of using the mask for performing dosimetry. Use of the mask and a method for performing dosimetry also are described.

The present relates to a positioning and shaping shell manufacturing method for manufacturing a positioning and shaping shell comprising a positioning step consisting in positioning and supporting a target body portion with a transparent body shaper in a predetermined position on a positioning board presenting at least one transparent portion permitting scanning through it, an image acquisition step consisting in a target body portion surface scan imaging also via the transparent portion of the board and said transparent body support, a software computing step where the acquired image data are sent and processed in a processing unit, and a producing step consisting in producing a 3D positioning and shaping shell model via additive or subtractive manufacturing method based in the processed image data.

An immobilization system, especially for use on the human head and neck area, is described in various embodiments. The system may include a bite block immobilization system having a bite block with a dental interface releasably engageable with a plurality of teeth of a patient, and a retention mask. The dental interface releasably engages the teeth of a patient and allows very highly accurate repositioning during multiple procedures. In some embodiments, the bite block may have an integral bite block airway passage, allowing a patient to have unobstructed breathing both during molding of the retention mask and during subsequent use of the system, and may include a tongue diverter, that may, by way of example only and not limitation, be used to divert the tongue away from a therapeutic radiation beam. Steps for utilizing the system are further described.

The invention comprises a method and apparatus for treating a tumor of a patient with positively charged particles, comprising the steps of transporting the positively charged particles along a beam transport path passing sequentially from an accelerator, through a beam transport line, through a nozzle, and toward a position of the patient, the step of transporting further comprising the steps of: (1) terminating a first Bragg peak, of a first set of the positively charged particles, in a position of the tumor and (2) flash treating the tumor with a second Bragg peak, of a second set of the positively charged particles, the second Bragg peak terminating post-patient relative to the nozzle. Optionally the second set of particles are delivered at a rate exceeding one MHz. Optionally, particles in common are used to both treat the tumor and image the tumor.

A mask fixing apparatus, a mask component and a radiotherapy device are provided. The mask fixing apparatus includes: a frame, being configured to fix a mask, the frame being U-shaped having an inner boundary line and an outer boundary line, an opening of the frame fitting a neck of a patient, the inner boundary line of the frame being determined based on a periphery of a head of the patient, and the outer boundary line of the frame being determined based on a treatment cavity or an anti-collision cover in the treatment cavity; and a back-head support, being configured to support a back-head of the patient, and being connected with the frame to jointly carry the head of the patient, the inner surface of the back-head support fitting the back-head of the patient, and the outer surface of the back-head support being a curved surface having a preset curvature.

The invention comprises a method and apparatus for aligning a charged particle beam path for treating a tumor of a patient, comprising: a cancer therapy system comprising the charged particle beam path sequentially passing: from an injector, through a synchrotron, along a beam transport line, and through a nozzle; a first two-dimensional detector configured to measure a beam state of positively charged particles; and an integrated intelligent system configured to classify the beam state into a set of beam shape factors, the integrated intelligent system configured to correct the beam shape through application of a condition-action rule: (1) adjusting a first voltage delivered to a first magnet positioned in the beam line prior to the first two-dimensional detector and (2) altering the beam shape through application of a second voltage to a second magnet position in the beam line adjacent to the first magnet.