Nucletron Operations B.v.

Nucletron B.v.

Johan Henning

Bas Woudstra

Johann Kindlein

Jeroen Schuurman

Johannes Simon Van Der Veen

Arie Luite Visscher

Wilco Van Der Lugt

Stefan Kwa

Wouter Peter Engels

Cor Van De Wardt

Wim De Jager

Martin Van Beek

Adriaan Van Appeldoorn

Finn Sollen

Jeroen Anton Schuurman

Martin Van Den Berg

Arie Luito Visscher

Embodiments of the disclosure may be drawn to wireless afterloaders. Exemplary afterloaders may include a central processing unit, a first complex programmable logic device having a memory, a transceiver operably connected to the complex programmable logic device, wherein the transceiver is configured to wirelessly receive data from a second complex programmable logic device separate from the wireless afterloader, and a battery.

Wireless afterloader

The invention relates to a method for determining the position of a surgical tool relative to a target volume inside an animal body according to a pre-plan comprising the steps of i) obtaining a plurality of two-dimensional images of said target volume using imaging means, each 2D-image being represented by an image data slice I(x,y,z); ii) reconstructing from said plurality of image data slices I(x,y,z) a three-dimensional image of said target volume using transformation means, said 3D-image being represented by a volumetric image data array V(x,y,z); iii) displaying said three-dimensional image of said target volume to an user using displaying means.

Method and apparatus for determining the position of a surgical tool relative to a target volume inside an animal body

A system for transporting a source for brachytherapy may include a source guide, a detector, and a controller. The source guide may be configured to guide a source transport for transporting the source, wherein the source guide includes at least one electronic tag. The detector may be configured to detect a frequency signal generated by the at least one electronic tag, wherein the frequency signal varies when the source transport is proximate to the at least one electronic tag. The controller may be configured to receive the frequency signal from the detector and determine a path of the source transport based on the frequency signal. A method for transporting a source used for brachytherapy may include detecting a frequency signal generated by at least one electronic tag associated with a source guide configured to guide a source transport for transporting the source. The frequency may vary when the source transport is proximate to the at least one electronic tag. The method may further include determining a path of the source transport based on the frequency signal.

System and method for performing brachytherapy

An afterloading device for effectuating a brachytherapy treatment, comprising a first elongated flexible transport element, arranged to maneuver a radiation source between a storage position inside the afterloading device and a treatment position outside the afterloading device, the afterloading device further comprising a second elongated flexible transport element, having at least one transducer, the second transport element being arranged to move the at least one transducer between a first transducer position and a second transducer position.

Afterloading device, and use thereof

One embodiment of the present disclosure is directed to a mobile X-ray unit. The mobile X-ray unit may include an X-ray applicator for emitting an X-ray beam for irradiating an object. The mobile X-ray unit may further include a phantom-based dosimetry system configured to perform a dosimetry check of the X-ray beam. The phantom-based dosimetry system may include two sets of dose meters, each set being positioned on a surface at a distinct depth. The mobile X-ray unit may also include a dosimetry control unit configured to receive measurements from the two sets of dose meters and determine whether the dosimetry check is passed based on the measurements.

Mobile X-ray unit

One embodiment of the present disclosure is directed to a mobile X-ray unit. The mobile X-ray unit may include a base for accommodating a control unit for controlling an X-ray applicator and a power supply for supplying power to the X-ray applicator. The mobile X-ray unit may further include an articulated arm associated with the base and coupled to the X-ray applicator. The X-ray applicator may have an X-ray tube configured to emit an X-ray beam through an exit window to irradiate an object. The mobile X-ray unit may further include a dosimetry system adapted for real time dosimetry.

A medical apparatus for effecting radiation treatment on a pre-selected anatomical portion of an animal body is disclosed. The medical apparatus may include a plurality of treatment channels configured to be positioned adjacent a body tissue and a plurality of delivery channels coupled to a corresponding number of treatment channels. The medical apparatus may also include a plurality of source channels configured to receive one or more energy sources, a tracking channel configured to receive a tracking element, and a connecting element configured to connect each delivery channel with either one of the plurality of sources channels or the tracking channel.

Apparatus and method for effecting radiation treatment on a pre-selected anatomical portion of an animal body

An embodiment of the present disclosure is directed to a radioactive source tracking system adapted to determine in real time a spatial position of a gamma source in a volume, including a set of spatially distributed position sensitive detectors operable in real time arranged about the volume. The system includes a real time computer system adapted to calculate the spatial position per time stamp of the gamma source in the volume based on respective signals generated by the position sensitive detectors. In addition, the radioactive source is represented by a 3D or 4D data stream in real time. Other embodiments of the present disclosure are directed to a method for tracking a radioactive gamma source and a computer program product for causing a processor to determine a real time 3D or a 4D spatial position of a gamma source.

Gamma source tracking system

One embodiment of the present disclosure is directed to a mobile X-ray unit. The mobile X-ray unit may include a base having a control unit and a power supply. The mobile X-ray unit may further include an articulated arm associated with the base. The articulated arm may be coupled to an X-ray applicator having an X-ray tube. The X-ray tube may include a target for generating an X-ray beam, a collimator for shaping the X-ray beam, and an exit surface through which the X-ray beam is configured to exit the X-ray tube. The mobile X-ray unit may have at least one light source configured to illuminate at least a portion of the X-ray beam emitted from the exit surface.

One embodiment of the present disclosure is directed to a mobile X-ray unit. The mobile X-ray unit may include a base for accommodating a control unit configured to control an X-ray applicator and a power supply configured to supply power to the X-ray applicator. The mobile X-ray unit may further include an articulated arm associated with the base. The arm may be configured to support the X-ray applicator. The X-ray applicator may have an X-ray tube for emitting an X-ray beam for irradiating an object. The mobile X-ray unit may further include a phantom-based dosimetry system configured to perform a dosimetry check of the X-ray beam.

One embodiment of the present disclosure is directed to a mobile X-ray unit. The mobile X-ray unit may include a base for accommodating a control unit, a power supply, and a cooler. The mobile X-ray unit further including an articulated arm associated with the base and coupled to an X-ray applicator. The X-ray applicator including an X-ray tube having an anode for generating an acceleration field and a target element for generating an X-ray beam, wherein a longitudinal axis of the anode is substantially parallel to a longitudinal axis of the X-ray tube.

The invention relates to an apparatus for effecting radiation treatment on a pre-selected anatomical portion of an animal body comprising: a group of n hollow treatment channels being inserted at one or more pre-planned positions in said pre-selected anatomical portion; a group of m delivery channels to be connected to a corresponding number m from said group of n hollow treatment channels with m being 2 or more and n being 1 or more; identifying means for identifying which one of said m delivery channels is being connected with which one of said n hollow treatment channels, said identifying means comprising a tracking element accommodated in a tracking channel, said tracking element being intended to be displaced from said tracking channel through each of said interconnected m delivery channels and m treatment channels; storage means for storing k energy emitting sources in a corresponding source-channel, with k&#x2266;m; delivery means for temporarily inserting said k energy emitting sources from their source-channels through a corresponding one of said interconnected m delivery channels and m treatment channels towards one of said pre-planned positions in said anatomical portion; coupling means for coupling at least one of said m delivery channels with a corresponding treatment channel.

A method for determining the position of a surgical tool relative to a target volume inside an animal body according to a pre-plan. The method includes the steps of i) obtaining a plurality of two-dimensional images of said target volume using an imaging device, each 2D-image being represented by an image data slice I(x,y,z); ii) reconstructing from said plurality of image data slices I(x,y,z) a three-dimensional image of said target volume using a transformation device, said 3D-image being represented by a volumetric image data array V(x,y,z); iii) displaying said three-dimensional image of said target volume to an user using a display.

Growing community of inventors

Veenendaal, Netherlands

Johan Henning