Abstract: An apparatus for obtaining an anti-tumour immunologic response by thermotherapy of a treatment lesion covering at least a portion of a tumour is disclosed. The apparatus comprises a heating probe comprising an optical fiber and a cooling catheter. The optical fiber is inserted in the cooling catheter. Further the heating probe has a light emitting area, and the heating probe is interstitially insertable into the tumour of the treatment lesion. The heat probe is internally cooled by a fluid circulating in said catheter. The apparatus further comprises a first thermal sensor member having at least one sensor area. The first thermal sensor member is positionable at a distance from said boundary. The apparatus also comprises a control unit for controlling a power output of said light source based on a measured first temperature.

Abstract: An apparatus for obtaining an anti-tumour immunologic response by thermotherapy of a treatment lesion covering at least a portion of a tumour is disclosed. The apparatus comprises a heating probe comprising an optical fiber and a cooling catheter. The optical fiber is inserted in the cooling catheter. Further the heating probe has a light emitting area, and the heating probe is interstitially insertable into the tumour of the treatment lesion. The heat probe is internally cooled by a fluid circulating in said catheter. The apparatus further comprises a first thermal sensor member having at least one sensor area. The first thermal sensor member is positionable at a distance from said boundary. The apparatus also comprises a control unit for controlling a power output of said light source based on a measured first temperature.

Abstract: An apparatus for obtaining an anti-tumour immunologic response by thermotherapy of a treatment lesion covering at least a portion of a tumour is disclosed. The apparatus comprises a heating probe comprising an optical fiber and a cooling catheter. The optical fiber is inserted in the cooling catheter. Further the heating probe has a light emitting area, and the heating probe is interstitially insertable into the tumour of the treatment lesion. The heat probe is internally cooled by a fluid circulating in said catheter. The apparatus further comprises a first thermal sensor member having at least one sensor area. The first thermal sensor member is positionable at a distance from said boundary. The apparatus also comprises a control unit for controlling a power output of said light source based on a measured first temperature.

Abstract: An apparatus for obtaining an anti-tumour immunologic response by thermotherapy of a treatment lesion covering at least a portion of a tumour is disclosed. The apparatus comprises a heating probe comprising an optical fiber and a cooling catheter. The optical fiber is inserted in the cooling catheter. Further the heating probe has a light emitting area, and the heating probe is interstitially insertable into the tumour of the treatment lesion. The heat probe is internally cooled by a fluid circulating in said catheter. The apparatus further comprises a first thermal sensor member having at least one sensor area. The first thermal sensor member is positionable at a distance from said boundary. The apparatus also comprises a control unit for controlling a power output of said light source based on a measured first temperature.

Abstract: An apparatus for determining a thermal property of tissue includes a base unit with one or more energy source and at least two, preferably detachable, leads. The distal end of each lead, which is introduced into the tissue to be treated, has at least two longitudinally spaced temperature measuring elements to measure surrounding tissue temperature and at least two longitudinally spaced electrode surfaces for applying current to the tissue. Each distal end is also provided with an element which uses energy emitted by the sources of energy to heat up the surrounding tissue. The base unit has computing elements, current generating elements for generating an alternating current, and conductance determining elements for determining the tissue conductance between pairs of electrode surfaces based on the alternating current applied by the current generating elements to the tissue. Methods for using the device and leads for use in the device are also described.

Abstract: An apparatus for determining a thermal property of tissue includes a base unit with one or more energy source and at least two, preferably detachable, leads. The distal end of each lead, which is introduced into the tissue to be treated, has at least two longitudinally spaced temperature measuring elements to measure surrounding tissue temperature and at least two longitudinally spaced electrode surfaces for applying current to the tissue. Each distal end is also provided with an element which uses energy emitted by the sources of energy to heat up the surrounding tissue. The base unit has computing elements, current generating elements for generating an alternating current, and conductance determining elements for determining the tissue conductance between pairs of electrode surfaces based on the alternating current applied by the current generating elements to the tissue. Methods for using the device and leads for use in the device are also described.

Abstract: An apparatus for determining a thermal property of tissue includes a base unit with one or more energy source and at least two, preferably detachable, leads. The distal end of each lead, which is introduced into the tissue to be treated, has at least two longitudinally spaced temperature measuring elements to measure surrounding tissue temperature and at least two longitudinally spaced electrode surfaces for applying current to the tissue. Each distal end is also provided with an element which uses energy emitted by the sources of energy to heat up the surrounding tissue. The base unit has computing elements, current generating elements for generating an alternating current, and conductance determining elements for determining the tissue conductance between pairs of electrode surfaces based on the alternating current applied by the current generating elements to the tissue. Methods for using the device and leads for use in the device are also described.

Abstract: An apparatus for obtaining an anti-tumour immunologic response by thermotherapy of a treatment lesion covering at least a portion of a tumour is disclosed. The apparatus comprises a heating probe comprising an optical fiber and a cooling catheter. The optical fiber is inserted in the cooling catheter. Further the heating probe has a light emitting area, and the heating probe is interstitially insertable into the tumour of the treatment lesion. The heat probe is internally cooled by a fluid circulating in said catheter. The apparatus further comprises a first thermal sensor member having at least one sensor area. The first thermal sensor member is positionable at a distance from said boundary. The apparatus also comprises a control unit for controlling a power output of said light source based on a measured first temperature.

Abstract: An apparatus for determining a thermal property of tissue includes a base unit with one or more energy source and at least two, preferably detachable, leads. The distal end of each lead, which is introduced into the tissue to be treated, has at least two longitudinally spaced temperature measuring elements to measure surrounding tissue temperature and at least two longitudinally spaced electrode surfaces for applying current to the tissue. Each distal end is also provided with an element which uses energy emitted by the sources of energy to heat up the surrounding tissue. The base unit has computing elements, current generating elements for generating an alternating current, and conductance determining elements for determining the tissue conductance between pairs of electrode surfaces based on the alternating current applied by the current generating elements to the tissue. Methods for using the device and leads for use in the device are also described.