Infrared heating apparatus and methods

Claim 1

A method for heating an object with black body infrared radiation, said method comprising the steps of: generating black body infrared radiation from a black body radiation source (42,96,158); transmitting the radiation through a first zone (77) and thereafter through a second zone (78) to heat the object (34) located in the second zone (78); establishing a continuous and homogenous fluid medium from the black body radiation source (42,96,158) through the first zone (77) and through the second zone (78); and characterized by stagnating flow of the fluid medium in the first zone (77) to limit transmission of heat by convection from the radiation source (42,96,158) and from the first zone (77) to the second zone (78).

Claim 2

A method for heating an object with black body infrared radiation, said method comprising the steps of: generating black body infrared radiation from a black body radiation source (42,96,158); transmitting the radiation through a first zone (77) and thereafter through a second zone (78) to heat the object (34) located in the second zone (78); establishing a continuous and homogenous fluid medium from the black body radiation source (42,96,158) through the first zone (77) and through the second zone (78); and characterized by stagnating flow of the fluid medium in the first zone (77) to limit transmission of heat by convection from the radiation source (42,96,158) and from the first zone (77) to the second zone (78).

Claim 5

A method for heating internal biological tissues of the type having external tissues without increasing the temperature of the external tissues above a predetermined limit where discomfort to the external tissues occurs comprising the steps of: generating black body infrared radiation in the range of 3-30 μm from a black body radiation source (42,96,158); transmitting the radiation through a first zone (77) and thereafter through a second zone (78) to heat the biological tissues located in the second zone (78); establishing a continuous and homogenous fluid medium from the black body radiation source (42,96,158) through the first zone (77) and through the second zone (78); characterized by stagnating flow of the fluid medium in the first zone (77) to limit transmission of heat by convection from the radiation source (42,96,158) and from the first zone (77) to the second zone (78) to heat the internal tissues while preventing the heating of the external tissues above the predetermined limit.

Claim 6

A method for heating internal biological tissues of the type having external tissues without increasing the temperature of the external tissues above a predetermined limit where discomfort to the external tissues occurs comprising the steps of: generating black body infrared radiation in the range of 3-30 μm from a black body radiation source (42,96,158); transmitting the radiation through a first zone (77) and thereafter through a second zone (78) to heat the biological tissues located in the second zone (78); establishing a continuous and homogenous fluid medium from the black body radiation source (42,96,158) through the first zone (77) and through the second zone (78); characterized by stagnating flow of the fluid medium in the first zone (77) to limit transmission of heat by convection from the radiation source (42,96,158) and from the first zone (77) to the second zone (78) to heat the internal tissues while preventing the heating of the external tissues above the predetermined limit.

Claim 11

A method for increasing localized blood circulation in internal biological tissues of having external tissues and internal tissues without increasing the temperature of the external tissues above a predetermined limit where discomfort to the external tissues occurs comprising the steps of: generating black body infrared radiation in the range of 3-30 μm from a black body radiation source (42,96,158); transmitting the radiation through a first zone (77) and thereafter through a second zone (78) to heat the biological tissues located in the second zone (78); establishing a continuous and homogenous fluid medium from the black body radiation source (42,96,158) through the first zone (77) and through the second zone (78); characterized by stagnating flow of the fluid medium in the first zone (77) to limit transmission of heat by convection from the radiation source (42,96,158) and from the first zone (77) to the second zone (78) to heat the internal tissues while preventing the heating of the external tissues above the predetermined limit to increase circulation by localized vasodilation of capillaries and blood vessels.

Claim 12

A method for increasing localized blood circulation in internal biological tissues of having external tissues and internal tissues without increasing the temperature of the external tissues above a predetermined limit where discomfort to the external tissues occurs comprising the steps of: generating black body infrared radiation in the range of 3-30 μm from a black body radiation source (42,96,158); transmitting the radiation through a first zone (77) and thereafter through a second zone (78) to heat the biological tissues located in the second zone (78); establishing a continuous and homogenous fluid medium from the black body radiation source (42,96,158) through the first zone (77) and through the second zone (78); characterized by stagnating flow of the fluid medium in the first zone (77) to limit transmission of heat by convection from the radiation source (42,96,158) and from the first zone (77) to the second zone (78) to heat the internal tissues while preventing the heating of the external tissues above the predetermined limit to increase circulation by localized vasodilation of capillaries and blood vessels.

Claim 17

A method for increasing the localized blood circulation in internal biological tissues of a penis having external tissues without increasing the temperature of the external tissues above a predetermined limit where injury to the external tissues occurs comprising the steps of: generating black body infrared radiation in the range of 3-30 μm from a black body radiation source (42,96,158); transmitting the radiation through a first zone (77) and thereafter through a second zone (78) to heat the internal tissues of the penis located in the second zone (78); establishing a continuous and homogenous fluid medium from the black body radiation source (42,96,158) through the first zone (77) and through the second zone (78); applying the black body infrared radiation to an exposed surface of the penis; repositioning the penis to irradiate previously unexposed surface of the penis; and characterized by stagnating flow of the fluid medium in the first zone (77) to limit transmission of heat by convection from the radiation source (42,96,158) and from the first zone (77) to the second zone (78) to heat the internal tissues of the penis while preventing the heating of the external tissues of the penis above the predetermined limit to increase circulation by localized vasodilation of capillaries and blood vessels.

Claim 18

A method for increasing the localized blood circulation in internal biological tissues of a penis having external tissues without increasing the temperature of the external tissues above a predetermined limit where injury to the external tissues occurs comprising the steps of: generating black body infrared radiation in the range of 3-30 μm from a black body radiation source (42,96,158); transmitting the radiation through a first zone (77) and thereafter through a second zone (78) to heat the internal tissues of the penis located in the second zone (78); establishing a continuous and homogenous fluid medium from the black body radiation source (42,96,158) through the first zone (77) and through the second zone (78); applying the black body infrared radiation to an exposed surface of the penis; repositioning the penis to irradiate previously unexposed surface of the penis; and characterized by stagnating flow of the fluid medium in the first zone (77) to limit transmission of heat by convection from the radiation source (42,96,158) and from the first zone (77) to the second zone (78) to heat the internal tissues of the penis while preventing the heating of the external tissues of the penis above the predetermined limit to increase circulation by localized vasodilation of capillaries and blood vessels.