Abstract: There is provided an optical element unit comprising an optical element, a connector element, and an optical element holder. The optical element has a plane of main extension as well as an outer circumference and defines a radial direction. The connector element connects the optical element and the optical element holder, the connector element having a first connector part connected to the optical element at the outer circumference and a second connector part connected to the optical element holder. The first connector part and the second connector part are connected via at least one coupling part, the coupling part being compliant in the radial direction and substantially preventing rotation between the first connector part and the second connector part in a plane substantially parallel to the plane of main extension.

Abstract: The invention relates to an apparatus for thermal printing or embossing, comprising a film conveying section for a carrier film coated with a coloring agent, a print support for a printable medium and a printhead for selectively heating the carrier film in accordance with a predetermined printed image, so that the coloring agent is transferred from the carrier film to the printable medium in accordance with the predetermined printed image. The apparatus is characterized in that it further comprises a sensor device set up for recording a remaining pattern of the coloring agent on the carrier film after the heating of the carrier film and set up for generating a sensor signal on the basis of the recorded pattern. The invention additionally relates to a corresponding process for printed image inspection in thermal printing or embossing and to a computer program with program code for carrying out the process when the computer program is performed in a computer.

Abstract: There is provided an optical element unit comprising an optical element, a connector element, and an optical element holder. The optical element has a plane of main extension as well as an outer circumference and defines a radial direction. The connector element connects the optical element and the optical element holder, the connector element having a first connector part connected to the optical element at the outer circumference and a second connector part connected to the optical element holder. The first connector part and the second connector part are connected via at least one coupling part, the coupling part being compliant in the radial direction and substantially preventing rotation between the first connector part and the second connector part in a plane substantially parallel to the plane of main extension.

Abstract: The invention relates to an apparatus for thermal printing or embossing, comprising a film conveying section for a carrier film coated with a coloring agent, a print support for a printable medium and a printhead for selectively heating the carrier film in accordance with a predetermined printed image, so that the coloring agent is transferred from the carrier film to the printable medium in accordance with the predetermined printed image. The apparatus is characterized in that it further comprises a sensor device set up for recording a remaining pattern of the coloring agent on the carrier film after the heating of the carrier film and set up for generating a sensor signal on the basis of the recorded pattern. The invention additionally relates to a corresponding process for printed image inspection in thermal printing or embossing and to a computer program with program code for carrying out the process when the computer program is performed in a computer.

Abstract: There is provided an optical module for microlithography. The optical module includes an optical element and a retaining device for holding the optical element. The optical element has (a) a main extension plane, in which it defines a radial direction R and a circumferential direction U, and (b) a free optical diameter and an overrun in the region of its outer periphery. The retaining device contacts the optical element in the region of the overrun, and is formed and/or contacts the optical element in such a manner that the overrun ratio, calculated from the overrun related to a minimum overrun necessary for the production of the optical element, is at most 1.5.

Abstract: There is provided an optical element comprising an optical element body, a reflecting area and an optical passageway. The optical element body defines an axis of rotational symmetry. The reflecting area is disposed on the optical element body and adapted to be optically used in an exposure process. The optical passageway is arranged within the optical element body and allows light to pass the optical element body, the optical passageway being arranged eccentrically with respect to the axis of rotational symmetry.

Abstract: There is provided an optical element unit comprising an optical element, a connector element, and an optical element holder. The optical element has a plane of main extension as well as an outer circumference and defines a radial direction. The connector element connects the optical element and the optical element holder, the connector element having a first connector part connected to the optical element at the outer circumference and a second connector part connected to the optical element holder. The first connector part and the second connector part are connected via at least one coupling part, the coupling part being compliant in the radial direction and substantially preventing rotation between the first connector part and the second connector part in a plane substantially parallel to the plane of main extension.

Abstract: An optical subassembly with an optical element, for example a mirror element (7), has an optical surface (9) and bearing points (12) arranged on the circumference. The optical element (7) is connected to a mount (13) at the bearing points (12) via connecting elements (14, 15, 16, 17, 18). Stress-decoupling cutouts, for example curved slots (11), are provided between the optical surface (9) and the bearing points (12).

Abstract: There is provided an optical component. The optical component includes a material having a surface that heats to a maximum temperature (Tmax) when subjected to radiation. The material has a temperature-dependent coefficient of thermal expansion (?(T)) of about zero at a temperature T0 that is approximately equal to Tmax. The optical component is suitable for use in any of an illumination system, a projection objective or a projection exposure system, as employed, for example, for EUV microlithography.

Abstract: There is provided an optical module for microlithography. The optical module includes an optical element and a retaining device for holding the optical element. The optical element has (a) a main extension plane, in which it defines a radial direction R and a circumferential direction U, and (b) a free optical diameter and an overrun in the region of its outer periphery. The retaining device contacts the optical element in the region of the overrun, and is formed and/or contacts the optical element in such a manner that the overrun ratio, calculated from the overrun related to a minimum overrun necessary for the production of the optical element, is at most 1.5.

Abstract: An optical subassembly with an optical element, for example a mirror element (7), has an optical surface (9) and bearing points (12) arranged on the circumference. The optical element (7) is connected to a mount (13) at the bearing points (12) via connecting elements (14, 15, 16, 17, 18). Stress-decoupling cutouts, for example curved slots (11), are provided between the optical surface (9) and the bearing points (12).

Abstract: There is provided an optical element comprising an optical element body, a reflecting area and an optical passageway. The optical element body defines an axis of rotational symmetry. The reflecting area is disposed on the optical element body and adapted to be optically used in an exposure process. The optical passageway is arranged within the optical element body and allows light to pass the optical element body, the optical passageway being arranged eccentrically with respect to the axis of rotational symmetry.

Abstract: The invention relates to a method for the targeted deformation of an optical element, in particular a mirror that is positioned in an optical system. The optical element or a support element, on which the optical element is placed in such a way that forces acting on the support element cause a deformation of the optical element itself, are connected to a fixed structure indirectly by means of fixing elements or connecting members. The desired deformation of the optical element is achieved by a targeted variation of the fixing elements to modify the forces exerted in the fixing process on the optical element or the support element and/or the action of the moment of force and/or torque of the connecting members on the fixing elements.

Abstract: There is provided an optical component. The optical component includes a material having a surface that heats to a maximum temperature (Tmax) when subjected to radiation. The material has a temperature-dependent coefficient of thermal expansion (?(T)) of about zero at a temperature T0 that is approximately equal to Tmax. The optical component is suitable for use in any of an illumination system, a projection objective or a projection exposure system, as employed, for example, for EUV microlithography.

Abstract: A system for assisted breathing has a ventilator delivers a breathing gas to a living creature in order to facilitate, support and/or control the breathing of the living creature. The respiratory musculature is weakened during treatment with a ventilator, long-term treatment in particular, and this results in longer treatment times, especially weaning times. Accordingly, a stimulation apparatus, devised for connection to the living creature, is incorporated into the system for assisted breathing in order to stimulate the respiratory nervous system and/or respiratory musculature of the living creature. Weakening of the respiratory musculature can be reduced by the stimulation apparatus emitting a stimulation signal at specific intervals.

Abstract: A method of dyeing of short-staple fiber of cotton, synthetics or blends thereof in which the sliver if formed into a roving package on a perforated sleeve in a flyer frame with a slight twist and with a uniform winding density and the roving package is then subjected to dyeing and the dyed roving package is then delivered directly to the final spinning frame. The dyeing of the flyer slubbing is possible because of a package before final spinning, but not in the flock form with a stability of the flyer slubbing afforded by the slight twist imparted thereto in the flyer frame.