Abstract: An apparatus for cooking at least one egg with an eggshell, comprises a housing provided with a device for providing microwave radiation in a confined space in the housing and a holder located in the confined space. The holder is provided with at least one cavity adapted to the shape of the egg with the eggshell. The holder comprises at least a first holder part and a second holder part being movable with respect to each other between a first position in which an egg with an eggshell can be positioned in the cavity to a second position wherein the holder parts enclose the cavity. The apparatus further comprises means to insert a liquid into the holder for filling the cavity with the liquid to at least partly surround the eggshell of the egg located in the cavity. The apparatus comprises a container for holding the liquid and a dosing unit to add at least one component to the liquid.

Abstract: An apparatus and method for cooking at least one egg with an eggshell. The apparatus comprises a housing provided with a device for providing microwave radiation in a confined space in the housing and a holder located in the confined space. The holder is provided with at least one cavity adapted to the shape of the egg with the eggshell. The holder comprises at least a first holder part and a second holder part being movable with respect to each other between a first position in which an egg with an eggshell can be positioned in the cavity to a second position wherein the holder parts enclose the cavity. The apparatus further comprises means to insert a liquid into the holder for filling the cavity with the liquid to at least partly surround the eggshell of the egg located in the cavity. The housing comprises at least a first housing part provided with the first holder part and a second housing part provided with the second holder part.

Abstract: Disclosed is a radiation source module and a radiation collector for the module with the radiation collector comprising a substrate coated with at least one reflective layer and a plurality of perforations within the reflective layer, with the plurality of holes forming vertices of a grid substantially covering the surface, and wherein the coating may comprise multiple layers.

Abstract: An apparatus and method for cooking at least one egg with an eggshell The apparatus comprises a housing provided with a device for providing microwave radiation in a confined space in the housing and a holder located in the confined space. The holder is provided with at least one cavity adapted to the shape of the egg with the eggshell. The apparatus further comprises means to insert a liquid into the holder for filling the cavity with the liquid to at least partly surround the eggshell of the egg located in the cavity. The apparatus comprises also means to control the amount of liquid in the holder during a cooking process of the at least one egg, wherein: —a first amount of liquid is inserted into the cavity before providing microwave radiation in the cavity, which first amount of liquid surrounds the eggshell of the egg located in the cavity; —a second amount of liquid is gradually inserted into the cavity.

Abstract: Disclosed is a radiation source module and a radiation collector for the module with the radiation collector comprising a substrate coated with at least one reflective layer and a plurality of perforations within the reflective layer, with the plurality of holes forming vertices of a grid substantially covering the surface, and wherein the coating may comprise multiple layers.

Abstract: An apparatus and method for cooking at least one egg with an eggshell The apparatus comprises a housing provided with a device for providing microwave radiation in a confined space in the housing and a holder located in the confined space. The holder is provided with at least one cavity adapted to the shape of the egg with the eggshell. The apparatus further comprises means to insert a liquid into the holder for filling the cavity with the liquid to at least partly surround the eggshell of the egg located in the cavity. The apparatus comprises also means to control the amount of liquid in the holder during a cooking process of the at least one egg, wherein: —a first amount of liquid is inserted into the cavity before providing microwave radiation in the cavity, which first amount of liquid surrounds the eggshell of the egg located in the cavity; —a second amount of liquid is gradually inserted into the cavity.

Abstract: An apparatus and method for cooking at least one egg with an eggshell. The apparatus comprises a housing provided with a device for providing microwave radiation in a confined space in the housing and a holder located in the confined space. The holder is provided with at least one cavity adapted to the shape of the egg with the eggshell. The holder comprises at least a first holder part and a second holder part being movable with respect to each other between a first position in which an egg with an eggshell can be positioned in the cavity to a second position wherein the holder parts enclose the cavity. The apparatus further comprises means to insert a liquid into the holder for filling the cavity with the liquid to at least partly surround the eggshell of the egg located in the cavity. The housing comprises at least a first housing part provided with the first holder part and a second housing part provided with the second holder part.

Abstract: An apparatus for cooking at least one egg with an eggshell, comprises a housing provided with a device for providing microwave radiation in a confined space in the housing and a holder located in the confined space. The holder is provided with at least one cavity adapted to the shape of the egg with the eggshell. The holder comprises at least a first holder part and a second holder part being movable with respect to each other between a first position in which an egg with an eggshell can be positioned in the cavity to a second position wherein the holder parts enclose the cavity. The apparatus further comprises means to insert a liquid into the holder for filling the cavity with the liquid to at least partly surround the eggshell of the egg located in the cavity. The apparatus comprises a container for holding the liquid and a dosing unit to add at least one component to the liquid.

Abstract: The invention relates to a device for adding a liquid or gaseous additive to tap water, comprising at least one additive container for the additive, at least one feed channel leading from the additive container to a tap water conduit located downstream of a controllable tap and at least one controllable closing valve placed in the channel. For the purpose of adding the additive to the water use can be made of a pressurized container. This pressure can be generated by a propellant gas already present in the container. It is also possible to make use of a pump incorporated in the device which can be driven in diverse ways. It is however recommended for the additive container to be coupled to a pump for pumping additive present in the interior of the additive container to the feed channel.

Abstract: The invention comprises a measurement device for lung function measurement comprising a flow tube forming an air-flow path, an actuator for closing and opening the flow tube and at least one sensor for measuring at least one lung function variable, wherein the actuator is arranged to force the flow tube to close the air-flow path by pressing the tube against a wall of the flow tube.

Abstract: One embodiment of the present disclosure may be directed to a mobile X-ray unit. The mobile X-ray unit may include a base and a mast associated with the base. The mobile X-ray unit may further include an arm having a ball joint and a rotational joint. The arm may rotate relative to the mast about the rotational joint, and a X-ray applicator may rotate relative to the mast about the ball joint.

Abstract: The invention is related to a camera device (10) for CCTV applications. The camera device (10) comprises a sensor (12) comprising a lens (14) for monitoring the scene in front of the camera device (10). At least one polarizer element (16) is assigned to said sensor (12), the at least one polarizer element (16) being rotatably mounted with respect to said sensor (12), or said polarizer element (16) uses opto-electric effects.

Abstract: In a lithographic projection system, the radiation energy delivered to the substrate needs to be accurately controlled. Attenuation by injecting an absorbent gas into a volume through which the radiation passes is a convenient way to control the energy. Additionally, the interaction between gasses and the radiation may be used to measure the energy of the radiation with minimal disruption to the radiation.

Abstract: The invention is related to a camera device (10) for CCTV applications. The camera device (10) comprises a sensor (12) comprising a lens (14) for monitoring the scene in front of the camera device (10). At least one polarizer element (16) is assigned to said sensor (12), the at least one polarizer element (16) being rotatably mounted with respect to said sensor (12), or said polarizer element (16) uses opto-electric effects.

Abstract: An observation device includes a housing and an optical lens having a field of view. The housing includes an outer dome having at least one transparent portion and an inner dome. The optical lens is accommodated within the housing. The outer dome is transparent in the field of view of the lens and is configured to protect the lens. The observation device is resistant to impact by an object with a maximum impact energy of a first magnitude. A like observation device, but lacking an inner dome, is resistant to impact by the object with a maximum impact energy of a second magnitude. The ratio between the first magnitude and the second magnitude is at least 1.1.

Abstract: In-situ cleaning of optical components for use in a lithographic projection apparatus can be carried out by irradiating a space within the apparatus containing the optical component with UV or EUV radiation having a wavelength of less than 250 nm, in the presence of molecular oxygen. Generally, the space will be purged with an ozoneless purge gas which contains a small amount of molecular oxygen in addition to the usual purge gas composition. The technique can also be used in an evacuated space by introducing a low pressure of molecular oxygen into the space.

Abstract: Pre-cleaning or in situ cleaning of optical components for use in a lithographic projection apparatus can be carried out by irradiating the optical component with microwave and/or infra-red radiation, preferably infra-red radiation having a wavelength or a range of wavelengths in the range of from 1000 cm?1 to 4600 cm?1. This technique may be suitable for cleaning a mask. By monitoring the absorption of microwave and/or infra-red radiation directed at a contaminated optical component, the degree of contamination of said component can be qualified. This method may also be suitable for reducing the partial pressure of water in EUV apparatus.

Abstract: In-situ cleaning of optical components for use in a lithographic projection apparatus can be carried out by irradiating a space within the apparatus containing the optical component with UV or EUV radiation having a wavelength of less than 250 nm, in the presence of molecular oxygen. Generally, the space will be purged with an ozoneless purge gas which contains a small amount of molecular oxygen in addition to the usual purge gas composition. The technique can also be used in an evacuated space by introducing a low pressure of molecular oxygen into the space.

Abstract: Cleaning of optical components for use in a lithographic projection apparatus can be carried out by irradiating a space within the apparatus containing the optical component with UV or EUV radiation having a wavelength of less than 250 nm, in the presence of an oxygen-containing species selected from water, nitrogen oxide and oxygen-containing hydrocarbons. Generally, the space will be purged with an ozone-less purge gas which contains a small amount of the oxygen-containing species in addition to the usual purge gas composition. The technique can also be used in an evacuated space by introducing a low pressure of the oxygen-containing species into the space.

Abstract: In a system for flushing at least one internal space of an objective, in particular an exposure projection objective for semiconductor lithography, flushing is performed by mixing at least two inert gasses in such a way that the refractive index resulting therefrom corresponds at least approximately to the refractive index of air.