mhurhangee/ep-ind-claims huggingface dataset:
A rail system having a rail and a support device for the rail, which support device has a longitudinal axis and is divided into a first support part (10.1) and a second support part (10.2) in parallel to the longitudinal axis, and further having a clamping device for fixedly clamping the rail in the support device, wherein the clamping device has a first clamping profile (40.1) and a second clamping profile (40.2), wherein the first clamping profile (40.1) is formed integrally with the first support part (10.1) and, in a mounting situation, rests against a first circumferential portion of the rail, and the second clamping part (40.2) is formed integrally with the second support part (10.2) and, in the operating state, fixedly rests against a second circumferential portion of the rail, wherein, in the operating situation, a fastening system (41; 41*) fixedly connects the first clamping profile (40.1) and the second clamping profile (40.2) to each other and clamps the rail between the first clamping profile (40.1) and the second clamping profile (40.2), characterized in that the first support part (10.1) and the second support part (10.2) are not formed symmetrically with respect to the longitudinal axis, wherein the larger first support part (10.1) comprises a bottom and a first side wall and the smaller second support part (10.2) comprises a second side wall, wherein on the bottom, a rail bed is formed which is adapted to the circumferential shape of at least one circumferential portion of the rail.
An extreme ultraviolet mask blank system consisting of: an ultra-low expansion substrate; a multi-layer stack over the ultra-low expansion substrate; optionally a planarization layer on the top of the ultra-low expansion substrate; optionally an additional multi-layer stack formed directly on a planarization layer, optionally the multi-layer stack formed on the optional additional multi-layer stack; a capping layer on and in direct contact with the multi-layer stack; an absorber layer on and in direct contact with the capping layer and consisting of a single layer with a thickness of less than 80nm and less than 2% reflectivity of an extreme ultraviolet light at a wavelength of 13.5 nm, wherein the absorber layer consists of Tin (Sn), Lead (Pb), Bismuth (Bi), Antimony (Sb), or Tellurium (Te); and an anti-reflective coating on the absorber layer. an ultra-low expansion substrate; a multi-layer stack over the ultra-low expansion substrate; optionally a planarization layer on the top of the ultra-low expansion substrate; optionally an additional multi-layer stack formed directly on a planarization layer, optionally the multi-layer stack formed on the optional additional multi-layer stack; a capping layer on and in direct contact with the multi-layer stack; an absorber layer on and in direct contact with the capping layer and consisting of a single layer with a thickness of less than 80nm and less than 2% reflectivity of an extreme ultraviolet light at a wavelength of 13.5 nm, wherein the absorber layer consists of Tin (Sn), Lead (Pb), Bismuth (Bi), Antimony (Sb), or Tellurium (Te); and an anti-reflective coating on the absorber layer.
Method for verifying the identity of a medical or pharmaceutical gas or food gas, in which a test quantity of the medical or pharmaceutical gas or food gas is taken from a gas volume of the medical or pharmaceutical gas or food gas from a supply tank and transferred to an analysis device, a value that corresponds to a gas density in the test quantity of the medical or pharmaceutical gas or food gas being determined in the analysis device by means of a density measurement, the identity verification being classified as successful if the value that corresponds to the gas density in the test quantity of the medical or pharmaceutical gas or food gas is determined as corresponding to a target value, and the identity verification being classified as unsuccessful if the value that corresponds to the gas density in the test quantity of the medical or pharmaceutical gas or food gas is determined as not corresponding to the target value, characterized in that the test quantity of the medical or pharmaceutical gas or food gas is taken from the supply tank using a sample gas connection and in that the analysis device is purged prior to the analysis.
Electric appliance, comprising - an interior space separable from an outside environment and - a radiation-emitting device (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) arranged in the interior space for emitting electromagnetic radiation into the interior space, wherein - the radiation-emitting (4, 40, 46, 47, 48, 49) device comprises an organic light-emitting diode (OLED). - the electric appliance is a refrigerator, a freezer, an icebox, a cold room or a cooling chamber and comprises a cooling device for cooling the interior space to a temperature that is lower than a temperature of the outside environment, - the radiation-emitting device (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) emits a first electromagnetic radiation which is emitted when the interior space is separated from the outside environment, - the radiation-emitting device (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) stops emitting the first electromagnetic radiation when the interior space is open to the outside environment, - the first electromagnetic radiation comprises ultraviolet and/or infrared wavelengths, - the radiation-emitting device (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) emits a second electromagnetic radiation which is emitted when the interior space is open to the outside environment, - the radiation-emitting (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) device stops emitting the second electromagnetic radiation when the interior space is separated from the outside environment and - the second electromagnetic radiation comprises visible wavelengths. - an interior space separable from an outside environment and - a radiation-emitting device (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) arranged in the interior space for emitting electromagnetic radiation into the interior space, - the radiation-emitting (4, 40, 46, 47, 48, 49) device comprises an organic light-emitting diode (OLED). - the electric appliance is a refrigerator, a freezer, an icebox, a cold room or a cooling chamber and comprises a cooling device for cooling the interior space to a temperature that is lower than a temperature of the outside environment, - the radiation-emitting device (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) emits a first electromagnetic radiation which is emitted when the interior space is separated from the outside environment, - the radiation-emitting device (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) stops emitting the first electromagnetic radiation when the interior space is open to the outside environment, - the first electromagnetic radiation comprises ultraviolet and/or infrared wavelengths, - the radiation-emitting device (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) emits a second electromagnetic radiation which is emitted when the interior space is open to the outside environment, - the radiation-emitting (4, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49) device stops emitting the second electromagnetic radiation when the interior space is separated from the outside environment and - the second electromagnetic radiation comprises visible wavelengths.
A cartridge for counting and discriminating a plurality of types of blood cells in a blood sample in one counting operation, comprising: a housing (85, 100), a first mixing chamber (3, 112) a bore (90, 75, 122) in the outer surface of the housing for entrance of the blood sample, a first sampling member (2, 104) in communication with the bore, positioned in the housing for sampling the blood sample and having a first cavity (10, 82, 104) for receiving and holding the blood sample, the first sampling member being movably positioned in relation to the housing in such a way that, in a first position, the first cavity is in communication with the bore for entrance of the blood sample into the first cavity, and, in a second position, the first cavity is in communication with the first mixing chamber for discharge of the blood sample into the first mixing chamber, whereby the first sampling member operates to receive and hold a precise volume of blood sample and to transfer the sample to the first mixing chamber, a first liquid storage chamber (1, 83, 103) configured in such way that in the second position of the first sampling member, the first liquid storage chamber commmunicates through the first cavity with the first mixing chamber so that the blood sample can be flushed with discharged liquid from the first liquid stroage chamber into the first mixing chamber, the first liquid storage chamber further comprising a lysing reagent with a lysing and diluting capability sufficient for lysing of erythrocytes while maintaining counting ability of other blood cell types, a first collection chamber (5, 114) separated by a wall from the first mixing chamber, the wall containing a first orifice (59, 113) for the passage of the cells flowing from the first mixing chamber, through the first orifice and into the first collection chamber, a first cell characterization means adapted for characterization of the cells flowing through the first orifice, and volume metering means comprising a volume metering chamber (6, 101, 107) of a known volume with an inlet communicating with the first collection chamber and an outlet, presence of the liquid being detected at the inlet and at the outlet by electrodes connected through the body of the cartridge. a housing (85, 100), a first mixing chamber (3, 112)
A tissue acquisition device (50, 94, 110, 124, 138, 154, 342) comprising: a support frame (52, 100, 116, 348); an elongate roller (54, 82, 96, 112, 126, 140, 156, 344) mounted on the frame for rotation about the roller's long axis, said roller including a tissue-engaging structure for engaging tissue and advancing the engaged tissue in the direction of roller rotation; a roller driver for rotating the roller; an arm (56, 92, 98, 114, 128, 142, 170, 346) mounted on said frame at a position spaced from and confronting said roller, so that a two-layer tissue fold can be formed between the arm and the roller, when the roller is rotated; and a vacuum conduit in said frame for connecting an external vacuum source to said roller and thereby to hold one layer of a two-layer tissue fold by vacuum adherence, as tissue is being advanced into the device by rotation of the roller; wherein said tissue-engaging structure includes a plurality of elongate tissue-capture chambers (70, 88, 160) formed in said roller and distributed radially about the roller; and wherein the tissue acquisition device is configured such that said vacuum conduit is operable to connect the external vacuum source to each of the tissue-capture chambers in succession as the roller is rotated, in a tissue-advancing direction, such that tissue of the tissue fold is drawn into and through said device by successive capture and release of the tissue in the successive tissue-capture chambers. a support frame (52, 100, 116, 348); an elongate roller (54, 82, 96, 112, 126, 140, 156, 344) mounted on the frame for rotation about the roller's long axis, said roller including a tissue-engaging structure for engaging tissue and advancing the engaged tissue in the direction of roller rotation; a roller driver for rotating the roller; an arm (56, 92, 98, 114, 128, 142, 170, 346) mounted on said frame at a position spaced from and confronting said roller, so that a two-layer tissue fold can be formed between the arm and the roller, when the roller is rotated; and a vacuum conduit in said frame for connecting an external vacuum source to said roller and thereby to hold one layer of a two-layer tissue fold by vacuum adherence, as tissue is being advanced into the device by rotation of the roller;
Method for impregnating textiles with compositions comprising alkoxypolysiloxanes of the formula R 1 3 SiO[SiR 1 (OR 2)O] x [SiR 1 2 O] y [SiR 1 R 3 O] z SiR 1 3 where R 1 at each occurrence is the same or different and represents an optionally substituted a C 1 -C 7 hydrocarbon moiety, R 2 at each occurrence is the same or different and represents a hydrogen atom or a C 1 -C 6 hydrocarbon moiety, R 3 at each occurrence is the same or different and represents a C 8 -C 30 hydrocarbon moiety, x represents an integer of not less than 1, preferably not less than 5, more preferably not less than 10 and not more than 1 000, preferably not more than 100, more preferably not more than 50, y represents an integer of not less than 0 and not more than 100, preferably not more than 50, more preferably not more than 10, z represents an integer of not less than 0, preferably not less than 5, more preferably not less than 10, and not more than 1 000, preferably not more than 100, more preferably not more than 50, with the proviso that there are present x units [SiR 1 (OR 2)O] in amounts of not less than 10 mol%, preferably not less than 30 mol%, and not more than 100 mol%, preferably not more than 70 mol%, y units [SiR 1 2 O] in amounts of not less than 0 mol% and not more than 90 mol%, preferably not more than 50 mol%, and z units [SiR 1 R 3 O] in amounts of not less than 0 mol%, preferably not less than 20 mol%, and not more than 90 mol%, preferably not more than 70 mol%, all based on the x+y+z sum total of siloxane units. R 1 at each occurrence is the same or different and represents an optionally substituted a C 1 -C 7 hydrocarbon moiety, R 2 at each occurrence is the same or different and represents a hydrogen atom or a C 1 -C 6 hydrocarbon moiety, R 3 at each occurrence is the same or different and represents a C 8 -C 30 hydrocarbon moiety, x represents an integer of not less than 1, preferably not less than 5, more preferably not less than 10 and not more than 1 000, preferably not more than 100, more preferably not more than 50, y represents an integer of not less than 0 and not more than 100, preferably not more than 50, more preferably not more than 10, z represents an integer of not less than 0, preferably not less than 5, more preferably not less than 10, and not more than 1 000, preferably not more than 100, more preferably not more than 50, x units [SiR 1 (OR 2)O] in amounts of not less than 10 mol%, preferably not less than 30 mol%, and not more than 100 mol%, preferably not more than 70 mol%, y units [SiR 1 2 O] in amounts of not less than 0 mol% and not more than 90 mol%, preferably not more than 50 mol%, and z units [SiR 1 R 3 O] in amounts of not less than 0 mol%, preferably not less than 20 mol%, and not more than 90 mol%, preferably not more than 70 mol%,
Method for the remote control of a viewer, which is used to display at least one sequence of medical images, wherein the viewer is controlled by an application implemented on a remote server, wherein the viewer and server exchange data indirectly via an RDP network connection in that the data exchange between the viewer and the application is mediated via an agent (Ag), wherein the agent (Ag) exchanges data with a computer via the RDP network connection and also via a separate data channel and wherein the agent (Ag) exchanges data with the server via the separate data channel, comprising the following method steps: - on the part of the application: generation of a sequence of images to be displayed on the viewer, of an identifier and of a transmission indicator and sending the sequence of images with the identifier and the transmission indicator to the agent (Ag) - on the part of the agent (Ag): analysis of the received transmission indicator for the generation of a modified sequence of images in dependence on the transmission indicator - sending the modified sequence of images with the identifier from the agent (Ag) to the viewer via the RDP network connection - sending the identifier to the viewer as a reference identifier via the separate data channel - on the part of the computer: receiving the modified sequence of images with the identifier and the reference identifier and comparing the identifier with the reference identifier for conformity - displaying the sequence of images on the viewer. - on the part of the application: generation of a sequence of images to be displayed on the viewer, of an identifier and of a transmission indicator and sending the sequence of images with the identifier and the transmission indicator to the agent (Ag) - on the part of the agent (Ag): analysis of the received transmission indicator for the generation of a modified sequence of images in dependence on the transmission indicator - sending the modified sequence of images with the identifier from the agent (Ag) to the viewer via the RDP network connection - sending the identifier to the viewer as a reference identifier via the separate data channel - on the part of the computer: receiving the modified sequence of images with the identifier and the reference identifier and comparing the identifier with the reference identifier for conformity - displaying the sequence of images on the viewer.
A method of routing data traffic to a device in a mesh network when the device moves from a coverage area of a first roaming node of the mesh network into a coverage area of a second roaming node of the mesh network, the mesh network having a plurality of nodes (50A.. 50H) for providing wireless access to wireless end user devices (60A...60L) including the device, the plurality of nodes (50A.. 50H) including the first roaming node, the second roaming node, a home node wherein the device is associated with the home node, and a gateway node (30, 40, 200, GT1, GT2), wherein the gateway node (30, 40, 200, GT1, GT2) is for tracking the wireless end user devices (60A...60L) and relaying data traffic between the mesh network and another network external to the mesh network, characterized in that the method comprises: receiving at the gateway node (30, 40, 200, GT1, GT2) a notification from the second roaming node that the device has moved into the coverage area of the second roaming node; receiving at the home node and the first roaming node a notification from the gateway node (30, 40, 200, GT1, GT2) that the device has moved into the coverage area of the second roaming node; receiving data traffic destined for the device at the first roaming node; forwarding the data traffic from the first roaming node to the second roaming node; and forwarding the data traffic from the second roaming node to the device. receiving at the gateway node (30, 40, 200, GT1, GT2) a notification from the second roaming node that the device has moved into the coverage area of the second roaming node; receiving at the home node and the first roaming node a notification from the gateway node (30, 40, 200, GT1, GT2) that the device has moved into the coverage area of the second roaming node; receiving data traffic destined for the device at the first roaming node; forwarding the data traffic from the first roaming node to the second roaming node; and forwarding the data traffic from the second roaming node to the device.
A refrigerator comprising: a heat-insulated storage compartment, a back partition wall and a partition wall; an atomization unit included in a mist spray apparatus that sprays a mist into said storage compartment and that has an external case being arranged in a depression (711a, 723a) of the back partition wall or the partition wall of the refrigerator; an atomization tip included in said atomization unit, the mist being sprayed from said atomization tip; a temperature detection unit configured to detect the temperature of said atomization tip, and a temperature adjustment unit (712; 754) configured to adjust a temperature of said atomization tip; characterized by a heat transfer connection member fixed to the external case of the atomization unit and thermally connected with the atomization tip, wherein said heat transfer connection member has a projection which protrudes from the external case, wherein the projection is located opposite to the atomization tip and is located into a deepest depression or a through part of the back partition wall or into a deepest depression of the partition wall, and wherein said temperature adjustment unit (712; 754) is configured to indirectly adjust the temperature of said atomization tip by cooling or heating said atomization tip to a dew point or below via said projection, to cause water in air to form dew condensation at said atomization tip, and said atomization unit is configured to generate the mist containing radicals, the generated mist adhering to vegetables and fruit stored in said storage compartment to suppress low temperature damage. a heat-insulated storage compartment, a back partition wall and a partition wall; an atomization unit included in a mist spray apparatus that sprays a mist into said storage compartment and that has an external case being arranged in a depression (711a, 723a) of the back partition wall or the partition wall of the refrigerator; an atomization tip included in said atomization unit, the mist being sprayed from said atomization tip; a temperature detection unit configured to detect the temperature of said atomization tip, and a temperature adjustment unit (712; 754) configured to adjust a temperature of said atomization tip; characterized by a heat transfer connection member fixed to the external case of the atomization unit and thermally connected with the atomization tip, wherein said heat transfer connection member has a projection which protrudes from the external case, wherein the projection is located opposite to the atomization tip and is located into a deepest depression or a through part of the back partition wall or into a deepest depression of the partition wall, and wherein said temperature adjustment unit (712; 754) is configured to indirectly adjust the temperature of said atomization tip by cooling or heating said atomization tip to a dew point or below via said projection, to cause water in air to form dew condensation at said atomization tip, and said atomization unit is configured to generate the mist containing radicals, the generated mist adhering to vegetables and fruit stored in said storage compartment to suppress low temperature damage.
Apparatus for the detection and/or characterization of particles (BEADS) comprising: means for the generation of points of stable equilibrium of a force field acting on said particles, generated by an array of electrodes; and sensors (PIXEL) associated with said electrodes, characterized in that to each electrode a first sensor (PIXEL_V) for detecting the transit of said particles in a vertical direction, and a second sensor (PIXEL_H) for detecting the transit of said particles in a horizontal direction are associated.
A method of cell selection, the method comprising: determining; by an apparatus a gain of an antenna associated with a user equipment, UE; adding by the appratus an offset to a threshold to yield a power threshold, wherein the offset is based on the gain of the antenna; selecting; by the appratus a wireless network; obtaining by the appratus a power measurement associated with a cell within the selected wireless network; comparing by the appratus the power measurement with the power threshold to yield a comparison; and selecting by the appratus the cell as a suitable cell, wherein the comparison indicates that the power measurement is greater than the power threshold. determining; by an apparatus a gain of an antenna associated with a user equipment, UE; adding by the appratus an offset to a threshold to yield a power threshold, wherein the offset is based on the gain of the antenna; selecting; by the appratus a wireless network; obtaining by the appratus a power measurement associated with a cell within the selected wireless network; comparing by the appratus the power measurement with the power threshold to yield a comparison; and selecting by the appratus the cell as a suitable cell, wherein the comparison indicates that the power measurement is greater than the power threshold.