mhurhangee/ep-ind-claims huggingface dataset:
Drain (20; 40; 50; 70; 80; 100) and a surrounding floor (87, 88), which drain (20; 40; 50; 70; 80; 100) comprises a housing with a longitudinal direction, a bottom surface (21; 41; 52; 71; 81; 101) in which a discharge opening is arranged, an upright peripheral edge(22; 42; 53; 72; 82; 102, 103) along the edge of the bottom surface (21; 41; 52; 71; 81; 101), and an elongate opening (26; 46; 57; 76; 86; 110), which elongate opening (26; 46; 57; 76; 86; 110) extends parallel to the longitudinal direction of the housing, the tubular housing being integrated into the surrounding floor (87, 88); and - a siphon (60, 61; 90) arranged on the discharge opening in the bottom surface (21; 41; 52; 71; 81; 101), characterized in that the housing is tubular having an upper surface (25; 44; 54; 74; 84; 104), wherein the elongate opening (26; 46; 57; 76; 86; 110) is arranged in the upper surface (25; 44; 54; 74; 84; 104); wherein the upper edge of the peripheral wall comprises an inward directed horizontal flange (24; 43; 55; 73; 83; 104), which horizontal flange (24; 43; 55; 73; 83; 104) forms together with a separate sheet part (25; 44; 54; 74; 84; 106, 109) the upper wall of the housing; and wherein the upper layer (14; 88) of the surrounding floor (13, 14; 87, 88) is laid over the tubular housing (2, 3, 4, 8, 9, 10) up to the elongate opening (7; 26; 46; 57; 76; 86; 110). - a siphon (60, 61; 90) arranged on the discharge opening in the bottom surface (21; 41; 52; 71; 81; 101), characterized in that the housing is tubular having an upper surface (25; 44; 54; 74; 84; 104), wherein the elongate opening (26; 46; 57; 76; 86; 110) is arranged in the upper surface (25; 44; 54; 74; 84; 104); wherein the upper edge of the peripheral wall comprises an inward directed horizontal flange (24; 43; 55; 73; 83; 104), which horizontal flange (24; 43; 55; 73; 83; 104) forms together with a separate sheet part (25; 44; 54; 74; 84; 106, 109) the upper wall of the housing; and wherein the upper layer (14; 88) of the surrounding floor (13, 14; 87, 88) is laid over the tubular housing (2, 3, 4, 8, 9, 10) up to the elongate opening (7; 26; 46; 57; 76; 86; 110).
A method of launching applications on a computing apparatus whilst the apparatus is in a locked state, the method comprising: receiving a biometric candidate from a user; determining that the biometric candidate matches one of a plurality of stored biometric templates for the user, each stored biometric template being associated with launching execution of a different application; determining that the biometric template is associated with an application that poses a low security risk; launching, without requiring additional user input, execution of the application associated with the biometric template without unlocking the device. receiving a biometric candidate from a user; determining that the biometric candidate matches one of a plurality of stored biometric templates for the user, each stored biometric template being associated with launching execution of a different application; determining that the biometric template is associated with an application that poses a low security risk; launching, without requiring additional user input, execution of the application associated with the biometric template without unlocking the device.
An apparatus for automatically treating biological specimens, comprising: at least one slide tray holding a plurality of slides in substantially horizontal positions, wherein said biological specimens are located on said slides; one or more workstations (4, 6, 8, 10) that receive said slide tray and perform one or more slide processing operations on said plurality of slides held in said slide tray; a transporter that moves said slide tray into and out of said one or more workstations (4, 6, 8, 10); a fluidics module in fluid communication with said one or more workstations that supplies a reagent to said one or more workstations (4, 6, 8, 10); a pneumatics module in fluid communication with both of said one or more workstations (4, 6, 8, 10) and said fluidics module, wherein said pneumatics module supplies vacuum and/or pressurized gas to both of said one or more workstations (4, 6, 8, 10) and said fluidics module; and a control module in electrical communication with said transporter, said one or more workstations (4, 6, 8, 10), said fluidics module and said pneumatics module, wherein said control module coordinates function of components of the apparatus during treatment of said biological specimens. at least one slide tray holding a plurality of slides in substantially horizontal positions, wherein said biological specimens are located on said slides; one or more workstations (4, 6, 8, 10) that receive said slide tray and perform one or more slide processing operations on said plurality of slides held in said slide tray; a transporter that moves said slide tray into and out of said one or more workstations (4, 6, 8, 10); a fluidics module in fluid communication with said one or more workstations that supplies a reagent to said one or more workstations (4, 6, 8, 10); a pneumatics module in fluid communication with both of said one or more workstations (4, 6, 8, 10) and said fluidics module, wherein said pneumatics module supplies vacuum and/or pressurized gas to both of said one or more workstations (4, 6, 8, 10) and said fluidics module; and a control module in electrical communication with said transporter, said one or more workstations (4, 6, 8, 10), said fluidics module and said pneumatics module, wherein said control module coordinates function of components of the apparatus during treatment of said biological specimens.
A method of forming a piezoelectric ultrasonic transducer apparatus, said method being characterized by: depositing a first electrode on a dielectric layer disposed on a primary substrate; depositing a piezoelectric material on the first electrode, and depositing a second electrode on the piezoelectric material, the first and second electrodes (156, 162) cooperating with the piezoelectric material to form a transducer device; patterning at least the piezoelectric material such that a portion of the first electrode extends laterally outward therefrom; etching the primary substrate and the dielectric layer to form a first via extending to the laterally outward extending portion of the first electrode; depositing a first conductive material to substantially fill the first via, the first conductive material forming an electrically-conductive engagement with the laterally outward extending portion of the first electrode; and etching the primary substrate to define a second via, the second via being laterally spaced apart from the first via and extending through the primary substrate toward the transducer device to form an air-backed cavity therefor. depositing a first electrode on a dielectric layer disposed on a primary substrate; depositing a piezoelectric material on the first electrode, and depositing a second electrode on the piezoelectric material, the first and second electrodes (156, 162) cooperating with the piezoelectric material to form a transducer device; patterning at least the piezoelectric material such that a portion of the first electrode extends laterally outward therefrom; etching the primary substrate and the dielectric layer to form a first via extending to the laterally outward extending portion of the first electrode; depositing a first conductive material to substantially fill the first via, the first conductive material forming an electrically-conductive engagement with the laterally outward extending portion of the first electrode; and etching the primary substrate to define a second via, the second via being laterally spaced apart from the first via and extending through the primary substrate toward the transducer device to form an air-backed cavity therefor.
An isolated monoclonal antibody that specifically binds to the region of amino acids ALRQLRLTQLTEILSGGVY of the extracellular domain of human HER-3 and competes for binding to the extracellular domain of human HER-3 with the antibody obtainable from hybridoma deposited as CNCM-I-4486.
A method in a Mobile Switching Center, MSC, for controlling set up of a terminating call from an IP Multimedia Subsystem, IMS, to a User Equipment, UE, in a Circuit Switched Fallback, CSFB, situation, the MSC supporting IMS Centralized Services, ICS, the method comprising: • Paging the UE; • receiving a Send Identification message from a further MSC, the further MSC supporting ICS; • receiving a Cancel Location message from a Home Location Register, HLR; • forwarding the terminating call set up request to the further MSC; • relaying further messages related to ongoing calls of the UE between the further MSC and the IMS; • determining that all calls of the UE have ended, and • triggering de-registration of the UE from the IMS, when all calls of the UE have ended. • Paging the UE; • receiving a Send Identification message from a further MSC, the further MSC supporting ICS; • receiving a Cancel Location message from a Home Location Register, HLR; • forwarding the terminating call set up request to the further MSC; • relaying further messages related to ongoing calls of the UE between the further MSC and the IMS; • determining that all calls of the UE have ended, and • triggering de-registration of the UE from the IMS, when all calls of the UE have ended.
A filter structure designed for a hood for domestic use, comprising: - at least one filter (2A, 2B, 2C) for filtering the gases that can be extracted by a motor fan unit, each filter f said at least one filter having its own thickness (S1, S2, S3): - a first support element comprising a first central core, a first side wall and first support members, which connect said first central core to said side wall and are joined to said first central core and to said first side wall; - second support elements comprising a second central core, a second side wall and second support members, which connect said second central core to said second side wall and are joined to said second central core and to said second side wall; - said first central core and second central core extending in the same direction of extension (Y-Y); characterized in that said second central core is engaged relative to said first central core to retain said at least one filter (2A, 2B, 2C) between said first and second support members (5, 6C), such that distance between said first support elements and said second support elements, in said direction of extension (Y-Y) may be adjusted according to the thickness (S1, S2, S3) of said at least one filter (2A, 2B, 2C). - at least one filter (2A, 2B, 2C) for filtering the gases that can be extracted by a motor fan unit, each filter f said at least one filter having its own thickness (S1, S2, S3): - a first support element comprising a first central core, a first side wall and first support members, which connect said first central core to said side wall and are joined to said first central core and to said first side wall; - second support elements comprising a second central core, a second side wall and second support members, which connect said second central core to said second side wall and are joined to said second central core and to said second side wall; - said first central core and second central core extending in the same direction of extension (Y-Y);
A method of manufacturing an anti-ballistic plate for ballistic protection, comprising the following steps: a) providing a stack of fiber layers of parallel arranged polymer fibers, wherein there are voids between the fibers of the respective fiber layers, and wherein the average thickness of said fiber layers corresponds to a thickness resulting from at least two rows of fibers, wherein the fibers are HMWPE or UHMWPE fibers, wherein said voids contain at least 6 % compressible gas or vacuum and a maximum of 3 % matrix material or binding agent; b) heating the stack to a temperature of above least 80 °C; c) compressing the stack and thereby permanently deforming the fibers as fibers abut against adjacent fibers, thereby reducing the volume of said voids to less than 3 % of the volume of said fiber layers; d) cooling the stack while under compression; wherein step c) comprises compressing the stack using a pressure of at least 200 bar. a) providing a stack of fiber layers of parallel arranged polymer fibers, wherein there are voids between the fibers of the respective fiber layers, and wherein the average thickness of said fiber layers corresponds to a thickness resulting from at least two rows of fibers, wherein the fibers are HMWPE or UHMWPE fibers, wherein said voids contain at least 6 % compressible gas or vacuum and a maximum of 3 % matrix material or binding agent; b) heating the stack to a temperature of above least 80 °C; c) compressing the stack and thereby permanently deforming the fibers as fibers abut against adjacent fibers, thereby reducing the volume of said voids to less than 3 % of the volume of said fiber layers; d) cooling the stack while under compression;
A method for analyzing chromatin, comprising: contacting chromatin isolated from a population of cells with an insertional enzyme complex to produce a plurality of tagged fragments of genomic DNA; and sequencing at least some of said tagged fragments of genomic DNA to provide sequence information of said tagged fragments of genomic DNA. contacting chromatin isolated from a population of cells with an insertional enzyme complex to produce a plurality of tagged fragments of genomic DNA; and sequencing at least some of said tagged fragments of genomic DNA to provide sequence information of said tagged fragments of genomic DNA.
Rubber-sprung rail vehicle wheel comprising a current bridge made of metal and an elastic layer between the wheel tire made of metal and the wheel disc made of metal, characterized in that the elastic layer is constructed from a rubber mixture containing at least the following constituents: - 80 to 100 phr of at least one natural rubber and - at least one silica and - at least one silane and - 20 to 90 phr of zinc oxide (ZnO). - 80 to 100 phr of at least one natural rubber and - at least one silica and - at least one silane and - 20 to 90 phr of zinc oxide (ZnO).
A method for recovering iron from ferric sulphate solutions, obtained from leaching of metal bearing materials with sulphuric acid to produce an iron bearing leach solution, in the form of oxide as a useful product by precipitation as hydroxide, by subsequent pressure oxidation, and then by calcining of the iron hydroxide.
A microfluidic device comprising: - lower portions electrically conductive and transparent to an incident optical beam, - first upper portions electrically conductive and configured to receive an electrical signal, - shielding portions opaque to the incident optical beam and arranged between the first upper portions and the lower portions, the shielding portions having one or more through openings, - one or more compartments containing a filler means and markers dispersed in the filler means, wherein: - each compartment comprises at least one lower chamber and at least one upper chamber in fluid communication with each other via said one or more through openings, - each lower chamber extends between a respective through opening and the lower portions and each upper chamber extends between at least one respective through opening and the first upper portions, - the markers are electrically charged and are configured to move between an upper chamber and one or more lower chambers in variable amounts according to the intensity of the electric signal applied to one or more upper portions and to emit an optical emission beam when illuminated in the lower chamber by the incident optical beam. - lower portions electrically conductive and transparent to an incident optical beam, - first upper portions electrically conductive and configured to receive an electrical signal, - shielding portions opaque to the incident optical beam and arranged between the first upper portions and the lower portions, the shielding portions having one or more through openings, - one or more compartments containing a filler means and markers dispersed in the filler means, - each compartment comprises at least one lower chamber and at least one upper chamber in fluid communication with each other via said one or more through openings, - each lower chamber extends between a respective through opening and the lower portions and each upper chamber extends between at least one respective through opening and the first upper portions, - the markers are electrically charged and are configured to move between an upper chamber and one or more lower chambers in variable amounts according to the intensity of the electric signal applied to one or more upper portions and to emit an optical emission beam when illuminated in the lower chamber by the incident optical beam.
Fluidostatic rolling device for surface processing with (a) at least one rolling element, (b) at least one fluidostatic bearing, by means of which the rolling element is mounted, and (c) at least one pressure fluid supply, which is configured to supply the bearing with a pressure fluid, (d) wherein the bearing is designed such that the rolling element can be pressed, by means of the pressure fluid, against a workpiece surface that is to be processed, characterised by the fact that (e) the pressure fluid is a pressurised gas that contains lubricating particles. (a) at least one rolling element, (b) at least one fluidostatic bearing, by means of which the rolling element is mounted, and (c) at least one pressure fluid supply, which is configured to supply the bearing with a pressure fluid, (d) wherein the bearing is designed such that the rolling element can be pressed, by means of the pressure fluid, against a workpiece surface that is to be processed, (e) the pressure fluid is a pressurised gas that contains lubricating particles.
A method, comprising: determining if a sum of transmit powers of individual component carriers of a plurality of component carriers is less than a maximum user equipment transmit power; adjusting, if needed, the transmit power of one or more of the plurality of component carriers if the sum of the transmit powers of the individual component carriers is greater than the maximum user equipment transmit power; wherein adjusting further comprises decreasing the transmit power of at least one but not all of the plurality of component carriers, and wherein the component carriers being summed and adjusted are already scheduled; and transmitting the component carriers to a network access node. determining if a sum of transmit powers of individual component carriers of a plurality of component carriers is less than a maximum user equipment transmit power; adjusting, if needed, the transmit power of one or more of the plurality of component carriers if the sum of the transmit powers of the individual component carriers is greater than the maximum user equipment transmit power; wherein adjusting further comprises decreasing the transmit power of at least one but not all of the plurality of component carriers, and wherein the component carriers being summed and adjusted are already scheduled; and transmitting the component carriers to a network access node.
A torsionally flexible, sealed drive apparatus (10, 30), comprising: a container having an aperture; a motor coupled to a first end of a drive shaft via a motor coupling; and a torsionally flexible tube having a first end in sealed cooperation with a substantially torsionally rigid barrier element (16, 33) surrounding said aperture, and a second end, wherein said drive shaft is partially disposed within said torsionally flexible tube and said second end of the flexible tube is rotatable relative to the first end of the flexible tube about a central axis such that said drive shaft is rotationally oscillatable about a central axis via oscillatory motion of said motor, characterized in that the motor is a stepper motor and the second end of the torsionally flexible tube is in sealed cooperation with said motor coupling. a container having an aperture; a motor coupled to a first end of a drive shaft via a motor coupling; and a torsionally flexible tube having a first end in sealed cooperation with a substantially torsionally rigid barrier element (16, 33) surrounding said aperture, and a second end, wherein said drive shaft is partially disposed within said torsionally flexible tube and said second end of the flexible tube is rotatable relative to the first end of the flexible tube about a central axis such that said drive shaft is rotationally oscillatable about a central axis via oscillatory motion of said motor, characterized in that the motor is a stepper motor and the second end of the torsionally flexible tube is in sealed cooperation with said motor coupling.
A refrigerant cycle apparatus that circulates a flammable refrigerant in a refrigerant circuit, the refrigerant cycle apparatus comprising: a gas-side cutoff valve (68a, 68b, 68c, 68d) and a liquid-side cutoff valve (71a, 71b, 71c, 71d) that are provided on opposite sides of a first portion (3aa, 3bb, 3cc, 3dd) of the refrigerant circuit; a detection unit (79a, 79b, 79c, 79d) that detects refrigerant leakage from the first portion into a predetermined space; and a control unit that brings the gas-side cutoff valve and the liquid-side cutoff valve into a cutoff state when the detection unit detects the refrigerant leakage from the first portion into the predetermined space, wherein cutoff leakage rates at the gas-side cutoff valve and the liquid-side cutoff valve are leakage rates of gas that is in a single gas phase in a standard state when a differential pressure between upstream and downstream of each of the gas-side cutoff valve and the liquid-side cutoff valve in the cutoff state is a predetermined pressure, characterized in that the cutoff leakage rate at the gas-side cutoff valve is higher than the cutoff leakage rate at the liquid-side cutoff valve. a gas-side cutoff valve (68a, 68b, 68c, 68d) and a liquid-side cutoff valve (71a, 71b, 71c, 71d) that are provided on opposite sides of a first portion (3aa, 3bb, 3cc, 3dd) of the refrigerant circuit; a detection unit (79a, 79b, 79c, 79d) that detects refrigerant leakage from the first portion into a predetermined space; and a control unit that brings the gas-side cutoff valve and the liquid-side cutoff valve into a cutoff state when the detection unit detects the refrigerant leakage from the first portion into the predetermined space, wherein cutoff leakage rates at the gas-side cutoff valve and the liquid-side cutoff valve are leakage rates of gas that is in a single gas phase in a standard state when a differential pressure between upstream and downstream of each of the gas-side cutoff valve and the liquid-side cutoff valve in the cutoff state is a predetermined pressure, characterized in that the cutoff leakage rate at the gas-side cutoff valve is higher than the cutoff leakage rate at the liquid-side cutoff valve.