mhurhangee/ep-ind-claims huggingface dataset:
A method for determining parameters characteristic of the state of a particle filter in which a plurality of soot-combustion reactions take place, characterised in that the method comprises the steps of: - evaluating the instantaneous temperature of the filter on the basis of an energy conservation equation applied to the filter; - calculating the reaction speeds of each of the soot-combustion reactions using the instantaneous temperature evaluated and the quantity of material for the various chemical species in the particle filter, - predicting a theoretical quantity of consumed material for the various chemical species from the calculated speeds; - comparing the theoretical quantity of material with the quantity of material present in the particle filter for each of the species present; - correcting the calculated speeds when the theoretical quantity of material for a species is greater than the quantity of material present in the particle filter for this species, and - determining at least one parameter (36, 38, 40) characteristic of the state of a particle filter using the corrected speeds. - evaluating the instantaneous temperature of the filter on the basis of an energy conservation equation applied to the filter; - calculating the reaction speeds of each of the soot-combustion reactions using the instantaneous temperature evaluated and the quantity of material for the various chemical species in the particle filter, - predicting a theoretical quantity of consumed material for the various chemical species from the calculated speeds; - comparing the theoretical quantity of material with the quantity of material present in the particle filter for each of the species present; - correcting the calculated speeds when the theoretical quantity of material for a species is greater than the quantity of material present in the particle filter for this species, and - determining at least one parameter (36, 38, 40) characteristic of the state of a particle filter using the corrected speeds.
A plasma generating device comprising a high-voltage electrode as well as at least one external electrode (11, 12), wherein the high-voltage electrode is, at least in one coordinate direction, arranged between conductive material of at least one external electrode (11, 12) and the high-voltage electrode is covered with a dielectric at least on one side facing an external electrode (11, 12) of the plasma generating device, and wherein between the respective external electrode (11, 12) and the high-voltage electrode over its longitudinal extension at least one spacer element is present, which at least in the region of its arrangement electrically insulates the respective external electrode (11, 12) from the high-voltage electrode and which positions the respective external electrode (11, 12) at a constant distance from the high-voltage electrode, characterized in that the spacer element is planar in design, and the spacer element is a perforated and/or structured, gas-permeable foil made of an electrically non-conductive elastomer.
An agent for use in a method of treating HCV-HIV coinfection, wherein the agent inhibits binding of a said HCV and HIV viruses to a host μ subunit of clathrin adaptor protein complexes, and wherein said agent is selected from the group consisting of erlotinib, sunitinib and PKC-412 or pharmaceutically acceptable salts thereof, wherein the agent is used alone or in combination with other pharmaceutically active compounds.
A composition comprising fibrinogen, thrombin, parathyroid hormone and a strontium-containing compound for use in bone healing or bone growth, optionally wherein said composition is resorbed and replaced with tissue during the healing process.
A high-frequency package comprising: a resin substrate; a high-frequency device mounted on a side of a first surface of the resin substrate; a ground surface conductor of a ground potential formed on a second surface of the resin substrate on an opposite side to the first surface; a transmission line for a high-frequency signal formed in an inner layer of the resin substrate; and a plurality of ground vias of a ground potential formed within the resin substrate, wherein a plurality of through holes is formed in the ground surface conductor, the plurality of ground vias is placed between the transmission line and the plurality of through holes, and the plurality of ground vias is placed along the transmission line in top view of the high-frequency package, the plurality of ground vias being placed so as to surround the transmission line in top view of the high-frequency package. a resin substrate; a high-frequency device mounted on a side of a first surface of the resin substrate; a ground surface conductor of a ground potential formed on a second surface of the resin substrate on an opposite side to the first surface; a transmission line for a high-frequency signal formed in an inner layer of the resin substrate; and a plurality of ground vias of a ground potential formed within the resin substrate, wherein a plurality of through holes is formed in the ground surface conductor, the plurality of ground vias is placed between the transmission line and the plurality of through holes, and the plurality of ground vias is placed along the transmission line in top view of the high-frequency package, the plurality of ground vias being placed so as to surround the transmission line in top view of the high-frequency package.
A lighting device, comprising: - a frame configured to be mounted in a ceiling and/or in a suspended ceiling; - a lighting body having a longitudinal direction that can be connected to the frame and is movable with respect to the frame at least along said longitudinal direction; - a plurality of abutment members connected to the frame and defining a seat for receiving said lighting body, said lighting body being insertable in said seat and being slidable with respect to said abutment members, said lighting body having at least one abutment area engageable by said abutment members to lock said lighting body at least along said longitudinal direction inside said seat; characterized in that it comprises: - a guide connected to the frame and arranged parallel to the longitudinal direction, said guide having a first end placed in a distal position with respect to said frame, and a second end opposite to said first end, said guide having a recess, said lighting body comprising a slider insertable in said guide to slide inside said recess. - a frame configured to be mounted in a ceiling and/or in a suspended ceiling; - a lighting body having a longitudinal direction that can be connected to the frame and is movable with respect to the frame at least along said longitudinal direction; - a plurality of abutment members connected to the frame and defining a seat for receiving said lighting body, said lighting body being insertable in said seat and being slidable with respect to said abutment members, said lighting body having at least one abutment area engageable by said abutment members to lock said lighting body at least along said longitudinal direction inside said seat; - a guide connected to the frame and arranged parallel to the longitudinal direction, said guide having a first end placed in a distal position with respect to said frame, and a second end opposite to said first end, said guide having a recess, said lighting body comprising a slider insertable in said guide to slide inside said recess.
Method for operating a piste grooming vehicle having at least one piste grooming device (5, 6) for preparing a piste, comprising the steps: a) detecting an actual topography of a piste section of the piste positioned in front of the piste grooming vehicle in the forward travel direction thereof, by a detection device provided on the piste grooming vehicle; b) determining at least one differential value between coordinates (X2, Y2, Z2) of the actual topography and coordinates (X1, Y1, Z1) of a reference topography of the piste; and c) actuating the at least one piste grooming device (5, 6) in accordance with the at least one determined differential value; wherein step a) comprises the steps: a1) detecting coordinates (X2', Y2', Z2') of the actual topography with respect to a local vehicle coordinate system (K') which is assigned to the piste grooming vehicle; a2) detecting a location and a position of the piste grooming vehicle and therefore of the local vehicle coordinate system (K') with respect to a global reference coordinate system on which the coordinates (X1, Y1, Z1) of the reference topography are based, wherein the location is detected using GPS tracking, and wherein the position is detected using measurement of a longitudinal inclination and/or a transverse inclination of the piste grooming vehicle, and a3) transforming the detected coordinates (X2', Y2', Z2') of the actual topography into the reference coordinate system as a function of the determined location and the position of the vehicle coordinate system (K'). a) detecting an actual topography of a piste section of the piste positioned in front of the piste grooming vehicle in the forward travel direction thereof, by a detection device provided on the piste grooming vehicle; b) determining at least one differential value between coordinates (X2, Y2, Z2) of the actual topography and coordinates (X1, Y1, Z1) of a reference topography of the piste; and c) actuating the at least one piste grooming device (5, 6) in accordance with the at least one determined differential value; a1) detecting coordinates (X2', Y2', Z2') of the actual topography with respect to a local vehicle coordinate system (K') which is assigned to the piste grooming vehicle; a2) detecting a location and a position of the piste grooming vehicle and therefore of the local vehicle coordinate system (K') with respect to a global reference coordinate system on which the coordinates (X1, Y1, Z1) of the reference topography are based, wherein the location is detected using GPS tracking, and wherein the position is detected using measurement of a longitudinal inclination and/or a transverse inclination of the piste grooming vehicle, and a3) transforming the detected coordinates (X2', Y2', Z2') of the actual topography into the reference coordinate system as a function of the determined location and the position of the vehicle coordinate system (K').
A method of printing an image on a textile, said method comprising treating a textile substrate with a primer polymer coating, electrophotographically printing an image onto the primed textile substrate using an electrophotographic ink composition, applying a coating composition comprising a polymer and a crosslinking agent to the printed electrophotographic ink, and crosslinking the applied coating composition.
A fiber splice and distribution module, wherein the fiber splice and distribution module comprises: a housing, a splice tray detachably connected to the housing, and multiple first adapters provided at one end of the housing; a movable plate detachably connected to the other end of the housing comprising an adapter mounting hole, a second adapter configured to be mounted in the adapter mounting hole and wherein one end of the second adapter is configured to connect to a first external optical cable, and the other end is configured to connect to the multiple first adapters by using a branch jumper; when the movable plate is connected to the housing, the splice tray is detached from the fiber splice and distribution module; and when the movable plate is detached from the housing: the splice tray is disposed in the housing, and a first opening is formed at the other end of the housing, which permits a second external optical cable to enter the housing through the opening, and be spliced to one end of a pigtail by using the splice tray, wherein the other end of the pigtail is configured to connect to the multiple first adapters. a housing, a splice tray detachably connected to the housing, and multiple first adapters provided at one end of the housing; a movable plate detachably connected to the other end of the housing comprising an adapter mounting hole, a second adapter configured to be mounted in the adapter mounting hole and wherein one end of the second adapter is configured to connect to a first external optical cable, and the other end is configured to connect to the multiple first adapters by using a branch jumper; when the movable plate is connected to the housing, the splice tray is detached from the fiber splice and distribution module; and when the movable plate is detached from the housing: the splice tray is disposed in the housing, and a first opening is formed at the other end of the housing, which permits a second external optical cable to enter the housing through the opening, and be spliced to one end of a pigtail by using the splice tray, wherein the other end of the pigtail is configured to connect to the multiple first adapters.
Rotary atomiser of a coating plant with a bell cup and a shaping air ring each having a metallic base body (1.1; 2.1), characterised in that the metallic base body (1.1; 2.1) of the bell cup and/or of the shaping air ring is provided on its outer surface with a non-metallic material, which is applied on the base body (1;1; 2.1) itself so that, during operation, unintentional metal-on-metal contact between the rotating bell cup and the shaping air ring is avoided.
An optical system comprising: a light source; an illumination optical system; and an optical modulator, the illumination optical system being configured to emit the light to the optical modulator and including: a lens array (14A and 14B); a lens, the lens array (14A and 14B) and the lens being arranged in that order from an upstream side of an optical path of light emitted from the light source; and a light shield disposed at the upstream side relative to the lens in the optical path, the light shield configured to block some light rays of the light incident within a range of an effective diameter of the lens, the optical modulator configured to emit the light incident on the optical modulator toward a first direction and a second direction different from the first direction, wherein a center of an effective diameter of the lens array (14A and 14B) is offset from a center of the effective diameter of the lens to an opposite side of the light shield in a direction orthogonal to an optical axis of the illumination optical system. a light source; an illumination optical system; and an optical modulator, the illumination optical system being configured to emit the light to the optical modulator and including: a lens array (14A and 14B); a lens, the lens array (14A and 14B) and the lens being arranged in that order from an upstream side of an optical path of light emitted from the light source; and a light shield disposed at the upstream side relative to the lens in the optical path, the light shield configured to block some light rays of the light incident within a range of an effective diameter of the lens, the optical modulator configured to emit the light incident on the optical modulator toward a first direction and a second direction different from the first direction, wherein a center of an effective diameter of the lens array (14A and 14B) is offset from a center of the effective diameter of the lens to an opposite side of the light shield in a direction orthogonal to an optical axis of the illumination optical system. a lens array (14A and 14B); a lens, the lens array (14A and 14B) and the lens being arranged in that order from an upstream side of an optical path of light emitted from the light source; and a light shield disposed at the upstream side relative to the lens in the optical path, the light shield configured to block some light rays of the light incident within a range of an effective diameter of the lens, the optical modulator configured to emit the light incident on the optical modulator toward a first direction and a second direction different from the first direction, wherein a center of an effective diameter of the lens array (14A and 14B) is offset from a center of the effective diameter of the lens to an opposite side of the light shield in a direction orthogonal to an optical axis of the illumination optical system.
A pharmaceutical preparation comprising a topically released active ingredient suitable for photodynamic therapy, that is a photosensitizing substance, and a heat-sensitive carrier comprising, by weight based on the total weight of the preparation, 19 to 24 wt% of a first block copolymer of poly(ethylene oxide)-poly(propylene oxide)- poly(ethylene-oxide) (PEO-PPO-PEO), with a molecular mass of the PPO block of about 4000 g/mol and about 70% PEO content (Poloxamer P407) and 4 to 8 wt% of a second PEO-PPO-PEO block copolymer, with a molecular mass of the PPO block of about 1800 g/mol and about 80% PEO content (Poloxamer P188), the balance being composed of water and any pharmaceutically acceptable excipients and/or additives, for use in the treatment of a skin or the mucosal disease or lesion.
A composition comprising at least one anti-RhoB antibody or antibody fragment for use in treating or inhibiting an ocular disease in a subject in need thereof, wherein said ocular disease is characterized by abnormal vascularization, wherein said ocular disease is retinopathy or macular degeneration, and wherein said anti-RhoB antibody or antibody fragment is immunologically specific for SEQ ID NO: 1. wherein said ocular disease is characterized by abnormal vascularization, wherein said ocular disease is retinopathy or macular degeneration, and wherein said anti-RhoB antibody or antibody fragment is immunologically specific for SEQ ID NO: 1.
An isolated double stranded RNA comprising annealed complementary strands, wherein at least one of said strands comprises a polyribonucleotide selected from the group consisting of: (i) polyribonucleotides complementary to at least 21 contiguous nucleotides of a target gene represented by any of SEQ ID NOs 1073, 1577, 3, 56, 168, 795, 829 to 832, 868, 890, 958 to 963, 1026, 1046, 1684, 1771 to 1774, 2045, 2366, 2418 to 2420, and 2466, (ii) polyribonucleotides complementary to at least 21 contiguous nucleotides of a target gene encoding the amino acid sequence represented by any of SEQ ID NOs: 1074, 4, 796, 891, 1685, and 2367, and (iii) polyribonucleotides having at least 85% sequence identity with the polyribonucleotides of (i) or (ii). (i) polyribonucleotides complementary to at least 21 contiguous nucleotides of a target gene represented by any of SEQ ID NOs 1073, 1577, 3, 56, 168, 795, 829 to 832, 868, 890, 958 to 963, 1026, 1046, 1684, 1771 to 1774, 2045, 2366, 2418 to 2420, and 2466, (ii) polyribonucleotides complementary to at least 21 contiguous nucleotides of a target gene encoding the amino acid sequence represented by any of SEQ ID NOs: 1074, 4, 796, 891, 1685, and 2367, and (iii) polyribonucleotides having at least 85% sequence identity with the polyribonucleotides of (i) or (ii).
A MEMS sensor device package (600; 700; 800; 900; 1000; 1100) comprising: a sensor assembly comprising a sensor device (616; 716; 816; 916; 1016b; 1116b) and a sensor circuit (614; 714; 814; 914; 1014b; 1114b) coupled to the sensor device (616; 716; 816; 916; 1016b; 1116b) via a communicating link; a package housing comprising a top member (602; 702; 802; 902; 1002; 1102) and a bottom member attached to the top member (602; 702; 802; 902; 1002; 1102) for encapsulating the sensor assembly; a passageway (620; 720; 820a; 920; 1020b; 1120) fluidly coupled the sensor device (616; 716; 816; 916; 1016b; 1116b) which allows attributes outside the package housing to enter and fluidly communicate with the sensor device (616; 716; 816; 916; 1016b; 1116b), wherein the passageway (620; 720; 820a; 920; 1020b; 1120) is included into the package housing; wherein the top member (602; 702; 802; 902; 1002; 1102) comprises a top wall and side walls, the side walls are attached to the bottom member, and the passageway (620; 720; 820a; 920; 1020b; 1120) is formed in at least one of the side walls; characterized in that the sensor assembly is mounted to the top member (602; 702; 802; 902; 1002; 1102); and the sensor device (616; 716; 816; 916; 1016b; 1116b) is mounted to the side wall and the passageway (620; 720; 820a; 920; 1020b; 1120) is located adjacent to the sensor device (616; 716; 816; 916; 1016b; 1116b). a sensor assembly comprising a sensor device (616; 716; 816; 916; 1016b; 1116b) and a sensor circuit (614; 714; 814; 914; 1014b; 1114b) coupled to the sensor device (616; 716; 816; 916; 1016b; 1116b) via a communicating link; a package housing comprising a top member (602; 702; 802; 902; 1002; 1102) and a bottom member attached to the top member (602; 702; 802; 902; 1002; 1102) for encapsulating the sensor assembly; a passageway (620; 720; 820a; 920; 1020b; 1120) fluidly coupled the sensor device (616; 716; 816; 916; 1016b; 1116b) which allows attributes outside the package housing to enter and fluidly communicate with the sensor device (616; 716; 816; 916; 1016b; 1116b), wherein the passageway (620; 720; 820a; 920; 1020b; 1120) is included into the package housing; wherein the top member (602; 702; 802; 902; 1002; 1102) comprises a top wall and side walls, the side walls are attached to the bottom member, and the passageway (620; 720; 820a; 920; 1020b; 1120) is formed in at least one of the side walls; characterized in that the sensor assembly is mounted to the top member (602; 702; 802; 902; 1002; 1102); and the sensor device (616; 716; 816; 916; 1016b; 1116b) is mounted to the side wall and the passageway (620; 720; 820a; 920; 1020b; 1120) is located adjacent to the sensor device (616; 716; 816; 916; 1016b; 1116b).
A system for adjusting a depth of a material bed in a pulverizer mill comprising: • a rotatable bowl having a surface operative to support the material bed while the rotatable bowl rotates such that particles of the material bed are pulverized against the surface by one or more grinding rollers of the pulverizer mill, and characterized in that the system further comprises: • an extension ring disposed about a circumference of the rotatable bowl extending away from the surface and operative to define the depth of the material bed with respect to the surface, and • an extension mechanism operative to adjust the rotatable bowl while the rotatable bowl rotates, and wherein adjusting the rotatable bowl via the extension mechanism moves the extension ring in relation to the surface so as to adjust the depth of the material bed. • a rotatable bowl having a surface operative to support the material bed while the rotatable bowl rotates such that particles of the material bed are pulverized against the surface by one or more grinding rollers of the pulverizer mill, and • an extension ring disposed about a circumference of the rotatable bowl extending away from the surface and operative to define the depth of the material bed with respect to the surface, and • an extension mechanism operative to adjust the rotatable bowl while the rotatable bowl rotates, and