mhurhangee/ep-ind-claims huggingface dataset:
Method for recording and monitoring the surroundings of vehicles, in particular of utility vehicles, having at least one recording apparatus arranged on the vehicle and by way of which it is possible to record vehicle surroundings, and having at least one display device arranged in the vehicle and by way of which the vehicle surroundings recorded by the at least one recording apparatus or a portion thereof is able to be displayed depending on at least one predefined display parameter, characterized in that the display device has a gaze recording and/or facial recognition device that is designed such that it recognizes a gaze directed at the display device for a predefined duration and/or a face, facing the display device for a predefined duration, of an observer who is looking at the display device and then activates the display device, which is in a deactivated state, such that the display device displays at least a portion of the vehicle surroundings recorded by way of the at least one recording apparatus, and that the gaze recording and/or facial recognition device is designed such that a head movement of the observer is recorded and the vehicle surroundings are displayed by way of the display device depending on the recorded head movement.
A method for adding serving cells in a wireless communication system, comprising: a User Equipment, in the following also referred to as UE, is served by a first cell controlled by a first evolved Node B, in the following also referred to as eNB, wherein multiple radio bearers, in the following also referred to as RBs, for the UE are allocated to the first eNB and there is a Medium Access Control, in the following also referred to as MAC, entity in the UE for supporting the first cell; and the UE receives a Radio Resource Control, in the following also referred to as RRC, message for adding a second cell controlled by a second eNB to the UE, wherein a RB among the multiple RBs is relocated to the second eNB according to information included in the RRC message; characterized by the UE re-establishes a Radio Link Control, in the following also referred to as RLC, entity corresponding to the RB and does not reset the MAC entity in response to the relocation of the RB. a User Equipment, in the following also referred to as UE, is served by a first cell controlled by a first evolved Node B, in the following also referred to as eNB, wherein multiple radio bearers, in the following also referred to as RBs, for the UE are allocated to the first eNB and there is a Medium Access Control, in the following also referred to as MAC, entity in the UE for supporting the first cell; and the UE receives a Radio Resource Control, in the following also referred to as RRC, message for adding a second cell controlled by a second eNB to the UE, wherein a RB among the multiple RBs is relocated to the second eNB according to information included in the RRC message; characterized by the UE re-establishes a Radio Link Control, in the following also referred to as RLC, entity corresponding to the RB and does not reset the MAC entity in response to the relocation of the RB.
A front fork comprising: a fork main body in which a vehicle body tube and an axle tube are slidably fitted; a cap configured to close an end portion of the vehicle body tube; a first adjuster and a second adjuster non-coaxially mounted on the cap, axially movable with respect to the cap; a first adjustment rod housed in the vehicle body tube, and disposed in the center of the vehicle body tube; and a second adjustment rod housed in the vehicle body tube, disposed in an outer periphery of the first adjustment rod, and having a tubular shape, characterized in that the first adjuster has a first body, and a first contact portion provided to an end portion of the first body and including a contact surface brought into contact with an end face closer to the cap of the first adjustment rod, and the second adjuster has a second body, and a second contact portion provided to an end portion of the second body and including a contact surface brought into contact with an end face closer to the cap of the second adjustment rod, and the first contact portion and the second contact portion are disposed as viewed in an axial direction of the vehicle body tube so as not to overlap with each other. a fork main body in which a vehicle body tube and an axle tube are slidably fitted; a cap configured to close an end portion of the vehicle body tube; a first adjuster and a second adjuster non-coaxially mounted on the cap, axially movable with respect to the cap; a first adjustment rod housed in the vehicle body tube, and disposed in the center of the vehicle body tube; and a second adjustment rod housed in the vehicle body tube, disposed in an outer periphery of the first adjustment rod, and having a tubular shape, characterized in that the first adjuster has a first body, and a first contact portion provided to an end portion of the first body and including a contact surface brought into contact with an end face closer to the cap of the first adjustment rod, and the second adjuster has a second body, and a second contact portion provided to an end portion of the second body and including a contact surface brought into contact with an end face closer to the cap of the second adjustment rod, and the first contact portion and the second contact portion are disposed as viewed in an axial direction of the vehicle body tube so as not to overlap with each other.
A thermoplastic resin composition comprising: 100 parts by weight of a base resin comprising 20 wt% to 80 wt% of a polyphenylene ether resin and 20 wt% to 80 wt% of a rubber-reinforced polystyrene resin; 1 part by weight to 20 parts by weight of a styrene-based block copolymer resin; and 0.5 parts by weight to 15 parts by weight of a hydrocarbon-based oil, wherein: the hydrocarbon-based oil and the polyphenylene ether resin are present in a weight ratio of 1:4 to 1:20, the styrene-based block copolymer resin and the polyphenylene ether resin are present in a weight ratio of 1:4 to 1:10, the thermoplastic resin composition has a melt index of 17 g/10 min to 35 g/10 min, as measured in accordance with ASTM D1238 (280°C, 5 kg), and a heat deflection temperature of 103°C or more, as measured on a 6.4 mm thick specimen under a load of 18.6 kgf/cm 2 in accordance with ASTM D648, and the thermoplastic resin composition has an Izod impact strength of 25 kgf·cm/cm to 50 kgf·cm/cm, as measured on a 1/8" thick specimen in accordance with ASTM D256. 100 parts by weight of a base resin comprising 20 wt% to 80 wt% of a polyphenylene ether resin and 20 wt% to 80 wt% of a rubber-reinforced polystyrene resin; 1 part by weight to 20 parts by weight of a styrene-based block copolymer resin; and 0.5 parts by weight to 15 parts by weight of a hydrocarbon-based oil, wherein: the hydrocarbon-based oil and the polyphenylene ether resin are present in a weight ratio of 1:4 to 1:20, the styrene-based block copolymer resin and the polyphenylene ether resin are present in a weight ratio of 1:4 to 1:10, the thermoplastic resin composition has a melt index of 17 g/10 min to 35 g/10 min, as measured in accordance with ASTM D1238 (280°C, 5 kg), and a heat deflection temperature of 103°C or more, as measured on a 6.4 mm thick specimen under a load of 18.6 kgf/cm 2 in accordance with ASTM D648, and the thermoplastic resin composition has an Izod impact strength of 25 kgf·cm/cm to 50 kgf·cm/cm, as measured on a 1/8" thick specimen in accordance with ASTM D256. the hydrocarbon-based oil and the polyphenylene ether resin are present in a weight ratio of 1:4 to 1:20, the styrene-based block copolymer resin and the polyphenylene ether resin are present in a weight ratio of 1:4 to 1:10, the thermoplastic resin composition has a melt index of 17 g/10 min to 35 g/10 min, as measured in accordance with ASTM D1238 (280°C, 5 kg), and a heat deflection temperature of 103°C or more, as measured on a 6.4 mm thick specimen under a load of 18.6 kgf/cm 2 in accordance with ASTM D648, and the thermoplastic resin composition has an Izod impact strength of 25 kgf·cm/cm to 50 kgf·cm/cm, as measured on a 1/8" thick specimen in accordance with ASTM D256.
A method for printing, the method comprising the steps of: providing a heat sensitive substrate extending in a machine direction, the substrate comprising a first surface and an opposing second surface and defining a width in a cross direction; directing infrared light from a light source onto the first surface of the substrate to define an illumination zone on the first surface of the substrate; advancing the substrate under a printing station; ejecting ink from the printing station onto the first surface of the substrate to define a printed region; advancing the substrate and the printed region from the printing station to a metering device; advancing the printed region from the metering device through the illumination zone; drying the ink advancing through the illumination zone with infrared light traveling from the light source; wherein the ink comprises water, and wherein the step of drying the ink further comprises evaporating the water; wherein the metering device comprises a conveyor comprising a belt and rollers; wherein the metering device isolates the printing station from changes in the modulus of elasticity of the substrate caused by heat in the substrate from the infrared light, thereby maintaining a relatively constant substrate unit length at the printing station while under tension; and wherein while the printed region advances through the illumination zone at a speed, the infrared light heats the substrate from an initial temperature T in entering the illumination zone to a maximum temperature T max, wherein T max < T onSet with T onSet being the onset temperature of the substrate. providing a heat sensitive substrate extending in a machine direction, the substrate comprising a first surface and an opposing second surface and defining a width in a cross direction; directing infrared light from a light source onto the first surface of the substrate to define an illumination zone on the first surface of the substrate; advancing the substrate under a printing station; ejecting ink from the printing station onto the first surface of the substrate to define a printed region; advancing the substrate and the printed region from the printing station to a metering device; advancing the printed region from the metering device through the illumination zone; drying the ink advancing through the illumination zone with infrared light traveling from the light source; wherein the ink comprises water, and wherein the step of drying the ink further comprises evaporating the water; wherein the metering device comprises a conveyor comprising a belt and rollers; wherein the metering device isolates the printing station from changes in the modulus of elasticity of the substrate caused by heat in the substrate from the infrared light, thereby maintaining a relatively constant substrate unit length at the printing station while under tension; and wherein while the printed region advances through the illumination zone at a speed, the infrared light heats the substrate from an initial temperature T in entering the illumination zone to a maximum temperature T max, wherein T max < T onSet with T onSet being the onset temperature of the substrate.
A method for producing a biologically active agent for the crop protection against insect pests, comprising the steps of - providing microcontainers, wherein said microcontainers are produced from microcapsules having a polymeric material shell and an organic solvent core, followed by heating said microcapsules up to 300°C to cause a perforation of the microcapsule shell and formation of holes therein as a result of action of solvent vapour pressure, wherein a size of said microcapsule shell holes is adjustable my means of selecting a proportion of polymeric material components for said shell and varying said solvent vapour pressure; - introducing a biologically active suspension comprising fungal spores and a liquid phase into said microcontainers, - decanting the liquid phase, and - drying said microcontainers containing fungal spores. - providing microcontainers, wherein said microcontainers are produced from microcapsules having a polymeric material shell and an organic solvent core, followed by heating said microcapsules up to 300°C to cause a perforation of the microcapsule shell and formation of holes therein as a result of action of solvent vapour pressure, wherein a size of said microcapsule shell holes is adjustable my means of selecting a proportion of polymeric material components for said shell and varying said solvent vapour pressure; - introducing a biologically active suspension comprising fungal spores and a liquid phase into said microcontainers, - decanting the liquid phase, and - drying said microcontainers containing fungal spores.
Use of DMABN in a one-part, self-etching dental adhesive comprising a hydrolytically stable, acidic, high-strength adhesive monomer and a stable, bifunctional, hydrophilic monomer.
A piezoelectric ceramic comprising a three-component solid solution as a major component, the three-component solid solution being represented by the following general formula: x(B 1/2 Na 1/2)TiO 3 - y(Bi 1/2 Li 1/2)TiO 3 - z(Bi 1/2 K 1/2)TiO 3 wherein x, y and z satisfy the following formulas,, and: 0.80 ≤ x ≤ 0.96 0.02 ≤ y ≤ 0.08 0.01 ≤ z ≤ 0.15 x + y + z = 1 said piezoelectric ceramic further comprising manganese element dispersed in the major component as an additive, wherein the manganese element content is 0.12 to 0.49 mass% in terms of MnO with respect to the major component.
A NetB epitope polypeptide having at least 85% sequence identity to SEQ ID NO:1 and comprising the amino acid sequence ETTQXRGTNK (SEQ ID NO:46), where "X" is any amino acid other than W, the polypeptide being capable of binding an antibody which binds to SEQ ID NO:1 and having reduced toxicity compared with the toxicity of SEQ ID NO:1.
A centrifugal processing device in which a storage container housing a material is supported such as to rotate freely by a revolving body with a rotating shaft therebetween, and that applies revolution force and rotation force of the storage container to the material by rotating the storage container while revolving the storage container, wherein: the rotating shaft (10, 49) is supported with a 45-degree tilt angle by the revolving body such as to intersect a revolving shaft center line of the revolving body in a position that intersects with the revolving shaft center line set in a vertical direction of the revolving body; the storage container is detachably formed on an outer side of a position on the rotating shaft that intersects with the revolving shaft center line; a revolution force applying mechanism that applies revolution to the revolving body and a rotation force applying mechanism that applies rotation to the rotating shaft are included; and the storage container is detachably formed in a container holder that is provided on a lower side of the rotating shaft and can be opened and closed freely. the rotating shaft (10, 49) is supported with a 45-degree tilt angle by the revolving body such as to intersect a revolving shaft center line of the revolving body in a position that intersects with the revolving shaft center line set in a vertical direction of the revolving body; the storage container is detachably formed on an outer side of a position on the rotating shaft that intersects with the revolving shaft center line; a revolution force applying mechanism that applies revolution to the revolving body and a rotation force applying mechanism that applies rotation to the rotating shaft are included; and the storage container is detachably formed in a container holder that is provided on a lower side of the rotating shaft and can be opened and closed freely.
An antibody fragment which specifically binds tumor-associated glycoprotein 72 (TAG-72), wherein the antibody fragment comprises SEQ ID NO: 13, 15, 17, 19, 21, 23, 25, 27, 29, 31, 33, 35, 37, 39, 41, 43, 45, or 46.
An apparatus (52, 56) for use with a plurality of patients and one or more blood glucose monitoring devices, the apparatus comprising: one or more processors to: for each of the plurality of patients, (i) determine a profile of a blood glucose concentration of the patient based, at least in part, on a probability distribution function of a plurality of blood glucose concentration values collected at the one or more blood glucose monitoring devices; and (ii) determine a unidimensional metric indicative of glycemic health of the patient, said unidimensional metric being based, at least in part, on a convolution of a cost or loss function and the profile, said cost or loss function being based, at least in part, on a log-square metric; and rank the plurality of patients for treatment according to a triage policy based, at least in part, on the unidimensional metrics for the plurality of patients. for each of the plurality of patients, (i) determine a profile of a blood glucose concentration of the patient based, at least in part, on a probability distribution function of a plurality of blood glucose concentration values collected at the one or more blood glucose monitoring devices; and (ii) determine a unidimensional metric indicative of glycemic health of the patient, said unidimensional metric being based, at least in part, on a convolution of a cost or loss function and the profile, said cost or loss function being based, at least in part, on a log-square metric; and rank the plurality of patients for treatment according to a triage policy based, at least in part, on the unidimensional metrics for the plurality of patients.
Method for depositing semiconductor layers consisting in particular of a plurality of components on one or more substrates which are supported on a susceptor, the susceptor forming a wall portion of a process chamber, said wall portion being heated by a heating device to a process temperature, process gases containing an organometallic component of the II or III main group and a hydride of the V or VI main group and provided by a gas mixing system being introduced together with a carrier gas into the process chamber through flow channels (15, 16; 18) of a gas inlet element, which carrier gas flows through the process chamber substantially parallel to the susceptor and leaves through a gas outlet element, the process gases decomposing into products of decomposition in a pyrolytic manner at least on the surface of the heated substrate and the decomposition products growing to form a coating at least in certain regions on the substrate surface and on the surface of the gas outlet element that is located downstream at a spacing from the downstream edge of the susceptor, a first process step being carried out at a first process temperature and after that, a second process step being carried out at a second process temperature without intervening cleaning or exchange of the gas outlet element coated by growth of decomposition products, the second process temperature being higher than the first process temperature by at least 500°C, characterized in that the spacing is sufficiently great to prevent decomposition products, or fragments or agglomerations of decomposition products, evaporating at the second process temperature from the coating of the gas outlet element, from reaching the substrate by reverse flow diffusion or recirculation, and in that heating of the gas outlet element is controlled during the two process steps so that its surface temperatures during both process steps differ from one another only by 100°C at a maximum.
Tyre with a radial carcass reinforcement, consisting of at least one layer of reinforcing elements, the said tyre comprising a crown reinforcement formed of at least two working crown layers (61, 62) of reinforcing elements which are crossed from one layer to the other making with the circumferential direction angles of between 10° and 45°, itself capped radially by a tread, the said tread being connected to two beads via two sidewalls, the reinforcing elements of at least one working crown layer (61, 62) being metal cords (21, 31) with saturated layers, at least one internal layer being sheathed with a layer (24, 34) consisting of a polymer composition such as a rubber composition, characterized in that the ends of at least two working crown layers (61, 62) are radially uncoupled by a polymer compound, and in that, in each of the shoulders of the tyre, at least the uncoupling polymer compound in contact with the ends of at least two working crown layers (61, 62) exhibits, in the sorption test, a gas content lower than 0.06 m 3 STP /m 3 ML.
Aircraft passenger service unit for being installed in an overhead position in an aircraft passenger cabin, the aircraft passenger service unit comprising: an infrared sensor, which is configured for detecting infrared radiation and for providing a corresponding sensor output; and a controller, which is configured for receiving and evaluating the sensor output provided by the infrared sensor; wherein the infrared sensor is an infrared sensor array configured for detecting infrared radiation emitted within a plurality of spatial sectors covering a detection area below the aircraft passenger service unit; characterised in that the infrared sensor array is configured for detecting the infrared radiation individually for each spatial sector and for providing individual sensor signals for the plurality of spatial sectors; wherein the infrared sensor array is configured such that each passenger seat (80a, 80b, 80c) arranged within the detection area is covered by at least two of the plurality of spatial sectors, respectively; and wherein the controller is configured for determining a passenger seating position within a passenger seat (80a, 80b, 80c) from the individual sensor signals an infrared sensor, which is configured for detecting infrared radiation and for providing a corresponding sensor output; and a controller, which is configured for receiving and evaluating the sensor output provided by the infrared sensor; wherein the infrared sensor is an infrared sensor array configured for detecting infrared radiation emitted within a plurality of spatial sectors covering a detection area below the aircraft passenger service unit; characterised in that the infrared sensor array is configured for detecting the infrared radiation individually for each spatial sector and for providing individual sensor signals for the plurality of spatial sectors; wherein the infrared sensor array is configured such that each passenger seat (80a, 80b, 80c) arranged within the detection area is covered by at least two of the plurality of spatial sectors, respectively; and wherein the controller is configured for determining a passenger seating position within a passenger seat (80a, 80b, 80c) from the individual sensor signals