mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling transmission power of a reverse link carrier in a multi-carrier wireless communication system, the method comprising: receiving information related to a linkage between a first forward link carrier (FL_a) and a first reverse link carrier (RL_a), wherein the first forward link carrier (FL_a) is used to receive data from a base station and the first reverse link carrier (RL_a) is used to transmit data to the base station; receiving information related to a linkage between a second forward link carrier (FL_b) and a second reverse link carrier (RL_b), wherein the second forward link carrier (FL_b) is used to receive data from the base station and the second reverse link carrier (RL_b) is used to transmit data to the base station; and receiving power control information (RPC_a) for the first reverse link carrier (RL_a) from the base station; and receiving power control information (RPC_b) for the second reverse link carrier (RL_b) from the base station, wherein the power control information (RPC_a) for the first reverse link carrier (RL_a) and the power control information (RPC_b) for the second reverse link carrier (RL_b) are received via a single forward link carrier, wherein the first forward link carrier (FL_a) and the second forward link carrier (FL_b) are not the same. receiving information related to a linkage between a first forward link carrier (FL_a) and a first reverse link carrier (RL_a), wherein the first forward link carrier (FL_a) is used to receive data from a base station and the first reverse link carrier (RL_a) is used to transmit data to the base station; receiving information related to a linkage between a second forward link carrier (FL_b) and a second reverse link carrier (RL_b), wherein the second forward link carrier (FL_b) is used to receive data from the base station and the second reverse link carrier (RL_b) is used to transmit data to the base station; and receiving power control information (RPC_a) for the first reverse link carrier (RL_a) from the base station; and receiving power control information (RPC_b) for the second reverse link carrier (RL_b) from the base station, wherein the power control information (RPC_a) for the first reverse link carrier (RL_a) and the power control information (RPC_b) for the second reverse link carrier (RL_b) are received via a single forward link carrier, wherein the first forward link carrier (FL_a) and the second forward link carrier (FL_b) are not the same.
A route guidance system, comprising: means (15, 18, 44) configured to detect a current position (pr1, pr2) of a host vehicle as a host vehicle position; means configured to search for a specified route to a destination, based on the host vehicle position; and means configured to set a recommended lane in which the host vehicle is recommended to drive, based on the specified route; characterized by further comprising means configured to determine whether or not a lane in which the host vehicle is driving is specified, based on image data of lane demarcation lines that are photographed by a photography unit (49, 50); means configured, in a case where the lane in which the host vehicle is driving is not specified, to compute candidate lanes in which the host vehicle is inferred to be; means configured to assume that the candidate lane which is the farthest from the recommended lane among the candidate lanes is a driving lane; and means configured to start lane guidance with timing determined based on the assumed driving lane and the recommended lane. means (15, 18, 44) configured to detect a current position (pr1, pr2) of a host vehicle as a host vehicle position; means configured to search for a specified route to a destination, based on the host vehicle position; and means configured to set a recommended lane in which the host vehicle is recommended to drive, based on the specified route; characterized by further comprising means configured to determine whether or not a lane in which the host vehicle is driving is specified, based on image data of lane demarcation lines that are photographed by a photography unit (49, 50); means configured, in a case where the lane in which the host vehicle is driving is not specified, to compute candidate lanes in which the host vehicle is inferred to be; means configured to assume that the candidate lane which is the farthest from the recommended lane among the candidate lanes is a driving lane; and means configured to start lane guidance with timing determined based on the assumed driving lane and the recommended lane.
A Siegbahn stage of a vacuum pump, in particular of a turbomolecular pump or of a side channel pump, comprising a stator member and a rotor member which each have one of two mutually oppositely disposed surfaces (20, 22) acting as pumps, wherein at least the surface of the stator member acting as a pump comprises a structured surface; and wherein the mutually oppositely disposed surfaces (20, 22) of the stator member and of the rotor member acting as pumps are non-planar, characterized in that the mutually oppositely disposed surfaces (20, 22) of the stator member and of the rotor member acting as pumps each have an arched shape; in that a gap is formed between the surfaces (20, 22) acting as pumps; and in that the surface of the rotor member acting as a pump has a convex shape arched toward the surface of the stator member acting as a pump and the surface of the stator member acting as a pump has a concave shape arched away from the surface of the rotor member acting as a pump; or in that the surface of the rotor member acting as a pump has a concave shape arched toward the surface of the stator member acting as a pump and the surface of the stator member acting as a pump has a convex shape arched away from the surface of the rotor member acting as a pump.
A rotary grinding tool, comprising: a generally cylindrically shaped body comprising a first end and second end, a grinding portion adjacent to the first end and a shank portion adjacent to the second end; a plurality of flutes formed in the grinding portion of the body, said flutes extending from the first end toward the shank portion of the body; a plurality of grinding elements formed in the grinding portion of the body, said grinding elements extending from the first end toward the shank portion of the body, each of said grinding elements disposed between consecutive flutes along the grinding portion, and each of said grinding elements comprise a grinding surface, each grinding surface comprises a leading edge between a flute and a portion of the grinding surface adjacent to the leading edge that first contacts a surface to be ground and a trailing edge between the next consecutive flute and a portion of the grinding surface adjacent to the trailing edge that last contacts the surface to be ground; characterised in that a first radius (a) of the tool at the leading edge of each grinding element is smaller than a second radius (b) of the tool at the trailing edge of each grinding element, and all first radii (a) are substantially equal and all second radii (b) are substantially equal. a generally cylindrically shaped body comprising a first end and second end, a grinding portion adjacent to the first end and a shank portion adjacent to the second end; a plurality of flutes formed in the grinding portion of the body, said flutes extending from the first end toward the shank portion of the body; a plurality of grinding elements formed in the grinding portion of the body, said grinding elements extending from the first end toward the shank portion of the body, each of said grinding elements disposed between consecutive flutes along the grinding portion, and each of said grinding elements comprise a grinding surface, each grinding surface comprises a leading edge between a flute and a portion of the grinding surface adjacent to the leading edge that first contacts a surface to be ground and a trailing edge between the next consecutive flute and a portion of the grinding surface adjacent to the trailing edge that last contacts the surface to be ground; characterised in that a first radius (a) of the tool at the leading edge of each grinding element is smaller than a second radius (b) of the tool at the trailing edge of each grinding element, and all first radii (a) are substantially equal and all second radii (b) are substantially equal.
A grooved strip for connecting a first component to a second component, comprising a fastening section extending along the grooved strip and having a first bearing element for the first and/or the second component (200, 300), which fastening section is configured to be arranged on a component contour section of the first component, and comprising a latching section extending along the grooved strip and having a latching groove which is open at both ends of the grooved strip and which is configured to receive a latching rib which is comprised by the second component, wherein a second, preferably sealing, bearing element (105, 105', 105") for the second component is provided, and wherein at least one latching element (106, 109) is comprised by the latching groove, by means of which latching element (106, 109) the latching rib can be fastened to the latching groove in a form-fitting and/or force-fitting manner, so that the second component and/or its latching rib bears against the second bearing element (105, 105', 105"), characterized in that the second bearing element is formed in several parts, wherein a first bearing element section for face-side sealing of the latching groove is provided on a first end face of the latching groove, and wherein a second bearing element section (105") for face-side sealing of the latching groove is provided on a second end face of the latching groove. a fastening section extending along the grooved strip and having a first bearing element for the first and/or the second component (200, 300), which fastening section is configured to be arranged on a component contour section of the first component, and comprising a latching section extending along the grooved strip and having a latching groove which is open at both ends of the grooved strip and which is configured to receive a latching rib which is comprised by the second component, wherein a second, preferably sealing, bearing element (105, 105', 105") for the second component is provided, and wherein at least one latching element (106, 109) is comprised by the latching groove, by means of which latching element (106, 109) the latching rib can be fastened to the latching groove in a form-fitting and/or force-fitting manner, so that the second component and/or its latching rib bears against the second bearing element (105, 105', 105"), characterized in that the second bearing element is formed in several parts, wherein a first bearing element section for face-side sealing of the latching groove is provided on a first end face of the latching groove, and wherein a second bearing element section (105") for face-side sealing of the latching groove is provided on a second end face of the latching groove.
A method of manufacturing a bioreactor comprising the steps of: preparing a mixture of powders where the proportion of an enzyme powder relative to a carbon nanotube powder is of the order of 50/50 by weight; preparing a viscous solution of chitosan in a ratio of 5 to 15 (in mg) of chitosan to 0.75 to 1.25 (in ml) of acetic acid diluted to 0.4 to 0.6% by volume in water; adding the viscous chitosan to the mixture of powders in a proportion by weight of 3 to 5 of powder to 5 to 10 of chitosan; carrying out a first compression followed by light grinding; carrying out a second compression to produce a pellet, the pressure applied during the first and the second compression being within a range from 2,000 to 6,000 kPa; and drying at ambient temperature. preparing a mixture of powders where the proportion of an enzyme powder relative to a carbon nanotube powder is of the order of 50/50 by weight; preparing a viscous solution of chitosan in a ratio of 5 to 15 (in mg) of chitosan to 0.75 to 1.25 (in ml) of acetic acid diluted to 0.4 to 0.6% by volume in water; adding the viscous chitosan to the mixture of powders in a proportion by weight of 3 to 5 of powder to 5 to 10 of chitosan; carrying out a first compression followed by light grinding; carrying out a second compression to produce a pellet, the pressure applied during the first and the second compression being within a range from 2,000 to 6,000 kPa; and drying at ambient temperature.
An aerodynamic structure for mounting to a surface (20S, 20P, 30) of a wind turbine rotor blade, which aerodynamic structure comprises a number of comb elements (10T, 10F), a comb element (10T, 10F) comprising comb teeth arranged in a comb plane, wherein said set of comb teeth extends from the inner mounting line to an outer terminating line wherein the inner ends of the comb teeth lie along the mounting line and the outer ends of the comb teeth lie along the terminating line; wherein all teeth of a comb element lie in a common plane, characterized in that the comb plane of a mounted comb element (10T, 10F) is essentially perpendicular to the trailing edge of the rotor blade and to the airfoil surface (20S, 20P) of the rotor blade. wherein all teeth of a comb element lie in a common plane, characterized in that the comb plane of a mounted comb element (10T, 10F) is essentially perpendicular to the trailing edge of the rotor blade and to the airfoil surface (20S, 20P) of the rotor blade.
A method for preparing a cellulose carbamate solution, in which method the dissolution of cellulose carbamate in alkaline aqueous solution, for example in the form of CCA powder or granulates, is performed in two steps with solutions of different concentrations, characterized in that the cellulose carbamate is in the first step, a mixing step, admixed into a dilute NaOH solution which is cooled below the room temperature, preferably below 5°C, and whose alkali concentration is 4% at the most, preferably 1 to 2%, by moistening, activation and homogenization of the cellulose carbamate with the dilute NaOH solution, and in the second step, a dissolution step, the rest of the alkali is dosed in a concentration of about 15 to 22%, preferably 17 to 20%, and at a temperature lower than that of the first step, said temperature being below -15°C, preferably from -25°C to -15°C under intensive stirring, to accelerate the dissolution process and to obtain a fiberless solution of high quality.
Support system for a frontal structure of a vehicle, in which the vehicle comprises: - a body, - a bumper, - a mudguard, in which the mudguard is made of metal, and wherein the support system comprises strengthening means for joining the mudguard to the body of the vehicle, the strengthening means also joining the bumper to the body of the vehicle, and the strengthening means being formed from a single piece, characterized in that the strengthening means comprises a central sector and the strengthening means is joined to the body of the vehicle by the central sector. - a body, - a bumper, - a mudguard, in which the mudguard is made of metal, and
A soluble CTLA4 mutant molecule and a corticosteroid for use in treating graft versus host disease, immune disorders associated with graft transplantation rejection, chronic rejection, and tissue or cell allograft or xenografts, psoriasis, T-cell lymphoma, T-cell acute lymphoblastic leukemia, testicular angiocentric T-cell lymphoma, benign lymphocytic angiitis, lupus, Hashimoto's thyroiditis, primary myxedema, Graves' disease, pernicious anemia, autoimmune atrophic gastritis, Addison's disease, diabetes, good pasture's syndrome, myasthenia gravis, pemphigus, Crohn's disease, sympathetic ophthalmia, autoimmune uveitis, multiple sclerosis, autoimmune hemolytic anemia, idiopathic thrombocytopenia, primary biliary cirrhosis, chronic action hepatitis, ulceratis colitis, Sjogren's syndrome, rheumatoid arthritis, polymyositis, scleroderma, and mixed connective tissue disease, wherein the soluble CTLA4 mutant molecule is an Ig fusion protein comprising the extracellular domain of CTLA4 and the extracellular domain of CTLA4 comprises a mutation at position +104 of CTLA4 as shown in Figure 24, wherein leucine at position +104 is substituted with glutamic acid.
A method of operating an electrical system, comprising: for a first time window, obtaining a temperature reading of each of multiple loads; for each of the loads, computing an initial count value for the first time window based on the load's temperature reading to force that load's temperature to be at or near a target temperature for the load; determining that a length of the first time window is not long enough for all of the loads to be sequentially activated for their respective initial count values; responsive to determining that the length of the first time window is not long enough for all of the loads to be sequentially activated for their respective initial count values, determining an order for a plurality of power groups to thereby produce a monotonically changing power profile, wherein each power group includes one or more of the loads and at least one power group includes more than one concurrently active load; assigning final count values to at least some of the ordered plurality of power groups so that the first time window includes an active power group at all times during the first time window; and sequencing at least some of the ordered plurality of power groups during the first time window using the assigned final count values. for a first time window, obtaining a temperature reading of each of multiple loads; for each of the loads, computing an initial count value for the first time window based on the load's temperature reading to force that load's temperature to be at or near a target temperature for the load; determining that a length of the first time window is not long enough for all of the loads to be sequentially activated for their respective initial count values; responsive to determining that the length of the first time window is not long enough for all of the loads to be sequentially activated for their respective initial count values, determining an order for a plurality of power groups to thereby produce a monotonically changing power profile, wherein each power group includes one or more of the loads and at least one power group includes more than one concurrently active load; assigning final count values to at least some of the ordered plurality of power groups so that the first time window includes an active power group at all times during the first time window; and sequencing at least some of the ordered plurality of power groups during the first time window using the assigned final count values.
A method for measuring the temperature of an object, notably of an object at a cryogenic temperature, a method wherein: - a sensor including a first layer of nanocrystals of a first semiconductor is used, - the first layer of nanocrystals is put into thermal contact with the object, - the nanocrystals are irradiated with an excitation light, capable of exciting the nanocrystals so that they emit fluorescence radiation, - the fluorescence radiation is detected, - the decay time of the fluorescence radiation is determined, the decay time depending on the temperature to be measured, - the temperature to be measured is determined from the thereby determined decay time, characterized in that - the sensor further includes an optical waveguide, at one end of which is placed the first layer of nanocrystals, and a light reflector for reflecting, in the optical waveguide, the fluorescence radiation emitted by the nanocrystals, - the optical waveguide is used for sending the excitation light towards the nanocrystals and for recovering and transmitting the fluorescence radiation for detection of the latter, and - the excitation light is modulated with a modulation signal, the phase shift between the modulation signal of the excitation light, which is reflected by the end of the optical waveguide, and the detected fluorescence radiation are measured, and the decay time is determined from the thereby measured phase shift. - a sensor including a first layer of nanocrystals of a first semiconductor is used, - the first layer of nanocrystals is put into thermal contact with the object, - the nanocrystals are irradiated with an excitation light, capable of exciting the nanocrystals so that they emit fluorescence radiation, - the fluorescence radiation is detected, - the decay time of the fluorescence radiation is determined, the decay time depending on the temperature to be measured, - the temperature to be measured is determined from the thereby determined decay time, characterized in that - the sensor further includes an optical waveguide, at one end of which is placed the first layer of nanocrystals, and a light reflector for reflecting, in the optical waveguide, the fluorescence radiation emitted by the nanocrystals, - the optical waveguide is used for sending the excitation light towards the nanocrystals and for recovering and transmitting the fluorescence radiation for detection of the latter, and - the excitation light is modulated with a modulation signal, the phase shift between the modulation signal of the excitation light, which is reflected by the end of the optical waveguide, and the detected fluorescence radiation are measured, and the decay time is determined from the thereby measured phase shift.
A method for processing transport configuration data, characterized by comprising: abstracting each object of transport configuration data from a local maintenance terminal, LMT, network management configuration system; layering and encapsulating each object according to a hierarchical structure of an Iub interface protocol stack; and acquiring association relationship among layered objects according to a predetermined transport bearer manner; representing the transport configuration data; wherein abstracting each object of the transport configuration data from the LMT network management configuration system comprises: establishing a communication link between the LMT network management configuration system and a base station; the LMT network management configuration system acquiring the transport configuration data from the base station; and acquiring an instance of each object of the transport configuration data. abstracting each object of transport configuration data from a local maintenance terminal, LMT, network management configuration system; layering and encapsulating each object according to a hierarchical structure of an Iub interface protocol stack; and acquiring association relationship among layered objects according to a predetermined transport bearer manner; representing the transport configuration data; wherein abstracting each object of the transport configuration data from the LMT network management configuration system comprises: establishing a communication link between the LMT network management configuration system and a base station; the LMT network management configuration system acquiring the transport configuration data from the base station; and acquiring an instance of each object of the transport configuration data. establishing a communication link between the LMT network management configuration system and a base station; the LMT network management configuration system acquiring the transport configuration data from the base station; and acquiring an instance of each object of the transport configuration data.
Use of a copper alloy for producing horse bits or parts thereof, comprising - 1 % by wt. to 30 % by wt. of manganese, - 1 % by wt. to 30 % by wt. of zinc, - the remainder being copper and other impurities; the other impurities are less than 6 % by wt., in particular less than 3 % by wt., in total. - 1 % by wt. to 30 % by wt. of manganese, - 1 % by wt. to 30 % by wt. of zinc, - the remainder being copper and other impurities; the other impurities are less than 6 % by wt., in particular less than 3 % by wt., in total.