mhurhangee/ep-ind-claims huggingface dataset:
A near endpoint in a computer-implemented communications security system, the near endpoint being a computer or a desk phone comprising: a trust component for computing near endpoint trust level information, wherein the near endpoint trust level information indicates a lower trust level for calls made when the near endpoint is locked, a medium trust level if the near endpoint is unlocked with a personal identification number, PIN, or a higher trust level if the near endpoint is unlocked using biometrics; a sign-in component for sending sign-in credentials and the near endpoint trust level information for registration to a communications infrastructure and receiving registration trust level information based on the sign-in credentials and on the near endpoint trust level information; and a communications component for sending the registration trust level information to a far endpoint, the far endpoint managing communicative interaction with the near endpoint based on the registration trust level information. a trust component for computing near endpoint trust level information, wherein the near endpoint trust level information indicates a lower trust level for calls made when the near endpoint is locked, a medium trust level if the near endpoint is unlocked with a personal identification number, PIN, or a higher trust level if the near endpoint is unlocked using biometrics; a sign-in component for sending sign-in credentials and the near endpoint trust level information for registration to a communications infrastructure and receiving registration trust level information based on the sign-in credentials and on the near endpoint trust level information; and a communications component for sending the registration trust level information to a far endpoint, the far endpoint managing communicative interaction with the near endpoint based on the registration trust level information.
Conjugate of nanodiamonds with glycine to promote glycine in the body in the form of glycine-modified nanodiamond particles having a particle size 2-10 nm and a glycine content up to 21 ± 3% (wt.), wherein the glycine is a component of a surface shell of the nanodiamond particles up to 1 nm thick and contains no fluorine atoms on its surface.
A method for estimating a state of a battery, the method comprising the steps of: acquiring data of the battery during at least a predetermined time range, the data comprising at least a plurality of voltage measurements and a plurality of current measurements, determining a time window within the predetermined time range, the time window starting after a relaxed voltage interval and comprising a dynamic load interval, executing a subspace identification analysis within the time window resulting in the determination of one or more parameters of the battery, populating a model of the battery with the one or more parameters, estimating the state of the battery based on the model, characterized in that at least the step of executing the subspace identification analysis is executed a plurality of time, for a plurality of different values of the state of charge of the battery, and wherein the step of populating the model of the battery comprises populating a look-up table as a function of the different values of the state of charge. acquiring data of the battery during at least a predetermined time range, the data comprising at least a plurality of voltage measurements and a plurality of current measurements, determining a time window within the predetermined time range, the time window starting after a relaxed voltage interval and comprising a dynamic load interval, executing a subspace identification analysis within the time window resulting in the determination of one or more parameters of the battery, populating a model of the battery with the one or more parameters, estimating the state of the battery based on the model, characterized in that at least the step of executing the subspace identification analysis is executed a plurality of time, for a plurality of different values of the state of charge of the battery, and wherein the step of populating the model of the battery comprises populating a look-up table as a function of the different values of the state of charge.
Electric machine having a mounting flange, wherein the mounting flange is arranged on a (preferably cylindrical) housing part of the electric machine in such a way that the mounting flange at least in portions surrounds the housing part in the peripheral direction of the housing part, wherein the mounting flange and/or the housing part are/is coated, wherein the mounting flange is mounted on the housing part by means of a welding process, characterized in that the mounting flange has at least one radially directed raised portion, which abuts the housing part.
A rear suspension mounting assembly (4, 204, 304, 404) adapted to connect a cab to a vehicle chassis, wherein the rear suspension mounting assembly comprises: - a lower bracket (10, 210, 310, 410) provided with a first fastener (12, 212) for securing the lower bracket to a vehicle chassis, - an upper bracket (14, 214, 314, 414) provided with a second fastener for securing the upper bracket to a cab, - first and second connecting means (220, 222, 224, 320, 322, 324, 326, 328, 420, 422, 424) which connect the upper bracket to the lower bracket, wherein the first connecting means (220, 320, 420) are adapted to rigidly connect the upper bracket to the lower bracket, and the second connecting means (222, 224, 322, 324, 326, 328, 422, 424) are adapted to movably connect the upper bracket to the lower bracket, - wherein when the upper bracket is connected to the lower bracket by both the first and the second connecting means, the upper bracket is rigidly connected to the lower bracket, - wherein the first connecting means are dimensioned to break when subjected to a threshold force at which the second connecting means remain intact and allow the upper bracket to move relative to the lower bracket. - a lower bracket (10, 210, 310, 410) provided with a first fastener (12, 212) for securing the lower bracket to a vehicle chassis, - an upper bracket (14, 214, 314, 414) provided with a second fastener for securing the upper bracket to a cab, - first and second connecting means (220, 222, 224, 320, 322, 324, 326, 328, 420, 422, 424) which connect the upper bracket to the lower bracket, wherein the first connecting means (220, 320, 420) are adapted to rigidly connect the upper bracket to the lower bracket, and the second connecting means (222, 224, 322, 324, 326, 328, 422, 424) are adapted to movably connect the upper bracket to the lower bracket, - wherein when the upper bracket is connected to the lower bracket by both the first and the second connecting means, the upper bracket is rigidly connected to the lower bracket, - wherein the first connecting means are dimensioned to break when subjected to a threshold force at which the second connecting means remain intact and allow the upper bracket to move relative to the lower bracket.
A wound dressing comprising: a wound contact layer configured to be positioned in contact with a wound; a first area over the wound contact layer comprising: a lower spacer layer; an absorbent layer; a second area over the wound contact layer comprising a plurality of layers and a negative pressure source and electronic components positioned within or between the plurality of layers, wherein the first area is positioned adjacent to the second area; and wherein one or more layers of the plurality of layers of the second area comprise a hydrophobic material surrounding the negative pressure source and electronic components; a cover layer configured to cover and form a seal over the wound contact layer, the first area, and the second area; and characterized in that the absorbent layer comprises a portion adjacent to the second area and wherein the portion adjacent to the second area comprises a hydrophobic material. a lower spacer layer; an absorbent layer; a second area over the wound contact layer comprising a plurality of layers and a negative pressure source and electronic components positioned within or between the plurality of layers, wherein the first area is positioned adjacent to the second area; and wherein one or more layers of the plurality of layers of the second area comprise a hydrophobic material surrounding the negative pressure source and electronic components; a cover layer configured to cover and form a seal over the wound contact layer, the first area, and the second area; and characterized in that the absorbent layer comprises a portion adjacent to the second area and wherein the portion adjacent to the second area comprises a hydrophobic material.
A process for the removal of formaldehyde-containing acetals from polyhydric alcohols, especially trimethylolpropane, wherein, after it has been prepared, the polyhydric alcohol is separated from low boilers by distillation, then subjected to a tempering and then purified again by distillation.
System for harvesting asparagus in ground, the system comprising a cutting tool connectable to an actuator, said cutting tool movable, controlled by said actuator, relative to an asparagus, for performing localized harvesting of the asparagus by the cutting tool, wherein during localized harvesting, the cutting tool is moved by the actuator to a cutting depth for cutting the asparagus, said cutting tool comprising a cutting edge part and a linkage connecting the cutting edge part to the actuator, in order to exert a cutting movement of the cutting edge part from a rest position to a cutting position wherein the linkage comprises at least one link arm with a catch structure for catching the asparagus when exerting the cutting movement, wherein the linkage comprises at least two link arms (210, 220) arranged for relative movement to each other, said two link arms (210, 220) pivotally arranged relative to said cutting edge part, so that the cutting edge is pivoted from the rest position to the cutting position, characterized in that the catch structure on the at least one link arm is arranged opposite a second link arm that catches the asparagus into the catch structure in that the catch structure is formed by a series of bars laterally extending from the link arm along a length of an asparagus to be caught and in that the cutting edge part is provided with a bottom bar movable with the cutting edge part, so that, by moving into the cutting position, an asparagus is prevented in the catch structure from axial displacement by the bottom bar.
A method comprising: receiving, by a surface composition engine implemented as a separate graphics coprocessor connected to a processor, sensor data from a sensor (150, 531-535); receiving, by the surface composition engine, a plurality of application surfaces (212, 401-403, 512, 701-703) that each represent visual data created by an active application; obtaining, by the surface composition engine, image data representing a visual effect from a graphical effects shader implemented as a separate graphics coprocessor connected to the processor, based on the sensor data; blending, by the surface composition engine, the image data with the plurality of application surfaces (212, 401-403, 512, 701-703) to create a blended image (721, 801-802, 901-902, 1001-1003, 1101-1102, 1201-1202, 1301-1302) by pixel blitting of the image data from the graphical effects shader and from said application surfaces (212, 401-403, 512, 701-703) into a single image; and transmitting (305, 605) the blended image (721, 801-802, 901-902, 1001-1003, 1101-1102, 1201-1202, 1301-1302) to a display, wherein the image data and application surfaces (212, 401-403, 512, 701-703) each comprise bitmaps. receiving, by a surface composition engine implemented as a separate graphics coprocessor connected to a processor, sensor data from a sensor (150, 531-535); receiving, by the surface composition engine, a plurality of application surfaces (212, 401-403, 512, 701-703) that each represent visual data created by an active application; obtaining, by the surface composition engine, image data representing a visual effect from a graphical effects shader implemented as a separate graphics coprocessor connected to the processor, based on the sensor data; blending, by the surface composition engine, the image data with the plurality of application surfaces (212, 401-403, 512, 701-703) to create a blended image (721, 801-802, 901-902, 1001-1003, 1101-1102, 1201-1202, 1301-1302) by pixel blitting of the image data from the graphical effects shader and from said application surfaces (212, 401-403, 512, 701-703) into a single image; and transmitting (305, 605) the blended image (721, 801-802, 901-902, 1001-1003, 1101-1102, 1201-1202, 1301-1302) to a display, wherein the image data and application surfaces (212, 401-403, 512, 701-703) each comprise bitmaps.
A method of generating a cell that enhances functional myelin production, the method comprising genetically modifying the cell such that: an endogenous PLP1 gene product is modified to decrease PLP1 expression level, wherein modification of the endogenous PLP1 gene product comprises delivering to the cell a gene silencing agent specifically targeting PLP1, wherein the endogenous PLP1 gene is a deleterious disease-causing mutant PLP1 gene, wherein the cell is selected from a neural stem cell, an oligodendrocyte progenitor cell, or an oligodendrocyte cell, wherein the cell produces functional myelin, or is a progenitor that produces or differentiates into a cell that produces functional myelin; wherein the method comprises contacting the cell in vitro or ex vivo with a delivery vehicle for the gene silencing agent, optionally, the delivery vehicle is an AAV vector, an adenoviral vector, or a lentivirus vector. an endogenous PLP1 gene product is modified to decrease PLP1 expression level, wherein modification of the endogenous PLP1 gene product comprises delivering to the cell a gene silencing agent specifically targeting PLP1, wherein the endogenous PLP1 gene is a deleterious disease-causing mutant PLP1 gene, wherein the cell is selected from a neural stem cell, an oligodendrocyte progenitor cell, or an oligodendrocyte cell, wherein the cell produces functional myelin, or is a progenitor that produces or differentiates into a cell that produces functional myelin; wherein the method comprises contacting the cell in vitro or ex vivo with a delivery vehicle for the gene silencing agent, optionally, the delivery vehicle is an AAV vector, an adenoviral vector, or a lentivirus vector.
A method for interference mitigation, comprising: determining, at a node of a first wireless communication system, a received signal power level transmitted by one or more nodes (304a - 304g) of a second wireless communication system; and in response to the determined power level: adjusting a bandwidth of a signal transmitted by the node, characterized in that the signal transmitted by the node comprises a plurality of subcarriers, and by further comprising adjusting a transmit power of the signal transmitted by the node, wherein the adjusting comprises transmit signal filtering and the adjusting further comprises reducing transmission power of one or more of the plurality of subcarriers and increasing transmission power of other of the plurality of subcarriers. determining, at a node of a first wireless communication system, a received signal power level transmitted by one or more nodes (304a - 304g) of a second wireless communication system; and in response to the determined power level: adjusting a bandwidth of a signal transmitted by the node, characterized in that the signal transmitted by the node comprises a plurality of subcarriers, and by further comprising adjusting a transmit power of the signal transmitted by the node, wherein the adjusting comprises transmit signal filtering and the adjusting further comprises reducing transmission power of one or more of the plurality of subcarriers and increasing transmission power of other of the plurality of subcarriers. adjusting a bandwidth of a signal transmitted by the node, characterized in that the signal transmitted by the node comprises a plurality of subcarriers, and by further comprising adjusting a transmit power of the signal transmitted by the node, wherein the adjusting comprises transmit signal filtering and the adjusting further comprises reducing transmission power of one or more of the plurality of subcarriers and increasing transmission power of other of the plurality of subcarriers.
A pressure-sensitive adhesive composition, comprising a block copolymer which has a first block having a glass transition temperature of 50 °C or more; and a second block having a crosslinkable functional group and a glass transition temperature of -10 °C or less, and has a number average molecular weight in a range of 200,000 to 500,000, wherein the block copolymer has a molecular weight distribution in a range of 2.0 to 5.0, wherein the first block comprises a polymerization unit derived from a methacrylic acid ester monomer, wherein the second block comprises a polymerization unit derived from 90 to 99.9 parts by weight of an acrylic acid ester monomer, and 0.1 to 10 parts by weight of a copolymerizable monomer having the crosslinkable functional group.
A serving base station method for inter-cell interference coordination in a cellular communication network comprising a plurality of radio cells, each radio cell being served by a serving base station, the serving base station method comprising: determining a current load situation of the serving base station; identifying interfering base stations interfering a communication of the serving base station with its associated mobile terminals located in a border area of the serving base station's served radio cell; estimating a hypothetical capacity gain for the serving base station under the premise that an identified interfering base station restrains a usage of at least a subset of its interfering physical radio resources; and transferring a report on the serving base station's current load situation and the estimated hypothetical capacity gain to each of the identified interfering base stations. determining a current load situation of the serving base station; identifying interfering base stations interfering a communication of the serving base station with its associated mobile terminals located in a border area of the serving base station's served radio cell; estimating a hypothetical capacity gain for the serving base station under the premise that an identified interfering base station restrains a usage of at least a subset of its interfering physical radio resources; and transferring a report on the serving base station's current load situation and the estimated hypothetical capacity gain to each of the identified interfering base stations.
A system for cleaning a drive over reader sensor component, the system including a drive over reader, the drive over reader including a housing and at least one sensor component mounted in a wall of the housing, wherein the drive over reader further comprises a lens of the sensor component, characterised in that the lens being mounted on the wall, wherein the lens is disposed at an angle in a range of from 5 degrees to 10 degrees relative to a vertical plane of the drive over reader to thereby reduce the adhesion of dirt and other contaminants to the lens.
Aircraft with at least one electric machine housed in a compartment of this aircraft, said compartment being separated by a cowling from an external environment, the external environment being located outside the aircraft, said aircraft comprising a ventilation system for conveying the air from the external environment to the electric machine, characterized in that the ventilation system includes a duct connected to the electric machine and extending to a free section, the free section being located in said external environment, the duct passing through a passage of the cowling, the duct extending partially into the compartment and partially into the external environment, an empty space surrounding the duct in the passage and separating the duct from the cowling, the ventilation system comprising a scoop facing the free section without closing it off.
A method for zero-g offset calibration for a measurement apparatus including a Micro-Electro-Mechanical-System, MEMS,-based accelerometer, comprising: a) receiving acceleration measurements performed during at least half of one complete revolution of the MEMS-based accelerometer, wherein the at least half of one complete revolution is accomplished by making the MEMS-based accelerometer rotate around a first axis not parallel to a gravity vector; b) from the accelerometer measurements, obtaining one or more pairs of acceleration peaks and acceleration valleys along a second axis perpendicular to the first axis; and c) determining a zero-g offset for the second axis on the basis of the one or more pairs of acceleration peaks and acceleration valleys, wherein the MEMS-based accelerometer is included in a horizontal collimator, and further comprising: emitting a reference beam using a laser when the measurement apparatus is in a proper position determined by the MEMS-based accelerometer, where the reference beam is parallel to a horizontal direction when used as the horizontal collimator. a) receiving acceleration measurements performed during at least half of one complete revolution of the MEMS-based accelerometer, wherein the at least half of one complete revolution is accomplished by making the MEMS-based accelerometer rotate around a first axis not parallel to a gravity vector; b) from the accelerometer measurements, obtaining one or more pairs of acceleration peaks and acceleration valleys along a second axis perpendicular to the first axis; and c) determining a zero-g offset for the second axis on the basis of the one or more pairs of acceleration peaks and acceleration valleys, wherein the MEMS-based accelerometer is included in a horizontal collimator, and further comprising: emitting a reference beam using a laser when the measurement apparatus is in a proper position determined by the MEMS-based accelerometer, where the reference beam is parallel to a horizontal direction when used as the horizontal collimator.
Process for producing a molded insulating part, characterized by the following process steps: - production of an inorganic pulp composed of water, glass fibers and/or mineral fibers and sheet silicate, - introduction of the pulp into a cavity of a casting tool whose wall is at least partially water-permeable, which cavity has on at least one side the negative shape of the molded insulating part to be produced, - removal of the aqueous fraction present in the pulp, - opening of the casting tool and subsequent taking-out of the produced molded insulating part. - production of an inorganic pulp composed of water, glass fibers and/or mineral fibers and sheet silicate, - introduction of the pulp into a cavity of a casting tool whose wall is at least partially water-permeable, which cavity has on at least one side the negative shape of the molded insulating part to be produced, - removal of the aqueous fraction present in the pulp, - opening of the casting tool and subsequent taking-out of the produced molded insulating part.
An isolated polynucleotide molecule comprising a DNA sequence encoding an infectious RNA molecule encoding a North American PRRS virus, wherein said DNA sequence is selected from the group consisting of SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4 and SEQ ID NO:6.
High-fibre bread comprising 0.3 to 20% by weight of a combination of carboxymethylcellulose and at least one other type of fibre material, wherein said other fibre material comprises inulin.