mhurhangee/ep-ind-claims huggingface dataset:
A driver assistance system for a first vehicle, the system comprising: a sensor module communicatively coupled to one or more sensors; a processor; and a storage device storing instructions executable by the processor to: responsive to detecting an entry condition: decrease an amount of control of the first vehicle provided by a driver of the first vehicle, increase an amount of control of the first vehicle automatically provided by one or more vehicle systems upon detecting a leading vehicle in front of the first vehicle, and automatically control the first vehicle to follow the leading vehicle at a threshold separation until detecting an exit condition, characterised in that the entry condition includes identifying a start of a no-passing zone further based on inputs from the sensors, the sensors including one or more cameras mounted on the first vehicle, and wherein the entry condition is further based on a driver preference. a sensor module communicatively coupled to one or more sensors; a processor; and a storage device storing instructions executable by the processor to: responsive to detecting an entry condition: decrease an amount of control of the first vehicle provided by a driver of the first vehicle, increase an amount of control of the first vehicle automatically provided by one or more vehicle systems upon detecting a leading vehicle in front of the first vehicle, and automatically control the first vehicle to follow the leading vehicle at a threshold separation until detecting an exit condition, characterised in that the entry condition includes identifying a start of a no-passing zone further based on inputs from the sensors, the sensors including one or more cameras mounted on the first vehicle, and wherein the entry condition is further based on a driver preference. decrease an amount of control of the first vehicle provided by a driver of the first vehicle, increase an amount of control of the first vehicle automatically provided by one or more vehicle systems upon detecting a leading vehicle in front of the first vehicle, and automatically control the first vehicle to follow the leading vehicle at a threshold separation until detecting an exit condition, characterised in that the entry condition includes identifying a start of a no-passing zone further based on inputs from the sensors, the sensors including one or more cameras mounted on the first vehicle, and wherein the entry condition is further based on a driver preference.
A mobile communication system comprising a base station, a neighbor base station around the base station and a mobile terminal which can perform radio communication with the neighbor base station, wherein the neighbor base station is configured to transmit, to the base station, a request message requesting notification of a subframe configuration indicating an MBSFN-subframe for avoiding downlink interference, wherein the base station is configured to notify, according to the request message, the neighbor base station of the subframe configuration indicating an MBSFN-subframe for avoiding downlink interference, wherein the neighbor base station is configured to schedule the mobile terminal by setting the resource of the MBSFN subframe for uni-cast communication to avoid downlink interference, and wherein the mobile terminal is configured to communicate with the neighbor base station by using a subframe set on the basis of the subframe configuration indicating an MBSFN-subframe for avoiding downlink interference. the base station is configured to notify, according to the request message, the neighbor base station of the subframe configuration indicating an MBSFN-subframe for avoiding downlink interference, wherein the neighbor base station is configured to schedule the mobile terminal by setting the resource of the MBSFN subframe for uni-cast communication to avoid downlink interference, and wherein the mobile terminal is configured to communicate with the neighbor base station by using a subframe set on the basis of the subframe configuration indicating an MBSFN-subframe for avoiding downlink interference.
A packet forwarding method, wherein the method comprises: receiving, by a Bit-Forwarding Ingress Router, BFIR, in a Bit Index Explicit Replication-Traffic Engineering, BIER-TE, a packet to be sent to a Bit-Forwarding Egress Router, BFER, in the BIER-TE, and a path identifier, wherein the path identifier is used for indicating a primary path and a backup path through which the packet is sent from a first Bit Forwarding Router, BFR, to a next-hop BFR of the first BFR; determining, by the BFIR in the BIER-TE according to the path identifier, a bitstring for use in forwarding the packet to the BFER; and filling, by the BFIR in the BIER-TE, the bitstring into the packet, and forwarding the packet according to the bitstring. receiving, by a Bit-Forwarding Ingress Router, BFIR, in a Bit Index Explicit Replication-Traffic Engineering, BIER-TE, a packet to be sent to a Bit-Forwarding Egress Router, BFER, in the BIER-TE, and a path identifier, wherein the path identifier is used for indicating a primary path and a backup path through which the packet is sent from a first Bit Forwarding Router, BFR, to a next-hop BFR of the first BFR; determining, by the BFIR in the BIER-TE according to the path identifier, a bitstring for use in forwarding the packet to the BFER; and filling, by the BFIR in the BIER-TE, the bitstring into the packet, and forwarding the packet according to the bitstring.
Assembly jig, comprising a plurality of supports, and a plurality of interface fittings for supporting a component of a structure to be assembled on the supports of the assembly jig, each interface fitting comprising a component-side part adapted to be attached to a lower surface of the component, and a jig-side part arranged under the component-side part and configured to bear in an orientable way on the respective support without being secured thereto, said jig-side part comprising a recess bearing on a spherical surface formed on an upper end of the respective support, wherein at least one of the interface fittings further comprises a spacer member interposed between said component-side part and jig-side part, said spacer member being operable for adjusting the distance between said component-side part and said jig-side part.
A silicon carbide metal-oxide semiconductor field effect transistor comprising: an n-type silicon carbide drift layer; spaced apart p-type silicon carbide well regions adjacent the drift layer; and an n-type silicon carbide depletion layer reducing region disposed between the well regions and the drift layer, the depletion layer reducing region comprising an epitaxial layer of silicon carbide and comprising first portions laterally extending along respective floors of the well regions and second portions extending along respective sidewalls of the well regions, wherein the first portion of the depletion layer reducing region has a higher carrier concentration than the second portion of the depletion layer reducing region and the drift layer, and wherein the second portion of the depletion layer reducing region has a same or higher carrier concentration than the drift layer. an n-type silicon carbide drift layer; spaced apart p-type silicon carbide well regions adjacent the drift layer; and an n-type silicon carbide depletion layer reducing region disposed between the well regions and the drift layer, the depletion layer reducing region comprising an epitaxial layer of silicon carbide and comprising first portions laterally extending along respective floors of the well regions and second portions extending along respective sidewalls of the well regions, wherein the first portion of the depletion layer reducing region has a higher carrier concentration than the second portion of the depletion layer reducing region and the drift layer, and wherein the second portion of the depletion layer reducing region has a same or higher carrier concentration than the drift layer.
A method for large scale recombinant lenti-viral (rLV) vector purification, comprising; a) harvesting recombinant viral vectors comprising a transgene from serum free suspension culture; b) clarifying the harvest of step a) via filtration; c) harvesting the filtrate from step b) and optionally exposing said filtrate to nuclease digestion to remove DNA/RNA impurities; d) subjecting the filtrate of step c) to PEG-modulated anion exchange column chromatography, thereby isolating said rLV vectors; e) further purifying the rLV vectors obtained from step d) via tangential flow filtration to reduce the volume and exchange buffer; f) subjecting the filtrate of step e) to size exclusion column chromatography to further purify said rLV vectors; g) subjecting the rLV vectors of step f) to tangential flow filtration, and thereby obtaining final vector titer; h) filtering the rLV vector solution obtained from step g) through a.20-0.5μm pore diameter filter; and i) collecting purified rLV vectors. a) harvesting recombinant viral vectors comprising a transgene from serum free suspension culture; b) clarifying the harvest of step a) via filtration; c) harvesting the filtrate from step b) and optionally exposing said filtrate to nuclease digestion to remove DNA/RNA impurities; d) subjecting the filtrate of step c) to PEG-modulated anion exchange column chromatography, thereby isolating said rLV vectors; e) further purifying the rLV vectors obtained from step d) via tangential flow filtration to reduce the volume and exchange buffer; f) subjecting the filtrate of step e) to size exclusion column chromatography to further purify said rLV vectors; g) subjecting the rLV vectors of step f) to tangential flow filtration, and thereby obtaining final vector titer; h) filtering the rLV vector solution obtained from step g) through a.20-0.5μm pore diameter filter; and i) collecting purified rLV vectors.
A method for producing an article of footwear, comprising: producing the article of footwear with a customized midsole and a customized cleat arrangement, wherein the method provides that the customized cleat arrangement is manufactured with at least one knitted component forming at least a knit outsole of the customized cleat arrangement, wherein the knit outsole includes a plurality of cavities in an outsole top surface that correspond with and form cleat members, wherein the customized cleat arrangement is produced based on a knit outsole representation associated with a user including information relating to at least one of a pre-defined cleat location or a pre-defined number of cleats, and wherein the knitted component forms the knit outsole through a vacuum forming process. producing the article of footwear with a customized midsole and a customized cleat arrangement, wherein the method provides that the customized cleat arrangement is manufactured with at least one knitted component forming at least a knit outsole of the customized cleat arrangement, wherein the knit outsole includes a plurality of cavities in an outsole top surface that correspond with and form cleat members, wherein the customized cleat arrangement is produced based on a knit outsole representation associated with a user including information relating to at least one of a pre-defined cleat location or a pre-defined number of cleats, and wherein the knitted component forms the knit outsole through a vacuum forming process.
Method for producing a roofing detail part for sealing a roof element, the method comprising the steps of: (a) Providing and/or obtaining a digital model of a roof element to be sealed; (b) Based on the digital model, producing a roofing detail part fitting on the outer shape of the roof element by additive manufacturing, whereby the roof element is a roof curb, a roof drain, a roof edge, a roof expansion joint, a roof parapet wall, a roof penetration, a roof sleeper, a roof transition, a roof corner, a roof tie-in and/or a roof wall. (a) Providing and/or obtaining a digital model of a roof element to be sealed; (b) Based on the digital model, producing a roofing detail part fitting on the outer shape of the roof element by additive manufacturing,
An anode comprising: a current collector; a lithium metal layer composed of only lithium metal provided on the current collector; and a silicon layer provided on the lithium metal layer, wherein a weight ratio of a lithium element to a silicon element in the anode is 100: 1 to 50. a current collector; a lithium metal layer composed of only lithium metal provided on the current collector; and a silicon layer provided on the lithium metal layer, wherein a weight ratio of a lithium element to a silicon element in the anode is 100: 1 to 50.
A compound represented by the following formula: wherein X 1 to X 6 in the above formula are each independently of one another a sulfur atom, a carbon atom having a hydrogen atom, or a carbon atom having a substituent R 0, and the substituent R 0 represents an alkyl group, an alkoxy group, an alkylthio group, an aromatic group, a halogen atom, a hydroxyl group, a mercapto group, a nitro group, a substituted amino group, an unsubstituted amino group, a cyano group, a sulfo group, an acyl group, a sulfamoyl group, an alkylsulfamoyl group, a carbamoyl group, or an alkylcarbamoyl group; and adjacent groups of X 1 to X 6 may be connected to each other to form a ring structure.
A silicon photonic integrated circuit, Si PIC, polarization splitter or combiner (3402, 3800), comprising: a first silicon nitride, SiN, waveguide formed in a first layer of a silicon photonic integrated circuit, Si PIC; a second SiN waveguide formed in the first layer of the Si PIC; and a first Si waveguide, formed in a second layer of the Si PIC, comprising: a first tapered end laterally aligned with and adiabatically coupled to a coupler portion of the first SiN waveguide; and a second tapered end laterally aligned with and adiabatically coupled to a coupler portion of the second SiN waveguide; wherein a tip width of the first tapered end of the first Si waveguide and the second tapered end of the first Si waveguide is: narrower than a TE maximum taper width to permit adiabatic coupling of TE polarization of light with high efficiency relative to a coupling efficiency of TM polarization of light; and wider than a TM maximum taper width above which prevents adiabatic coupling of the TM polarization with high efficiency relative to coupling efficiency of the TE polarization. a first silicon nitride, SiN, waveguide formed in a first layer of a silicon photonic integrated circuit, Si PIC; a second SiN waveguide formed in the first layer of the Si PIC; and a first Si waveguide, formed in a second layer of the Si PIC, comprising: a first tapered end laterally aligned with and adiabatically coupled to a coupler portion of the first SiN waveguide; and a second tapered end laterally aligned with and adiabatically coupled to a coupler portion of the second SiN waveguide; a first tapered end laterally aligned with and adiabatically coupled to a coupler portion of the first SiN waveguide; and a second tapered end laterally aligned with and adiabatically coupled to a coupler portion of the second SiN waveguide; wherein a tip width of the first tapered end of the first Si waveguide and the second tapered end of the first Si waveguide is: narrower than a TE maximum taper width to permit adiabatic coupling of TE polarization of light with high efficiency relative to a coupling efficiency of TM polarization of light; and wider than a TM maximum taper width above which prevents adiabatic coupling of the TM polarization with high efficiency relative to coupling efficiency of the TE polarization. narrower than a TE maximum taper width to permit adiabatic coupling of TE polarization of light with high efficiency relative to a coupling efficiency of TM polarization of light; and wider than a TM maximum taper width above which prevents adiabatic coupling of the TM polarization with high efficiency relative to coupling efficiency of the TE polarization.
A computer-implemented method for determining at least one exploded path of an exploded view of an assembly of three-dimensional modeled objects comprising the steps of: - displaying in a main frame an exploded view of the assembly in a scene; - computing automatically a plurality of sets of at least one exploded path, an exploded path corresponding to a set of at least one exploded line linking at least one object of the assembly; - displaying a list (LIST) of thumbnails (TH1, TH2, TH3), each thumbnail corresponding to one of the plurality of sets of at least one computed exploded path of the assembly; - selecting one thumbnail among the list of thumbnails; and - displaying the set of at least one exploded path corresponding to the selected thumbnail. - displaying in a main frame an exploded view of the assembly in a scene; - computing automatically a plurality of sets of at least one exploded path, an exploded path corresponding to a set of at least one exploded line linking at least one object of the assembly; - displaying a list (LIST) of thumbnails (TH1, TH2, TH3), each thumbnail corresponding to one of the plurality of sets of at least one computed exploded path of the assembly; - selecting one thumbnail among the list of thumbnails; and - displaying the set of at least one exploded path corresponding to the selected thumbnail.
Polyolefin composition comprising an heterophasic propylene copolymer (HECO) and a polar modified α-polyolefin, wherein said heterophasic propylene copolymer (HECO) comprises (a) a (semi)crystalline polypropylene having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 45 to 150 g/10min; and (b) an elastomeric propylene copolymer dispersed in said (semi)crystalline polypropylene, wherein said heterophasic propylene copolymer (HECO) has (i) a xylene cold soluble fraction in the range of 25 to 40 wt.-%; wherein further the xylene cold soluble fraction of said heterophasic propylene copolymer (HECO) has (ii) a comonomer content in the range of 21 to 55 mol-%; and (iii) optionally an intrinsic viscosity in the range of 1.50 to 3.00 dl/g, and optionally still further (iv) the intrinsic viscosity of the xylene cold insoluble fraction of the heterophasic propylene copolymer (HECO) is in the range of 1.00 to 1.30 dl/g. (a) a (semi)crystalline polypropylene having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 45 to 150 g/10min; and (b) an elastomeric propylene copolymer dispersed in said (semi)crystalline polypropylene, (i) a xylene cold soluble fraction in the range of 25 to 40 wt.-%; wherein further the xylene cold soluble fraction of said heterophasic propylene copolymer (HECO) has (ii) a comonomer content in the range of 21 to 55 mol-%; and (iii) optionally an intrinsic viscosity in the range of 1.50 to 3.00 dl/g, and optionally still further (iv) the intrinsic viscosity of the xylene cold insoluble fraction of the heterophasic propylene copolymer (HECO) is in the range of 1.00 to 1.30 dl/g.
A grout anchored rock bolt which includes an elongate cylindrical body of a suitable material which has at least one integral anchor portion which comprises of a plurality projections (20A,20B), each of which extends laterally from the body in at least one radial direction, wherein the projections (20A,20B) are consecutively serially arranged along the length of the anchor portion, and wherein each projection (20A,20B) is a paddle formation (18A,18B,18C,18D), aligned in the longitudinal axis of the body, and extending laterally from the body in two diametrically opposed radial directions, characterised in that each paddle formation (18A,18B,18C,18D) is radially offset relatively to the preceding formation (18A,18B,18C,18D) at an angle that is not orthogonal and no adjacent or nearly spaced paddle formation (18A,18B,18C,18D) is in the shadow of a preceding paddle formation (18A,18B,18C,18D), when the rock bolt is viewed in plan.
Cleaning cart comprising a support body and a communications device holder for receiving a mobile communications device, wherein the communications device holder is fixed to the support body, wherein the support body has a two-shell design comprising a first outer shell and a second inner shell, wherein the first shell covers the second shell in a substantially dome-shaped manner, wherein the first shell and the second shell delimit an intermediate space, wherein the communications device holder is arranged in the intermediate space, and wherein the first and the second shell can be folded away from one another by means of a hinge in order to open up the intermediate space, characterized in that the support body is configured as a cover for an upwardly open container, the first shell being the outer cover and the second shell the inner cover.
A method, comprising: geometrically adapting a generic anatomical model to a corresponding anatomy of a patient represented in structural image data from a structural scan, producing an adapted anatomical model; forward projecting the adapted anatomical model, producing forward projected data; adapting the forward projected data to individual projections of projection data, which is used to generate the structural image data, producing a patient-adapted motion model; and performing a motion compensated reconstruction of functional projection data using the patient-adapted motion model. geometrically adapting a generic anatomical model to a corresponding anatomy of a patient represented in structural image data from a structural scan, producing an adapted anatomical model; forward projecting the adapted anatomical model, producing forward projected data; adapting the forward projected data to individual projections of projection data, which is used to generate the structural image data, producing a patient-adapted motion model; and performing a motion compensated reconstruction of functional projection data using the patient-adapted motion model.
Air-permeable pressure equalizing element with a self-sealing enveloping body, and, inserted therein, a filter membrane, which is encapsulated at least on two sides by at least part of the enveloping body and is covered over by a filter-membrane covering of the enveloping body, characterized in that the filter-membrane covering is moulded in its position for use.
An alkaline liquid hard surface cleaning composition comprising from 0.01% to 15% by weight of a surfactant system, wherein the surfactant system comprises: (a) From 1.0% to 10% by weight of the composition of an alkyl pyrrolidone; (b) from 0.1% to 10.0% by weight of a co-surfactant selected from the group consisting of: (i) an amine oxide surfactant; (ii) a betaine surfactant; and (iii) mixtures thereof; (c) from 1.0% to 10% by weight of the composition of alkoxylated nonionic surfactant, according to the formula RO- n H, wherein: R is a C 6 to C 18, alkyl chain, A is an ethoxy unit, and wherein n is from 1 to 30; wherein the liquid hard surface cleaning composition has a pH of greater than 7.0, measured on the neat composition, at 25°C. (a) From 1.0% to 10% by weight of the composition of an alkyl pyrrolidone; (b) from 0.1% to 10.0% by weight of a co-surfactant selected from the group consisting of: (i) an amine oxide surfactant; (ii) a betaine surfactant; and (iii) mixtures thereof; (i) an amine oxide surfactant; (ii) a betaine surfactant; and (iii) mixtures thereof; (c) from 1.0% to 10% by weight of the composition of alkoxylated nonionic surfactant, according to the formula RO- n H, wherein: R is a C 6 to C 18, alkyl chain, A is an ethoxy unit, and wherein n is from 1 to 30;