mhurhangee/ep-ind-claims huggingface dataset:
A communication method for a mobile station operating in accordance with a time frame structure that includes a plurality of frames, each frame comprising a plurality of subframes, each subframe comprising a plurality of time slots, each time slot comprising a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols, the method comprising: receiving from a base station information about availability of a random access channel; transmitting a random access signal over the random access channel within an uplink frequency band, wherein the random access signal is a spread spectrum signal, the random access signal contains a sequence that is designated to the base station, a guard period is reserved in the random access signal, and the random access signal has a time duration longer than multiple of the OFDM symbols; receiving an acknowledgement to the random access signal from the base station, the acknowledgement carrying an identifier associated with the mobile station and power and time adjustments; and transmitting a message, within the uplink frequency band, having a timing and a power based on the power and time adjustments. receiving from a base station information about availability of a random access channel; transmitting a random access signal over the random access channel within an uplink frequency band, wherein the random access signal is a spread spectrum signal, the random access signal contains a sequence that is designated to the base station, a guard period is reserved in the random access signal, and the random access signal has a time duration longer than multiple of the OFDM symbols; the random access signal is a spread spectrum signal, the random access signal contains a sequence that is designated to the base station, a guard period is reserved in the random access signal, and the random access signal has a time duration longer than multiple of the OFDM symbols; receiving an acknowledgement to the random access signal from the base station, the acknowledgement carrying an identifier associated with the mobile station and power and time adjustments; and transmitting a message, within the uplink frequency band, having a timing and a power based on the power and time adjustments.
An electrical device assembly (400, 900) comprising: an electrical device (420, 920) comprising: a first stud adapted to be coupled to a first terminal; a receiving hole in a housing of the electrical device; and a single stud fuse assembly comprising: a single stud fuse comprising a shaft receptacle; a landing pad comprising a landing pad shaft and a stud base receptacle, the landing pad shaft being orbitally riveted into the receiving hole of the housing; and an electrically isolated stud comprising a stud shaft and a stud base, wherein: the stud base being inserted into the stud base receptacle; the single stud fuse is disposed along the stud shaft, with the stud shaft being disposed through the shaft receptacle, the stud shaft adapted to be coupled to a second terminal. an electrical device (420, 920) comprising: a first stud adapted to be coupled to a first terminal; a receiving hole in a housing of the electrical device; and a first stud adapted to be coupled to a first terminal; a receiving hole in a housing of the electrical device; and a single stud fuse assembly comprising: a single stud fuse comprising a shaft receptacle; a landing pad comprising a landing pad shaft and a stud base receptacle, the landing a single stud fuse comprising a shaft receptacle; a landing pad comprising a landing pad shaft and a stud base receptacle, the landing pad shaft being orbitally riveted into the receiving hole of the housing; and an electrically isolated stud comprising a stud shaft and a stud base, wherein: the stud base being inserted into the stud base receptacle; the single stud fuse is disposed along the stud shaft, with the stud shaft being disposed through the shaft receptacle, the stud shaft adapted to be coupled to a second terminal. the stud base being inserted into the stud base receptacle; the single stud fuse is disposed along the stud shaft, with the stud shaft being disposed through the shaft receptacle, the stud shaft adapted to be coupled to a second terminal.
An isolated protein complex capable of promoting cell migration and/or proliferation comprising: (i) insulin like growth factor I (IGF-I); and (ii) a vitronectin, wherein the VN comprises at least an integrin-binding domain corresponding to amino acid residues 1-52 of mature VN of SEQ ID NO. 2 and having a polyanionic region of amino acid residues 53-64 of mature VN of SEQ ID NO. 2 and does not comprise a heparin-binding domain corresponding to residues 347-459 of mature VN (SEQ ID NO. 2); and (iii) IGFBP3. (i) insulin like growth factor I (IGF-I); and (ii) a vitronectin, wherein the VN comprises at least an integrin-binding domain corresponding to amino acid residues 1-52 of mature VN of SEQ ID NO. 2 and having a polyanionic region of amino acid residues 53-64 of mature VN of SEQ ID NO. 2 and does not comprise a heparin-binding domain corresponding to residues 347-459 of mature VN (SEQ ID NO. 2); and (iii) IGFBP3.
A method of determining the state of the humoral immune system in a patient comprising the steps of: (i) providing a mixture consisting of a blood sample obtained from the patient and a bacteria suspension, wherein the bacteria are antimicrobial peptide sensitive, (ii) incubating the mixture, and (iii) determining the change in density of the mixture over time. (i) providing a mixture consisting of a blood sample obtained from the patient and a bacteria suspension, wherein the bacteria are antimicrobial peptide sensitive, (ii) incubating the mixture, and (iii) determining the change in density of the mixture over time.
A user device method for determining a load associated with a node (115; 120), the method comprising, at the user device: determining a time interval measure representing a time interval between frames transmitted by a node (115; 120); determining a number of user devices associated with the node (115; 120) based on information in the frames transmitted by the node (115; 120); and determining a load measure associated with the node (115; 120), based at least on the number of user devices associated with the node (115; 120) and the time interval measure. determining a time interval measure representing a time interval between frames transmitted by a node (115; 120); determining a number of user devices associated with the node (115; 120) based on information in the frames transmitted by the node (115; 120); and determining a load measure associated with the node (115; 120), based at least on the number of user devices associated with the node (115; 120) and the time interval measure.
Method for the degassing of hypergolic propellants, comprising - introducing hypergolic propellant into a vacuum-tight vessel, - cooling the vacuum-tight vessel containing the hypergolic propellant, wherein the hypergolic propellant is cooled to the freezing point of the hypergolic propellant, and - applying a pressure that is reduced as compared to the atmospheric pressure to the hypergolic propellant, wherein the reduced pressure as compared to the atmospheric pressure is applied before reaching the freezing point, and the reduced pressure as compared to the atmospheric pressure is maintained at least temporarily during the cooling of the hypergolic propellant to freezing point. - introducing hypergolic propellant into a vacuum-tight vessel, - cooling the vacuum-tight vessel containing the hypergolic propellant, wherein the hypergolic propellant is cooled to the freezing point of the hypergolic propellant, and - applying a pressure that is reduced as compared to the atmospheric pressure to the hypergolic propellant, wherein the reduced pressure as compared to the atmospheric pressure is applied before reaching the freezing point, and the reduced pressure as compared to the atmospheric pressure is maintained at least temporarily during the cooling of the hypergolic propellant to freezing point.
A rod reducer comprising: a first elongate member; and a second elongate member configured to slide along the first elongate member; a first bearing component rotatably connected to the first elongate member; a second bearing component rotatably connected to the second elongate member; a hinge mechanism comprising: a first pair of linkages (64A, 64B) pivotably coupled to the first bearing component; a second pair of linkages (62A, 62B) pivotably coupled to the second bearing component; first and second rotation elements (89C, 89D) connecting the first pair of linkages (64A, 64B) and the second pair of linkages (62A, 62B); and first and second lever arms (66A, 66B) extending from the second pair of linkages (62A, 62B); and first and second handles (72, 74) connected to the first and second lever arms (66A, 66B), respectively, configured to cause the second pair of linkages (62A, 62B) to draw the first bearing component and the first elongate member toward the second bearing component; wherein the first bearing component and the second bearing component permit the hinge mechanism to rotate about the first and second elongate members (68, 70). a first elongate member; and a second elongate member configured to slide along the first elongate member; a first bearing component rotatably connected to the first elongate member; a second bearing component rotatably connected to the second elongate member; a hinge mechanism comprising: a first pair of linkages (64A, 64B) pivotably coupled to the first bearing component; a second pair of linkages (62A, 62B) pivotably coupled to the second bearing component; first and second rotation elements (89C, 89D) connecting the first pair of linkages (64A, 64B) and the second pair of linkages (62A, 62B); and first and second lever arms (66A, 66B) extending from the second pair of linkages (62A, 62B); and a first pair of linkages (64A, 64B) pivotably coupled to the first bearing component; a second pair of linkages (62A, 62B) pivotably coupled to the second bearing component; first and second rotation elements (89C, 89D) connecting the first pair of linkages (64A, 64B) and the second pair of linkages (62A, 62B); and first and second lever arms (66A, 66B) extending from the second pair of linkages (62A, 62B); and first and second handles (72, 74) connected to the first and second lever arms (66A, 66B), respectively, configured to cause the second pair of linkages (62A, 62B) to draw the first bearing component and the first elongate member toward the second bearing component; wherein the first bearing component and the second bearing component permit the hinge mechanism to rotate about the first and second elongate members (68, 70).
A deployment apparatus comprising: i) a deployment object; ii) a deployment arm coupled to the deployment object; iii) a deployment link, an end of the deployment link comprising a mating surface that confronts a mating surface of the deployment arm and an opposing end of the deployment link is coupled to a deployment arm mount; iv) a pivot housing adjacent the mating surfaces of the deployment link and the deployment arm; v) at least two linear guides, coupled to the deployment arm mount and comprising at least two tracks that are slidingly engaged with a plurality of linear bearings on the surface of the pivot housing; and; vi) a gas spring coupled at one end to the pivot housing and coupled at an opposing end to the deployment arm mount; characterized in that: vii) the opposing end of the deployment link is directly coupled in a fixed location to the deployment arm mount; i) a deployment object; ii) a deployment arm coupled to the deployment object; iii) a deployment link, an end of the deployment link comprising a mating surface that confronts a mating surface of the deployment arm and an opposing end of the deployment link is coupled to a deployment arm mount; iv) a pivot housing adjacent the mating surfaces of the deployment link and the deployment arm; v) at least two linear guides, coupled to the deployment arm mount and comprising at least two tracks that are slidingly engaged with a plurality of linear bearings on the surface of the pivot housing; and; vi) a gas spring coupled at one end to the pivot housing and coupled at an opposing end to the deployment arm mount; characterized in that: vii) the opposing end of the deployment link is directly coupled in a fixed location to the deployment arm mount;
A mirror assembly comprising: a mirror substrate configured to provide a reflection of objects including a user; a sensor configured to collect sensor data from the user including an identity of the user; and a controller configured to analyze the sensor data and select an auxiliary command for controlling an auxiliary device, the auxiliary command being selected for a particular user, the auxiliary device spaced apart from and coordinated with the mirror assembly, the auxiliary command selected for the user based on the sensor data, wherein the auxiliary device comprises a toilet, a sink, a shower, a bathtub, a floor tile, a light guide, a kitchen faucet, a dishwasher, a garbage disposal, a refrigerator, a water heater, or a water filter. a mirror substrate configured to provide a reflection of objects including a user; a sensor configured to collect sensor data from the user including an identity of the user; and a controller configured to analyze the sensor data and select an auxiliary command for controlling an auxiliary device, the auxiliary command being selected for a particular user, the auxiliary device spaced apart from and coordinated with the mirror assembly, the auxiliary command selected for the user based on the sensor data, wherein the auxiliary device comprises a toilet, a sink, a shower, a bathtub, a floor tile, a light guide, a kitchen faucet, a dishwasher, a garbage disposal, a refrigerator, a water heater, or a water filter.
A liquid or semi-solid transparent filler material for use in a surgical method for treating hyperopia or presbyopia in a patient, the surgical method comprising: making a first cut deep in the patient's cornea within the bottom 50% of the patient's cornea to create a two-dimensional slit adjacent to and generally parallel to an anterior surface of the cornea; injecting a liquid or semi-solid transparent filler material into the deep cut in an amount sufficient to flatten the posterior surface of the cornea to increase the refractive power of the cornea by a predetermined correction of up to 5 diopters due to the physical flattening of the posterior surface of the cornea, wherein the transparent filler material comprises a refractive index of 1.3 to 1.6, and forms a corneal implant with a lenticular shape within the cornea; making a second, superficial cut in the patient's cornea within the top 50% of the patient's cornea to create a two-dimensional slit adjacent to and generally parallel to the anterior surface of the cornea; and injecting a liquid or semi-solid transparent filler material into the superficial cut in an amount sufficient to increase the curvature of an anterior surface of the cornea to increase the refractive power of the cornea by a predetermined correction of up to 12.0 diopters due to the physical increased curvature of the anterior surface of the cornea, wherein the transparent filler material forms a corneal implant with a lenticular shape. making a first cut deep in the patient's cornea within the bottom 50% of the patient's cornea to create a two-dimensional slit adjacent to and generally parallel to an anterior surface of the cornea; injecting a liquid or semi-solid transparent filler material into the deep cut in an amount sufficient to flatten the posterior surface of the cornea to increase the refractive power of the cornea by a predetermined correction of up to 5 diopters due to the physical flattening of the posterior surface of the cornea, wherein the transparent filler material comprises a refractive index of 1.3 to 1.6, and forms a corneal implant with a lenticular shape within the cornea; making a second, superficial cut in the patient's cornea within the top 50% of the patient's cornea to create a two-dimensional slit adjacent to and generally parallel to the anterior surface of the cornea; and injecting a liquid or semi-solid transparent filler material into the superficial cut in an amount sufficient to increase the curvature of an anterior surface of the cornea to increase the refractive power of the cornea by a predetermined correction of up to 12.0 diopters due to the physical increased curvature of the anterior surface of the cornea, wherein the transparent filler material forms a corneal implant with a lenticular shape.
A method for manufacturing a conductive pattern, comprising the steps of: a) forming a conductive film on a substrate; b) forming an etching resist pattern on the conductive film; and c) forming a conductive pattern having a smaller line width than a width of the etching resist pattern by over-etching the conductive film by using the etching resist pattern, wherein in the step b), a line edge roughness of the etching resist pattern is 0.1 to 5 micrometers, wherein the conductive pattern has an opening ratio of 85% to 98%, a surface resistance of 1 ohm to 200 ohm, a thickness of 100 to 300 nm, and a line width of 0.1 to 10 micrometers, and satisfies the following Equation 1: a / 1 − opening ratio = A wherein a is a surface resistance of a layer formed of a material constituting the conductive pattern in a thickness of t, and A is a surface resistance of the conductive pattern in a thickness of t-, wherein the etching resist pattern is formed by reverse offset printing. a) forming a conductive film on a substrate; b) forming an etching resist pattern on the conductive film; and c) forming a conductive pattern having a smaller line width than a width of the etching resist pattern by over-etching the conductive film by using the etching resist pattern, wherein a is a surface resistance of a layer formed of a material constituting the conductive pattern in a thickness of t, and A is a surface resistance of the conductive pattern in a thickness of t-, wherein the etching resist pattern is formed by reverse offset printing.
Adjustable folding covering for a convertible vehicle, which folding covering can be moved between a closed position spanning a passenger compartment into a folded together storage position, with a top cover which is arranged on the outer side and is carried by covering components, wherein the covering components comprise at least one tensioning bow arranged on the rear side, and wherein an end-side region of the top cover is held on a connecting portion of the tensioning bow, and with a headlining facing the passenger compartment, wherein an end-side region of the headlining is held in a receiving portion of the tensioning bow, characterized in that the tensioning bow has a further receiving portion in which an electrical line or a line for supplying a medium is accommodated and held.
A method for fabricating at least one elementary heterostructure comprising: - producing a heterostructure having at least one semiconductor structure of resistivity higher than or equal to 1 Ω.cm located between two electrically conductive structures of resistivity lower than or equal to 0.1 Ω.cm; - cutting said heterostructure by electrical discharge machining so as to define at least said elementary heterostructure; - the thickness of the semiconductor structure being smaller than about 1/10 th of the thickness of at least one of said electrically conductive structures or of the total thickness of said electrically conductive structures, wherein the semiconductor structure is made of silicon or of germanium or of III-V material and the thickness of the semiconductor structure is about a few tens of microns, the thickness of at least one electrically conductive structure being at least several hundred microns. - producing a heterostructure having at least one semiconductor structure of resistivity higher than or equal to 1 Ω.cm located between two electrically conductive structures of resistivity lower than or equal to 0.1 Ω.cm; - cutting said heterostructure by electrical discharge machining so as to define at least said elementary heterostructure; - the thickness of the semiconductor structure being smaller than about 1/10 th of the thickness of at least one of said electrically conductive structures or of the total thickness of said electrically conductive structures,
A medicament injection device comprising: a main body configured to receive a medicament cartridge sealed by a penetrable barrier; a cap assembly having an inner needle part and an outer needle part, wherein the inner needle part is movable in a proximal direction with respect to the outer needle part, a needle carrier carrying a needle, the needle carrier being releasably coupled to the inner needle part, wherein, when the inner needle part is displaced in the proximal direction, the inner needle part causes the needle carrier to be displaced axially in the proximal direction; wherein, subsequent to the axial displacement of the inner needle part, the cap assembly is separable from the main body by movement of the cap assembly in a distal direction; and wherein the device further comprises a medicament cartridge holder for holding the medicament cartridge, the medicament cartridge holder having a needle carrier support part having a distal flange to support the needle carrier away from the medicament cartridge before displacement of the needle carrier and adapted to fix the needle carrier to the medicament cartridge subsequent to axial displacement of the needle carrier. a main body configured to receive a medicament cartridge sealed by a penetrable barrier; a cap assembly having an inner needle part and an outer needle part, wherein the inner needle part is movable in a proximal direction with respect to the outer needle part, a needle carrier carrying a needle, the needle carrier being releasably coupled to the inner needle part, wherein, when the inner needle part is displaced in the proximal direction, the inner needle part causes the needle carrier to be displaced axially in the proximal direction; wherein, subsequent to the axial displacement of the inner needle part, the cap assembly is separable from the main body by movement of the cap assembly in a distal direction; and wherein the device further comprises a medicament cartridge holder for holding the medicament cartridge, the medicament cartridge holder having a needle carrier support part having a distal flange to support the needle carrier away from the medicament cartridge before displacement of the needle carrier and adapted to fix the needle carrier to the medicament cartridge subsequent to axial displacement of the needle carrier.