mhurhangee/patent-ind-claim-en huggingface dataset:
Guide wire holder for accommodation and holding in place of a medical guide wire that possesses inherent elasticity, and for attachment to a medical device, particularly to an endoscope, having an attachment part through which the guide wire can be passed and a guide wire support connected with the attachment part and projecting away from the latter, which support permits the guide wire to be held in place by means of a guide wire accommodation device , which device contains a first guide wire deflection member that deflects and clamps the guide wire at a distance from the attachment part , in a direction leading away from its passage direction in the attachment part , which member has a deflection and clamping bracket that is open on one side and rises from a flat initial region, which bracket allows the guide wire to be accommodated in an opening and released from the latter again, and is followed, at further distances from the attachment part , by an additional guide wire deflection element and yet a further guide wire deflection element , characterized in that the deflection and clamping bracket has two bracket parts , which project away from the initial region of the guide wire support and between which a slot that forms the said opening is provided, which slot has a slot width that lies below the transverse dimension of the guide wire in the case of bracket parts that can be pressed elastically apart from one another, and a slot width that corresponds to the transverse dimension of the guide wire in the case of rigid bracket parts, and which is situated between the two bracket parts in a position and/or alignment outside of a guide wire expansion path of the guide wire support , which path is determined by the inherent elasticity of the guide wire , in which position the guide wire attempts to expand in a direction essentially perpendicular to its progressive path by pressing against the bottom side of the deflection and clamping bracket or its bracket parts facing the guide wire support on its expansion path.
A vaccine comprising: an effective amount of purified recombinant West Nile virus envelope ("E") protein as set forth in the sequence of Figure 1; and an effective amount of aluminum-based adjuvant, wherein the vaccine is formulated in a dose form of 15-50 μg per dose of said purified recombinant West Nile virus envelope ("E") protein, wherein the vaccine induces the production of neutralizing antibodies for West Nile virus in human subjects. an effective amount of purified recombinant West Nile virus envelope ("E") protein as set forth in the sequence of Figure 1; and an effective amount of aluminum-based adjuvant, wherein the vaccine is formulated in a dose form of 15-50 μg per dose of said purified recombinant West Nile virus envelope ("E") protein, wherein the vaccine induces the production of neutralizing antibodies for West Nile virus in human subjects.
A method performed by a network node for transmitting a physical control format indicator channel, PCFICH, the method comprising: determining a wireless device will benefit from increased reliability of a PCFICH between the network node and the wireless device , wherein determining the wireless device will benefit from increased reliability of the PCFICH comprises determining the wireless device is operating in high-reliability mode; and increasing the transmission power of the PCFICH transmitted between the network node and the wireless device . determining a wireless device will benefit from increased reliability of a PCFICH between the network node and the wireless device , wherein determining the wireless device will benefit from increased reliability of the PCFICH comprises determining the wireless device is operating in high-reliability mode; and increasing the transmission power of the PCFICH transmitted between the network node and the wireless device .
A method of controlling an engine , comprising the steps of: during motoring of the engine , injecting, by an injector , fuel for analysis into a cylinder at a specific timing after an intake valve of the cylinder of the engine is closed; outputting to a controller , by an in-cylinder pressure sensor (SW4), a signal corresponding to a pressure inside the cylinder at least at a timing when a specific crank angle period has passed from the fuel injection timing; and determining, by the controller , a property of the fuel injected by the injector , by comparing a pressure value measured by the in-cylinder pressure sensor (SW4) with a predetermined reference pressure value inside the cylinder measured at a timing when the specific crank angle period has passed after a standard fuel is injected into the cylinder at the specific timing. during motoring of the engine , injecting, by an injector , fuel for analysis into a cylinder at a specific timing after an intake valve of the cylinder of the engine is closed; outputting to a controller , by an in-cylinder pressure sensor (SW4), a signal corresponding to a pressure inside the cylinder at least at a timing when a specific crank angle period has passed from the fuel injection timing; and determining, by the controller , a property of the fuel injected by the injector , by comparing a pressure value measured by the in-cylinder pressure sensor (SW4) with a predetermined reference pressure value inside the cylinder measured at a timing when the specific crank angle period has passed after a standard fuel is injected into the cylinder at the specific timing.
Power or work machine, in particular electric motor , with a housing part , with a stator element and a rotor element arranged in the housing part and with a monitoring device for monitoring a status parameter, in particular the temperature, of the rotor element , wherein the monitoring device comprises a sensor unit and an interrogation unit, wherein the sensor unit is arranged on the rotor element and at least one SAW sensor element based on the principle of surface waves for detecting a status value of the status parameter, a coupling element and a conductor structure connecting the SAW sensor element and the coupling element for transmitting analogue electromagnetic signals, and wherein the interrogation unit comprises a signal generator for generating interrogation signals, a coupling structure connected to the signal generator and arranged on the stator or on a section of the housing part facing the rotor element , and an evaluation circuit for evaluating response signals received from the sensor unit , wherein the coupling structure is arranged in a region which correlates along an air gap formed between the rotor element and the stator element or the section of the housing part with a region swept by the coupling element when the rotor element is rotating in such a way that a coupling between the coupling structure and the coupling element for signal transmission across the air gap is made possible, characterised in that in that the interrogation unit is an interrogation unit operating according to the S-FSCW principle and is set up for synchronisation of the interrogation unit with the rotation of the rotor element in such a way that the interrogation unit repeatedly carries out an interrogation of the sensor unit in the course of at least two rotations of the rotor element at a specific frequency point, the interrogations of the sensor unit at the specific frequency point taking place at the same angular position of rotation of the rotor element relative to the stator element.
A method performed by a wireless device for detecting a downlink radio failure, the method comprising: establishing a wireless connection with a network node using unlicensed radio spectrum, the method characterized by : receiving an indication that the network node incurred a clear channel assessment, CCA, failure in a prior attempt to communicate with the wireless device; and in response to the indication of the CCA failure, determining whether to trigger a radio failure condition. receiving an indication that the network node incurred a clear channel assessment, CCA, failure in a prior attempt to communicate with the wireless device; and in response to the indication of the CCA failure, determining whether to trigger a radio failure condition.
A method performed by a wireless device for retransmitting message 3, the method comprising: receiving, from a base station , a message 2 comprising a first uplink, UL, grant indicating a first transport block size and a second UL grant indicating a second transport block size, transmitting, to the base station , a first transmission of a message 3, the message 3 comprising information to setup or resume a connection between the wireless device and the base station and user data; receiving, from the base station , downlink control information, DCI, comprising an indication for the wireless device to retransmit the message 3, the DCI being interpreted by the wireless device based on previous information received in the message 2 from the base station ; selecting a transport block size of the first transport block size and the second transport block size for retransmission of the message 3, wherein the retransmission of the message 3 comprises either only the information to setup or resume the connection or the information to setup or resume the connection and user data to be sent to the base station ; and retransmitting the message 3 using the selected transport block size. receiving, from a base station , a message 2 comprising a first uplink, UL, grant indicating a first transport block size and a second UL grant indicating a second transport block size, transmitting, to the base station , a first transmission of a message 3, the message 3 comprising information to setup or resume a connection between the wireless device and the base station and user data; receiving, from the base station , downlink control information, DCI, comprising an indication for the wireless device to retransmit the message 3, the DCI being interpreted by the wireless device based on previous information received in the message 2 from the base station ; selecting a transport block size of the first transport block size and the second transport block size for retransmission of the message 3, wherein the retransmission of the message 3 comprises either only the information to setup or resume the connection or the information to setup or resume the connection and user data to be sent to the base station ; and retransmitting the message 3 using the selected transport block size.
A method of applying additives to cement comprising the steps of: mixing the additives with one or more components selected from a list of gypsum, hemihydrate, anhydrite, calcium sulfate to form a mixture, mixing the mixture with solid calcium chloride, wherein the mixture excludes water contacting the gypsum prior to the mixture undergoing a grinding process, then blending the mixture with clinker, and finally grinding the mixture and clinker to form cement.
An apparatus for wirelessly communicating power, comprising: a first conductive structure (916a-b) configured to wirelessly receive power via a magnetic field, the first conductive structure having a length greater than a width, the first conductive structure comprising a first loop and a second loop enclosing a first area and a second area, respectively, the first loop having a first lower surface and the second loop having a second lower surface that are substantially coplanar, the first conductive structure (916a-b) having a first edge and a second edge each intersecting a first geometric line along the length of the first conductive structure; and a second conductive structure positioned between the first conductive structure and a magnetic material and configured to wirelessly receive power via the magnetic field, the second conductive structure comprising a third loop enclosing a third area and characterized in that the second conductive structure has a length greater than a width, the length of the second conductive structure being substantially equal to at least a distance along the first geometric line between the first edge and the second edge of the first conductive structure. a first conductive structure (916a-b) configured to wirelessly receive power via a magnetic field, the first conductive structure having a length greater than a width, the first conductive structure comprising a first loop and a second loop enclosing a first area and a second area, respectively, the first loop having a first lower surface and the second loop having a second lower surface that are substantially coplanar, the first conductive structure (916a-b) having a first edge and a second edge each intersecting a first geometric line along the length of the first conductive structure; and a second conductive structure positioned between the first conductive structure and a magnetic material and configured to wirelessly receive power via the magnetic field, the second conductive structure comprising a third loop enclosing a third area and characterized in that the second conductive structure has a length greater than a width, the length of the second conductive structure being substantially equal to at least a distance along the first geometric line between the first edge and the second edge of the first conductive structure.
A computer-implemented method for determining a consolidation solution for a plurality of computer systems comprising: a) obtaining a data set comprising a compatibility score for each pair of said plurality of computer systems, each said compatibility score having been computed using utilization data for said plurality of computer systems to indicate a comparable compatibility of workloads of one of said plurality of computer systems with respect to another of said plurality of computer systems; b) using said compatibility scores to determine one or more candidate transfer sets from said plurality of computer systems, each candidate transfer set indicating one or more source computer systems having compatible workloads that enable the source computer system(s) to be transferred to a target computer system; c) selecting a desired one of said one or more candidate transfer sets according to a predetermined selection criterion and adding said desired one of said one or more candidate transfer sets to a first candidate consolidation solution; d) repeating b) and c) by, at each iteration, removing computer systems included in said desired one of said one or more candidate transfer sets and using said compatibility scores corresponding to remaining computer systems to generate at least one additional desired candidate transfer set to be added to said first candidate consolidation solution; and e) providing said first candidate consolidation solution as a desired consolidation solution when no additional candidate transfer sets can be determined in b). a) obtaining a data set comprising a compatibility score for each pair of said plurality of computer systems, each said compatibility score having been computed using utilization data for said plurality of computer systems to indicate a comparable compatibility of workloads of one of said plurality of computer systems with respect to another of said plurality of computer systems; b) using said compatibility scores to determine one or more candidate transfer sets from said plurality of computer systems, each candidate transfer set indicating one or more source computer systems having compatible workloads that enable the source computer system(s) to be transferred to a target computer system; c) selecting a desired one of said one or more candidate transfer sets according to a predetermined selection criterion and adding said desired one of said one or more candidate transfer sets to a first candidate consolidation solution; d) repeating b) and c) by, at each iteration, removing computer systems included in said desired one of said one or more candidate transfer sets and using said compatibility scores corresponding to remaining computer systems to generate at least one additional desired candidate transfer set to be added to said first candidate consolidation solution; and e) providing said first candidate consolidation solution as a desired consolidation solution when no additional candidate transfer sets can be determined in b).
An object tracking anti-jitter filtering system , comprising: at least one processor ; a memory coupled with the at least one processor and configured to store raw location points of a tracked object ; an averaging filter comprising machine-readable instructions stored within the memory that, when executed by the processor, generate an averaged location point with less jitter than the raw location points by averaging a number of raw location points within an averaging window ; and, a speed-based points controller comprising machine-readable instructions stored within the memory that, when executed by the processor, incrementally increase the number of raw location points within the averaging window when a latest speed of the tracked object is less than a predefined low-speed threshold , and to incrementally decrease the number of raw location points within the averaging window when the latest speed of the tracked object is greater than a predefined high-speed threshold . at least one processor ; a memory coupled with the at least one processor and configured to store raw location points of a tracked object ; an averaging filter comprising machine-readable instructions stored within the memory that, when executed by the processor, generate an averaged location point with less jitter than the raw location points by averaging a number of raw location points within an averaging window ; and, a speed-based points controller comprising machine-readable instructions stored within the memory that, when executed by the processor, incrementally increase the number of raw location points within the averaging window when a latest speed of the tracked object is less than a predefined low-speed threshold , and to incrementally decrease the number of raw location points within the averaging window when the latest speed of the tracked object is greater than a predefined high-speed threshold .
A system comprising: a focused ion beam column coupled to receive a gas and configured to generate a focused ion beam with or from the gas at a second, relatively high electrical potential, such that the focused ion beam column receives the gas at a relatively high electrical potential; and a gas delivery system configured to be held at a first, relatively low potential and coupled to provide the gas to the focused ion column, characterized in that the system includes a gas delivery conduit extending between the first, relatively low and the second, relatively high electrical potentials, wherein the gas delivery conduit is formed into a tilted helical shape so that a gas flowing through the gas delivery conduit experiences an electric field reversal through each winding of the gas delivery conduit. a focused ion beam column coupled to receive a gas and configured to generate a focused ion beam with or from the gas at a second, relatively high electrical potential, such that the focused ion beam column receives the gas at a relatively high electrical potential; and a gas delivery system configured to be held at a first, relatively low potential and coupled to provide the gas to the focused ion column, characterized in that the system includes a gas delivery conduit extending between the first, relatively low and the second, relatively high electrical potentials, wherein the gas delivery conduit is formed into a tilted helical shape so that a gas flowing through the gas delivery conduit experiences an electric field reversal through each winding of the gas delivery conduit.
A surface-coated boron nitride sintered body tool, in which at least a cutting edge portion includes a cubic boron nitride sintered body and a coating film formed on a surface of the cubic boron nitride sintered body, said cubic boron nitride sintered body comprising 30 vol% or more and 80 vol% or less of cubic boron nitride particles, and further comprising a binder phase including at least one compound selected from the group consisting of nitride, carbide, boride, oxide, and solid solutions thereof in group 4 elements, group 5 elements and group 6 elements in a periodic table, an aluminum compound, and inevitable impurities, said coating film including an A layer and a B layer, said A layer including MLa za1 , wherein M represents one or more of group 4 elements, group 5 elements and group 6 elements in the periodic table, Al and Si; La represents one or more of B, C, N, and O; and za1 is 0.85 or more and 1.0 or less, said B layer being formed by alternately stacking two or more of each of two or more compound layers having different compositions, said compound layers each having a thickness of 30 nm or more and 300 nm or less, one of said compound layers being a B1 compound layer, said B1 compound layer including (Ti 1-xb1-yb1 Si xb1 M1 yb1 ) (C 1-zb1 N zb1 ), wherein M1 represents one or more of group 4 elements except for Ti, group 5 elements and group 6 elements in the periodic table, and Al; xb1 is 0.01 or more and 0.25 or less; yb1 is 0 or more and 0.7 or less; and zb1 is 0.4 or more and 1 or less, one of said compound layers being a B2 compound layer, said B2 compound layer being different from said B1 compound layer, and including (Al 1-xb2 M2 xb2 ) (C 1-zb2 N zb2 ), wherein M2 represents one or more of group 4 elements, group 5 elements and group 6 elements in the periodic table, and Si; xb2 is 0.2 or more and 0.7 or less; and zb2 is 0.4 or more and 1 or less, t2/t1 that is a ratio between an average thickness t1 of said B1 compound layers and an average thickness t2 of said B2 compound layers satisfying a relation of 0.5 < t2/t1 ≤ 10.0, and said A layer having a thickness of 0.2 μm or more and 10 μm or less, said B layer having a thickness of 0.1 μm or more and 5 μm or less, and said coating film having an entire thickness of 0.5 μm or more and 15 μm or less, and assuming that a thickness of said B1 compound layer is indicated as t1 0 , a thickness of said B2 compound layer is indicated as t2 0 , and a thickness ratio between said B1 compound layer and said B2 compound layer that are in contact with each other is indicated as t2 0 /t1 0 , said t2 0 /t1 0 gradually decreasing from a cubic boron nitride sintered body-side toward an A layer-side, a relation of 1.0 < t2 0 /t1 0 ≤ 5.0 being satisfied on said cubic boron nitride sintered body-side, and a relation of 0.5 < t2 0 /t1 0 < 3.0 being satisfied on said A layer-side.
A method of producing a shear-thinning silica dispersion for a radiation-curable inkjet ink comprising: providing a composition comprising fumed silica, an organic solvent and/or a reactive diluent and a radiation-curable oligomer and/or a passive thermoplastic resin; bead milling the composition using milling beads having a mean diameter of 0.3 to 1.0 mm, wherein the ratio of the volume of milling beads present in the composition during bead milling in mL to the weight of the composition in grams is 0.5 to 2.0 : 1.0, and wherein the viscosity of the composition during bead milling is 50-800 mPas at 1,000 s -1 ; and removing the composition from the mill. providing a composition comprising fumed silica, an organic solvent and/or a reactive diluent and a radiation-curable oligomer and/or a passive thermoplastic resin; bead milling the composition using milling beads having a mean diameter of 0.3 to 1.0 mm, wherein the ratio of the volume of milling beads present in the composition during bead milling in mL to the weight of the composition in grams is 0.5 to 2.0 : 1.0, and wherein the viscosity of the composition during bead milling is 50-800 mPas at 1,000 s -1 ; and removing the composition from the mill.