mhurhangee/patent-ind-claim-en huggingface dataset:
A game system comprising: a first vibration portion arranged in a portion held with one hand of a user and a second vibration portion arranged in a portion held with the other hand of the user; an operation portion (3, 4; 32, 52, 103, 113) which accepts an operation input by the user; a representation control unit which provides such a screen representation that an object moving in a virtual space turns left in accordance with a first operation input by the user onto the operation portion and provides such a screen representation that the object moving in the virtual space turns right in accordance with a second operation input by the user onto the operation portion; and characterized in that a vibration control unit which vibrates the first vibration portion more strongly than the second vibration portion when the representation control unit provides the screen representation that the object turns left and vibrates the second vibration portion more strongly than the first vibration portion when the representation control unit provides the screen representation that the object turns right, wherein the vibration control unit vibrates the first vibration portion and the second vibration portion with equal strength prior to changing direction of the object upon the first or second operation inputs by the user. a first vibration portion arranged in a portion held with one hand of a user and a second vibration portion arranged in a portion held with the other hand of the user; an operation portion (3, 4; 32, 52, 103, 113) which accepts an operation input by the user; a representation control unit which provides such a screen representation that an object moving in a virtual space turns left in accordance with a first operation input by the user onto the operation portion and provides such a screen representation that the object moving in the virtual space turns right in accordance with a second operation input by the user onto the operation portion; and characterized in that a vibration control unit which vibrates the first vibration portion more strongly than the second vibration portion when the representation control unit provides the screen representation that the object turns left and vibrates the second vibration portion more strongly than the first vibration portion when the representation control unit provides the screen representation that the object turns right, wherein the vibration control unit vibrates the first vibration portion and the second vibration portion with equal strength prior to changing direction of the object upon the first or second operation inputs by the user.
An outer layer material for a hot-rolling roll, the outer layer material having a chemical composition that contains, in mass%, C: 1.6 to 2.5%, Si: 0.2 to 1.5%, Mn: 0.2 to 1.6%, Cr: 4.5 to 7.0%, Mo: 1.0 to 5.0%, V: 4.0 to 6.0%, Nb: 0.5 to 2.5%, Al: 0.01 to 0.30%, optionally P: 0.040% or less, and optionally S: 0.05% or less, Ni: 0.15% or less, Cu: 0.20% or less, Ca: 0.01% or less, Sb: 0.01% or less, Ti: 0.05% or less, Zr: 0.05% or less, and B: 0.008% or less, wherein the total amount of S, Ni, Cu, Ca, Sb, Ti, Zr, and B is less than or equal to 0.5%, wherein a sum of contents of N and O of the chemical composition is 100 to 400 mass ppm, the contents of C, V, Mo, and Nb satisfy formula and formula below, and a balance of the chemical composition is Fe and incidental impurities; 1.60 ≤ % V + % Nb / % Mo ≤ 3.5 9.00 ≤ % V + 0.5 × % Nb + 2.1 × % C ≤ 11.0 where %C, %V, %Nb, and %Mo are the contents, in mass %, of respective corresponding elements. C: 1.6 to 2.5%, Si: 0.2 to 1.5%, Mn: 0.2 to 1.6%, Cr: 4.5 to 7.0%, Mo: 1.0 to 5.0%, V: 4.0 to 6.0%, Nb: 0.5 to 2.5%, Al: 0.01 to 0.30%, optionally P: 0.040% or less, and optionally S: 0.05% or less, Ni: 0.15% or less, Cu: 0.20% or less, Ca: 0.01% or less, Sb: 0.01% or less, Ti: 0.05% or less, Zr: 0.05% or less, and B: 0.008% or less, wherein the total amount of S, Ni, Cu, Ca, Sb, Ti, Zr, and B is less than or equal to 0.5%, wherein a sum of contents of N and O of the chemical composition is 100 to 400 mass ppm, the contents of C, V, Mo, and Nb satisfy formula and formula below, and a balance of the chemical composition is Fe and incidental impurities; 1.60 ≤ % V + % Nb / % Mo ≤ 3.5 9.00 ≤ % V + 0.5 × % Nb + 2.1 × % C ≤ 11.0 where %C, %V, %Nb, and %Mo are the contents, in mass %, of respective corresponding elements.
A method for controlling a fluid-flow sensor in the presence of a flowing fluid, the method comprising: applying an electrical bias to a heater element of the fluid-flow sensor to drive the fluid-flow sensor in an initial driving mode; determining a phase of the flowing fluid; and being characterised in further comprising: modifying the electrical bias according to the phase of the flowing fluid to drive the fluid-flow sensor in a second driving mode, the second driving mode being a phase specific driving mode. applying an electrical bias to a heater element of the fluid-flow sensor to drive the fluid-flow sensor in an initial driving mode; determining a phase of the flowing fluid; and being characterised in further comprising: modifying the electrical bias according to the phase of the flowing fluid to drive the fluid-flow sensor in a second driving mode, the second driving mode being a phase specific driving mode.
An organic electroluminescent device comprising a light-emitting layer B comprising: (i) a host material H B , which has a lowermost excited singlet state energy level S1 H and a lowermost excited triplet state energy level T1 H ; (ii) a first thermally activated delayed fluorescence (TADF) material E B , which has a lowermost excited singlet state energy level S1 E and a lowermost excited triplet state energy level T1 E ; and (iii) a second TADF material S B , which has a lowermost excited singlet state energy level S1 S and a lowermost excited triplet state energy level T1 S , wherein E B transfers energy to S B and S B emits thermally activated delayed fluorescence with an emission maximum between 420 and 500 nm; and characterized in that the relations expressed by the following formulas to apply: S 1 H > S 1 E S 1 H > S 1 S S 1 E > S 1 S T 1 H > T 1 S (i) a host material H B , which has a lowermost excited singlet state energy level S1 H and a lowermost excited triplet state energy level T1 H ; (ii) a first thermally activated delayed fluorescence (TADF) material E B , which has a lowermost excited singlet state energy level S1 E and a lowermost excited triplet state energy level T1 E ; and (iii) a second TADF material S B , which has a lowermost excited singlet state energy level S1 S and a lowermost excited triplet state energy level T1 S , wherein E B transfers energy to S B and S B emits thermally activated delayed fluorescence with an emission maximum between 420 and 500 nm; and characterized in that the relations expressed by the following formulas to apply: S 1 H > S 1 E S 1 H > S 1 S S 1 E > S 1 S T 1 H > T 1 S
A method for filtering content objects on a per user basis at a gateway node in a content centric networking, CCN, network, where the gateway node has a network interface with a network of a user device originating a CCN interest packet, the method comprising the steps of: receiving a CCN interest packet including a CCN name and obtaining a user identity; retrieving a content object identified by the CCN name matching destination address and network of the particular content object; retrieving allowed categories of the user, identifying each of the categories of content that the user is allowed to access; retrieving categories of the content object; checking whether allowed categories of the user enable retrieval of the content object based on comparison with the categories of the content object; and forwarding the content object to user in response to the allowed categories enabling retrieval of the content object for the user. receiving a CCN interest packet including a CCN name and obtaining a user identity; retrieving a content object identified by the CCN name matching destination address and network of the particular content object; retrieving allowed categories of the user, identifying each of the categories of content that the user is allowed to access; retrieving categories of the content object; checking whether allowed categories of the user enable retrieval of the content object based on comparison with the categories of the content object; and forwarding the content object to user in response to the allowed categories enabling retrieval of the content object for the user.
A door entrapment detector configured to detect whether or not a double door for opening and closing an entrance of a vehicle is in an entrapment state, the door entrapment detector comprising: a first and second detection sensors an obtainment unit configured to obtain an output signal of the first detection sensor and an output signal of the second detection sensor , the first detection sensor configured to detect deformation of an elastic member attached to a leading edge of one of two doors of the double door , and the second detection sensor configured to detect deformation of an elastic member attached to a leading edge of the other one of the two doors , and being characterized by further comprising: a determination unit configured to calculate a difference between the output signals of the first detection sensor and the second detection sensor obtained by the obtainment unit as a calculation value and to determine whether or not the double door is in an entrapment state based on the calculation value, wherein the determination unit is configured to perform determination by comparing the calculation value with a determination value that differs depending on a travel state of the vehicle. a determination unit configured to calculate a difference between the output signals of the first detection sensor and the second detection sensor obtained by the obtainment unit as a calculation value and to determine whether or not the double door is in an entrapment state based on the calculation value, wherein the determination unit is configured to perform determination by comparing the calculation value with a determination value that differs depending on a travel state of the vehicle.
A composition comprising Z-HFO-1336mzz and at least one additional compound selected from the group consisting of HFO-1243zf, HCC-40, HCFO-1223, CFC-113a, CFC-113, CFC-11, HFO-1429, HFC-449, HFC-365, HFO-1327, HFO-1132, HCFC-123a, chlorobutane, ethyl benzene, o-xylene, m-xylene, p-xylene, HCFO-1334, and HCFO-1333, wherein the total amount of said additional compound(s) ranges from 0.001 weight percent to 1 weight percent, based on the total weight of the composition, and wherein the at least one additional compound includes HFO-1429.
Device for grinding a workpiece having: a carrier element , a plurality of in particular electromagnetically operable pressure segments which are arranged along the carrier element and which are in each case designed to press a grinding element, in particular a grinding belt , against a workpiece , at least one sensor for registering a compressive force applied to a workpiece by one of the pressure segments, wherein the device includes a grinding finger which extends along the carrier element , wherein the sensor(s) is/are provided between the grinding finger and the respective pressure segment (12a, the 12b, 12c), characterised in that the pressure segments are in each case electromagnetically moveable by means of a magnetic actuator accommodated in a guide provided on the carrier element . a carrier element , a plurality of in particular electromagnetically operable pressure segments which are arranged along the carrier element and which are in each case designed to press a grinding element, in particular a grinding belt , against a workpiece , at least one sensor for registering a compressive force applied to a workpiece by one of the pressure segments, wherein the device includes a grinding finger which extends along the carrier element , wherein the sensor(s) is/are provided between the grinding finger and the respective pressure segment (12a, the 12b, 12c), characterised in that the pressure segments are in each case electromagnetically moveable by means of a magnetic actuator accommodated in a guide provided on the carrier element .
Method for determining the fault location of a ground fault relating to a line of a three-phase electrical energy supply network with an ungrounded neutral point, in which - current and voltage values are measured at one line end of the line ; and - following the occurrence of a ground fault on the line , the fault location of said fault is defined using the measured current and voltage values, characterized in that - the measured current and voltage values are converted using a Clarke transformation into α-components and 0-components of the Clarke transformation; - a location-dependent characteristic function of α-component fault voltage values is defined using the current and voltage values converted into the α-component and a propagation model for travelling waves on the line ; - a location-dependent characteristic function of 0-component fault voltage values is defined using the current and voltage values converted into the 0-component and a propagation model for travelling waves on the line; - the matching of the two characteristic functions for different selected locations on the line is determined, and - the selected location where the two characteristic functions reveal the closest match is defined as the fault location of the ground fault on the line . - current and voltage values are measured at one line end of the line ; and - following the occurrence of a ground fault on the line , the fault location of said fault is defined using the measured current and voltage values, characterized in that - the measured current and voltage values are converted using a Clarke transformation into α-components and 0-components of the Clarke transformation; - a location-dependent characteristic function of α-component fault voltage values is defined using the current and voltage values converted into the α-component and a propagation model for travelling waves on the line ; - a location-dependent characteristic function of 0-component fault voltage values is defined using the current and voltage values converted into the 0-component and a propagation model for travelling waves on the line; - the matching of the two characteristic functions for different selected locations on the line is determined, and - the selected location where the two characteristic functions reveal the closest match is defined as the fault location of the ground fault on the line .
A connector connecting a conductor portion of an electric wire to a contact portion exposed on a bottom surface of a sheet type connection object , the connector comprising: an insulator forming at least a part of a conductor-portion placement surface (S) on which the conductor portion of the electric wire is placed; and a pressing portion being retained by the insulator to project from the conductor-portion placement surface in a direction orthogonal to the conductor-portion placement surface and extending toward a predetermined first direction (-Y direction) along the conductor-portion placement surface, characterised in that the pressing portion is elastically deformable in the direction orthogonal to the conductor-portion placement surface, and the conductor portion of the electric wire extending from the first direction along the conductor-portion placement surface is disposed between the conductor-portion placement surface and the pressing portion, and the connection object is sandwiched between the pressing portion passed through an opening portion of the connection object extending from a second direction (+Y direction) along the conductor-portion placement surface and the conductor portion of the electric wire, the second direction being an opposite direction from the first direction, whereby the contact portion of the connection object makes contact with and is electrically connected to the conductor portion of the electric wire. an insulator forming at least a part of a conductor-portion placement surface (S) on which the conductor portion of the electric wire is placed; and a pressing portion being retained by the insulator to project from the conductor-portion placement surface in a direction orthogonal to the conductor-portion placement surface and extending toward a predetermined first direction (-Y direction) along the conductor-portion placement surface, characterised in that the pressing portion is elastically deformable in the direction orthogonal to the conductor-portion placement surface, and the conductor portion of the electric wire extending from the first direction along the conductor-portion placement surface is disposed between the conductor-portion placement surface and the pressing portion, and the connection object is sandwiched between the pressing portion passed through an opening portion of the connection object extending from a second direction (+Y direction) along the conductor-portion placement surface and the conductor portion of the electric wire, the second direction being an opposite direction from the first direction, whereby the contact portion of the connection object makes contact with and is electrically connected to the conductor portion of the electric wire.
A copper alloy for an electronic and electric device consisting of: Mg in a range of 0.5 mass% or more and 3.0 mass% or less; P in a range of 0.001 mass% or more and 0.1 mass% or less; optionally Sn in a range of 0.1 mass% or more and 2.0 mass% or less; and a balance being Cu and inevitable impurities, wherein a total amount of the inevitable impurities is 0.1 mass% or less, and a graph, in which a vertical axis is dσ t /dε t and a horizontal axis is a true strain ε t , dσ t /dε t being defined by a true stress σ t and the true strain ε t , obtained in a tensile test of the copper alloy, has a strained region having a positive slope of dσ t /dε t that is a region of an increase in dσ t /dε t , the true stress σ t is obtained by a formula , and the true strain ε t is obtained by a formula , σ t = σ n 1 + ε n ε t = ln 1 + ε n in the tensile test for measuring 0.2% yield strength by an offset method of JIS Z 2241 using a test piece No. 13B regulated in JIS Z 2201, a load is set as F, a test piece initial sectional area is set as S 0 , an initial parallel portion length is set as Lo, elongation from the initial stage in the test is set as ΔL, in a result of the tensile test, a value obtained by dividing the load F by the test piece initial sectional area S 0 is set as nominal stress σ n , and a value obtained by dividing the elongation ΔL by the initial parallel portion length L 0 is set as nominal strain ε n . Mg in a range of 0.5 mass% or more and 3.0 mass% or less; P in a range of 0.001 mass% or more and 0.1 mass% or less; optionally Sn in a range of 0.1 mass% or more and 2.0 mass% or less; and a balance being Cu and inevitable impurities, wherein a total amount of the inevitable impurities is 0.1 mass% or less, and a graph, in which a vertical axis is dσ t /dε t and a horizontal axis is a true strain ε t , dσ t /dε t being defined by a true stress σ t and the true strain ε t , obtained in a tensile test of the copper alloy, has a strained region having a positive slope of dσ t /dε t that is a region of an increase in dσ t /dε t , the true stress σ t is obtained by a formula , and the true strain ε t is obtained by a formula , σ t = σ n 1 + ε n ε t = ln 1 + ε n in the tensile test for measuring 0.2% yield strength by an offset method of JIS Z 2241 using a test piece No. 13B regulated in JIS Z 2201, a load is set as F, a test piece initial sectional area is set as S 0 , an initial parallel portion length is set as Lo, elongation from the initial stage in the test is set as ΔL, in a result of the tensile test, a value obtained by dividing the load F by the test piece initial sectional area S 0 is set as nominal stress σ n , and a value obtained by dividing the elongation ΔL by the initial parallel portion length L 0 is set as nominal strain ε n .
A welding system , comprising: - a power supply coupled to a power source and configured to receive a power signal, the power supply comprising power conversion circuitry having one or more silicon-controlled rectifiers (SCRs) and configured to rectify the power signal to generate a DC signal for use in providing welding power; and - an SCR detection system configured to receive a first signal from the power conversion circuitry , wherein the first signal is indicative of a frequency of an AC signal provided by the power source , to receive a second signal from the power conversion circuitry , wherein the second signal is indicative of an inductor current of the DC signal, to receive a third signal from the power conversion circuitry , wherein the third signal is indicative of a voltage of the DC signal, and to detect a non-firing, open, or shorted SCR in the one or more SCRs based on the inductor current or the voltage of the DC signal, or both, wherein the SCR detection system is configured to determine a ripple component of the inductor current and the voltage, and detect the non-firing, open, or shorted SCR if the ripple component is significant at a frequency of the AC power signal for a pre-set number of cycles. - a power supply coupled to a power source and configured to receive a power signal, the power supply comprising power conversion circuitry having one or more silicon-controlled rectifiers (SCRs) and configured to rectify the power signal to generate a DC signal for use in providing welding power; and - an SCR detection system configured to receive a first signal from the power conversion circuitry , wherein the first signal is indicative of a frequency of an AC signal provided by the power source , to receive a second signal from the power conversion circuitry , wherein the second signal is indicative of an inductor current of the DC signal, to receive a third signal from the power conversion circuitry , wherein the third signal is indicative of a voltage of the DC signal, and to detect a non-firing, open, or shorted SCR in the one or more SCRs based on the inductor current or the voltage of the DC signal, or both,
Minimal lubrication device comprising a tank of a lubricating fluid, means for raising the pressure of said lubricant and means for supplying the pressurized lubricant to at least one modular element (50A, 50B...), at least one modular element comprising a lubricating fluid conduit intercepted by a flow regulator and a compressed air conduit , such conduits being fluidically connected to an air and lubricant mixing element , the flow regulator comprising a shutter that can be at least partially housed in a single cylindrical calibrated hole and movable between an upper end of stroke position and a lower end of stroke position, the cylindrical calibrated hole being in fluid communication with a delivery of said means for raising the lubricant pressure, on one side, and with said mixing element on the other side, the shutter having at least one conical profile portion insertable in said calibrated hole, characterized in that the conical profile portion has a surface groove facing a surface which defines said cylindrical calibrated hole at least when the shutter is in an intermediate position between said lower end of stroke position and said upper end of stroke position.