mhurhangee/ep-ind-claims huggingface dataset:
A glass-based article comprising: a first surface and a second surface opposing the first surface defining a thickness (t); a concentration of a metal oxide that is both non-zero and varies along a thickness range from about 0• t to about 0.3• t; a stress profile extending along the thickness (t); an absolute value of surface CS of about 600 MPa or greater; a CS layer extending from the first surface to a DOC, wherein the DOC is about 0.15• t or greater; and a CT region of the stress profile, wherein the CT region is defined by the equation Stress x = MaxCT − MaxCT · n + 1 / 0.5 n · x / t − 0.5 n, wherein MaxCT is a maximum CT value and is provided as a positive value in units of MPa, x is position along the thickness ( t) in micrometers, and n is between 1.5 and 5. a first surface and a second surface opposing the first surface defining a thickness (t); a concentration of a metal oxide that is both non-zero and varies along a thickness range from about 0• t to about 0.3• t; a stress profile extending along the thickness (t); an absolute value of surface CS of about 600 MPa or greater; a CS layer extending from the first surface to a DOC, wherein the DOC is about 0.15• t or greater; and a CT region of the stress profile, wherein the CT region is defined by the equation Stress x = MaxCT − MaxCT · n + 1 / 0.5 n · x / t − 0.5 n, wherein MaxCT is a maximum CT value and is provided as a positive value in units of MPa, x is position along the thickness ( t) in micrometers, and n is between 1.5 and 5.
A monolithic three-dimensional device structure, comprising: a stack of alternating layers comprising insulator layers and electrically conductive layers and located over a semiconductor substrate; a memory stack structure extending through the stack of alternating layers, the memory stack structure comprising a blocking dielectric layer (501, 503), a memory material layer, and a tunneling dielectric layer; and a semiconductor channel located within the memory stack structure, wherein: the blocking dielectric layer comprises at least an aluminum oxide layer laterally surrounding, and contacting, the memory material layer; and a bottom surface of the aluminum oxide layer is vertically spaced from a semiconductor surface underneath the memory stack structure by a horizontal portion of the memory material layer; characterised in that a bottom surface of said horizontal portion of the memory material layer is in contact with a doped semiconductor material portion at said semiconductor surface, said doped semiconductor portion including dopants, wherein the dopants comprise at least one element selected from helium, neon, argon, krypton, hydrogen, carbon, nitrogen, and fluorine. a stack of alternating layers comprising insulator layers and electrically conductive layers and located over a semiconductor substrate; a memory stack structure extending through the stack of alternating layers, the memory stack structure comprising a blocking dielectric layer (501, 503), a memory material layer, and a tunneling dielectric layer; and a semiconductor channel located within the memory stack structure, the blocking dielectric layer comprises at least an aluminum oxide layer laterally surrounding, and contacting, the memory material layer; and a bottom surface of the aluminum oxide layer is vertically spaced from a semiconductor surface underneath the memory stack structure by a horizontal portion of the memory material layer; characterised in that a bottom surface of said horizontal portion of the memory material layer is in contact with a doped semiconductor material portion at said semiconductor surface, said doped semiconductor portion including dopants, wherein the dopants comprise at least one element selected from helium, neon, argon, krypton, hydrogen, carbon, nitrogen, and fluorine.
A laminate patchable a living body comprising: a pressure-sensitive adhesive layer for patching to the living body, a substrate layer disposed on a one-side surface in a thickness direction of the pressure-sensitive adhesive layer and supporting the pressure-sensitive adhesive layer, and a protecting layer disposed on a one-side surface in the thickness direction of the substrate layer, wherein the protecting layer is a chemical resistance layer using at least one selected from the group consisting of polyvinyl alcohol, a cross-linked product of the polyvinyl alcohol, a copolymer of the polyvinyl alcohol, and a modified product of the polyvinyl alcohol. a pressure-sensitive adhesive layer for patching to the living body, a substrate layer disposed on a one-side surface in a thickness direction of the pressure-sensitive adhesive layer and supporting the pressure-sensitive adhesive layer, and a protecting layer disposed on a one-side surface in the thickness direction of the substrate layer, wherein the protecting layer is a chemical resistance layer using at least one selected from the group consisting of polyvinyl alcohol, a cross-linked product of the polyvinyl alcohol, a copolymer of the polyvinyl alcohol, and a modified product of the polyvinyl alcohol.
An in vitro method for binding a nucleic acid sequence comprising: (a) selecting a nucleic acid target sequence; (b) engineering a protein comprising at least one Transcription Activator-Like Effector (TALE) domain wherein said TALE domain comprises a plurality of TALE repeat sequences comprising each one a Repeat Variable Diresidue region which is responsible for the binding of one specific nucleotide in the nucleic acid target sequence wherein one or more RVD is selected from the group consisting of: II, TI, VI, PI, SI, CL, DL FL, GL, HL, IL, KL, LL, YL, MM, WY, PV, SW, XF for recognizing A, wherein X represents one amino acid residue selected from the group consisting of A, G, V, L, I, M, S, T, C, P, D, E, F, Y, W, Q N, H, R and K; (c) contacting said engineered protein with said nucleic acid target sequence such that the engineered protein binds to the nucleic acid target sequence. (a) selecting a nucleic acid target sequence; (b) engineering a protein comprising at least one Transcription Activator-Like Effector (TALE) domain wherein said TALE domain comprises a plurality of TALE repeat sequences comprising each one a Repeat Variable Diresidue region which is responsible for the binding of one specific nucleotide in the nucleic acid target sequence wherein one or more RVD is selected from the group consisting of: II, TI, VI, PI, SI, CL, DL FL, GL, HL, IL, KL, LL, YL, MM, WY, PV, SW, XF for recognizing A, wherein X represents one amino acid residue selected from the group consisting of A, G, V, L, I, M, S, T, C, P, D, E, F, Y, W, Q N, H, R and K; II, TI, VI, PI, SI, CL, DL FL, GL, HL, IL, KL, LL, YL, MM, WY, PV, SW, XF for recognizing A, (c) contacting said engineered protein with said nucleic acid target sequence such that the engineered protein binds to the nucleic acid target sequence.
A precipitation hardening cold-rolled steel sheet with an excellent yield ratio, comprising, by weight%,: C: 0.07 ∼ 0.1%; Mn: 1.4 ∼ 1.7%; P: 0.05 ∼ 0.07%; S: 0.005% or less; N: 0.005% or less; acid-soluble Al: 0.1 ∼ 0.15%; Nb: 0.06 ∼ 0.09%; B: 0.0008 ∼ 0.0012%; Sb: 0.02 ∼ 0.06%, and the balance of Fe and unavoidable impurities.
A control apparatus for an electric motor comprising: a voltage command generation unit for generating a rectangular-wave voltage command that is phase-controlled in accordance with a torque command to cause the electric motor to operate; and a rate-of-change restriction unit (235, 236) for imposing a restriction on a rate of change in the phase of said rectangular-wave voltage command, characterized in that said rate-of-change restriction unit (232, 236) is configured to lessen the restriction on the rate of change in the phase of said rectangular-wave voltage command, when a rate of change of a rotational speed of said electric motor is larger than a predetermined value representing an abrupt change of the rotational speed of said electric motor. a voltage command generation unit for generating a rectangular-wave voltage command that is phase-controlled in accordance with a torque command to cause the electric motor to operate; and a rate-of-change restriction unit (235, 236) for imposing a restriction on a rate of change in the phase of said rectangular-wave voltage command, characterized in that said rate-of-change restriction unit (232, 236) is configured to lessen the restriction on the rate of change in the phase of said rectangular-wave voltage command, when a rate of change of a rotational speed of said electric motor is larger than a predetermined value representing an abrupt change of the rotational speed of said electric motor.
Apparatus to support power management in a processing system and to control power management hardware in the processing system when operating in a reduced power mode, the processing system having a first processing unit and a second processing unit, characterised by the apparatus comprising; a first interrupt handler adapted to execute in a main partition operated by the first processing unit of the processing system, wherein the second processing unit operates a sequestered partition; the first interrupt handler being adapted to support power management for the first processing unit; a second interrupt handler adapted to execute in the sequestered partition, the second interrupt handler to cause the sequestered partition to take control of the power management hardware in the processing system when the main partition enters reduced power mode; and the sequestered partition being adapted to relinquish control of power management hardware to the main partition when the main partition exits reduced power mode.
A tire comprising: a bead core; a bead filler which extends to an outer side in a tire radial direction of the bead core; a carcass ply which extends from the bead core to another bead core and is folded around the bead core; a reinforcement ply disposed so as to cover the carcass ply around the bead core; an electronic component; characterised by a first pad which covers an outer side in a tire-width direction of a folding end of the carcass ply which was folded back, at an outer side in the tire-radial direction of an end part of the reinforcement ply; and a second pad which covers an outer side in the tire-width direction of the first pad, wherein the electronic component is provided between the first pad and the second pad. a bead core; a bead filler which extends to an outer side in a tire radial direction of the bead core; a carcass ply which extends from the bead core to another bead core and is folded around the bead core; a reinforcement ply disposed so as to cover the carcass ply around the bead core; an electronic component; characterised by a first pad which covers an outer side in a tire-width direction of a folding end of the carcass ply which was folded back, at an outer side in the tire-radial direction of an end part of the reinforcement ply; and a second pad which covers an outer side in the tire-width direction of the first pad, wherein the electronic component is provided between the first pad and the second pad.
A method performed by a user equipment, UE, comprising: receiving a master information block, MIB, including first configuration for a first control resource set, CORESET, the first CORESET including a first number of resource blocks, RBs, in a frequency domain and a first number of symbols in a time domain; receiving a system information block, SIB, including second configuration for a second CORESET and a reference signal received power, RSRP, threshold, the second CORESET including a second number of RBs in the frequency domain and a second number of symbols in the time domain, wherein the second number of symbols is larger than the first number of symbols; measuring a first RSRP value based on a selected downlink reference signal, DL RS, resource; determining a CORESET to monitor a first physical downlink control channel, PDCCH, among the first CORESET or the second CORESET based on the first RSRP value and the RSRP threshold, wherein the first PDCCH schedules a transmission of a physical downlink shared channel, PDSCH, including a random access response, RAR, message; and receiving the first PDCCH in the determined CORESET, wherein the first PDCCH is received in the first CORESET when the first RSRP value is larger than the RSRP threshold, and wherein the first PDCCH is received in the second CORESET when the first RSRP value is smaller than the RSRP threshold. receiving a master information block, MIB, including first configuration for a first control resource set, CORESET, the first CORESET including a first number of resource blocks, RBs, in a frequency domain and a first number of symbols in a time domain; receiving a system information block, SIB, including second configuration for a second CORESET and a reference signal received power, RSRP, threshold, the second CORESET including a second number of RBs in the frequency domain and a second number of symbols in the time domain, wherein the second number of symbols is larger than the first number of symbols; measuring a first RSRP value based on a selected downlink reference signal, DL RS, resource; determining a CORESET to monitor a first physical downlink control channel, PDCCH, among the first CORESET or the second CORESET based on the first RSRP value and the RSRP threshold, wherein the first PDCCH schedules a transmission of a physical downlink shared channel, PDSCH, including a random access response, RAR, message; and receiving the first PDCCH in the determined CORESET, wherein the first PDCCH is received in the first CORESET when the first RSRP value is larger than the RSRP threshold, and wherein the first PDCCH is received in the second CORESET when the first RSRP value is smaller than the RSRP threshold.
A method for detecting a common control channel, comprising: determining a candidate resource set within virtual downlink resources of a current cell, wherein the candidate resource set comprises at least one candidate resource carrying a common control channel of the current cell, and the virtual downlink resources is a range of frequency resources for detecting a common control channel of the current cell; performing a detection on at least one candidate resource in the candidate resource set, so as to acquire the common control channel of the current cell, wherein the common control channel carries common search space indication information; determining, according to position information of a common control channel detected resource and the common search space indication information, an actual resource of a common search space of the current cell, wherein the actual resource is a resource actually used by the common search space of the current cell, and the common control channel detected resource is a candidate resource where the common control channel is detected. determining a candidate resource set within virtual downlink resources of a current cell, wherein the candidate resource set comprises at least one candidate resource carrying a common control channel of the current cell, and the virtual downlink resources is a range of frequency resources for detecting a common control channel of the current cell; performing a detection on at least one candidate resource in the candidate resource set, so as to acquire the common control channel of the current cell, wherein the common control channel carries common search space indication information; determining, according to position information of a common control channel detected resource and the common search space indication information, an actual resource of a common search space of the current cell, wherein the actual resource is a resource actually used by the common search space of the current cell, and the common control channel detected resource is a candidate resource where the common control channel is detected.
Cooling system for a motor vehicle having a cooling circuit, into which are integrated a coolant pump for conveying a liquid coolant in a defined conveying direction in the cooling circuit and a heat exchanger, wherein the coolant pump and the heat exchanger are connected to one another via coolant lines in order to form the cooling circuit, and wherein a first venting line branches off from the cooling circuit and leads to an equalizing tank, and a second venting line connects the heat exchanger to a portion of one of the coolant lines which is arranged upstream of the coolant pump, wherein the second venting line discharges into this portion, characterized in that this portion has a constant cross-sectional area of flow, and between this portion and the coolant pump is arranged exclusively one unbranching portion of the coolant line that likewise has this constant cross-sectional area of flow over the longitudinal course.
A hair care device capable of drying hair and comprising: an ion generator for providing ions to hair, and a switching circuit for switching on the ion generator later than a moment when the hair care device has been switched on, characterized in that the ion generator is switched on when a moisture level of the hair is deemed to be below a predetermined moisture level. an ion generator for providing ions to hair, and a switching circuit for switching on the ion generator later than a moment when the hair care device has been switched on, characterized in that the ion generator is switched on when a moisture level of the hair is deemed to be below a predetermined moisture level.
An air cleaner system comprising: (a) a housing having an inlet section and an outlet section; (b) a filter cartridge; and (c) a mass sensor downstream from the filter cartridge; characterized by: (d) the filter cartridge being removably positioned in the housing; the filter cartridge comprising a stacked construction of individual strips (200, 202) of media each comprising a fluted sheet secured to a facing sheet to define inlet and outlet flow channels (11, 15) extending between first and second, opposite, flow surfaces (210, 211); (e) a side panel arrangement comprising at least first and second, opposite, panels (826, 827) molded directly to a first set of two opposite sides of the media defined by lead ends and tail ends (209a, 209b) of the strips (200, 202) of media; (f) a housing seal arrangement molded into the filter cartridge wherein the housing seal arrangement is an axial pinch seal positioned between the inlet section and the outlet section; and (g) the media pack has opposite surfaces extending between the first and second, opposite, flow surfaces, each of which is at least 50% uncovered of molded material directly molded to the media pack. (a) a housing having an inlet section and an outlet section; (b) a filter cartridge; and (c) a mass sensor downstream from the filter cartridge; (d) the filter cartridge being removably positioned in the housing; the filter cartridge comprising a stacked construction of individual strips (200, 202) of media each comprising a fluted sheet secured to a facing sheet to define inlet and outlet flow channels (11, 15) extending between first and second, opposite, flow surfaces (210, 211); (e) a side panel arrangement comprising at least first and second, opposite, panels (826, 827) molded directly to a first set of two opposite sides of the media defined by lead ends and tail ends (209a, 209b) of the strips (200, 202) of media; (f) a housing seal arrangement molded into the filter cartridge wherein the housing seal arrangement is an axial pinch seal positioned between the inlet section and the outlet section; and (g) the media pack has opposite surfaces extending between the first and second, opposite, flow surfaces, each of which is at least 50% uncovered of molded material directly molded to the media pack.
A photosensor (1; 2), comprising: an emitter element; an emitter-encapsulating portion encapsulating the emitter element; a receiver element; a receiver-encapsulating portion encapsulating the receiver element; a circuit portion including a luminous element for indicating an operation; and a circuit-encapsulating portion encapsulating the circuit portion and including an operation indicator portion facing the luminous element, wherein the emitter-encapsulating portion, the receiver-encapsulating portion, and the circuit-encapsulating portion are connected to one another with a conductive leadframe, and are formed from the same resin material containing a light diffusing agent, and wherein the thickness of the resin portion of the receiver-encapsulating portion covering a light receiving surface of the receiver element in a direction perpendicular to the light receiving surface or the thickness of the resin portion of the emitter-encapsulating portion covering a light emitting surface of the emitter element in a direction perpendicular to the light emitting surface is smaller than the thickness of the resin portion of the circuit-encapsulating portion covering a luminous surface of the luminous element in a direction perpendicular to the luminous surface. an emitter element; an emitter-encapsulating portion encapsulating the emitter element; a receiver element; a receiver-encapsulating portion encapsulating the receiver element; a circuit portion including a luminous element for indicating an operation; and a circuit-encapsulating portion encapsulating the circuit portion and including an operation indicator portion facing the luminous element, wherein the emitter-encapsulating portion, the receiver-encapsulating portion, and the circuit-encapsulating portion are connected to one another with a conductive leadframe, and are formed from the same resin material containing a light diffusing agent, and wherein the thickness of the resin portion of the receiver-encapsulating portion covering a light receiving surface of the receiver element in a direction perpendicular to the light receiving surface or the thickness of the resin portion of the emitter-encapsulating portion covering a light emitting surface of the emitter element in a direction perpendicular to the light emitting surface is smaller than the thickness of the resin portion of the circuit-encapsulating portion covering a luminous surface of the luminous element in a direction perpendicular to the luminous surface. the thickness of the resin portion of the receiver-encapsulating portion covering a light receiving surface of the receiver element in a direction perpendicular to the light receiving surface or the thickness of the resin portion of the emitter-encapsulating portion covering a light emitting surface of the emitter element in a direction perpendicular to the light emitting surface is smaller than the thickness of the resin portion of the circuit-encapsulating portion covering a luminous surface of the luminous element in a direction perpendicular to the luminous surface.
A composition comprising: (i) a bacterium or a yeast secreting an immuno-suppressing cytokine; and (ii) an antigen selected from α-gliadin and peptides therefrom, wherein said immuno-suppressing cytokine is capable of inducing a regulatory T- cell. (i) a bacterium or a yeast secreting an immuno-suppressing cytokine; and (ii) an antigen selected from α-gliadin and peptides therefrom,