mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: accessing, responsive to executing a boot sequence, at a controller a first error code for data stored in memory cells, the memory cells being comprised in an array of memory cells, wherein the data is sensitive data associated with a host operating system, OS; calculating within a sensing circuitry (150, 250), coupled to a plurality of sense lines of the array, a second error code for the data without transferring data via an input/output, I/O, line of the sensing circuitry, wherein an execution of a plurality of operations to calculate the second error code are distributed between an execution of a different plurality of operations; determining at the sensing circuitry whether the first error code and the second error code are a same error code; and responsive to a determination that the first error code and the second error code are not the same error code, performing at least one particular action selected from a group of actions that includes: halting further execution of operations via the sensing circuitry; launching execution of another different plurality of operations executable using the sensing circuitry; and continuing to monitor the sensitive data. accessing, responsive to executing a boot sequence, at a controller a first error code for data stored in memory cells, the memory cells being comprised in an array of memory cells, wherein the data is sensitive data associated with a host operating system, OS; calculating within a sensing circuitry (150, 250), coupled to a plurality of sense lines of the array, a second error code for the data without transferring data via an input/output, I/O, line of the sensing circuitry, wherein an execution of a plurality of operations to calculate the second error code are distributed between an execution of a different plurality of operations; determining at the sensing circuitry whether the first error code and the second error code are a same error code; and responsive to a determination that the first error code and the second error code are not the same error code, performing at least one particular action selected from a group of actions that includes: halting further execution of operations via the sensing circuitry; launching execution of another different plurality of operations executable using the sensing circuitry; and continuing to monitor the sensitive data. halting further execution of operations via the sensing circuitry; launching execution of another different plurality of operations executable using the sensing circuitry; and continuing to monitor the sensitive data.
A fastener arranged to be inserted through an aperture of an implant, the implant being arranged to be implanted in a body, the aperture including a curved inner profile defining a larger dimension and a smaller dimension, the fastener comprising: - an elongated body; - a head connected to said body and defining a curved profile mateable with the curved inner profile of the aperture of the implant, said head further including a circumferential groove disposable proximate the larger dimension of the curved inner profile of the implant when said head is mated with said implant; and - an open ring sized to be positionable partly within said circumferential groove to extend from said circumferential groove to thereby increase a widest dimension of said head, - said ring being formed with a resilient material, said ring resiliently expandable from a first compressed configuration having a first dimension to a second relaxed configuration having a second dimension, - said second dimension being larger than said first dimension, said head being passable into the aperture when said ring is assembled into said groove and said ring is in said first compressed configuration, and said head not passable out of the aperture when said ring is resiliently expanded to said second configuration, due to said ring interfering in said second configuration with the smaller dimension of the curved inner profile, characterized in that said ring further including a first end and a second end, said first end fixed within said circumferential groove, and said second end moveable to change a shape of said ring from said first compressed configuration to said second relaxed configuration, said second end including a notch releasably engageable to maintain said ring in said first compressed configuration, and said fastener further including a pin releasably receivable in the notch to retain the ring in the compressed configuration. - an elongated body; - a head connected to said body and defining a curved profile mateable with the curved inner profile of the aperture of the implant, said head further including a circumferential groove disposable proximate the larger dimension of the curved inner profile of the implant when said head is mated with said implant; and - an open ring sized to be positionable partly within said circumferential groove to extend from said circumferential groove to thereby increase a widest dimension of said head, - said ring being formed with a resilient material, said ring resiliently expandable from a first compressed configuration having a first dimension to a second relaxed configuration having a second dimension, - said second dimension being larger than said first dimension,
A photodetection device, comprising a laser generating laser light having a plurality of optical frequency components being separated by an interval in an optical frequency band of light to be detected within a given period of time, wherein the light to be detected is second light that is generated by a sample (48, 116, 156, 186) that is irradiated by a first light of a light source (41, 111, 151); a light combining means combining the laser light generated from the laser and the light to be detected; and a photoelectric conversion means photoelectrically-converting light output from the light combining means and generating a beat signal of the laser light and the light to be detected, wherein the beat signal is added so as to heterodyne-detect the light to be detected based on an output of the photoelectric conversion means.
An immobilizer tool set comprising: a plurality of retention blocks, wherein each retention block of the plurality of retention blocks comprises: a first plate; a guide pin (42,44) extending from the first plate; and a second plate on the guide pin (42,44) and configured to slide on the guide pin (42,44) relative the first plate; characterised in that the immobilizer tool set further comprises a spring between the first plate and the second plate. a plurality of retention blocks, wherein each retention block of the plurality of retention blocks comprises: a first plate; a guide pin (42,44) extending from the first plate; and a second plate on the guide pin (42,44) and configured to slide on the guide pin (42,44) relative the first plate; a first plate; a guide pin (42,44) extending from the first plate; and a second plate on the guide pin (42,44) and configured to slide on the guide pin (42,44) relative the first plate; characterised in that the immobilizer tool set further comprises a spring between the first plate and the second plate.
An assembly comprising a system and a state monitor for monitoring the state of said system, said state monitor comprising a calculator and a memory; • the system comprising a command configured to apply a command of constant value selected from a plurality of values, each value defining a mode of operation of the system; • the memory containing a set of stored state matrices representing, for each mode of operation of the system, the value of the projection of its state in time; and • the calculator being configured, during operation of the system, to determine estimated values for the state of the system at a given instant by means of the state functions and of its state at an earlier instant characterized in that for each mode of operation of the system, a number N of unit durations Ti is determined such that, for the system under consideration, each operating duration Tf in a given mode of operation can be decomposed as follows: Tf = ∑ i = 0 N ki ∗ Ti where ki are natural integers, each state function representing linear variation of the state of the system over a given unit duration Ti. • the system comprising a command configured to apply a command of constant value selected from a plurality of values, each value defining a mode of operation of the system; • the memory containing a set of stored state matrices representing, for each mode of operation of the system, the value of the projection of its state in time; and • the calculator being configured, during operation of the system, to determine estimated values for the state of the system at a given instant by means of the state functions and of its state at an earlier instant
A lithium battery, comprising: a semiconductor substrate; a cathode; an anode comprising silicon and integrally formed with the semiconductor substrate, wherein a surface portion of the substrate forms the anode; a separator element disposed between the cathode and the anode; and an electrolyte. a semiconductor substrate; a cathode; an anode comprising silicon and integrally formed with the semiconductor substrate, wherein a surface portion of the substrate forms the anode; a separator element disposed between the cathode and the anode; and an electrolyte.
A semiconductor device package comprising: a semiconductor device die having a first surface substantially parallel to a second surface; said first surface having a first solderable planar metal electrode; said second surface having a second solderable planar metal electrode (18, 20); a metallic conductive clip having a flat web portion, said web portion having a first surface and a second surface, said second surface of said web portion being electrically connected with said first electrode; and at least one electrical connector comprising a solderable planar metal post-shaped electrode extending from an edge of said web portion over and spaced form an edge of said semiconductor device die and terminating at a connection surface, wherein said semiconductor device die is inwardly recessed in the interior of said clip such that said second electrode (18, 20) of said semiconductor device die is not flush with said connection surface, and said connection surface is adapted to mount to a metallized pattern on a support surface, wherein said semiconductor device die is inwardly recessed between 0.001 and 0.005 inches (25.4 and 127 μm). a semiconductor device die having a first surface substantially parallel to a second surface; said first surface having a first solderable planar metal electrode; said second surface having a second solderable planar metal electrode (18, 20); a metallic conductive clip having a flat web portion, said web portion having a first surface and a second surface, said second surface of said web portion being electrically connected with said first electrode; and at least one electrical connector comprising a solderable planar metal post-shaped electrode extending from an edge of said web portion over and spaced form an edge of said semiconductor device die and terminating at a connection surface, wherein said semiconductor device die is inwardly recessed in the interior of said clip such that said second electrode (18, 20) of said semiconductor device die is not flush with said connection surface, and said connection surface is adapted to mount to a metallized pattern on a support surface, wherein said semiconductor device die is inwardly recessed between 0.001 and 0.005 inches (25.4 and 127 μm).
A process for making a nanoemulsion comprising: a) an internal phase comprising 40 to 75% by wt. of total nanoemulsion composition of oils selected from the group consisting of triglyceride, petrolatum and mixtures thereof, wherein the melting point of the petrolatum is 30 to 60°C; and 1.5 to 10% by wt. nanoemulsion of a C 8 to C 18 fatty acid; and b) an external aqueous phase comprising: i. 2 to 12% by wt. (as active) of total nanoemulsion composition of a surfactant or surfactants which are N-acyl derivatives of amino acid salt; wherein the surfactant of (i) comprises 65% or greater of trialkanolamine or potassium salts or mixtures thereof of said surfactant; ii. glycerol; and iii. water wherein the weight ratio of glycerol to water in aqueous phase is 3:1 to 1:3; and wherein the volume average diameter of droplets of (a) is 20 to 400 nanometer; wherein said process comprises 1) heating aqueous phase up to 55 to 75°C; 2) and heating oil phases up to 55 to 75°C or until the oil phase is melted; 3) adding the melted oil phase to the aqueous phase with intensive mixing by a conventional rotor/stator device at a rotor speed of 3000 to 7000 rpm till the desired size is reached; and 4) cooling the emulsion to room temperature. a) an internal phase comprising 40 to 75% by wt. of total nanoemulsion composition of oils selected from the group consisting of triglyceride, petrolatum and mixtures thereof, wherein the melting point of the petrolatum is 30 to 60°C; and 1.5 to 10% by wt. nanoemulsion of a C 8 to C 18 fatty acid; and b) an external aqueous phase comprising: i. 2 to 12% by wt. (as active) of total nanoemulsion composition of a surfactant or surfactants which are N-acyl derivatives of amino acid salt; wherein the surfactant of (i) comprises 65% or greater of trialkanolamine or potassium salts or mixtures thereof of said surfactant; ii. glycerol; and iii. water i. 2 to 12% by wt. (as active) of total nanoemulsion composition of a surfactant or surfactants which are N-acyl derivatives of amino acid salt; wherein the surfactant of (i) comprises 65% or greater of trialkanolamine or potassium salts or mixtures thereof of said surfactant; ii. glycerol; and iii. water
A signal transmitting/receiving device communicating with a counterpart device using electromagnetic waves through an adjacent metal wall, provided in an uneven structure or a body centric cuboid crystal, BCC, structure including grains G and voids V, and have a predetermined cycle A, the metal wall being arranged between the signal transmitting/receiving device (100, 200) and the counterpart device (100, 200), the signal transmitting/receiving device comprising: a first layer formed of a conductive material, the first layer including at least one opening that faces the metal wall; a second layer formed of a conductive material, the second layer being adjacent to the first layer on an opposite side of the metal wall; and a third layer formed of a dielectric material, the third layer disposed between the first layer and the second layer to exchange an electromagnetic field including a signal with the metal wall through the opening, wherein the transmitting/receiving device (100, 200) constitutes an evanescent electromagnetic wave source generating surface electromagnetic waves adapted to cause total reflection and to flow along an inner circumferential surface of the metal wall on which the device (100, 200) is mounted and be transmitted to an outer circumferential surface of the metal wall on which the counterpart device (100, 200) is disposed. a first layer formed of a conductive material, the first layer including at least one opening that faces the metal wall; a second layer formed of a conductive material, the second layer being adjacent to the first layer on an opposite side of the metal wall; and a third layer formed of a dielectric material, the third layer disposed between the first layer and the second layer to exchange an electromagnetic field including a signal with the metal wall through the opening, wherein the transmitting/receiving device (100, 200) constitutes an evanescent electromagnetic wave source generating surface electromagnetic waves adapted to cause total reflection and to flow along an inner circumferential surface of the metal wall on which the device (100, 200) is mounted and be transmitted to an outer circumferential surface of the metal wall on which the counterpart device (100, 200) is disposed.
Method for manufacturing a component of a gas turbine by metal powder injection moulding, in which a green blank of a component construction (10, 10') is produced from an injection-mouldable metal powder mixture by metal powder injection moulding, is debinded to form a brown blank and is subsequently sintered, characterized in that, during the metal powder injection moulding, the green blank is provided with a supporting structure as an integral component part of the component construction, which is formed in one piece with the component construction (10, 10') and supports the component construction (10, 10') during the sintering and, after the sintering of the component construction (10, 10') for manufacturing the component, the supporting structure is completely removed by a machining process or is partially removed in such a way that, in the installed state of the component, a region of the supporting structure forms an end stop or a receptacle for a stopping element, which is connected to a housing of the gas turbine and, acting together with the end stop or the receptacle, serves for preventing a movement of the component in the circumferential direction of the gas turbine.
Plastic tube consisting of three layers, an inner layer adjoining the interior, a middle layer directly adjoining the inner layer and an outer layer directly adjoining the middle layer, wherein the inner layer is based on or essentially consists of a mixture of PA12 and PA612, the proportion of PA612 being in the range of 20-40% by weight of the total moulding compound of the inner layer, the middle layer is formed on the basis of PA612 and/or PA616 or essentially consists thereof the outer layer is formed on the basis of a mixture of PA12 and PA612 or essentially consists thereof, the proportion of PA612 being in the range of 20-40% by weight of the total moulding compound of the outer layer.
Electric drive motor, having a stator with at least one electrically actuatable stator winding and a rotor which is mounted in a rotationally drivable manner in the field of the at least one actuatable stator winding so as to leave free an annular gap, having a motor shaft and a magnet carrier, which is arranged coaxially in relation to the motor shaft and has at least one permanent magnet which is arranged on an outer periphery of the magnet carrier, wherein the motor shaft and the magnet carrier are of integral design by way of the motor shaft and the magnet carrier being jointly produced from an individual initial metal sheet to form an integral shaped rotor body by means of deformation, characterised in that the deep drawing manufacturing method is used for deformation purposes and that the integral shaped rotor body has a motor shaft section formed by deep drawing and a magnet carrier section formed by deep drawing, wherein the integral shaped rotor body has a connecting section formed by deep drawing, which connects the motor shaft section to the magnet carrier section as an integral design.
A power reception device that receives electric power in a non-contact manner from a power transmission unit including a first coil, comprising: a case having an accommodation portion formed therein; a core disposed in said case; a second coil disposed in said case and provided on said core; an electrical device disposed in said case and having wired connection to said second coil; an insulation member disposed between an inner surface of said case and said second coil, and between the inner surface of said case and said electrical device; and a cooling device that causes a flow of a coolant to cool said second coil and said electrical device, said second coil and said electrical device being attached to the inner surface of said case with said insulation member interposed therebetween, said electrical device being disposed upstream in a flow direction of said coolant from said second coil. a case having an accommodation portion formed therein; a core disposed in said case; a second coil disposed in said case and provided on said core; an electrical device disposed in said case and having wired connection to said second coil; an insulation member disposed between an inner surface of said case and said second coil, and between the inner surface of said case and said electrical device; and a cooling device that causes a flow of a coolant to cool said second coil and said electrical device, said second coil and said electrical device being attached to the inner surface of said case with said insulation member interposed therebetween, said electrical device being disposed upstream in a flow direction of said coolant from said second coil.
A method for diagnosing obesity-related diabetes or an increased risk for obesity-related diabetes in a mammal, comprising - analyzing the expression of the full-length gene for mammalian ZPF69, preferably for human ZNF642 and/or human ZNF643, in a biological sample obtained from a mammal to be diagnosed, wherein a lack or reduced expression of the full-length gene for ZFP69, ZNF642 and/or ZNF643 in said mammal, when compared to a biological sample obtained from a non-diseased mammal, is indicative for a normal or for a reduced risk for obesity-related diabetes in said mammal. - analyzing the expression of the full-length gene for mammalian ZPF69, preferably for human ZNF642 and/or human ZNF643, in a biological sample obtained from a mammal to be diagnosed,
Luminescent diode chip comprising - a semiconductor body, which produces radiation of a first wavelength (λ 1), - a luminescence conversion element, which produces from the radiation of the first wavelength (λ 1) radiation of a second wavelength (λ 2), and - an angular filter element, which reflects radiation that impinges on the angular filter element in a predetermined angular range in relation to a main direction of emission at least partially back in the direction of the semiconductor body characterized in that - the angular filter element has a higher reflectivity for light rays of the first wavelength (λ 1) for smaller angles of incidence, which include an angle of -30° ≤ 60° ≤ 30° with the the main direction of emission, and a lower reflectivity for light rays of the first wavelength (λ 1) for greater angles of incidence, which indlude an angle of 30° ≤ θ ≤ 60° or-60° ≤ θ ≤ -30° - a semiconductor body, which produces radiation of a first wavelength (λ 1), - a luminescence conversion element, which produces from the radiation of the first wavelength (λ 1) radiation of a second wavelength (λ 2), and - an angular filter element, which reflects radiation that impinges on the angular filter element in a predetermined angular range in relation to a main direction of emission at least partially back in the direction of the semiconductor body characterized in that - the angular filter element has a higher reflectivity for light rays of the first wavelength (λ 1) for smaller angles of incidence, which include an angle of -30° ≤ 60° ≤ 30° with the the main direction of emission, and a lower reflectivity for light rays of the first wavelength (λ 1) for greater angles of incidence, which indlude an angle of 30° ≤ θ ≤ 60° or-60° ≤ θ ≤ -30°