mhurhangee/ep-ind-claims huggingface dataset:
A terminal device adapted to communicate with a base station device, the terminal station device comprising: a higher layer processing unit configured to set, by signaling of a higher layer from the base station, at least one first radio access technology, RAT, at least one second RAT, a first physical parameter for the first RAT, and a second physical parameter for the second RAT, wherein the second RAT is different from the first RAT and the higher layer is a layer higher than a physical layer; and a receiving unit configured to receive a first transmission signal in the first RAT and a second transmission signal in the second RAT, wherein the first transmission signal received in the first RAT is a transmission signal mapped to a resource element configured on a basis of the first physical parameter for each sub frame, and the second transmission signal received in the second RAT is a transmission signal mapped to a resource element configured on a basis of the second physical parameter in a predetermined resource included in each of the sub frames, characterized in that the terminal device is adapted such that each of the resource elements to which the second transmission signal in the second RAT is mapped is configured using a predetermined number of sub resource elements corresponding to the second physical parameter, wherein a bandwidth in the sub resource elements and/or a time length in the sub resource elements is specified in advance and the sub resource elements correspond to the same bandwidth and time length as sub resource elements in the first RAT. a higher layer processing unit configured to set, by signaling of a higher layer from the base station, at least one first radio access technology, RAT, at least one second RAT, a first physical parameter for the first RAT, and a second physical parameter for the second RAT, wherein the second RAT is different from the first RAT and the higher layer is a layer higher than a physical layer; and a receiving unit configured to receive a first transmission signal in the first RAT and a second transmission signal in the second RAT, wherein the first transmission signal received in the first RAT is a transmission signal mapped to a resource element configured on a basis of the first physical parameter for each sub frame, and the second transmission signal received in the second RAT is a transmission signal mapped to a resource element configured on a basis of the second physical parameter in a predetermined resource included in each of the sub frames, characterized in that the terminal device is adapted such that each of the resource elements to which the second transmission signal in the second RAT is mapped is configured using a predetermined number of sub resource elements corresponding to the second physical parameter, wherein a bandwidth in the sub resource elements and/or a time length in the sub resource elements is specified in advance and the sub resource elements correspond to the same bandwidth and time length as sub resource elements in the first RAT.
A method of executing a function of an electronic device using fingerprint verification, the method comprising: acquiring a security level of the function to be performed, if the function requires the fingerprint verification; receiving a fingerprint input of a user; determining a count of a number of matching points that exist between the fingerprint input and a prestored fingerprint; comparing the count of the number of matching points with a minimum number of matching points corresponding to the security level of the function; displaying an error message when the count of the number of matching points is less than the minimum number of matching points corresponding to the security level of the function; determining, if a number of times that the error message has been displayed is greater than or equal to a preset number, whether the function is to be executed by changing the security level of the function; and changing the security level of the function and executing the function, wherein changing the security level of the function comprises changing the minimum number of matching points corresponding to the security level of the function for executing the function.; acquiring a security level of the function to be performed, if the function requires the fingerprint verification; receiving a fingerprint input of a user; determining a count of a number of matching points that exist between the fingerprint input and a prestored fingerprint; comparing the count of the number of matching points with a minimum number of matching points corresponding to the security level of the function; displaying an error message when the count of the number of matching points is less than the minimum number of matching points corresponding to the security level of the function; determining, if a number of times that the error message has been displayed is greater than or equal to a preset number, whether the function is to be executed by changing the security level of the function; and changing the security level of the function and executing the function, wherein changing the security level of the function comprises changing the minimum number of matching points corresponding to the security level of the function for executing the function.;
A personal audio device, comprising: a personal audio device housing; a transducer (SPKR) mounted on the housing and adapted to reproduce an audio signal including both source audio for playback to a listener and an anti-noise signal for countering the effects of ambient audio sounds in an acoustic output of the transducer (SPKR); a reference microphone mounted on the housing and adapted to provide a reference microphone signal indicative of the ambient audio sounds; a first analog-to-digital converter (21A, 41A) adapted to convert the reference microphone signal to a first reference microphone signal digital representation; a sigma-delta shaper adapted to quantize the first reference microphone signal digital representation to generate a lowered resolution second reference microphone signal digital representation; and a processing circuit that implements an adaptive filter (32, 44A, 44B) having a response that generates the anti-noise signal from the lowered resolution second reference microphone signal digital representation to reduce the presence of the ambient audio sounds heard by the listener, wherein the processing circuit implements a coefficient control block that shapes the response of the adaptive filter (32, 44A, 44B) in conformity with the reference microphone signal by adapting the response of the adaptive filter (32, 44A, 44B). a personal audio device housing; a transducer (SPKR) mounted on the housing and adapted to reproduce an audio signal including both source audio for playback to a listener and an anti-noise signal for countering the effects of ambient audio sounds in an acoustic output of the transducer (SPKR); a reference microphone mounted on the housing and adapted to provide a reference microphone signal indicative of the ambient audio sounds; a first analog-to-digital converter (21A, 41A) adapted to convert the reference microphone signal to a first reference microphone signal digital representation; a sigma-delta shaper adapted to quantize the first reference microphone signal digital representation to generate a lowered resolution second reference microphone signal digital representation; and a processing circuit that implements an adaptive filter (32, 44A, 44B) having a response that generates the anti-noise signal from the lowered resolution second reference microphone signal digital representation to reduce the presence of the ambient audio sounds heard by the listener, wherein the processing circuit implements a coefficient control block that shapes the response of the adaptive filter (32, 44A, 44B) in conformity with the reference microphone signal by adapting the response of the adaptive filter (32, 44A, 44B).
Structural arrangement for failure protection of an LED or OLED chain with a plurality of series-connected LED or OLED light-emitting elements, each LED or OLED light-emitting element comprising a cathode layer, characterized in that on production of the light-emitting element, at at least one point of the structure between two current feeders of two adjacent light-emitting elements a weak point is purposefully installed in the form of a breakdown layer, which breaks down in the case of failure of the light-emitting element and bridges the latter by means of a conductive bridging layer, such that the bridging layer conductively connects the cathode layer of the failed light-emitting element to the cathode layer of an adjacent light-emitting element.
A differential pressure sensor for determining a differential pressure value of a fluid flow, the differential pressure sensor comprising: a selector valve configured to receive a first pressure at a first location and a second pressure at a second location that is spaced-apart from the first location; a single-sided pressure sensor coupled to the selector valve and receiving either the first pressure or the second pressure; and a processing system coupled to the single-sided pressure sensor and configured to receive one or more first single-sided pressure measurements from the single-sided pressure sensor, subsequently receive one or more second single-sided pressure measurements from the single-sided pressure sensor, and generate the differential pressure value from the one or more first single-sided pressure measurements and the one or more second single-sided pressure measurements. a selector valve configured to receive a first pressure at a first location and a second pressure at a second location that is spaced-apart from the first location; a single-sided pressure sensor coupled to the selector valve and receiving either the first pressure or the second pressure; and a processing system coupled to the single-sided pressure sensor and configured to receive one or more first single-sided pressure measurements from the single-sided pressure sensor, subsequently receive one or more second single-sided pressure measurements from the single-sided pressure sensor, and generate the differential pressure value from the one or more first single-sided pressure measurements and the one or more second single-sided pressure measurements.
Air filter, particularly a fresh air system of an internal combustion engine, preferably a motor vehicle, - having a housing with a first housing shell and a second housing shell, - having an intermediate panel that separates a crude chamber from a clean chamber in the housing and has a passage opening, - having a filter element that is installed in the passage opening, - where the filter element has a surrounding seal, - where the intermediate panel has a surrounding seal contour on an inside edge bordering the passage opening, the aforementioned seal resting on said seal contour, characterised by a fixing frame, which is a separate component with respect to the intermediate panel, with respect to both the housing shells (5, 6) and with respect to the filter element, encompasses a side of the seal facing away from the seal contour along the filter element and is attached to the intermediate panel. - having a housing with a first housing shell and a second housing shell, - having an intermediate panel that separates a crude chamber from a clean chamber in the housing and has a passage opening, - having a filter element that is installed in the passage opening, - where the filter element has a surrounding seal, - where the intermediate panel has a surrounding seal contour on an inside edge bordering the passage opening, the aforementioned seal resting on said seal contour, characterised by a fixing frame, which is a separate component with respect to the intermediate panel, with respect to both the housing shells (5, 6) and with respect to the filter element, encompasses a side of the seal facing away from the seal contour along the filter element and is attached to the intermediate panel.
A device comprising an apparatus for emptying a container, having a container outlet of a semi-trailer comprising said container, wherein the apparatus comprises: (i) a coupling element configured for a functional coupling of the container to an external element; and (ii) an actuator configured for repeatedly translating the coupling element back and forth across a translation distance (dt) selected from the range of 0.1-50 cm, wherein the actuator is configured for (i) translating the coupling element forth for a first period of time in a first direction across the translation distance (dt), wherein a first maximum acceleration is reached, and for (ii) translating the coupling element back again for a second period of time in a second, opposite direction, wherein a second maximum acceleration is reached, wherein the first maximum acceleration is lower than the second maximum acceleration and the second maximum acceleration is at least 2 m/s 2; wherein the device comprises said container and the external element, wherein the coupling element is configured for a functional coupling of the semi-trailer to the external element, and wherein the device is configured for translating the container repeatedly back and forth by means of the apparatus, wherein the external element comprises a motorised driving means, and wherein the motorised driving means comprises the apparatus. (i) a coupling element configured for a functional coupling of the container to an external element; and (ii) an actuator configured for repeatedly translating the coupling element back and forth across a translation distance (dt) selected from the range of 0.1-50 cm, wherein the actuator is configured for (i) translating the coupling element forth for a first period of time in a first direction across the translation distance (dt), wherein a first maximum acceleration is reached, and for (ii) translating the coupling element back again for a second period of time in a second, opposite direction, wherein a second maximum acceleration is reached, wherein the first maximum acceleration is lower than the second maximum acceleration and the second maximum acceleration is at least 2 m/s 2;
An electrode for lithium ion secondary batteries, wherein the electrode for lithium ion secondary batteries comprises a collector and an electrode mixture that is filled into the collector, wherein the collector has a carbon layer consisting of carbon material on a surface of a foam porous body consisting of metal and wherein the carbon material is acetylene black.
Method for determining an AC insulation resistance (R isoAC) between the AC connections (AC1, AC2) of an inverter and a ground potential, wherein a DC voltage (Ue) is applied between DC connections (DC1, DC1) of the inverter, and an AC voltage (ua) is applied between AC connections (AC1, AC2) of the inverter, wherein the DC connections (DC1, DC1) are connected to a DC power source, and wherein, in emergency standby operation, the AC connections (AC1, AC2) are connected to an AC energy sink in order to transmit energy from the DC energy source to the AC energy sink, characterized in that, in emergency standby operation, an insulation test is performed, wherein an AC fault current (i fAC) flowing between an AC connection (AC1, AC2) and the ground potential is determined from an insulation voltage (U iso), preferably the AC voltage component of the insulation voltage (U iso), present between one of the intermediate circuit connections (ZK+, ZK-) and the ground potential or an intermediate circuit midpoint (ZKm) and the ground potential, and from an insulation impedance (Z iso) between the intermediate circuit connection (ZK+, ZK-) and the ground potential or the intermediate circuit midpoint (ZKm) and the ground potential, in that a phase shift (Δφ) between an AC phase angle (φ AC) of the AC voltage (ua) and a fault current phase angle (φ ifAC) of the AC fault current (i fAC) is calculated, and that the AC insulation resistance (R isoAC) is calculated from the phase shift (Δφ).
A method for producing a 3D item by means of fused deposition modelling using a fused deposition modeling 3D printer, the method comprising a 3D printing stage comprising layer-wise depositing core-shell-shell material via a printer nozzle on a receiver item, wherein the core-shell-shell material comprises a hollow tube comprising a hollow core and a first shell enclosing the hollow core, and 3D printable material at least partly enclosing the first shell, to provide the 3D item comprising a core-shell-shell layer, wherein the core-shell-shell layer comprises the hollow tube comprising the hollow core and the first shell enclosing the hollow core, and 3D printed material at least partly enclosing the first shell, characterized in that the first shell comprises a first shell material having a first glass transition temperature Tg1, the 3D printable material has a second glass transition temperature Tg2, and Tg2<Tg1, wherein the method comprises 3D printing the 3D printable material with a printer nozzle temperature lower than the first glass transition temperature Tg1 and higher than the second glass transition temperature Tg2, and wherein the method further comprises a cutting stage comprising temporarily heating the printer nozzle to a temperature above the first glass transition temperature Tg1. the first shell comprises a first shell material having a first glass transition temperature Tg1, the 3D printable material has a second glass transition temperature Tg2, and Tg2<Tg1, wherein the method comprises 3D printing the 3D printable material with a printer nozzle temperature lower than the first glass transition temperature Tg1 and higher than the second glass transition temperature Tg2, and wherein the method further comprises a cutting stage comprising temporarily heating the printer nozzle to a temperature above the first glass transition temperature Tg1.
A method for producing a PHA mixture, comprising the step of culturing a microorganism having both of a gene encoding a PHA synthase that synthesizes a copolymer PHA "A" and that is derived from the genus Aeromonas, and a gene encoding a PHA synthase that synthesizes a PHA "B" different in melting point from the copolymer PHA "A" by 10°C or more to produce, in a cell of the microorganism, two or more PHAs different in melting point from one another by 10°C or more simultaneously, wherein the PHA "B" is higher in melting point than the copolymer PHA "A", and the PHA "B" is a polymer containing 3-hydroxybutyric acid in a portion of 99% by mol or more, wherein the gene encoding the PHA synthase that synthesizes the PHA "B" is a gene encoding a PHA synthase derived from the genus Acinetobacter, Aeromonas, Alcaligenes, Allochromatium, Azorhizobium, Azotobacter, Bacillus, Burkholderia, Caulobacter, Chromobacterium, Comamonas, Cupriavidus, Ectothiorhodospira, Klebsiella, Methylobacterium, Paracoccus, Pseudomonas, Ralstonia, Rhizobium, Rhodobacter, Rhodococcus, Rhodospirillum, Rickettsia, Sinorhizobium, Sphingomonas, Synechocystis, Thiococcus, Thiocystis, Vibrio, Wautersia, or Zoogloea, or a gene encoding a protein having a sequence identity of 85% or more to the amino acid sequence shown in SEQ ID NO: 4, and having a PHA synthase activity. wherein the PHA "B" is higher in melting point than the copolymer PHA "A", and the PHA "B" is a polymer containing 3-hydroxybutyric acid in a portion of 99% by mol or more, wherein the gene encoding the PHA synthase that synthesizes the PHA "B" is a gene encoding a PHA synthase derived from the genus Acinetobacter, Aeromonas, Alcaligenes, Allochromatium, Azorhizobium, Azotobacter, Bacillus, Burkholderia, Caulobacter, Chromobacterium, Comamonas, Cupriavidus, Ectothiorhodospira, Klebsiella, Methylobacterium, Paracoccus, Pseudomonas, Ralstonia, Rhizobium, Rhodobacter, Rhodococcus, Rhodospirillum, Rickettsia, Sinorhizobium, Sphingomonas, Synechocystis, Thiococcus, Thiocystis, Vibrio, Wautersia, or Zoogloea, or a gene encoding a protein having a sequence identity of 85% or more to the amino acid sequence shown in SEQ ID NO: 4, and having a PHA synthase activity.
A pressure indicator, comprising: a) a check valve; b) an upper cover, the upper cover comprising an inner wall, c) an elastic pressure-sensing diaphragm, the elastic pressure-sensing diaphragm comprising a circumferential flange and a lower surface; d) a transmission indication rod, the transmission indication rod comprising a support end, a connection rod, and an indication end, wherein the connection rod is connected to a top and bottom of the support end; e) a lower cover; and f) an opening of an air channel which communicates with the atmospheric air, characterized in that the upper cover comprises a circular groove, and a positioning bulge; and the pressure indicator further comprises an intermediate member, the intermediate member comprising a positioning groove and a lower port; wherein the check valve is disposed in the upper cover, and the inner wall of the upper cover and the check valve are assembled to form an upper opening; the circular groove is disposed on a shoulder of the upper cover; the opening of the air channel which communicates with the atmospheric air is disposed inside the circular groove; the positioning bulge of the upper cover is connected to the positioning groove of the intermediate member; the lower port of the intermediate member is bonded with the circumferential flange of the elastic pressure-sensing diaphragm; the lower surface of the elastic pressure-sensing diaphragm is provided with a groove configured to coordinate with the support end of the transmission indication rod; and the indication end comprises holes on two sides thereof. a) a check valve; b) an upper cover, the upper cover comprising an inner wall, c) an elastic pressure-sensing diaphragm, the elastic pressure-sensing diaphragm comprising a circumferential flange and a lower surface; d) a transmission indication rod, the transmission indication rod comprising a support end, a connection rod, and an indication end, wherein the connection rod is connected to a top and bottom of the support end; e) a lower cover; and f) an opening of an air channel which communicates with the atmospheric air, the lower port of the intermediate member is bonded with the circumferential flange of the elastic pressure-sensing diaphragm; the lower surface of the elastic pressure-sensing diaphragm is provided with a groove configured to coordinate with the support end of the transmission indication rod; and the indication end comprises holes on two sides thereof.
A multilayer active oxygen barrier film comprising: a) at least one active oxygen barrier layer comprising an oxygen scavenging composition that is a blend of: a thermoplastic resin having carbon-carbon double bonds substantially in its main chain; a transition metal salt; and an oxygen barrier polymer, and b) a layer comprising an iron-based oxygen scavenging composition, wherein the film has an oxygen scavenging rate that is at least 0.01 cc oxygen per day per gram of the oxygen scavenging composition blend. a) at least one active oxygen barrier layer comprising an oxygen scavenging composition that is a blend of: a thermoplastic resin having carbon-carbon double bonds substantially in its main chain; a transition metal salt; and an oxygen barrier polymer, and a thermoplastic resin having carbon-carbon double bonds substantially in its main chain; a transition metal salt; and an oxygen barrier polymer, and b) a layer comprising an iron-based oxygen scavenging composition, wherein the film has an oxygen scavenging rate that is at least 0.01 cc oxygen per day per gram of the oxygen scavenging composition blend.