mhurhangee/ep-ind-claims huggingface dataset:
A state keeping method, comprising: when a User Equipment, UE, is in an inactive state and meets a second predetermined condition, keeping the UE in the inactive state, wherein the inactive state is an intermediate state between a connect state and an idle state, the method characterized in that the second predetermined condition comprises that the UE fails to find any cell available for the UE to reside; and in that the method further comprises: if a Radio Access Network, RAN, side location area of the UE changes, transmitting, by the UE, a RAN side location area update request when accessing a fourth-type cell, wherein the fourth-type cell refers to a preconfigured cell allowing work in the inactive state. when a User Equipment, UE, is in an inactive state and meets a second predetermined condition, keeping the UE in the inactive state, wherein the inactive state is an intermediate state between a connect state and an idle state, the method characterized in that the second predetermined condition comprises that the UE fails to find any cell available for the UE to reside; and in that the method further comprises: if a Radio Access Network, RAN, side location area of the UE changes, transmitting, by the UE, a RAN side location area update request when accessing a fourth-type cell, wherein the fourth-type cell refers to a preconfigured cell allowing work in the inactive state.
Method for determining the position of a rail vehicle, wherein - in an odometry region the determination of the position is performed by means of an odometer of the rail vehicle, - in a reflector visibility region the position of the rail vehicle is determined on the basis of a reflected signal received by a sensor unit of the rail vehicle and - the odometry region is replaced by the reflector visibility region as soon as a reflected signal received from a reflector (109, 111) has a predefined minimum intensity. - in an odometry region the determination of the position is performed by means of an odometer of the rail vehicle, - in a reflector visibility region the position of the rail vehicle is determined on the basis of a reflected signal received by a sensor unit of the rail vehicle and - the odometry region is replaced by the reflector visibility region as soon as a reflected signal received from a reflector (109, 111) has a predefined minimum intensity.
Process for preparing aldehydes by introduction of an organic solution containing at least one rhodium compound in dissolved form into a reaction zone and reaction of olefinically unsaturated compounds with carbon monoxide and hydrogen in a homogeneous organic phase in the presence of at least one rhodium compound and in the absence of complex-forming organophosphorus compounds in this reaction zone, characterized in that at least one organic acid selected from among saturated aliphatic monocarboxylic acids having from 5 to 13 carbon atoms in the molecule, saturated aliphatic dicarboxylic acids having from 5 to 13 carbon atoms in the molecule and sulphonic acids having from 1 to 12 carbon atoms in the molecule or mixture thereof in a total amount, calculated as acid equivalent, of from > 3 mol to 3000 mol per mole of rhodium is added to the rhodium-containing organic solution and this solution is subsequently fed to the reaction zone.
A magnetic core comprising: 22.94 wt% of manganese (Mn, II, III) oxide; 6.97 wt% of zinc (Zn) oxide; 69.75 wt% of iron (Fe, III) oxide; a magnetic additive; and a non-magnetic additive, wherein the magnetic additive comprises cobalt (Co) oxide and nickel (Ni) oxide, and wherein the cobalt oxide is present in an amount of 0.3%wt and the nickel oxide is present in an amount of 0.004%wt, and wherein the non-magnetic additive comprises 500ppm of Ta 2 O 5, 500ppm of CaO, 100ppm of SiO 2, 100ppm of ZrO 2, and 100ppm of V 2 O 5. 22.94 wt% of manganese (Mn, II, III) oxide; 6.97 wt% of zinc (Zn) oxide; 69.75 wt% of iron (Fe, III) oxide; a magnetic additive; and a non-magnetic additive, wherein the magnetic additive comprises cobalt (Co) oxide and nickel (Ni) oxide, and wherein the cobalt oxide is present in an amount of 0.3%wt and the nickel oxide is present in an amount of 0.004%wt, and wherein the non-magnetic additive comprises 500ppm of Ta 2 O 5, 500ppm of CaO, 100ppm of SiO 2, 100ppm of ZrO 2, and 100ppm of V 2 O 5.
Portion capsule for producing a beverage, having a capsule body with a capsule bottom and a cover, wherein a cavity for receiving a powdered or liquid beverage substrate is formed between the capsule bottom and the cover, and wherein a filter element is arranged in the cavity, wherein the filter element is made of a non-woven fibrous material, wherein the filter element is a non-woven fabric, characterized in that the filter element is connected in its edge region to a collar edge of the capsule body by sealing or adhesive bonding, in such a way that a free space is provided between a central region (7") of the filter element and the capsule bottom, wherein the portion capsule is closed by a cover film, which is connected to the edge region of the filter element by sealing or adhesive bonding.
A method for the marking and identification of assets comprising the steps of; assigning a unique ratio of the concentrations of two or more organometallic encoding compounds to a desired property of an asset, where the two or more organometallic encoding compounds are selected from the group comprising rare earth compounds, a zirconium compound and a hafnium compound, wherein the encoding compounds are acetyl acetonate hydrates; preparing a composition which contains the unique ratio of said two or more organometallic encoding compounds and a base material selected from the group comprising two-part epoxy coatings, polyurethane coatings, one-part acrylate base coatings, one-part water based coatings and UV reactive resins; and applying said composition to the asset, such that analysis of the ratios of the concentrations of the encoding compounds to each other in the composition on the asset and comparison against a database of unique ratios enables the desired property of the asset to be identified. assigning a unique ratio of the concentrations of two or more organometallic encoding compounds to a desired property of an asset, where the two or more organometallic encoding compounds are selected from the group comprising rare earth compounds, a zirconium compound and a hafnium compound, wherein the encoding compounds are acetyl acetonate hydrates; preparing a composition which contains the unique ratio of said two or more organometallic encoding compounds and a base material selected from the group comprising two-part epoxy coatings, polyurethane coatings, one-part acrylate base coatings, one-part water based coatings and UV reactive resins; and applying said composition to the asset,
A leafing leather cover of a cellular phone, the leafing leather cover comprising: a leather cover, for buckling to a touch panel of a smart phone; wherein the leather cover is connected to a rear shell body of the smart phone by way of a micro-buckling connection portion, a clasping portion is disposed on the micro-buckling connection portion, the clasping portion adapts to a clasping hole in the rear shell body, and the clasping portion is embedded to a clasping ring in the clasping hole; wherein a magnetic strip disposed in the leather cover is attracted to a magnet in a front shell body of the smart phone, and the magnetic strip is disposed in the other side opposite to a connection side of the leather cover; and wherein a recess slot is disposed in an assembly surface of the micro-buckling connection portion and the recess slot is used to fasten a connection side of the leather cover, a side of the recess slot connects through a lateral surface of the micro-buckling connection portion, and a bottom region of the clasping portion is integrally connected to a bottom surface of the recess slot. a leather cover, for buckling to a touch panel of a smart phone; wherein the leather cover is connected to a rear shell body of the smart phone by way of a micro-buckling connection portion, a clasping portion is disposed on the micro-buckling connection portion, the clasping portion adapts to a clasping hole in the rear shell body, and the clasping portion is embedded to a clasping ring in the clasping hole; wherein a magnetic strip disposed in the leather cover is attracted to a magnet in a front shell body of the smart phone, and the magnetic strip is disposed in the other side opposite to a connection side of the leather cover; and wherein a recess slot is disposed in an assembly surface of the micro-buckling connection portion and the recess slot is used to fasten a connection side of the leather cover, a side of the recess slot connects through a lateral surface of the micro-buckling connection portion, and a bottom region of the clasping portion is integrally connected to a bottom surface of the recess slot.
An apparatus for controlling NOx emissions comprising: a chamber having a wall surface and an interior; a flue gas entrance and a flue gas exit for a flue gas to enter and exit said interior of said chamber; a gas quenching zone in said chamber in which the temperature of the flue gas can be lowered by at least one spray nozzle which emits scrubbing liquids and wherein said spray nozzle sprays the liquid towards the wall surface of the chamber; an ozone injection and retention zone in said chamber into which ozone is injected through an ozone injection nozzle; and a liquid spray zone in said chamber including at least one spray nozzle for spraying a liquid towards the wall surface of the chamber, wherein said flue gas exit is located below said liquid spray zone of said apparatus, wherein the liquid spray zone is located below said ozone injection and retention zone, wherein said gas quenching zone is above said ozone injection and retention zone and said flue gas entrance is above said gas quenching zone. a chamber having a wall surface and an interior; a flue gas entrance and a flue gas exit for a flue gas to enter and exit said interior of said chamber; a gas quenching zone in said chamber in which the temperature of the flue gas can be lowered by at least one spray nozzle which emits scrubbing liquids and wherein said spray nozzle sprays the liquid towards the wall surface of the chamber; an ozone injection and retention zone in said chamber into which ozone is injected through an ozone injection nozzle; and a liquid spray zone in said chamber including at least one spray nozzle for spraying a liquid towards the wall surface of the chamber,
A method of predicting the percentage of lean body mass in a companion animal, the method comprising: using measurements of physical data of the companion animal and applying one or more equations to predict the percentage of lean body mass in the companion animal, and characterised in that the measurements of physical data comprise measurements of body weight, cranial length, head circumference, head width, hind leg center foot pad length (HLCFPL), calcaneus width, hind leg length, pelvic circumference, and front height, wherein the animal is a dog, and wherein the one or more equations used to predict lean body mass include: LBM = 134.4 × BW − 1012 × CL + 23.5 × CL × HC − 403.7 × HW + 319.74 × HLCFPL − 214.8 × CW + 1012.4 × HLL − 30.34 × PC − 119.4 × FH + 2772.3.
A method for making a heat-shielded conduit, the method comprising: building the heat-shielded conduit by a layer-by-layer additive manufacturing process; forming, while building the heat-shielded conduit, a tube and a heat shield radially surrounding the tube; and integrally forming a truss structure together with both of the tube and the heat shield to space the heat shield from the tube and maintain a first gap between the heat shield and the tube; characterized by forming a fitting extending axially from the tube at an end of the conduit; and integrally forming the truss structure further includes forming the truss structure together with both of the fitting and the heat shield to space the heat shield from the fitting and maintain a second gap between the heat shield and the fitting. building the heat-shielded conduit by a layer-by-layer additive manufacturing process; forming, while building the heat-shielded conduit, a tube and a heat shield radially surrounding the tube; and integrally forming a truss structure together with both of the tube and the heat shield to space the heat shield from the tube and maintain a first gap between the heat shield and the tube; characterized by forming a fitting extending axially from the tube at an end of the conduit; and integrally forming the truss structure further includes forming the truss structure together with both of the fitting and the heat shield to space the heat shield from the fitting and maintain a second gap between the heat shield and the fitting.
Actuator, in particular a pneumatic actuator for controlling a variable turbine geometry and/or a wastegate valve of a turbocharger, comprising a transmission element for transmitting a mechanical control signal, and a guide element supporting the transmission element, characterised in that an outer surface of the transmission element facing the guide element has at least one radial groove which extends in the axial direction of the transmission element.
Set-top box arranged to receive an audio-video stream comprising an inbound audio stream and an inbound video stream, the audio-video broadcasting equipment being intended to be connected to audio reproduction equipment via a one-directional audio link and via a communication link, the audio-video broadcasting equipment comprising a first processing unit arranged to: introduce identification data into the inbound audio stream to produce an outbound audio stream, the identification data comprising at least one identifier of the audio-video broadcasting equipment; transmit said outbound audio stream to the audio reproduction equipment via the one-directional audio link, such that said audio reproduction equipment reproduces said outbound audio stream via at least one speaker; receive, via the communication link, an audio latency value induced by the audio reproduction equipment; synchronise an outbound video stream, produced from the inbound video stream, with the outbound audio stream, by using the audio latency value, and reproducing the outbound video stream, the first processing unit being arranged to synchronise the outbound video stream with the outbound audio stream by applying, to the inbound video stream, a video delay equal to the audio latency value to produce said outbound video stream. introduce identification data into the inbound audio stream to produce an outbound audio stream, the identification data comprising at least one identifier of the audio-video broadcasting equipment; transmit said outbound audio stream to the audio reproduction equipment via the one-directional audio link, such that said audio reproduction equipment reproduces said outbound audio stream via at least one speaker; receive, via the communication link, an audio latency value induced by the audio reproduction equipment; synchronise an outbound video stream, produced from the inbound video stream, with the outbound audio stream, by using the audio latency value, and reproducing the outbound video stream,
Method for identifying a printing plate for a document, characterized in that it comprises: - a step of printing at least one document with said plate; - a step of capturing, at high resolution, at least one image of at least one part of a said document; - a step of extracting a geometric characteristic of at least one captured image; - a step of storing the geometric characteristic extracted; - for a candidate document where one seeks to determine whether said printing plate was used to print it, a step of capturing, at high resolution, an image of the part of said candidate document corresponding to the part of the document for which a geometric characteristic has been stored; - a step of extracting the geometric characteristic of the image of said candidate document corresponding to the stored geometric characteristic; and - a step of determining whether a correlation measurement of the geometric characteristic for said candidate document and the stored geometric characteristic is greater than a predefined limit value. - a step of printing at least one document with said plate; - a step of capturing, at high resolution, at least one image of at least one part of a said document; - a step of extracting a geometric characteristic of at least one captured image; - a step of storing the geometric characteristic extracted; - for a candidate document where one seeks to determine whether said printing plate was used to print it, a step of capturing, at high resolution, an image of the part of said candidate document corresponding to the part of the document for which a geometric characteristic has been stored; - a step of extracting the geometric characteristic of the image of said candidate document corresponding to the stored geometric characteristic; and - a step of determining whether a correlation measurement of the geometric characteristic for said candidate document and the stored geometric characteristic is greater than a predefined limit value.
A compound for use in a method of treating cystic fibrosis, wherein said compound is an inhibitor of a TMEM16 protein, preferably of TMEM16A and/or TMEM16F, and wherein said compound is selected from a structure of Formula I: wherein R 1 is selected from the group consisting of substituted or unsubstituted aryl or heteroaryl, preferably substituted with one or more substituents selected from the group consisting of halogen, hydroxyl, amino, nitro, cyano, thiol, sulfonyl, carbonyl, carboxyl, alkyl, alkoxy, acetoxy, alkenyl, cycloalkyl, aryl, and heteroaryl, wherein it is preferably substituted or unsubstituted phenyl, more preferably phenyl substituted with one or more substituents selected from hydroxyl, halogen, and acetoxy, wherein R 2 is selected from the group consisting of substituted or unsubstituted aryl or heteroaryl, preferably substituted with one or more substituents selected from the group consisting of halogen, hydroxyl, amino, nitro, cyano, thiol, sulfonyl, carbonyl, carboxyl, alkyl, alkoxy, acetoxy, alkenyl, cycloalkyl, aryl, and heteroaryl, wherein it is preferably selected from thiazolyl and phenyl, more preferably thiazolyl and phenyl substituted with halogen, or a pharmaceutically acceptable salt thereof. wherein R 1 is selected from the group consisting of substituted or unsubstituted aryl or heteroaryl, preferably substituted with one or more substituents selected from the group consisting of halogen, hydroxyl, amino, nitro, cyano, thiol, sulfonyl, carbonyl, carboxyl, alkyl, alkoxy, acetoxy, alkenyl, cycloalkyl, aryl, and heteroaryl, wherein it is preferably substituted or unsubstituted phenyl, more preferably phenyl substituted with one or more substituents selected from hydroxyl, halogen, and acetoxy, wherein R 2 is selected from the group consisting of substituted or unsubstituted aryl or heteroaryl, preferably substituted with one or more substituents selected from the group consisting of halogen, hydroxyl, amino, nitro, cyano, thiol, sulfonyl, carbonyl, carboxyl, alkyl, alkoxy, acetoxy, alkenyl, cycloalkyl, aryl, and heteroaryl, wherein it is preferably selected from thiazolyl and phenyl, more preferably thiazolyl and phenyl substituted with halogen, or a pharmaceutically acceptable salt thereof.
An earth working machine, such as a road milling machine, recycler, stabilizer, or surface miner, wherein the earth working machine comprises: - a machine body having a machine frame and a drive configuration rotationally drivable relative to the machine frame around a drive axis, wherein the drive axis defines an axial direction, - a working apparatus (32; 132; 232) for earth working to which the drive configuration (46; 146; 246) is releasably connected in drive torque-transferring fashion for rotation together, the working apparatus (32; 132; 232) extending axially between a drive axial end and a retention axial end located oppositely from the drive axial end, and radially externally surrounding the drive configuration (46; 146; 246) of the earth working machine, characterized in that the earth working machine comprises a release component as a bolt arrangement helically movable relative to the drive configuration (46; 146; 246), wherein the release component comprises: - a cooperating configuration for engagement with an advancing configuration of a centering component of the working apparatus (32; 132; 232), - an abutment portion for exerting axial force on the drive configuration (46; 146; 246), and - a torque-transferring configuration for torque-transferring engagement with a torque tool, wherein the centering component comprises a central passage through which the drive configuration (46; 146; 246) is accessible, wherein the centering component comprises, with an axial spacing in a direction away from the drive configuration (46; 146; 246), the advancing configuration with which the release component is advanceable toward the drive configuration (46; 146; 246) with axial force bracing against the centering component. - a machine body having a machine frame and a drive configuration rotationally drivable relative to the machine frame around a drive axis, wherein the drive axis defines an axial direction, - a working apparatus (32; 132; 232) for earth working to which the drive configuration (46; 146; 246) is releasably connected in drive torque-transferring fashion for rotation together, the working apparatus (32; 132; 232) extending axially between a drive axial end and a retention axial end located oppositely from the drive axial end, and radially externally surrounding the drive configuration (46; 146; 246) of the earth working machine, - a cooperating configuration for engagement with an advancing configuration of a centering component of the working apparatus (32; 132; 232), - an abutment portion for exerting axial force on the drive configuration (46; 146; 246), and - a torque-transferring configuration for torque-transferring engagement with a torque tool,
Nozzle for a liquid-cooled plasma torch, comprising a nozzle bore (4.10) for the emergence of a plasma gas jet at a nozzle tip (4.11), a first section (4.1), the outer surface (4.4) of which is substantially cylindrical, and a second section (4.2), which adjoins said first section in the direction of the nozzle tip (4.11) and the outer surface (4.5) of which narrows substantially conically toward the nozzle tip (4.11), wherein at least two liquid supply grooves (4.20 and 4.21) and at least two liquid return grooves (4.22 and 4.23) are provided which extend over the second section (4.2) in the outer surface (4.5) of the nozzle toward the nozzle tip (4.11), wherein at least one of the liquid supply grooves (4.20; 4.21) and/or at least one of the liquid return grooves (4.22; 4.23) also extend(s) over a part of the first section (4.1), and, in the first section (4.1), there is situated at least one further groove (4.6 or 4.7) which is connected to at least one of the liquid supply grooves (4.20; 4.21) or to at least one of the liquid return grooves (4.22; 4.23).