mhurhangee/patent-ind-claim-en huggingface dataset:
A portable and/or mobile signal generating device for coupling to a preset limiting element , which defines a processing area (A, B, C) for an autonomously driving ground processing robot, at least comprising - a housing with at least two terminals , to which an end of the preset limiting element can respectively be coupled, - a signal generating unit arranged in the housing , which can be electrically coupled to the preset limiting element via the at least two terminals and which is configured to transmit an electrical signal through the preset limiting element , and - at least one battery pack , which supplies the signal generating unit with electrical energy, wherein the battery pack is detachably connected to the signal generating device , wherein - the at least one battery pack includes a battery pack housing , within which multiple battery cells are arranged, - the battery pack comprises a battery pack interface, characterized in that - the battery pack interface comprises plug-in contacts or snap-in contacts and is formed for detachably mechanically and electrically coupling to the housing of the signal generating device, and - the housing comprises a battery receiving interface on an outer side, which is formed compatibly with the battery pack interface of the battery pack , such that the battery pack can be mechanically and electrically coupled to the battery receiving interface of the housing via its battery pack interface. - a housing with at least two terminals , to which an end of the preset limiting element can respectively be coupled, - a signal generating unit arranged in the housing , which can be electrically coupled to the preset limiting element via the at least two terminals and which is configured to transmit an electrical signal through the preset limiting element , and - at least one battery pack , which supplies the signal generating unit with electrical energy, wherein the battery pack is detachably connected to the signal generating device , wherein - the at least one battery pack includes a battery pack housing , within which multiple battery cells are arranged, - the battery pack comprises a battery pack interface, characterized in that - the battery pack interface comprises plug-in contacts or snap-in contacts and is formed for detachably mechanically and electrically coupling to the housing of the signal generating device, and - the housing comprises a battery receiving interface on an outer side, which is formed compatibly with the battery pack interface of the battery pack , such that the battery pack can be mechanically and electrically coupled to the battery receiving interface of the housing via its battery pack interface.
Clamping system , in particular zero-point clamping module, comprising a housing , comprising a clamping receptacle , arranged in the housing along a clamping axis , for receiving a clamping bolt , comprising at least one clamping slide arranged in the housing and movable perpendicularly to the clamping axis along a locking axis between a locking position and a release position, comprising at least one actuator which actuates the at least one clamping slide and is movable parallel to the clamping axis , characterized in that at least one guide element is detachably arranged on or in at least one clamping slide or on or in at least one actuator , in that the guide element has a guide groove for motion coupling the at least one clamping slide and the at least one actuator .
Hob with 1.1. a central recess and 1.2. a device disposed on its bottom side for operating the hob and removing cooking vapours downwards, 1.3. wherein the hob is configured with the device in the form of an assembly unit, and characterised in that 1.4. the cooking vapours can be captured by a rotating fan wheel in a manner aspirating vertically upwards and be transported into a fan housing provided above an aspiration chamber . 1.1. a central recess and 1.2. a device disposed on its bottom side for operating the hob and removing cooking vapours downwards, 1.3. wherein the hob is configured with the device in the form of an assembly unit, and characterised in that 1.4. the cooking vapours can be captured by a rotating fan wheel in a manner aspirating vertically upwards and be transported into a fan housing provided above an aspiration chamber .
A method for determining radio link status, the method comprises determining (S1) whether a radio link failure, RLF, occurs to at least one of a supplement uplink, SUL, carrier of a cell configured with the SUL carrier or a non-SUL carrier; and in response to the RLF occurring to at least one of the SUL carrier or the non-SUL carrier, determining that the RLF occurs to the cell, and performing (S2) at least one of initiating a connection reestablishment flow or transmitting information of the RLF to a base station according to whether the cell is a primary cell, PCell, or a primary secondary cell, PSCell; wherein performing the at least one of initiating the connection reestablishment flow or transmitting information of the RLF to the base station comprises: in response to the RLF occurring to the SUL carrier or the non-SUL carrier, determining (S24) whether a carrier configured with a physical uplink control channel, PUCCH, and a physical uplink shared channel, PUSCH, exists in the SUL carrier and the non-SUL carrier; in response to the carrier configured with the PUCCH and the PUSCH existed, determining (S25) whether the carrier to which the RLF occurs is the carrier configured with the PUCCH and the PUSCH; in response to the carrier to which the RLF occurs being not the carrier configured with the PUCCH and the PUSCH, transmitting (S26) the information of the RLF to the base station; and in response to the carrier to which the RLF occurs being the carrier configured with the PUCCH and the PUSCH, in case of the cell being a PCell, initiating (S27) the connection reestablishment flow to the base station, and in case of the cell being a PSCell, transmitting the information of the RLF to the base station. in response to the RLF occurring to the SUL carrier or the non-SUL carrier, determining (S24) whether a carrier configured with a physical uplink control channel, PUCCH, and a physical uplink shared channel, PUSCH, exists in the SUL carrier and the non-SUL carrier; in response to the carrier configured with the PUCCH and the PUSCH existed, determining (S25) whether the carrier to which the RLF occurs is the carrier configured with the PUCCH and the PUSCH; in response to the carrier to which the RLF occurs being not the carrier configured with the PUCCH and the PUSCH, transmitting (S26) the information of the RLF to the base station; and in response to the carrier to which the RLF occurs being the carrier configured with the PUCCH and the PUSCH, in case of the cell being a PCell, initiating (S27) the connection reestablishment flow to the base station, and in case of the cell being a PSCell, transmitting the information of the RLF to the base station.
A method, comprising the steps of: receiving , by a device, a multicast packet that includes a packet header identifying one or more destination addresses; analyzing , by the device, the packet header to determine a line of next hops of a particular bit index forwarding table of a plurality of bit index forwarding tables to use for the multicast packet, wherein the analyzing comprises performing a hash function; identifying , by the device and based on the determined line of next hops, particular next hops for the multicast packet; and forwarding , by the device, the multicast packet to the particular next hops for forwarding to the one or more destination addresses, wherein packets from a same application flow of packets take the same path. receiving , by a device, a multicast packet that includes a packet header identifying one or more destination addresses; analyzing , by the device, the packet header to determine a line of next hops of a particular bit index forwarding table of a plurality of bit index forwarding tables to use for the multicast packet, wherein the analyzing comprises performing a hash function; identifying , by the device and based on the determined line of next hops, particular next hops for the multicast packet; and forwarding , by the device, the multicast packet to the particular next hops for forwarding to the one or more destination addresses, wherein packets from a same application flow of packets take the same path.
A channel state information-reference signal, CSI-RS, sending method, comprising: sending , by a network device to a New Radio, NR, terminal device, the CSI-RS based on a starting resource block, RB, of a resource for transmitting the CSI-RS, wherein the starting RB of the resource for transmitting the CSI-RS is determined by a resource offset between a starting RB of a pilot region and a starting RB of system bandwidth, and wherein the pilot region is a resource that is used to transmit the CSI-RS, the starting RB of a resource for transmitting the CSI-RS is the starting RB of the pilot region; the resource offset between the starting RB of the pilot region and the starting RB of system bandwidth is greater than a resource offset between a starting RB of a bandwidth part, BWP, of the terminal device and the starting RB of system bandwidth. sending , by a network device to a New Radio, NR, terminal device, the CSI-RS based on a starting resource block, RB, of a resource for transmitting the CSI-RS, wherein the starting RB of the resource for transmitting the CSI-RS is determined by a resource offset between a starting RB of a pilot region and a starting RB of system bandwidth, and wherein the pilot region is a resource that is used to transmit the CSI-RS, the starting RB of a resource for transmitting the CSI-RS is the starting RB of the pilot region; the resource offset between the starting RB of the pilot region and the starting RB of system bandwidth is greater than a resource offset between a starting RB of a bandwidth part, BWP, of the terminal device and the starting RB of system bandwidth.
A porous metallic body comprising a three-dimensional network structure composed of an alloy containing at least Ni and Cr, wherein the porous metallic body has a skeleton formed of a hollow core and a shell, and wherein when a cross section of the shell is evenly divided in the thickness direction into three portions, i.e., an outer portion, a central portion, and an inner portion, and when concentrations in percent by weight of Cr in the outer portion, the central portion, and the inner portions are defined as symbols a, b, and c, the symbols a, b, and c satisfy the relation given by expression : a + c / 2 − b / a + b + c / 3 < 0.20 wherein a>b and c>b.
An inductive position sensor for detecting the angular position of a rotatable target , the inductive position sensor comprising: - at least one transmit coil for generating an alternating magnetic field in an axial direction, at least one first receive coil or set of receive coils , at least one second receive coil or set of receive coils , - an asymmetric target , characterized in that an inner part of the asymmetric target has a periodic configuration with a first period in the angular direction, and wherein an outer part of the asymmetric target, within a first and a second radius, has a periodic configuration with a second period in the angular direction, such that, when the asymmetric target is excited by the alternating magnetic field of the at least one transmit coil , the asymmetric target will in turn generate a magnetic field whose pattern is, a magnetic field pattern which has an intensity, measured in an axial direction, which has a periodicity in the angular direction composed of the first period and of the second period, wherein the second period is larger than the first period, - and characterized in that the at least one first receive coil or set of receive coils is configured to be responsive to the magnetic field pattern with the first period, thus inducing a first signal which varies continuously with the first period as a function of the angular position of the target, and that the first receive coil or first set of receive coils is arranged within the first radius, - and characterized in that the at least one second receive coil or set of receive coils is configured to be responsive to the magnetic field pattern with the second period, thus inducing a second signal which varies continuously with the second period as a function of the angular position of the target, and that the second receive coil or second set of receive coils is arranged within the first and second radius, and that the inductive position sensor is configured for determining the angular position of the target from the first and second signal. - at least one transmit coil for generating an alternating magnetic field in an axial direction, at least one first receive coil or set of receive coils , at least one second receive coil or set of receive coils , - an asymmetric target , - and characterized in that the at least one first receive coil or set of receive coils is configured to be responsive to the magnetic field pattern with the first period, thus inducing a first signal which varies continuously with the first period as a function of the angular position of the target, and that the first receive coil or first set of receive coils is arranged within the first radius, - and characterized in that the at least one second receive coil or set of receive coils is configured to be responsive to the magnetic field pattern with the second period, thus inducing a second signal which varies continuously with the second period as a function of the angular position of the target, and that the second receive coil or second set of receive coils is arranged within the first and second radius,
An in vitro method for enhancing intracellular trafficking of genetic material in a cell transfected with genetic material, the method comprising: adding a first agent and a second agent simultaneously, separately or sequentially to the cell within 1, 2, 3, 4, or 5 hours after transfection, wherein the first agent directs the genetic material away from the acidic compartments in the cell, and wherein the second agent stabilizes the microtubule or a network thereof, wherein the first agent is a lipid and/or peptide fusogenic agent, and wherein the second agent is selected from a group consisting of a histone deacetylase inhibitor (HDACi), a tubulin binding agent (TBA), and combinations thereof; wherein the genetic material is coupled to at least one cationic species; and wherein the HDAC inhibitor is selected from the group consisting of Tubastatin A, belinostat, bufexamac, panobinostat, PCI-24781, SAHA (vorinostat), scriptaid, trichostatin A, valproic acid, salermide, sirtinol, and combinations thereof.
A process for preparing a sulfur-based positive electrode active material comprising the following steps and : a step of dispersing the organometallic compound in a form of uniformly dispersed particles into a source material comprising the polymer and the sulfur to obtain a starting material comprising a polymer, sulfur and an organometallic compound dispersed in a form of uniformly dispersed particles, wherein the starting material further comprises a vulcanization accelerator and wherein the organometallic compound is one of fatty acid metal salts, metal ionomers of ethylene-(meth) acrylic acid copolymers, metal ionomers of styrene-(meth)acrylic acid copolymers, sandwich compounds or metal salts of dithiocarbamic acid, wherein in the metal salts of dithiocarbamic acid, the metal is at least one selected from the group consisting of Na, Mg, Ti, Cr, Fe, Ni, Cu, Ru, Nb, Sb and Te, and a step of heat-treating the starting material obtained in the step under a non-oxidizing atmosphere, wherein a heat-treating temperature is from 250°C to 550°C; wherein particles of metallic sulfide resulting from sulfurization of the organometallic compound are dispersed in the heat-treated material, and at least 80% by mass of the metallic sulfide particles has a particle size of not less than 10 nm and less than 100 nm. a step of dispersing the organometallic compound in a form of uniformly dispersed particles into a source material comprising the polymer and the sulfur to obtain a starting material comprising a polymer, sulfur and an organometallic compound dispersed in a form of uniformly dispersed particles, wherein the starting material further comprises a vulcanization accelerator and wherein the organometallic compound is one of fatty acid metal salts, metal ionomers of ethylene-(meth) acrylic acid copolymers, metal ionomers of styrene-(meth)acrylic acid copolymers, sandwich compounds or metal salts of dithiocarbamic acid, wherein in the metal salts of dithiocarbamic acid, the metal is at least one selected from the group consisting of Na, Mg, Ti, Cr, Fe, Ni, Cu, Ru, Nb, Sb and Te, and a step of heat-treating the starting material obtained in the step under a non-oxidizing atmosphere, wherein a heat-treating temperature is from 250°C to 550°C; wherein particles of metallic sulfide resulting from sulfurization of the organometallic compound are dispersed in the heat-treated material, and at least 80% by mass of the metallic sulfide particles has a particle size of not less than 10 nm and less than 100 nm.
A treatment table , comprising: - a height adjustable frame ; - a treatment bed supported by the frame; - an actuator for moving the frame between an upper position and a lower position; - at least one control handle ; - at least one sensor for detecting actuation of the control handle; and - a control unit for receiving a signal from the sensor and controlling the actuator in response to the signal, characterized in that the at least one sensor is connected to the frame and the control handle is connected to the sensor by means of an elastic element. - a height adjustable frame ; - a treatment bed supported by the frame; - an actuator for moving the frame between an upper position and a lower position; - at least one control handle ; - at least one sensor for detecting actuation of the control handle; and - a control unit for receiving a signal from the sensor and controlling the actuator in response to the signal,
A catheterization system, comprising: a catheter coupled to a drainage bag by tubing; and an indicator selected from the group consisting of a location indicator , a duration indicator , an elevation indicator , a tamper indicator , a dependent loop indicator , a floor contact indicator , a patient securement indicator , and combinations thereof, characterized in that : the indicator is configured to detect and measure an attribute, and transmits information relating to the attribute to an Electronic Medical Record system configured to record and display information relating to the attribute.
Hydrostatic radial piston unit of the cam-lobe type of construction comprising: - a non-rotary, stationary shaft defining a rotational axis of the hydrostatic radial piston unit ; - a non-rotary, stationary casing housing the shaft in a torque proof connection; - a cylinder block arranged stationary in torque-proof connection with the stationary shaft on a front end portion of the stationary shaft protruding from the stationary casing; - a rotary casing which is rotary around the rotational axis and surrounds the cylinder block at the protruding front end of the stationary shaft; - exact two roller bearings which are arranged as a pair of roller bearings next to each other, wherein the pair of roller bearings rotary supports the rotary casing against the stationary casing , and is disposed in the axial area adjacent to the cylinder block side facing towards the stationary casing, surrounds at least partially a hollow shaft part of a rotary distributor , and is arranged in an axial overlapping area in which the stationary casing and the rotary casing overlap. - a non-rotary, stationary shaft defining a rotational axis of the hydrostatic radial piston unit ; - a non-rotary, stationary casing housing the shaft in a torque proof connection; - a cylinder block arranged stationary in torque-proof connection with the stationary shaft on a front end portion of the stationary shaft protruding from the stationary casing; - a rotary casing which is rotary around the rotational axis and surrounds the cylinder block at the protruding front end of the stationary shaft; - exact two roller bearings which are arranged as a pair of roller bearings next to each other,
A method for manufacturing 1,4-bis(4-phenoxybenzoyl)benzene, comprising: - reacting terephthaloyl chloride with diphenyl ether in the presence of a Lewis acid, so as to obtain a product mixture comprising 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex, wherein the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex is, at least partly, in the form of a precipitate; - carrying out a solid/liquid separation of the product mixture to obtain a cake comprising the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex precipitate; - putting the cake in contact with a decomplexing solvent, wherein the decomplexing solvent is a protic solvent, so as to dissociate the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex into 1,4-bis(4-phenoxybenzoyl)benzene; and, - recovering the 1,4-bis(4-phenoxybenzoyl)benzene. - reacting terephthaloyl chloride with diphenyl ether in the presence of a Lewis acid, so as to obtain a product mixture comprising 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex, wherein the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex is, at least partly, in the form of a precipitate; - carrying out a solid/liquid separation of the product mixture to obtain a cake comprising the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex precipitate; - putting the cake in contact with a decomplexing solvent, wherein the decomplexing solvent is a protic solvent, so as to dissociate the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex into 1,4-bis(4-phenoxybenzoyl)benzene; and, - recovering the 1,4-bis(4-phenoxybenzoyl)benzene.
A turbine section for a gas turbine engine , comprising: a turbine blade extending radially outwardly to a radially outer tip and for rotation about an axis of rotation (A); a support structure arranged circumferentially about the axis of rotation (A) and having a plurality of attachment members extending radially inwardly; and a blade outer air seal having a plurality of segments mounted in the support structure , wherein each segment has a first wall circumferentially spaced from a second wall , the first and second walls joined to a base portion and an outer wall to define a passage that extends axially along the segment , characterised in that : the attachment member includes an anti-rotation feature at a radially innermost portion of the support structure , and the anti-rotation feature is within said passage . a turbine blade extending radially outwardly to a radially outer tip and for rotation about an axis of rotation (A); a support structure arranged circumferentially about the axis of rotation (A) and having a plurality of attachment members extending radially inwardly; and a blade outer air seal having a plurality of segments mounted in the support structure , wherein each segment has a first wall circumferentially spaced from a second wall , the first and second walls joined to a base portion and an outer wall to define a passage that extends axially along the segment , characterised in that : the attachment member includes an anti-rotation feature at a radially innermost portion of the support structure , and the anti-rotation feature is within said passage .