mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication at a scheduling entity of a primary cell, PCell, comprising: transmitting carrier aggregation, CA, capability information to a user equipment, UE; transmitting , to the UE, secondary cell, SCell, pre-configuration information for facilitating an accelerated SCell activation procedure based on the CA capability information of the UE; transmitting , to the UE, a control message to initiate the accelerated SCell activation procedure to establish a connection between the UE and one or more SCells; controlling the SCells to transmit respective UE-specific reference signals based on the SCell pre-configuration information; and receiving , from the UE, a measurement report of the UE-specific reference signals indicating a preference of one or more SCells for a CA configuration. transmitting carrier aggregation, CA, capability information to a user equipment, UE; transmitting , to the UE, secondary cell, SCell, pre-configuration information for facilitating an accelerated SCell activation procedure based on the CA capability information of the UE; transmitting , to the UE, a control message to initiate the accelerated SCell activation procedure to establish a connection between the UE and one or more SCells; controlling the SCells to transmit respective UE-specific reference signals based on the SCell pre-configuration information; and receiving , from the UE, a measurement report of the UE-specific reference signals indicating a preference of one or more SCells for a CA configuration.
A synchronization beam sending method, comprising: sending (S101), by a network device, at least one first subframe to a terminal, wherein the at least one first subframe comprises at least one first beam identifier and at least one second beam identifier, a first beam corresponding to the first beam identifier is a beam in a first beam set, a second beam corresponding to the second beam identifier is a beam in a second beam set, an intersection set of the first beam set and the second beam set is empty, and the first beam identifier and the second beam identifier are different, wherein widths of beams in the first beam set are greater than widths of beams in the second beam set, the at least one first subframe comprises at least three subframes, and the method further comprises: sending, by the network device in each subframe of the at least three subframes, all beams in the first beam set, and sending, by the network device in each subframe of the at least three subframes, a part of beams in the second beam set, so that all the beams in the first beam set sent in each subframe of the at least three subframes cover a spatial range of the network device, and the parts of the beams in the second beam set sent in the at least three subframes together cover the spatial range of the network device. sending (S101), by a network device, at least one first subframe to a terminal, wherein the at least one first subframe comprises at least one first beam identifier and at least one second beam identifier, a first beam corresponding to the first beam identifier is a beam in a first beam set, a second beam corresponding to the second beam identifier is a beam in a second beam set, an intersection set of the first beam set and the second beam set is empty, and the first beam identifier and the second beam identifier are different, wherein widths of beams in the first beam set are greater than widths of beams in the second beam set, the at least one first subframe comprises at least three subframes, and the method further comprises: sending, by the network device in each subframe of the at least three subframes, all beams in the first beam set, and sending, by the network device in each subframe of the at least three subframes, a part of beams in the second beam set, so that all the beams in the first beam set sent in each subframe of the at least three subframes cover a spatial range of the network device, and the parts of the beams in the second beam set sent in the at least three subframes together cover the spatial range of the network device. sending, by the network device in each subframe of the at least three subframes, all beams in the first beam set, and sending, by the network device in each subframe of the at least three subframes, a part of beams in the second beam set, so that all the beams in the first beam set sent in each subframe of the at least three subframes cover a spatial range of the network device, and the parts of the beams in the second beam set sent in the at least three subframes together cover the spatial range of the network device.
A refrigerant consisting of a blend of three compounds, said blend consisting of: from 48% by weight to 51% by weight difluoromethane (HFC-32), from 9.5% by weight to 11.5% by weight pentafluoroethane (HFC-125), and from 36.5% by weight to 40.5% by weight trifluoroiodomethane (CF 3 I). wherein the percentages are based on the total weight of the three compounds in the blend, and wherein the amount of each compound can vary by an amount of ± 2% by weight, preferably ± 1% by weight, more preferably ± 0.5% by weight. from 48% by weight to 51% by weight difluoromethane (HFC-32), from 9.5% by weight to 11.5% by weight pentafluoroethane (HFC-125), and from 36.5% by weight to 40.5% by weight trifluoroiodomethane (CF 3 I). wherein the percentages are based on the total weight of the three compounds in the blend, and wherein the amount of each compound can vary by an amount of ± 2% by weight, preferably ± 1% by weight, more preferably ± 0.5% by weight.
An imaging system for a motor vehicle, comprising - a camera mounting part , at least one camera module to be mounted to said camera mounting part and a retainer ring , wherein - the camera module is provided with at least one radially outwardly directed protrusions , characterized in that - the retainer ring has multiple elastically deformable spring tongues , and - the spring tongues are arranged at an inner diameter of a basis ring of said retainer ring , - the retainer ring is attachable by pushing it over the at least one protrusions under elastic deformation of the spring tongues to an attachment position, wherein - said spring tongues clamp the camera module radially in the attachment position, wherein - the tips of at least three spring tongues axially adjoin a surface of the at least one protrusion in the attachment position, and wherein - the retainer ring has multiple spring elements applying an axially spring force from said camera mounting part to the tips of the at least three spring tongues in the attachment position, - the spring elements are arranged at an outer diameter of the basis ring . - a camera mounting part , at least one camera module to be mounted to said camera mounting part and a retainer ring , wherein - the camera module is provided with at least one radially outwardly directed protrusions , characterized in that - the retainer ring has multiple elastically deformable spring tongues , and - the spring tongues are arranged at an inner diameter of a basis ring of said retainer ring , - the retainer ring is attachable by pushing it over the at least one protrusions under elastic deformation of the spring tongues to an attachment position, wherein - said spring tongues clamp the camera module radially in the attachment position, wherein - the tips of at least three spring tongues axially adjoin a surface of the at least one protrusion in the attachment position, and wherein - the retainer ring has multiple spring elements applying an axially spring force from said camera mounting part to the tips of the at least three spring tongues in the attachment position, - the spring elements are arranged at an outer diameter of the basis ring .
A method for a user terminal to access a network comprising a plurality of access points, said terminal being able to establish a multi-link on the uplink with a plurality N of such access points by means of a same plurality of transmission channels, characterised in that , when the terminal wishes to obtain a quality of service expressed in the form of a minimum bitrate, R min , on the uplink, this terminal: - obtains a channel quality indicator, a i , for each transmission channel L i of said plurality, the transmission channels being indexed by decreasing quality level from their respective quality indicators; - determines an optimal number of transmission channels, for transmitting said minimum bitrate, said optimal number being obtained as the smallest integer N ∗ ≤ N satisfying R min / B ≤ ρ - N ∗ log 2 ( a N ∗ 1 ), where ρ = ∑ j = 1 N * log 2 a j and selects the transmission channels L 1 ,..,L N ∗ corresponding to this optimal number and where B is the bandwidth used for the transmission; - for each of the transmission channels selected in the previous step, L i , i =1 ,...,N ∗ , determines a bitrate, R i , by means of R +B log 2 ( a i ) with R ̅ = 1 N * R min − Bρ R and deduces a minimum power, p i therefrom, capable of delivering the bitrate R i on this channel; - when the sum of the minimum powers on the different channels is less than a predetermined maximum power, transmits binary data in parallel by distributing them on the different transmission channels selected L 1 ,.., L N ∗ respectively with the bitrates R i , and the powers p i , i = 1, ..., N ∗ , previously determined. - obtains a channel quality indicator, a i , for each transmission channel L i of said plurality, the transmission channels being indexed by decreasing quality level from their respective quality indicators; - determines an optimal number of transmission channels, for transmitting said minimum bitrate, said optimal number being obtained as the smallest integer N ∗ ≤ N satisfying R min / B ≤ ρ - N ∗ log 2 ( a N ∗ 1 ), where ρ = ∑ j = 1 N * log 2 a j and selects the transmission channels L 1 ,..,L N ∗ corresponding to this optimal number and where B is the bandwidth used for the transmission; - for each of the transmission channels selected in the previous step, L i , i =1 ,...,N ∗ , determines a bitrate, R i , by means of R +B log 2 ( a i ) with R ̅ = 1 N * R min − Bρ R and deduces a minimum power, p i therefrom, capable of delivering the bitrate R i on this channel; - when the sum of the minimum powers on the different channels is less than a predetermined maximum power, transmits binary data in parallel by distributing them on the different transmission channels selected L 1 ,.., L N ∗ respectively with the bitrates R i , and the powers p i , i = 1, ..., N ∗ , previously determined.
Connecting element, in particular wood screw, made of metal for structural wood construction, having a screw shank , wherein the screw shank , at least in certain portions, is provided with a thread , wherein the screw shank has at least one extension portion , wherein a length of the extension portion is at least 10% of the screw shank , wherein the extension portion is plastically and/or elastically extensible, in the longitudinal direction of the connecting element , to a greater extent than the rest of the screw shank , and wherein a tensile strength of the extension portion is lower than a tensile strength of the rest of the screw shank by a factor of 1.25 to 5, characterized in that a diameter of the screw shank in the extension portion is between the core diameter (d1) of the thread and the outside diameter (d2) of the thread , and in that the extension portion is heat treated in order to reduce the tensile strength of the screw shank in the extension portion .
An assembly for a turbine engine , comprising: a journal bearing including an internal bearing bore , a feed passage and an outlet passage , and the outlet passage extending radially within the journal bearing out from the internal bearing bore ; and a lubricant filter arranged within the internal bearing bore with a sealed cavity radially between the lubricant filter and the journal bearing , the sealed cavity fluidly coupled with the outlet passage , the filter including an internal filter bore , an inlet passage and a plurality of perforations , and the plurality of perforations extending radially through the lubricant filter and fluidly coupling the internal filter bore with the sealed cavity ; the lubricant filter including a tubular filter element , a first end cap, wherein the first end cap is mounted on the tubular filter element at the first end, and the first end cap sealingly engages the journal bearing characterised by ; the feed passage extending radially within the journal bearing to the internal bearing bore; and the inlet passage extending radially through the filter and fluidly coupling the feed passage to the internal filter bore . a journal bearing including an internal bearing bore , a feed passage and an outlet passage , and the outlet passage extending radially within the journal bearing out from the internal bearing bore ; and a lubricant filter arranged within the internal bearing bore with a sealed cavity radially between the lubricant filter and the journal bearing , the sealed cavity fluidly coupled with the outlet passage , the filter including an internal filter bore , an inlet passage and a plurality of perforations , and the plurality of perforations extending radially through the lubricant filter and fluidly coupling the internal filter bore with the sealed cavity ; the lubricant filter including a tubular filter element , a first end cap, wherein the first end cap is mounted on the tubular filter element at the first end, and the first end cap sealingly engages the journal bearing characterised by ; the feed passage extending radially within the journal bearing to the internal bearing bore; and the inlet passage extending radially through the filter and fluidly coupling the feed passage to the internal filter bore .
Electromagnetically actuable suction valve for a high pressure pump of a fuel injection system, in particular of a common rail injection system, comprising a magnet coil for acting on an armature which is received and guided such that it can be moved with a reciprocating movement in a central recess of a valve body , a pole core which is connected via a sleeve to the valve body lying opposite the armature at a working air gap , characterized in that the valve body has a circumferential cutout within an inner circumferential face which delimits the recess , which cutout divides the inner circumferential face into an upper and a lower guide region , wherein the sleeve is welded to the valve body at the level of the circumferential cutout .
A method for decolorizing a dye-colored synthetic polymer, comprising: treating a dye-colored synthetic polymer with a treatment composition, the treatment composition comprising (a) sodium formaldehyde sulfoxylate, (b) water, and (d) a ketone dissolved in the treatment composition; wherein the treatment composition has a pH of 6 or less, and the treating is carried out at a temperature of at least 50°C and for a duration of time sufficient to at least partially decolorize the synthetic polymer; and following the treating, separating at least partially decolorized synthetic polymer from the treatment composition. treating a dye-colored synthetic polymer with a treatment composition, the treatment composition comprising (a) sodium formaldehyde sulfoxylate, (b) water, and (d) a ketone dissolved in the treatment composition; wherein the treatment composition has a pH of 6 or less, and the treating is carried out at a temperature of at least 50°C and for a duration of time sufficient to at least partially decolorize the synthetic polymer; and (a) sodium formaldehyde sulfoxylate, (b) water, and (d) a ketone dissolved in the treatment composition; wherein the treatment composition has a pH of 6 or less, and the treating is carried out at a temperature of at least 50°C and for a duration of time sufficient to at least partially decolorize the synthetic polymer; and following the treating, separating at least partially decolorized synthetic polymer from the treatment composition.
An image processing apparatus comprising: a processing unit configured to: acquire a rear side camera image captured from a rear side of a vehicle and pointing in a direction behind a vehicle , obtain a virtual viewpoint position that changes in accordance with motion of the viewpoint of the driver on a basis of a reference viewpoint position and a reference virtual viewpoint position that are registered for each driver, arrange, in a virtual space, an image, showing the vehicle , including 3D computer graphic data of the vehicle stored in a memory, and the rear side camera image; convert the arrangement in the virtual space into a projected coordinate system based on the virtual viewpoint position to obtain a projection image; and perform processing for drawing details of the rear side camera image and the 3D computer graphic data from the projection image to obtain a display image. acquire a rear side camera image captured from a rear side of a vehicle and pointing in a direction behind a vehicle , obtain a virtual viewpoint position that changes in accordance with motion of the viewpoint of the driver on a basis of a reference viewpoint position and a reference virtual viewpoint position that are registered for each driver, arrange, in a virtual space, an image, showing the vehicle , including 3D computer graphic data of the vehicle stored in a memory, and the rear side camera image; convert the arrangement in the virtual space into a projected coordinate system based on the virtual viewpoint position to obtain a projection image; and perform processing for drawing details of the rear side camera image and the 3D computer graphic data from the projection image to obtain a display image.
A halogen-free decorative floor, wall or ceiling covering comprising a composition having from 25 to 70% by weight of a polymer blend, said polymer blend comprising: a) from 60 to 20% by weight of at least one thermoplastic elastomer, said thermoplastic elastomer being a block copolymer comprising hard and soft sequences, wherein the hard sequence is a (co)polymer of one or more vinyl aromatic monomer(s) and wherein the soft sequence is a (co)polymer of one or more alkylene(s) or of a mixture of one or more alkylene(s) and one or more vinylaromatic monomers; b) from 40 to 80% by weight of at least one thermoplastic polyurethane; the sum of (a) and (b) being 100% by weight of the polymer blend. a) from 60 to 20% by weight of at least one thermoplastic elastomer, said thermoplastic elastomer being a block copolymer comprising hard and soft sequences, wherein the hard sequence is a (co)polymer of one or more vinyl aromatic monomer(s) and wherein the soft sequence is a (co)polymer of one or more alkylene(s) or of a mixture of one or more alkylene(s) and one or more vinylaromatic monomers; b) from 40 to 80% by weight of at least one thermoplastic polyurethane;
A method for producing a shaped profile section in a continuous line process, the method comprising steps of: providing an outer facing web ; laying down liquid foam reactants in the outer facing web; engaging an inner facing web with the outer facing web; wherein the method comprises the further steps of: pre-forming the outer facing web into a desired outer profile shape prior to laying down the reactants, characterized in that it further comprises pre-forming the inner facing web into a desired inner profile shape for the shaped profile section prior to engagement with the outer facing web, such that the pre-formed inner facing web maintains its shape in the absence of support from an external structure, after the step of pre-forming the inner facing web is complete. providing an outer facing web ; laying down liquid foam reactants in the outer facing web; engaging an inner facing web with the outer facing web; wherein the method comprises the further steps of: pre-forming the outer facing web into a desired outer profile shape prior to laying down the reactants, characterized in that it further comprises pre-forming the inner facing web into a desired inner profile shape for the shaped profile section prior to engagement with the outer facing web, such that the pre-formed inner facing web maintains its shape in the absence of support from an external structure, after the step of pre-forming the inner facing web is complete.
A sensor comprising: a set of plates which form a plate matrix that are in contact from their bottom at the corners with a set of protrusions that are in contact from above with a plurality of intersections, each having a sensing element, of a grid of wires disposed on a base , and a top surface layer that is disposed atop the set of plates, wherein force imparted from above onto the top surface layer is transmitted to the plates and thence to the protrusions, and thence to the intersections of the grid of wires which are thereby compressed between the base and protrusions; and that the protrusions above thereby are adapted to focus the imparted force directly onto the intersections, each plate made of a piece of plastic, metal, wood or glass; and a computer in communication with the grid which is adapted to cause prompting signals to be sent to the grid and is adapted to reconstruct a geometrically continuous and seamless position of force from an object moving across the surface from interpolation based on the data signals received from the grid resulting in a single time-varying composite image of pressure variation across the entire surface. a set of plates which form a plate matrix that are in contact from their bottom at the corners with a set of protrusions that are in contact from above with a plurality of intersections, each having a sensing element, of a grid of wires disposed on a base , and a top surface layer that is disposed atop the set of plates, wherein force imparted from above onto the top surface layer is transmitted to the plates and thence to the protrusions, and thence to the intersections of the grid of wires which are thereby compressed between the base and protrusions; and that the protrusions above thereby are adapted to focus the imparted force directly onto the intersections, each plate made of a piece of plastic, metal, wood or glass; and a computer in communication with the grid which is adapted to cause prompting signals to be sent to the grid and is adapted to reconstruct a geometrically continuous and seamless position of force from an object moving across the surface from interpolation based on the data signals received from the grid resulting in a single time-varying composite image of pressure variation across the entire surface.
A non-oriented electrical steel sheet with excellent magnetic properties, comprising the following chemical composition in percentage by mass: C: 0-0.005%, Si: 2.1-3.2%, Mn: 0.2-1.0%, P: 0-0.2%, Al: 0.2-1.6%, N: 0-0.005%, Ti: 0-0.005%, Cu: 0-0.2%, with the balance being Fe and inevitable impurities; and the steel sheet meets the following Formula : the S content for forming MnS + the S content for forming Cu x S / the S content in the steel , measured by the method as of description , ≤ 0.2