mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting data from a transmitter device to one or more receiver devices , each of the one or more receiver devices being connected to the transmitter device via a respective wire connection , the transmitter device being operable to transmit signals onto the wire connections over one or more different channels, the method comprising, for each of the one or more different channels: determining a value of a first function, the first function being a function of a power mask for transmitting the data over the one or more different channels; determining a value of a second function, the second function being a function of an upper bound for a channel capacity of the one or more channels; determining a value of a third function, the third function being a function of the value of the first function and the value of the second function; using the determined value of the third function, determining a transmission power for transmitting data along that channel, wherein a transmission power, s j , j m , is determined using: s j , j m = 1 ln 2 λ 3 j , j m − 1 γ j , j m where: j is a channel index; λ 3 j , j m is the third function; and γ j , j m is the gain of the jth channel; and transmitting, by the transmitter device, data over that channel to one or more of the receiver devices, the data being transmitted at the transmission power determined for that channel. determining a value of a first function, the first function being a function of a power mask for transmitting the data over the one or more different channels; determining a value of a second function, the second function being a function of an upper bound for a channel capacity of the one or more channels; determining a value of a third function, the third function being a function of the value of the first function and the value of the second function; using the determined value of the third function, determining a transmission power for transmitting data along that channel, wherein a transmission power, s j , j m , is determined using: s j , j m = 1 ln 2 λ 3 j , j m − 1 γ j , j m where: j is a channel index; λ 3 j , j m is the third function; and γ j , j m is the gain of the jth channel; and where: j is a channel index; λ 3 j , j m is the third function; and γ j , j m is the gain of the jth channel; and transmitting, by the transmitter device, data over that channel to one or more of the receiver devices, the data being transmitted at the transmission power determined for that channel.
Lyocell denim made from weft yarns and warp yarns , wherein denim is a fabric which is woven as a warp-faced textile having a twill pattern, wherein the warp yarns consist of 100 % lyocell filaments , and in that the lyocell denim comprises at least 70 % lyocell filaments, wherein the denim scores at least one at least 15,000 cycles to hole formation in a Martindale abrasion test according to DIN EN ISO 12947-2 in the fixed state and 8,000 cycles to hole formation in a Martindale abrasion test according to DIN EN ISO 12947-2 after garment wash and/or after bleaching.
A straddle vehicle comprising: a vehicle body frame member ; a front wheel ; a rear wheel ; a rotatably supporting member supporting the front wheel in such a manner that the front wheel is rotatable about a front wheel axis (Q) thereof; a support arm supporting the rotatably supporting member in such a manner that the rotatably supporting member is angularly movable about a steering axis (X) extending in an upward-downward direction, the support arm extending rearward from the rotatably supporting member ; a pair of upper and lower link members pivotally connected to the support arm at two locations on a rear portion of the support arm , the two locations being spaced in the upward-downward direction, the pair of upper and lower link members extending rearward from the support arm , each of the link members having a rear portion pivotally connected to the vehicle body frame member ; a handle to be held by a rider assuming a riding posture; a drive source disposed between the front wheel and the rear wheel and configured to generate a drive power for travel of the vehicle , the drive source including an engine for vehicle travel, an electric motor for vehicle travel, or both the engine and the electric motor for vehicle travel; characterized in that a handle supporting member supporting the handle , is spaced from the vehicle body frame and is indirectly and removably coupled to the vehicle body frame member by a plurality of fastening members via the drive source . a vehicle body frame member ; a front wheel ; a rear wheel ; a rotatably supporting member supporting the front wheel in such a manner that the front wheel is rotatable about a front wheel axis (Q) thereof; a support arm supporting the rotatably supporting member in such a manner that the rotatably supporting member is angularly movable about a steering axis (X) extending in an upward-downward direction, the support arm extending rearward from the rotatably supporting member ; a pair of upper and lower link members pivotally connected to the support arm at two locations on a rear portion of the support arm , the two locations being spaced in the upward-downward direction, the pair of upper and lower link members extending rearward from the support arm , each of the link members having a rear portion pivotally connected to the vehicle body frame member ; a handle to be held by a rider assuming a riding posture; a drive source disposed between the front wheel and the rear wheel and configured to generate a drive power for travel of the vehicle , the drive source including an engine for vehicle travel, an electric motor for vehicle travel, or both the engine and the electric motor for vehicle travel; characterized in that a handle supporting member supporting the handle , is spaced from the vehicle body frame and is indirectly and removably coupled to the vehicle body frame member by a plurality of fastening members via the drive source .
A client device for a wireless communication system , the client device being configured to receive an indication of a first network SINR, for a first data transmission, DT1, from a network node ; derive the first network SINR based on the indication of a first network SINR; estimate a SINR adjustment for a second data transmission, DT2, from the network node ; compute a SINR difference value between the first network SINR and the SINR adjustment; transmit at least one first control message, CM1, comprising an indication of the SINR adjustment to the network node if the SINR difference value is larger than a threshold value, wherein the threshold value is a minimum difference between the first network SINR and the SINR adjustment, and wherein the indication of the SINR adjustment is a SINR offset value. receive an indication of a first network SINR, for a first data transmission, DT1, from a network node ; derive the first network SINR based on the indication of a first network SINR; estimate a SINR adjustment for a second data transmission, DT2, from the network node ; compute a SINR difference value between the first network SINR and the SINR adjustment; transmit at least one first control message, CM1, comprising an indication of the SINR adjustment to the network node if the SINR difference value is larger than a threshold value, wherein the threshold value is a minimum difference between the first network SINR and the SINR adjustment, and wherein the indication of the SINR adjustment is a SINR offset value.
A first network entity, comprising: a defining unit configured to define a common communication session comprising a plurality of contexts, wherein the common communication session is common to a plurality of network entities and terminal devices, a preconfiguring unit configured to preconfigure the common communication session by preconfiguring at least one context out of the plurality of contexts to be common for more than one network entity out of the plurality of network entities and for more than one terminal device out of the plurality of terminal devices, a first initiating unit configured to, based on the preconfiguration by the preconfiguring unit, initiate the preconfigured common communication session for at least one network entity out of the more than one network entities, and a triggering unit configured to, based on the initiation by the first initiating unit, trigger to initiate the preconfigured common communication session for at least one terminal device out of the more than one terminal devices. a defining unit configured to define a common communication session comprising a plurality of contexts, wherein the common communication session is common to a plurality of network entities and terminal devices, a preconfiguring unit configured to preconfigure the common communication session by preconfiguring at least one context out of the plurality of contexts to be common for more than one network entity out of the plurality of network entities and for more than one terminal device out of the plurality of terminal devices, a first initiating unit configured to, based on the preconfiguration by the preconfiguring unit, initiate the preconfigured common communication session for at least one network entity out of the more than one network entities, and a triggering unit configured to, based on the initiation by the first initiating unit, trigger to initiate the preconfigured common communication session for at least one terminal device out of the more than one terminal devices.
A positive electrode plate comprising a positive electrode current collector and a positive active material layer disposed on at least one surface of the positive electrode current collector, wherein the positive active material layer comprises a first positive active material represented by Chemical Formula and a second positive active material represented by Chemical Formula , Li 1+x Ni a Me b M 1-a-b O 2-y A y Chemical Formula , in Chemical Formula , -0.1≤x≤0.2, 0<a<l, 0<b<l, 0<a +b<1, O^sy <0.2; Me and M are each independently one or more of Co, Mn, Fe, Cr, Ti, Zn, V, Al, Zr, and Ce; Me is different with M; and A is one or more of S, N, F, Cl, Br, and 1; Li 1+z Mn c Z 2-c O 4-d B d Chemical Formula in Chemical Formula , -0.1≤z≤0.2, 0<c^~2, 0≤d<1; Z is one or more of Ni, Fe, Cr, Ti, Zn, V, Al, Mg, Zr, and Ce; and B is one or more of S, N, F, Cl, Br, and I; and wherein the positive electrode plate satisfies Formula , 0.04 ⩽ R ⋅ P / C ⩽ 10 in Formula , R is the resistance of the positive electrode plate, measured according to the description, and the unit of R is Ω; P is the packing density of the positive electrode plate, and the unit of P is g/cm 3 ; C is the single-side areal density of the positive electrode plate, the unit of C is g/1540.25 mm 2 ; the first positive active material has an average particle diameter Dv50 of 4 μm to 18 μm and has an average particle diameter Dv90 of 10 μm to 24 μm; the second positive active material has an average particle diameter Dv50 of 8 μm to 20 μm and has an average particle diameter Dv90 of 14 μm to 35 μm. in Chemical Formula , -0.1≤x≤0.2, 0<a<l, 0<b<l, 0<a +b<1, O^sy <0.2; Me and M are each independently one or more of Co, Mn, Fe, Cr, Ti, Zn, V, Al, Zr, and Ce; Me is different with M; and A is one or more of S, N, F, Cl, Br, and 1; Li 1+z Mn c Z 2-c O 4-d B d Chemical Formula in Chemical Formula , -0.1≤z≤0.2, 0<c^~2, 0≤d<1; Z is one or more of Ni, Fe, Cr, Ti, Zn, V, Al, Mg, Zr, and Ce; and B is one or more of S, N, F, Cl, Br, and I; and wherein the positive electrode plate satisfies Formula , 0.04 ⩽ R ⋅ P / C ⩽ 10 in Formula , R is the resistance of the positive electrode plate, measured according to the description, and the unit of R is Ω; P is the packing density of the positive electrode plate, and the unit of P is g/cm 3 ; C is the single-side areal density of the positive electrode plate, the unit of C is g/1540.25 mm 2 ; the first positive active material has an average particle diameter Dv50 of 4 μm to 18 μm and has an average particle diameter Dv90 of 10 μm to 24 μm; the second positive active material has an average particle diameter Dv50 of 8 μm to 20 μm and has an average particle diameter Dv90 of 14 μm to 35 μm.
A therapeutic agent for use in the treatment of liver diseases which comprises stromal cells derived from adipose tissue subjected to both cryopreservation and thawing at least twice, wherein the treatment comprises administering the cells immediately after said thawing.
A gas turbine engine comprising: a compressor section ; a combustor section ; a diffuser case module ; and a manifold (114; 132; 134; 144; 152; 164; 170; 178; 194; 202) in communication with a pre-diffuser inlet and said compressor section ; characterised in that : the diffuser case module comprises a multiple of struts within an annular flow path from said compressor section to said combustor section ; at least one of said multiple of struts defines said pre-diffuser inlet in communication with said annular flow path ; and said pre-diffuser inlet is a mid-span pre-diffuser inlet extending from one or both sides of said at least one of said multiple of struts , wherein the mid-span pre-diffuser inlet includes a side-winged mid-span pre-diffuser RAM inlet . a compressor section ; a combustor section ; a diffuser case module ; and a manifold (114; 132; 134; 144; 152; 164; 170; 178; 194; 202) in communication with a pre-diffuser inlet and said compressor section ; characterised in that : the diffuser case module comprises a multiple of struts within an annular flow path from said compressor section to said combustor section ; at least one of said multiple of struts defines said pre-diffuser inlet in communication with said annular flow path ; and said pre-diffuser inlet is a mid-span pre-diffuser inlet extending from one or both sides of said at least one of said multiple of struts , wherein the mid-span pre-diffuser inlet includes a side-winged mid-span pre-diffuser RAM inlet .
Bidirectional trolley comprising a drawbar , first and second pivoting front wheels a push handle , a loading and unloading flat surface for handling items, a rotary system placed in the rear part of the trolley said rotary system comprising two non pivoting wheels (8', 8") placed on the same horizontal axis, a third pivoting wheel , placed at 45° with respect to the two non pivoting wheels (8', 8") and a hook , the rotary system being configured to avoid, when the hook is inserted in a working position, a rotation of the rotary system , such as to avoid the rotation of both the non pivoting wheels (8',8") and the third pivoting wheel and a lateral translation of the bidirectional trolley , said bidirectional trolley being characterized in that the hook is configured to assume a resting position in which the hook is completely retracted under the flat surface , between the two non pivoting wheels (8', 8").
Coffer frame for a false wall, in particular a false ceiling, said frame comprising abutted beams which are shaped such that, when the frame is arranged edge-to-edge with a similar frame , the beam of said frame defines, together with the beam of the similar frame, a passage which opens at the top, at least one of the beams of said frame being provided, at the top, with a closure means capable of closing the passage when the frame is arranged edge-to-edge with the similar frame , characterized in that said closure means is a brush seal arranged with the frame such that the fibers of said brush seal extend toward the outside of the frame .
A system comprising: a fluorophore imaging device and a duodenoscope (105; 405), the fluorophore imaging device comprising: an attachment (130; 330) removably coupleable to a distal end of the duodenoscope (105; 405) including a first filter (175, 180; 375, 380; 425, 430) alignable with a light source (115; 415) of the duodenoscope (105; 405), and a second filter (180, 175; 375, 380; 425, 430) alignable with an imaging device of the duodenoscope (105; 405); wherein the attachment (130; 330) is coupled to the distal end of the duodenoscope (105; 405) by a ring (135; 335) such that a working channel of the duodenoscope (105; 405) is accessible when the attachment (130; 330) is coupled to the duodenoscope (105; 405). an attachment (130; 330) removably coupleable to a distal end of the duodenoscope (105; 405) including a first filter (175, 180; 375, 380; 425, 430) alignable with a light source (115; 415) of the duodenoscope (105; 405), and a second filter (180, 175; 375, 380; 425, 430) alignable with an imaging device of the duodenoscope (105; 405); wherein the attachment (130; 330) is coupled to the distal end of the duodenoscope (105; 405) by a ring (135; 335) such that a working channel of the duodenoscope (105; 405) is accessible when the attachment (130; 330) is coupled to the duodenoscope (105; 405).
A semiconductor substrate processing apparatus for processing semiconductor substrates, comprising: a vacuum chamber including a processing zone in which a semiconductor substrate may be processed; a process gas source in fluid communication with the vacuum chamber for supplying a process gas into the vacuum chamber; a showerhead module through which process gas from the process gas source is supplied to the processing zone of the vacuum chamber; and a substrate pedestal module including an electrostatic chuck comprising a platen made of ceramic material having an upper surface configured to support a semiconductor substrate thereon during processing and a stem made of ceramic material having an upper stem flange that supports the platen, the platen including coplanar electrodes embedded in the platen, the electrodes including an outer ring-shaped radio-frequency (RF) electrode and inner electrostatic clamping electrodes , the outer ring-shaped RF electrode surrounding the inner electrostatic clamping electrodes, the outer ring-shaped RF electrode including at least one radially extending feed strip , which extends diagonally across the platen from the outer ring-shaped RF electrode to a central portion of the platen. a vacuum chamber including a processing zone in which a semiconductor substrate may be processed; a process gas source in fluid communication with the vacuum chamber for supplying a process gas into the vacuum chamber; a showerhead module through which process gas from the process gas source is supplied to the processing zone of the vacuum chamber; and a substrate pedestal module including an electrostatic chuck comprising a platen made of ceramic material having an upper surface configured to support a semiconductor substrate thereon during processing and a stem made of ceramic material having an upper stem flange that supports the platen, the platen including coplanar electrodes embedded in the platen, the electrodes including an outer ring-shaped radio-frequency (RF) electrode and inner electrostatic clamping electrodes , the outer ring-shaped RF electrode surrounding the inner electrostatic clamping electrodes, the outer ring-shaped RF electrode including at least one radially extending feed strip , which extends diagonally across the platen from the outer ring-shaped RF electrode to a central portion of the platen.
A method for obtaining polyglutamates by means of controlled polymerization of N-carboxyanhydrides (NCAs) of alpha-amino acids using ammonium salt of non-nucleophilic tetrafluoroborate as an initiator according to the reaction: wherein: R represents an alkyl group, a defined C-terminal attachment group selected from an alkyne, an azide, a thiol, a halide, an activated thiol, an alkene, an activated ester, an activated alcohol, a protected amine, a maleimide group, an acetal, and an activated carboxylic acid, ethylene glycol, or polyethylene glycol having a molecular weight of from 100 to 20,000 g/mol; n cal represents number of units of γ-benzylglutamate in the polymer from 2 to 1,000; and X represents BF 4 . R represents an alkyl group, a defined C-terminal attachment group selected from an alkyne, an azide, a thiol, a halide, an activated thiol, an alkene, an activated ester, an activated alcohol, a protected amine, a maleimide group, an acetal, and an activated carboxylic acid, ethylene glycol, or polyethylene glycol having a molecular weight of from 100 to 20,000 g/mol; n cal represents number of units of γ-benzylglutamate in the polymer from 2 to 1,000; and X represents BF 4 .
A reclosable container, comprising - a container body made of a cellulosic material and having an aperture , - a movable cover made of a cellulosic material removably applied to said aperture and movable between an open configuration and a closed configuration, and - at least one closing formation including a first closure element and a second closure element provided on said container body and movable cover , respectively, and engageable with each other to keep the container in a closed configuration and disengageable from each other to open the container, characterised in that at least one of said first and second closure elements (34, 44, 52, 72, 78; 36, 42, 54, 60, 66, 80) is made of a hydrosoluble thermoplastic material. - a container body made of a cellulosic material and having an aperture , - a movable cover made of a cellulosic material removably applied to said aperture and movable between an open configuration and a closed configuration, and - at least one closing formation including a first closure element and a second closure element provided on said container body and movable cover , respectively, and engageable with each other to keep the container in a closed configuration and disengageable from each other to open the container, characterised in that at least one of said first and second closure elements (34, 44, 52, 72, 78; 36, 42, 54, 60, 66, 80) is made of a hydrosoluble thermoplastic material.
Medicine dispensing device comprising a tray and a drop plate below the tray in a drop direction (D), wherein the tray is provided with a plurality of storage cavities for receiving one or more medicine items, wherein the drop plate is slidable relative to the tray in a sliding direction (S) perpendicular to the drop direction (D) between a hold position and a drop position, wherein the drop plate is provided with a plurality of drop openings which are out of line with the plurality of storage cavities in the drop direction (D) when the drop plate is in the hold position and which are aligned with the plurality of storage cavities in the drop direction (D) when the drop plate is in the drop position, wherein the medicine dispensing device further comprises one or more retaining members for retaining the drop plate relative to the tray in the drop direction (D) when the drop plate is in a dispensing path (X) extending from a first endpoint (E1) defined by one of the hold position and the drop position up to a second endpoint (E2) defined by the other one of the drop position and the hold position, wherein the drop plate is slidable in a release direction (R) into a release position (P) outside of the dispensing path (X), wherein the one or more retaining members are arranged for releasing the drop plate in the drop direction (D) from the tray in said release position (P).
A remote-controlled device , the device comprising a voice interface , a remote controller interface and a controller ; wherein the device is configured to: - receive , via the voice interface , an activation phrase; - receive , via the remote controller interface , a command from the remote controller , wherein the command includes a remote controller identifier; - store the remote controller identifier as an identifier of a paired remote controller; characterized in that the device is configured to receive and store the remote controller identifier after checking that the activation phrase is received from within an allowable activation angle . - receive , via the voice interface , an activation phrase; - receive , via the remote controller interface , a command from the remote controller , wherein the command includes a remote controller identifier; - store the remote controller identifier as an identifier of a paired remote controller;