mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a sounding reference signal, SRS, comprising: receiving, by a terminal device, a Radio Resource Control, RRC, signaling; determining , by the terminal device according to the RRC signaling, multiple second time-domain resource units within a first time-domain resource unit for sending an SRS of the terminal device, wherein the first time-domain resource unit is a slot, the multiple second time-domain resource units are the last M Orthogonal Frequency Division Multiplexing, OFDM, symbols of the first time-domain resource unit, and M is an integer; determining , by the terminal device according to a hopping pattern, target resources for sending the SRS on the multiple second time-domain resource units; and sending , by the terminal device, the SRS to a network device according to the target resources; wherein the target resources are frequency-domain resources for sending the SRS, and the hopping pattern is a frequency-domain resource hopping pattern; the operation of determining , by the terminal device according to a hopping pattern of the terminal device, target resources for sending the SRS on the multiple second time-domain resource units comprises: determining, by the terminal device according to the frequency-domain resource hopping pattern, an index of each of the multiple second time-domain resource units and an index of the first time-domain resource unit, a frequency-domain resource for sending the SRS in each second time-domain resource unit. receiving, by a terminal device, a Radio Resource Control, RRC, signaling; determining , by the terminal device according to the RRC signaling, multiple second time-domain resource units within a first time-domain resource unit for sending an SRS of the terminal device, wherein the first time-domain resource unit is a slot, the multiple second time-domain resource units are the last M Orthogonal Frequency Division Multiplexing, OFDM, symbols of the first time-domain resource unit, and M is an integer; determining , by the terminal device according to a hopping pattern, target resources for sending the SRS on the multiple second time-domain resource units; and sending , by the terminal device, the SRS to a network device according to the target resources; wherein the target resources are frequency-domain resources for sending the SRS, and the hopping pattern is a frequency-domain resource hopping pattern; the operation of determining , by the terminal device according to a hopping pattern of the terminal device, target resources for sending the SRS on the multiple second time-domain resource units comprises: determining, by the terminal device according to the frequency-domain resource hopping pattern, an index of each of the multiple second time-domain resource units and an index of the first time-domain resource unit, a frequency-domain resource for sending the SRS in each second time-domain resource unit.
Production apparatus for producing a cosmetic product including a mixing machine comprising a support defining a receiving housing wherein the receiving housing receives, detachably, a receiving device comprising - a first receiving location , configured to receive a first capsule containing a first formulation, - a second receiving location , configured to receive a second capsule containing a second formulation, - a first pressing element situated at a first actuation face (8.1) of the receiving device and able to move inside the first receiving location , so as to apply force to the first capsule , and/or - a second pressing element situated at a second actuation face (9.1) opposite the first actuation face (8.1) and able to move inside second receiving location , so as to apply force to the second capsule , wherein at least one pressing element is a vane able to move in rotation about a hinge (19.1, 21.1), said mobile vane being configured to penetrate one of the first and second receiving locations . - a first receiving location , configured to receive a first capsule containing a first formulation, - a second receiving location , configured to receive a second capsule containing a second formulation, - a first pressing element situated at a first actuation face (8.1) of the receiving device and able to move inside the first receiving location , so as to apply force to the first capsule , and/or - a second pressing element situated at a second actuation face (9.1) opposite the first actuation face (8.1) and able to move inside second receiving location , so as to apply force to the second capsule ,
An electrochemical co-electrolysis cell for the reduction of carbon dioxide containing a membrane electrode assembly (MEA), a) said MEA comprising an anode electrode layer, a cathode electrode layer and a cation exchange polymer membrane between the anode electrode layer and the cathode electrode layer, wherein b) the cathode electrode layer comprises a mixture of a cathode catalyst material and an anion exchange ionomer and an additional spray-coated layer of the anion exchange ionomer disposed on one side of said cathode electrode layer, wherein the distribution of the additional anion exchange ionomer layer on the cathode electrode layer takes the porosity of the cathode electrode layer on which it is deposited and is such that this anion exchange ionomer layer (i) forms a discontinuous contact interface with the cation exchange polymer membrane and (ii) separates the cathode catalyst material from the cation exchange polymer membrane. a) said MEA comprising an anode electrode layer, a cathode electrode layer and a cation exchange polymer membrane between the anode electrode layer and the cathode electrode layer, wherein b) the cathode electrode layer comprises a mixture of a cathode catalyst material and an anion exchange ionomer and an additional spray-coated layer of the anion exchange ionomer disposed on one side of said cathode electrode layer, wherein the distribution of the additional anion exchange ionomer layer on the cathode electrode layer takes the porosity of the cathode electrode layer on which it is deposited and is such that this anion exchange ionomer layer (i) forms a discontinuous contact interface with the cation exchange polymer membrane and (ii) separates the cathode catalyst material from the cation exchange polymer membrane.
Membrane-electrode unit for a fuel cell, comprising: - a membrane having a rectangular shape having two parallel longitudinal sides and two short sides opposite one another, wherein at least one angle (α) subtended by a short side and by a longitudinal side adjacent thereto is different from 90°, - catalytic coatings disposed on both sides of the membrane and - at least one support layer which encloses the membrane in the manner of a frame and which has on the two short sides of the membrane in each case three operating means ports (22-27) for the supply or discharge of an anode operating gas, a cathode operating gas and a cooling agent. - a membrane having a rectangular shape having two parallel longitudinal sides and two short sides opposite one another, wherein at least one angle (α) subtended by a short side and by a longitudinal side adjacent thereto is different from 90°, - catalytic coatings disposed on both sides of the membrane and - at least one support layer which encloses the membrane in the manner of a frame and which has on the two short sides of the membrane in each case three operating means ports (22-27) for the supply or discharge of an anode operating gas, a cathode operating gas and a cooling agent.
Method for integral connection of a retaining plate to the wall of a vacuum cleaner filter bag at an application location provided for this purpose, in which a) at least in regions in the region of the application location of the retaining plate , at least in regions, an integral, frictional or form-fitting connection of the wall of the vacuum cleaner filter bag to at least one, in particular precisely one, layer of a textile material is produced, the retaining plate is pressed on the side of the wall, provided with the textile material , of the vacuum cleaner filter bag, at the application location, or b) at least in regions on the retaining plate , at least in regions, an integral, frictional or form-fitting connection of the retaining plate to at least one, in particular precisely one, layer of a textile material is produced, and the retaining plate is pressed with the side, provided with the textile material , on the wall of the vacuum cleaner filter bag, at the application location, or c) between the wall of the vacuum cleaner filter bag and the retaining plate at least in regions, in the region of the application location of the retaining plate , at least one, in particular precisely one, layer of a textile material is introduced, the retaining plate together with the textile material is pressed on the wall of the vacuum cleaner filter bag, at the application location, and subsequently an integral connection between the wall of the vacuum cleaner filter bag, the textile material and the retaining plate is produced. a) at least in regions in the region of the application location of the retaining plate , at least in regions, an integral, frictional or form-fitting connection of the wall of the vacuum cleaner filter bag to at least one, in particular precisely one, layer of a textile material is produced, the retaining plate is pressed on the side of the wall, provided with the textile material , of the vacuum cleaner filter bag, at the application location, or b) at least in regions on the retaining plate , at least in regions, an integral, frictional or form-fitting connection of the retaining plate to at least one, in particular precisely one, layer of a textile material is produced, and the retaining plate is pressed with the side, provided with the textile material , on the wall of the vacuum cleaner filter bag, at the application location, or c) between the wall of the vacuum cleaner filter bag and the retaining plate at least in regions, in the region of the application location of the retaining plate , at least one, in particular precisely one, layer of a textile material is introduced, the retaining plate together with the textile material is pressed on the wall of the vacuum cleaner filter bag, at the application location,
A locking device for a waste container , the locking device comprising a weighted mechanism movable between a locked position and an opened position, the opened position allows the locking device to be unlocked and the locked position keeps the locking device locked, wherein the weighted mechanism contains one or more paddles , each paddle having opposing first end and second ends, the first end is mounted to a mounting block by a rotatable coupling and the second end is detachably retained, on a surface of the mounting block , so that when the second end is detached from the surface, it is positionable to block the weighted mechanism from moving to the unlocked position; a slide trigger ; and a latch , wherein the slide trigger is engaged with the latch when the weighted mechanism is in the locked position and is released from the latch when the weighted mechanism is in opened position, characterized in that a bias force detachably retains the second end of the paddle on the surface of the mounting block .
An apparatus for optical processing of a signal, comprising: an optical sampler configured to obtain a plurality of parallel optical samples by sampling a continuous optical signal; an optical neural network (ONN) associated with said optical sampler and comprising a plurality of interconnected optical neurons , said optical neural network being configured to optically process said parallel optical samples and to provide a final output optical signal resulting from said processing, each of said optical neurons being configured to input a plurality of optical signals and to output an optical signal comprising a weighted sum of said input optical signals, said weightings being established by phase-shifting said input optical signals prior to said summing; and a phase shift controller associated with said optical neural network, configured to control said phase-shifting so as to obtain required weightings for said input optical signals. an optical sampler configured to obtain a plurality of parallel optical samples by sampling a continuous optical signal; an optical neural network (ONN) associated with said optical sampler and comprising a plurality of interconnected optical neurons , said optical neural network being configured to optically process said parallel optical samples and to provide a final output optical signal resulting from said processing, each of said optical neurons being configured to input a plurality of optical signals and to output an optical signal comprising a weighted sum of said input optical signals, said weightings being established by phase-shifting said input optical signals prior to said summing; and a phase shift controller associated with said optical neural network, configured to control said phase-shifting so as to obtain required weightings for said input optical signals.
An article comprising: a substrate formed into a food or beverage container or portion thereof; and a coating composition on the substrate, wherein the coating composition comprises a polymer containing one or more segments of the below Formula Z': wherein: x and y may be the same or different, and are each an integer from 1 to 3; each of A and B include an amido group linked to the R 3 group through a nitrogen atom or carbonyl group, R 1 and R 5 may be the same or different and independently are monovalent atoms or monovalent organic groups, and may contain heteroatoms; and R 3 is a divalent organic group that may contain heteroatoms. a substrate formed into a food or beverage container or portion thereof; and a coating composition on the substrate, wherein the coating composition comprises a polymer containing one or more segments of the below Formula Z': wherein: x and y may be the same or different, and are each an integer from 1 to 3; each of A and B include an amido group linked to the R 3 group through a nitrogen atom or carbonyl group, R 1 and R 5 may be the same or different and independently are monovalent atoms or monovalent organic groups, and may contain heteroatoms; and R 3 is a divalent organic group that may contain heteroatoms. x and y may be the same or different, and are each an integer from 1 to 3; each of A and B include an amido group linked to the R 3 group through a nitrogen atom or carbonyl group, R 1 and R 5 may be the same or different and independently are monovalent atoms or monovalent organic groups, and may contain heteroatoms; and R 3 is a divalent organic group that may contain heteroatoms.
A bonding wire for a semiconductor device comprising: a Cu alloy core material; and a Pd coating layer formed on a surface of the Cu alloy core material, characterized in that the Cu alloy core material contains Ni, a concentration of Ni is 0.1 wt.% or more and 1.2 wt.% or less relative to the entire wire, the Cu alloy core material further contains optionally at least one element selected from B, In, Ca, P and Ti, and a concentration of the elements is 3 towt. ppm or more and 100 wt. ppm or less relative to the entire wire, optionally Pt or Pd, and a concentration of Pt or Pd contained in the Cu alloy core material is 0.05 towt.% or more and 1.20 wt.% or less and a balance is Cu and inevitable impurities, and a thickness of the Pd coating layer is 0.015 μm or more and 0.150 μm or less. a Cu alloy core material; and a Pd coating layer formed on a surface of the Cu alloy core material, characterized in that the Cu alloy core material contains Ni, a concentration of Ni is 0.1 wt.% or more and 1.2 wt.% or less relative to the entire wire, the Cu alloy core material further contains optionally at least one element selected from B, In, Ca, P and Ti, and a concentration of the elements is 3 towt. ppm or more and 100 wt. ppm or less relative to the entire wire, optionally Pt or Pd, and a concentration of Pt or Pd contained in the Cu alloy core material is 0.05 towt.% or more and 1.20 wt.% or less and a balance is Cu and inevitable impurities, and a thickness of the Pd coating layer is 0.015 μm or more and 0.150 μm or less.
A position limiting device configured to be used in a surgical device, comprising a clamping portion (3-a) and a movable portion (3-b), characterized in that the clamping portion (3-a) and the movable portion (3-b) are both of an arc structure, two ends of the clamping portion (3-a) in the arc structure and two ends of the movable portion (3-b) in the arc structure are connected, respectively, forming a connected double-ring structure; a ring diameter of the movable portion is greater than a ring diameter of the clamping portion; and the position limiting device is provided on a core rod , the clamping portion (3-a) and the core rod are in an interference fit, and the movable portion (3-b) and the core rod are in a clearance fit, wherein when the movable portion (3-b) cooperates with the core rod , the position limiting device is slidable with respect to the core rod , and when the clamping portion (3-a) cooperates with the core rod , the position limiting device and the core rod are in a fixed state, and the position limiting device is immovable with respect to the core rod , thus achieving a position limiting purpose.
A bale wrapper for wrapping a bale of material, the bale wrapper comprising a chassis , rotatably mounted substantially parallel spaced apart first and second bale support rollers operable in a bale wrapping state for supporting the bale and for rotating the bale about a first wrapping axis during wrapping of the bale, the second bale support roller being rotatably mounted on the chassis , and a transfer means for transferring a bale onto the first and second bale support rollers , the transfer means being pivotal about a transfer pivot axis from a first state for receiving a bale thereon to a second state for transferring the bale onto the first and second bale support rollers , characterised in that the transfer means is pivotally mounted on the chassis about the transfer pivot axis , and the first bale support roller is rotatably mounted on the transfer means about a first rotational axis parallel to and spaced apart from the transfer pivot axis and is moveable relative to and independently of the second bale support roller in a generally downwardly direction from the bale wrapping state as the transfer means is pivoted about the transfer pivot axis from the first state to the second state for minimising the headroom required by the bale as the bale is being transferred by the transfer means to the first and second bale support rollers .
A packet transmission method, comprising: determining , by a sending node, whether an unrecoverable failure occurs in an active link, wherein the active link is any one of multiple communication links between the sending node and a receiving node; if the sending node determines that the unrecoverable failure occurs in the active link, selecting, by the sending node from the multiple communication links, at least one standby link except the active link; and sending , by the sending node, a packet to the receiving node by using the standby link, characterized in that said sending is to cause the receiving node to send, in the receiving node, the packet from a standby link receive end to a receive end of the active link, wherein the packet is a packet in a retransmission buffer of a transmit end of the active link. determining , by a sending node, whether an unrecoverable failure occurs in an active link, wherein the active link is any one of multiple communication links between the sending node and a receiving node; if the sending node determines that the unrecoverable failure occurs in the active link, selecting, by the sending node from the multiple communication links, at least one standby link except the active link; and sending , by the sending node, a packet to the receiving node by using the standby link, characterized in that said sending is to cause the receiving node to send, in the receiving node, the packet from a standby link receive end to a receive end of the active link, wherein the packet is a packet in a retransmission buffer of a transmit end of the active link.
An epoxy resin composition comprising at least the undermentioned components [A] to [D], the component [A] accounting for 5 to 40 parts by mass, the component [B] accounting for 20 to 95 parts by mass, and the component [C] accounting for 1 to 25 parts by mass, relative to the total quantity of the epoxy resins which accounted for 100 parts by mass: [A]: epoxy resin having two naphthalene backbones and mainly two epoxy groups in a repeating unit as represented by general formula . wherein X in general formulae is an alkylene group containing 1 carbon atom or a group as represented by general formula ; R in general formula is one selected from the group consisting of a glycidyl ether group, a group as represented by general formula , a hydrogen atom, a halogen atom, a phenyl group, and an alkyl group containing 1 to 4 carbon atoms; Y is a naphthalene backbone; Z is a naphthalene backbone; Y and Z each have a glycidyl ether group, or either Y or Z has a substituent group as represented by general formula , and each repeating unit mainly contains two epoxy groups; the naphthalene ring in Y or Z may be bonded to the backbone chain at the ortho position or the meta position;; [B]: a glycidyl amine type epoxy resin having three or more glycidyl groups in a molecule; [C]: sulfone based or imide based thermoplastic resin; and [D]: epoxy resin curing agent; and wherein the epoxy resin composition has a viscosity of 5 to 100 Pa·s at 80 °C and is measured by the method referred to in the description. [A]: epoxy resin having two naphthalene backbones and mainly two epoxy groups in a repeating unit as represented by general formula . wherein X in general formulae is an alkylene group containing 1 carbon atom or a group as represented by general formula ; R in general formula is one selected from the group consisting of a glycidyl ether group, a group as represented by general formula , a hydrogen atom, a halogen atom, a phenyl group, and an alkyl group containing 1 to 4 carbon atoms; Y is a naphthalene backbone; Z is a naphthalene backbone; Y and Z each have a glycidyl ether group, or either Y or Z has a substituent group as represented by general formula , and each repeating unit mainly contains two epoxy groups; the naphthalene ring in Y or Z may be bonded to the backbone chain at the ortho position or the meta position;; [B]: a glycidyl amine type epoxy resin having three or more glycidyl groups in a molecule; [C]: sulfone based or imide based thermoplastic resin; and [D]: epoxy resin curing agent; and
An optical wavefront analyser comprising an array of convergent microlenses ( μ L) for subdividing an incident wavefront into multiple beams and for creating a respective focal point for each beam, and an array of light-sensitive detectors placed behind the array of microlenses to detect the position of these focal points, characterised in that the array of microlenses is formed from a liquid crystal layer operating by transmission and provided with a matrix of electrodes defining liquid crystal pixels, the refractive index of which can be controlled by a voltage individually applied to each electrode, in that each convergent microlens comprises a subset of pixels grouped into a region forming the microlens, the pixels of a subset having indices that radially vary in a monotone manner by moving away from a central point of the region up to the edges of the region so that the microlens operates in refractive mode.