mhurhangee/patent-ind-claim-en huggingface dataset:
A bonded body that is formed by bonding a metal member formed from copper, nickel, or silver, and an aluminum alloy member formed from an aluminum alloy of which a solidus temperature is lower than a eutectic temperature of aluminum and a metal element that constitutes the metal member , wherein the aluminum alloy member and the metal member are subjected to solid-phase diffusion bonding, a chill layer , in which a Si phase of which an aspect ratio of a crystal grain is 2.5 or less and a crystal grain diameter is 15 μm or less is dispersed, is formed on a bonding interface side with the metal member in the aluminum alloy member , and the thickness of the chill layer is 50 μm or greater. wherein the aluminum alloy member and the metal member are subjected to solid-phase diffusion bonding, a chill layer , in which a Si phase of which an aspect ratio of a crystal grain is 2.5 or less and a crystal grain diameter is 15 μm or less is dispersed, is formed on a bonding interface side with the metal member in the aluminum alloy member , and the thickness of the chill layer is 50 μm or greater.
A modular ceiling kit comprising a luminaire arrangement and a mounting frame , wherein the luminaire arrangement comprises a luminaire having a first light exit window framed by a rim , wherein the mounting frame comprises an aperture for receiving the luminaire , wherein the luminaire arrangement further comprises a component that is mountable in between the mounting frame and the luminaire , wherein the component comprises a second light exit window delimited by a side wall arrangement extending away from the second light exit window , and wherein the component is dimensioned such that when the component is positioned on the luminaire , the component extends over the rim and the sidewall arrangement creates a clearance between the first light exit window and the second light exit window , and wherein the second light exit window comprises a translucent sheet from which the side wall arrangement extends.
Method for forming a decorative substrate , comprising providing a carrier comprising a thermoplastic material, printing a first print on a first surface of the carrier with an aqueous pigment ink composition, applying a protective layer comprising a thermoplastic material on the first surface of the carrier , pressing, by applying heat and pressure, the protective layer and the carrier together to form a decorative substrate , the method being characterised by applying a primer comprising at least one salt, preferably a metal salt, on a first surface of the carrier prior to printing the first print , wherein said salt precipitates or agglomerates the pigment of the ink composition.
A perforating gun assembly , comprising: an uphole plate comprising a plurality of legs ; a downhole plate ; and a plurality of perforation guns coupled to the uphole plate and the downhole plate , wherein the plurality of perforation guns comprises a plurality of charges configured to punch holes in a casing within a wellbore, wherein each of the plurality of perforation guns is removably coupled to a thread of a leg of the plurality of legs of the uphole plate via a locking ring which fits around the perforation gun , and wherein the perforating gun assembly comprises a pressure cap coupled to a leg of the plurality of legs of the uphole plate that is not coupled to a perforation gun. an uphole plate comprising a plurality of legs ; a downhole plate ; and a plurality of perforation guns coupled to the uphole plate and the downhole plate , wherein the plurality of perforation guns comprises a plurality of charges configured to punch holes in a casing within a wellbore, wherein each of the plurality of perforation guns is removably coupled to a thread of a leg of the plurality of legs of the uphole plate via a locking ring which fits around the perforation gun , and wherein the perforating gun assembly comprises a pressure cap coupled to a leg of the plurality of legs of the uphole plate that is not coupled to a perforation gun.
A method performed by a transmitting communication device for handling communication in a communication network , wherein the communication network comprises one or more network slices comprising partitioned sets of functionalities, wherein a first set of functionalities out of a total set of functionalities belongs to a first network slice out of the one or more network slices, wherein the first set of functionalities is separated from another set of functionalities out of the total set of functionalities in the one or more network slices, and wherein each of the one or more network slices supports a different set of functionalities, the method comprising: - selecting a priority level of a Non Access Stratum Protocol Data Unit, NAS PDU, based on information obtained from a core network node when the NAS PDU is sent to a wireless device ; - generating an indication based on the selected priority level of the NAS PDU; and - transmitting the NAS PDU and the indication over a single signalling radio bearer connection carrying NAS PDUs, to a receiving communication device , wherein the indication indicates that the NAS PDU is associated with the first network slice. - selecting a priority level of a Non Access Stratum Protocol Data Unit, NAS PDU, based on information obtained from a core network node when the NAS PDU is sent to a wireless device ; - generating an indication based on the selected priority level of the NAS PDU; and - transmitting the NAS PDU and the indication over a single signalling radio bearer connection carrying NAS PDUs, to a receiving communication device , wherein the indication indicates that the NAS PDU is associated with the first network slice.
Transport method for transferring workpieces between a plurality of successive stations of a processing device (M), especially a forming device, wherein the workpieces (W) are in each case transported from one station to the respective next station of the processing device (M) simultaneously by means of a plurality of gripping tools which are movable jointly in a transport cycle, characterised in that in the event of a process disturbance the transport cycle is suspended and the gripping tools with the workpieces (W) are moved into a waiting position in which the workpieces (W) are outside the operating range of processing tools of the stations of the processing device (M) and, once the process disturbance has been eliminated, the transport cycle of the workpieces (W) is resumed.
A carbon fiber reinforced resin processed product having an end surface, carbon fibers and a thermoplastic resin, wherein the carbon fibers are aligned in one direction or are randomly oriented in a two-dimensional direction in the carbon fiber reinforced resin processed product , wherein the end surface is a cutting processed surface , characterized in that the end surface has no irregularly shaped portion, and wherein the end surface has a surface roughness (Rz) within a range from greater than 5 μm to 50 μm. wherein the carbon fibers are aligned in one direction or are randomly oriented in a two-dimensional direction in the carbon fiber reinforced resin processed product , wherein the end surface is a cutting processed surface , characterized in that the end surface has no irregularly shaped portion, and wherein the end surface has a surface roughness (Rz) within a range from greater than 5 μm to 50 μm.
A method of making a vitreous bond abrasive article, the method comprising sequential steps: a) a subprocess comprising sequentially: i) depositing a layer of loose powder particles in a confined region , wherein the loose powder particles comprise vitreous bond precursor particles, abrasive particles, and organic compound particles, and wherein the layer of loose powder particles has substantially uniform thickness; and ii) selectively applying heat via conduction or irradiation, to heat treat an area of the layer of loose powder particles; b) independently carrying out step a) a plurality of times to generate an abrasive article preform comprising the bonded powder particles and remaining loose powder particles, wherein in each step a), the loose powder particles are independently selected; c) separating substantially all of the remaining loose powder particles from the abrasive article preform; and d) heating the abrasive article preform to provide the vitreous bond abrasive article comprising the abrasive particles retained in a vitreous bond material. a) a subprocess comprising sequentially: i) depositing a layer of loose powder particles in a confined region , wherein the loose powder particles comprise vitreous bond precursor particles, abrasive particles, and organic compound particles, and wherein the layer of loose powder particles has substantially uniform thickness; and ii) selectively applying heat via conduction or irradiation, to heat treat an area of the layer of loose powder particles; i) depositing a layer of loose powder particles in a confined region , wherein the loose powder particles comprise vitreous bond precursor particles, abrasive particles, and organic compound particles, and wherein the layer of loose powder particles has substantially uniform thickness; and ii) selectively applying heat via conduction or irradiation, to heat treat an area of the layer of loose powder particles; b) independently carrying out step a) a plurality of times to generate an abrasive article preform comprising the bonded powder particles and remaining loose powder particles, wherein in each step a), the loose powder particles are independently selected; c) separating substantially all of the remaining loose powder particles from the abrasive article preform; and d) heating the abrasive article preform to provide the vitreous bond abrasive article comprising the abrasive particles retained in a vitreous bond material.
A method for handling a service request in a third generation partnership project, 3GPP, network, wherein the method is performed by a selection node , the method comprising: initiating transmission of a first message towards at least a first Network Function, NF, node via a first Service Communication Proxy, SCP, node , wherein the first message is a status request; receiving , from the first SCP node , a second message indicating the status of the first NF node ; and determining whether or not to initiate transmission of a first request, for the provision of a first service, via the first SCP node to the first NF node , the determination of whether or not to initiate transmission of the first request to the first NF node being made based on the status of the first NF node indicated by the second message. initiating transmission of a first message towards at least a first Network Function, NF, node via a first Service Communication Proxy, SCP, node , wherein the first message is a status request; receiving , from the first SCP node , a second message indicating the status of the first NF node ; and determining whether or not to initiate transmission of a first request, for the provision of a first service, via the first SCP node to the first NF node , the determination of whether or not to initiate transmission of the first request to the first NF node being made based on the status of the first NF node indicated by the second message.
A process for the reduction by hydrogenation, using molecular H 2 , of a C 3 -C 70 substrate containing one or two ketones or aldehydes group into the corresponding alcohol, or diol, characterized in that said process is carried out in the presence of at least one catalyst in the form of an iron complex of formula [Fe(L3)(L')(Y)(Z)] wherein L3 represents a tridentate ligand wherein the coordinating groups consist of one amino or imino group and two phosphino groups; L' represents a CO or C 1-11 isonitrile compound; Y represents a hydrogen atom or a C 1 -C 14 carboxylic radical; Z represents a hydroxyl group, a C 1 -C 14 carboxylic radical or a linear C 1 -C 14 alkoxy radical; and optionally a salt of formula MX wherein M is an alkali metal cation and X a non-coordinating mono anion, characterized in that the process is performed in the absence of base. L' represents a CO or C 1-11 isonitrile compound; Y represents a hydrogen atom or a C 1 -C 14 carboxylic radical; Z represents a hydroxyl group, a C 1 -C 14 carboxylic radical or a linear C 1 -C 14 alkoxy radical; and optionally a salt of formula MX wherein M is an alkali metal cation and X a non-coordinating mono anion, characterized in that the process is performed in the absence of base.
A turbine blade having a gas film cooling structure, wherein the turbine blade has a hollow structure, and a plurality of first grooves which are irregular grooves are provided on an outer surface of a wall of the turbine blade , wherein each first groove comprises a bottom and two side surfaces parallel to a length direction of the first groove , wherein a plurality of discrete holes A extending to an inner surface of the wall of the turbine blade are provided at the bottom of each first groove , and the discrete holes A are arranged substantially along the length direction of the first groove , wherein a depth of each first groove is H, wherein each first groove includes at least two portions in a depth direction, a portion having a depth of H 1 from the bottom of the first groove is a first portion , and a rest thereof is a second portion , i.e., a depth of the second portion is H 2 =H-H 1 , characterized in that at least one side surface of the second portion is formed by expanding in lateral direction from a corresponding side surface of the first portion , wherein the maximum diameter of each discrete hole A is d, the depth of each first groove is H, and the minimum width of each first groove is D, and wherein D≥ d, H≥ 2d, and H1>H2. wherein each first groove comprises a bottom and two side surfaces parallel to a length direction of the first groove , wherein a plurality of discrete holes A extending to an inner surface of the wall of the turbine blade are provided at the bottom of each first groove , and the discrete holes A are arranged substantially along the length direction of the first groove , wherein a depth of each first groove is H, wherein each first groove includes at least two portions in a depth direction, a portion having a depth of H 1 from the bottom of the first groove is a first portion , and a rest thereof is a second portion , i.e., a depth of the second portion is H 2 =H-H 1 , characterized in that at least one side surface of the second portion is formed by expanding in lateral direction from a corresponding side surface of the first portion , wherein the maximum diameter of each discrete hole A is d, the depth of each first groove is H, and the minimum width of each first groove is D, and wherein D≥ d, H≥ 2d, and H1>H2.
A method for manufacturing a sintered magnet comprising the steps of: producing an R-T-B-based magnetic powder through a reduction-diffusion method; and sintering the R-T-B-based magnetic powder, wherein the R is a rare earth element, and the T is a transition metal, and wherein the step of producing the magnetic powder includes a step of adding a refractory metal sulfide powder to the R-T-B-based raw material, characterized in that the method further comprises the steps of: producing an eutectic alloy containing Pr, Al, Cu, and Ga; and infiltrating the eutectic alloy to the sintered magnet. producing an R-T-B-based magnetic powder through a reduction-diffusion method; and sintering the R-T-B-based magnetic powder, wherein the R is a rare earth element, and the T is a transition metal, and wherein the step of producing the magnetic powder includes a step of adding a refractory metal sulfide powder to the R-T-B-based raw material, characterized in that the method further comprises the steps of: producing an eutectic alloy containing Pr, Al, Cu, and Ga; and infiltrating the eutectic alloy to the sintered magnet. producing an eutectic alloy containing Pr, Al, Cu, and Ga; and infiltrating the eutectic alloy to the sintered magnet.
A method for use in a user equipment, UE, operable to transmit a sounding reference signal, SRS, on a plurality of carriers, the method comprising: obtaining an indication to perform SRS carrier-based switching for at least one carrier of the plurality of carriers; adapting at least one parameter for uplink transmit power control in response to the obtained indication; and transmitting an uplink signal using the adapted at least one parameter for uplink power control while meeting at least one predetermined uplink power control requirement.
A method for generating magnet resonance tomography images (B) of at least one phase of a cyclic movement, having the method steps: a. Generating raw data sets (r1... rx) of a cyclic movement during a recording period (T) with k-space sub-trajectories (k1... kx); b. reconstructing a series of at least two intermediate images (z1... zy), each of the intermediate images being created from at least one raw data set (r1... rx) at least for a respective section, i.e. a region-of-interest (ROI) of the raw data sets (r1... rx); c. calculating a distance matrix D from the series of intermediate images (z1... zy), each matrix element D corresponding to the distance between an intermediate image (z1... zy) of the series and itself and at least one further intermediate image (z1... zy) of the series; d. adapting functions (v1... vz) to structures forming in the distance matrix D and e. reconstructing at least one image Bi from raw data sets (r1... rx) which correspond to an intersection S of the functions (v1... vz) with the entries of the distance matrix D assigned to an intermediate image zi. a. Generating raw data sets (r1... rx) of a cyclic movement during a recording period (T) with k-space sub-trajectories (k1... kx); b. reconstructing a series of at least two intermediate images (z1... zy), each of the intermediate images being created from at least one raw data set (r1... rx) at least for a respective section, i.e. a region-of-interest (ROI) of the raw data sets (r1... rx); c. calculating a distance matrix D from the series of intermediate images (z1... zy), each matrix element D corresponding to the distance between an intermediate image (z1... zy) of the series and itself and at least one further intermediate image (z1... zy) of the series; d. adapting functions (v1... vz) to structures forming in the distance matrix D and e. reconstructing at least one image Bi from raw data sets (r1... rx) which correspond to an intersection S of the functions (v1... vz) with the entries of the distance matrix D assigned to an intermediate image zi.
Tool coupling device for receiving a power-tool parting device, in particular a power-tool parting device realized as a closed system, having at least one cutting-strand tensioning unit (14a; 14b; 14c; 14d; 14e; 14f; 14g) for generating a cutting-strand tensioning force, and having at least one tool holding unit (16a; 16b; 16c; 16d; 16e; 16f; 16g) that comprises at least one movably mounted tool holding element (18a; 18b; 18c; 18d; 18e; 18f; 18g), and having at least one movement coupling unit (20a; 20b; 20c; 20d; 20e; 20f; 20g), by means of which, for the purpose of moving a tensioning element (22a; 22b; 22c; 22d; 22e; 22f; 22g) of the cutting-strand tensioning unit (14a; 14b; 14c; 14d; 14e; 14f; 14g), the tool holding element (18a; 18b; 18c; 18d; 18e; 18f; 18g) can be coupled to the tensioning element (22a; 22b; 22c; 22d; 22e; 22f; 22g), characterized by a main body (46a; 46b; 46c; 46d; 46e; 46f; 46g) which has a receiving recess (78a; 78b; 78c; 78d; 78e; 78f; 78g) which is provided, when the power-tool parting device is coupled, to secure the power-tool parting device in a form-closed manner against a rotational movement along a direction about a rotation axis (50a; 50b; 50c; 50d; 50e; 50f; 50g) of a drive element (52a; 52b; 52c; 52d; 52e; 52f; 52g).
A refrigerator comprising: a main body having a storage compartment ; a pair of doors configured to open and close the storage compartment; a sliding bar provided in each of the pair of doors, each sliding bar being configured to move in a first direction (W2) between a standby position and a contact position to which the sliding bar moves from the standby position to seal a gap between the pair of doors ; and a moving device configured to operate the sliding bar in linkage with an operation of opening or closing the doors , wherein the moving device includes: a lever mounted for rotatation about an axis inside each door and configured to rotate about said axis when pressed by the main body as the door is closed to transmit a pressing force to the sliding bar in each door; and a sliding link configured to operate in linkage with rotation of the lever and configured so that the sliding bar moves between the standby position and the contact position, characterised in that said first direction (W2) in which each sliding bar moves between standby and contact positions extends along the axis of rotation of the lever . a main body having a storage compartment ; a pair of doors configured to open and close the storage compartment; a sliding bar provided in each of the pair of doors, each sliding bar being configured to move in a first direction (W2) between a standby position and a contact position to which the sliding bar moves from the standby position to seal a gap between the pair of doors ; and a moving device configured to operate the sliding bar in linkage with an operation of opening or closing the doors , wherein the moving device includes: a lever mounted for rotatation about an axis inside each door and configured to rotate about said axis when pressed by the main body as the door is closed to transmit a pressing force to the sliding bar in each door; and a sliding link configured to operate in linkage with rotation of the lever and configured so that the sliding bar moves between the standby position and the contact position, a lever mounted for rotatation about an axis inside each door and configured to rotate about said axis when pressed by the main body as the door is closed to transmit a pressing force to the sliding bar in each door; and a sliding link configured to operate in linkage with rotation of the lever and configured so that the sliding bar moves between the standby position and the contact position, characterised in that said first direction (W2) in which each sliding bar moves between standby and contact positions extends along the axis of rotation of the lever .