mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling the timing of feedback transmissions by a communication device communicating over a communication link, wherein the communication link supports a retransmission scheme and wherein the method comprises: - transmitting, in at least one of a slot and a subframe, a feedback timing indicator, FTI, and data, wherein the FTI is selected from a set of indicators and wherein the FTI indicates that retransmission feedback is requested within the same at least one of a slot and a subframe as the data is transmitted and wherein the format of the data is based on the FTI; and - receiving, in the same at least one of a slot and a subframe, retransmission feedback related to the transmitted data. - transmitting, in at least one of a slot and a subframe, a feedback timing indicator, FTI, and data, wherein the FTI is selected from a set of indicators and wherein the FTI indicates that retransmission feedback is requested within the same at least one of a slot and a subframe as the data is transmitted and wherein the format of the data is based on the FTI; and - receiving, in the same at least one of a slot and a subframe, retransmission feedback related to the transmitted data.
A wearable sensing device, comprising: a user interface module, the user interface module including: a carrier defining a contact face; a first group of microprobes corresponding to a working electrode protruding from the contact face of the carrier and reaching a first height; a second group of microprobes protruding from the contact face of the carrier and reaching a second height; and a third group of microprobes exposed from the contact face of the carrier and reaching a third height; wherein the second group of microprobes and the third group of microprobes are interchangeably corresponding to a counter electrode and a reference electrode; wherein the first, second, and third group of microprobes respectively comprise piercers that extend from a perforated plate; characterised in that a microprobe of the first, second, and third group of microprobes comprises a pair of the piercers formed on the same perforated plate; and wherein a space (N202-21) between the pair of the piercers form a capillary tube when inserted into skin of user to induce capillary effect. a user interface module, the user interface module including: a carrier defining a contact face; a first group of microprobes corresponding to a working electrode protruding from the contact face of the carrier and reaching a first height; a second group of microprobes protruding from the contact face of the carrier and reaching a second height; and a third group of microprobes exposed from the contact face of the carrier and reaching a third height; a carrier defining a contact face; a first group of microprobes corresponding to a working electrode protruding from the contact face of the carrier and reaching a first height; a second group of microprobes protruding from the contact face of the carrier and reaching a second height; and a third group of microprobes exposed from the contact face of the carrier and reaching a third height; wherein the second group of microprobes and the third group of microprobes are interchangeably corresponding to a counter electrode and a reference electrode; wherein the first, second, and third group of microprobes respectively comprise piercers that extend from a perforated plate; characterised in that a microprobe of the first, second, and third group of microprobes comprises a pair of the piercers formed on the same perforated plate; and wherein a space (N202-21) between the pair of the piercers form a capillary tube when inserted into skin of user to induce capillary effect.
Use of a complex of formula: M(La) n (Xb) m as p-dopant or as n-dopant, wherein: M is a metal selected from Co; n is an integer from 1 to 6 and a is a consecutive number of a first set consisting of the integers of 1 to n (1,..., n), so that there are n ligands L1,..., Ln; m is 0 or an integer from 1 to 5 and b is a consecutive number of a second set consisting of 0 and integers of 1 to m (0,..., m), so that if m>0 there are m ligands X1,.., Xm; wherein n and m equal the appropriate number of ligands present on metal M; any La (L1,..., Ln) is independently selected from a mono-, bi-, or tridentate ligand, with the proviso that at least one of said ligands La (L1,..., Ln) is, independently, selected from compounds of formulae to below: wherein, said ligand comprises at least one substituent R 1, R 5, and/or R 8, as applicable, selected independently from the substituents (A-1) to (G-2) below:; wherein: the dotted line represents the bond connecting the substituent of (A-1) to (G-2) on the compounds of formulae to; and, substituents R 1, R 2, R 3, R 4, R 5, R 6, and R 7, in as far as present, are independently selected from H, halogen, -NO 2, -OH, -NH 2, and from hydrocarbons comprising 1 to 30 carbons and 0 to 15 heteroatoms; and Xb is a monodentate co-ligand independently selected from H 2 O, Cl -, Br -, I -, CN, NCO, NCS, NCSe, NH 3, NR 7 R 8 R 9, and PR 7 R 8 R 9, wherein R 7, R 8, and R 9 are selected independently from substituted or unsubstituted alkyl, alkenyl, alkynyl and aryl. M is a metal selected from Co; n is an integer from 1 to 6 and a is a consecutive number of a first set consisting of the integers of 1 to n (1,..., n), so that there are n ligands L1,..., Ln; m is 0 or an integer from 1 to 5 and b is a consecutive number of a second set consisting of 0 and integers of 1 to m (0,..., m), so that if m>0 there are m ligands X1,.., Xm; wherein n and m equal the appropriate number of ligands present on metal M; any La (L1,..., Ln) is independently selected from a mono-, bi-, or tridentate ligand, with the proviso that at least one of said ligands La (L1,..., Ln) is, independently, selected from compounds of formulae to below: the dotted line represents the bond connecting the substituent of (A-1) to (G-2) on the compounds of formulae to; and, substituents R 1, R 2, R 3, R 4, R 5, R 6, and R 7, in as far as present, are independently selected from H, halogen, -NO 2, -OH, -NH 2, and from hydrocarbons comprising 1 to 30 carbons and 0 to 15 heteroatoms; and Xb is a monodentate co-ligand independently selected from H 2 O, Cl -, Br -, I -, CN, NCO, NCS, NCSe, NH 3, NR 7 R 8 R 9, and PR 7 R 8 R 9, wherein R 7, R 8, and R 9 are selected independently from substituted or unsubstituted alkyl, alkenyl, alkynyl and aryl.
A method for performing, by a user equipment, UE, device-to-device, D2D, operation in a wireless communication system, the method comprising: receiving a signal for D2D operation, which includes a time/frequency tracking reference cell identifier, ID, and schedule resources for a non-activated cell, from an anchor cell which is an activated cell; synchronizing time/frequency based on the time/frequency tracking reference cell ID; and performing the D2D operation in the non-activated cell by using the schedule resources, upon the synchronizing. receiving a signal for D2D operation, which includes a time/frequency tracking reference cell identifier, ID, and schedule resources for a non-activated cell, from an anchor cell which is an activated cell; synchronizing time/frequency based on the time/frequency tracking reference cell ID; and performing the D2D operation in the non-activated cell by using the schedule resources, upon the synchronizing.
A method for mapping, comprising: projecting onto an object a pattern of multiple spots (50, 52, 54, 80, 82) having respective positions and shapes, such that the positions of the spots in the pattern are uncorrelated, while the shapes share a common characteristic; capturing an image of the spots on the object; and processing the image so as to derive a three-dimensional map of the object, characterized in that the common characteristic of the shapes varies as a function of distance from a source of the pattern, and the 3D map is derived by finding the respective offsets between the pattern on areas of the object in the image and the pattern in a reference image, and by analyzing the characteristic of the shapes of the spots on a surface of the object in the image. projecting onto an object a pattern of multiple spots (50, 52, 54, 80, 82) having respective positions and shapes, such that the positions of the spots in the pattern are uncorrelated, while the shapes share a common characteristic; capturing an image of the spots on the object; and processing the image so as to derive a three-dimensional map of the object, characterized in that the common characteristic of the shapes varies as a function of distance from a source of the pattern, and the 3D map is derived by finding the respective offsets between the pattern on areas of the object in the image and the pattern in a reference image, and by analyzing the characteristic of the shapes of the spots on a surface of the object in the image.
A massaging shoe comprising a shoe body formed by a shoe sole and a shoe vamp connected together, the shoe sole includes a shoe sole body having a containing cavity and a shoe board covering on the containing cavity, and the containing cavity is provided therein with an air pump communicating with at least one massaging air bag and electronic components controlling the air pump, characterized in that the massaging shoe further comprises a sock sleeve detachably arranged in the shoe body, the sock sleeve is provided with the at least one massaging air bag.
A paper substrate and voltage source for use in mass spectrometry, characterised in that the paper substrate is coated and/or impregnated with carbon nanotubes, a portion of which protrudes from the paper substrate; wherein the voltage source is operably coupled to the paper substrate, wherein the voltage source is configured to generate a voltage of 3 volts.
A removable component configured for insertion into an internal compartment of a surgical instrument, the removable component comprising: a housing defining a first end and a second end a grasping member coupled to the housing at the second end thereof, the grasping member movable relative to the housing between a presented position, wherein at least a portion of the grasping member is spaced-apart from the second end of the housing, and a stored position, wherein the grasping member is approximated relative to the second end of the housing; and a biasing member disposed between the grasping member and the second end of the housing, the biasing member configured to bias the grasping member towards the presented position wherein the grasping member is pivotably coupled to the housing via a hinge and includes a finger ring portion, characterised in that the grasping member further comprises at least one hinge leg, and an extension portion interconnecting the finger ring portion and the at least one hinge leg wherein the housing includes a retainer block and wherein the biasing member is partially-disposed within the retainer block wherein an exposed portion of the biasing member extends from the retainer block, the exposed portion of the biasing member configured to contact the finger ring portion of the grasping member upon movement of the grasping member towards the stored position to bias the grasping member against further movement towards the stored position wherein, in the stored position of the grasping member, the finger ring portion is disposed about the retainer block in surrounding relation therewith. a housing defining a first end and a second end a grasping member coupled to the housing at the second end thereof, the grasping member movable relative to the housing between a presented position, wherein at least a portion of the grasping member is spaced-apart from the second end of the housing, and a stored position, wherein the grasping member is approximated relative to the second end of the housing; and a biasing member disposed between the grasping member and the second end of the housing, the biasing member configured to bias the grasping member towards the presented position wherein the grasping member is pivotably coupled to the housing via a hinge and includes a finger ring portion, characterised in that the grasping member further comprises at least one hinge leg, and an extension portion interconnecting the finger ring portion and the at least one hinge leg wherein the housing includes a retainer block and wherein the biasing member is partially-disposed within the retainer block wherein an exposed portion of the biasing member extends from the retainer block, the exposed portion of the biasing member configured to contact the finger ring portion of the grasping member upon movement of the grasping member towards the stored position to bias the grasping member against further movement towards the stored position wherein, in the stored position of the grasping member, the finger ring portion is disposed about the retainer block in surrounding relation therewith.
An annular safety valve sealing package comprising: an annular safety valve comprising a tubular housing wherein the annular safety valve is configured to allow axial flow of a fluid through an annulus in a first configuration and substantially prevent axial flow of the fluid through the annular safety valve in a second configuration; an intermediate housing; and a plurality of annular sealing elements disposed about the tubular housing, wherein one or more of the plurality of annular sealing elements comprise: a plurality of annular inner cores (211, 212, 213) disposed on the outside of the intermediate housing and comprising a first elastomeric material; and a plurality of outer sealing element layers (201, 202, 203), wherein the outer sealing element layers (201, 202, 203) comprise a second elastomeric material having a composition different from the first elastomeric material, wherein the annular inner cores (211, 212, 213) are surrounded on three sides by the outer sealing element layers (201, 202, 203), respectively. an annular safety valve comprising a tubular housing wherein the annular safety valve is configured to allow axial flow of a fluid through an annulus in a first configuration and substantially prevent axial flow of the fluid through the annular safety valve in a second configuration; an intermediate housing; and a plurality of annular sealing elements disposed about the tubular housing, wherein one or more of the plurality of annular sealing elements comprise: a plurality of annular inner cores (211, 212, 213) disposed on the outside of the intermediate housing and comprising a first elastomeric material; and a plurality of outer sealing element layers (201, 202, 203), wherein the outer sealing element layers (201, 202, 203) comprise a second elastomeric material having a composition different from the first elastomeric material, wherein the annular inner cores (211, 212, 213) are surrounded on three sides by the outer sealing element layers (201, 202, 203), respectively. a plurality of annular inner cores (211, 212, 213) disposed on the outside of the intermediate housing and comprising a first elastomeric material; and a plurality of outer sealing element layers (201, 202, 203), wherein the outer sealing element layers (201, 202, 203) comprise a second elastomeric material having a composition different from the first elastomeric material, wherein the annular inner cores (211, 212, 213) are surrounded on three sides by the outer sealing element layers (201, 202, 203), respectively.
Cooling device for cooling a detector element comprising a Dewar vessel with a jacket cavity and a Joule-Thomson cooler with an expansion noozle which opens into an expansion chamber, wherein the detector element is disposed in the jacket cavity next to the expansion chamber, wherein the cooling device further comprises a final control element that is adjustable depending on the temperature for regulating the flow through the expansion nozzle and a control device for the control and/or regulation of the cooling device, characterized in that the cooling device further comprises a first temperature sensor and a second temperature sensor, wherein said first temperature sensor is disposed in the expansion chamber and said second temperature sensor is disposed within the Dewar vessel outside the expansion chamber and that the control device is configured for detecting a temperature gradient from the sensor values of the first temperature sensor and of the second temperature sensor and for adjusting the final control element depending on the detected temperature gradient to regulate the flow through the expansion nozzle.
A nozzle apparatus for direct energy deposition applications, the nozzle apparatus being axially elongated along a longitudinal axis and comprising: a continuous deposit material passage for conveying deposit material that has a central axis parallel or coincident to said longitudinal axis, the continuous deposit material passage comprising an interface nozzle channel and a nozzle channel provided in a nozzle to convey deposit material therethrough. wherein the nozzle channel is contiguous with the interface nozzle channel; and a continuous shielding gas passage for conveying shielding gas, the continuous shielding gas passage comprising a shielding gas channel and an annular shielding gas passage, wherein the annular shielding gas passage has a central axis that is parallel or coincident to said longitudinal axis and communicates with the shielding gas channel and wherein the annular shielding gas passage surrounds the continuous deposit material passage, characterized in that said annular shielding gas passage has a shroud outlet disposed at a distal shroud end of a shroud nozzle, said shroud outlet being formed between an outer edge of a distal nozzle end of the nozzle and an inner edge of the distal shroud end as an annular ring through which the shielding gas exits axially and wraps the deposit material. a continuous deposit material passage for conveying deposit material that has a central axis parallel or coincident to said longitudinal axis, the continuous deposit material passage comprising an interface nozzle channel and a nozzle channel provided in a nozzle to convey deposit material therethrough. wherein the nozzle channel is contiguous with the interface nozzle channel; and a continuous shielding gas passage for conveying shielding gas, the continuous shielding gas passage comprising a shielding gas channel and an annular shielding gas passage, wherein the annular shielding gas passage has a central axis that is parallel or coincident to said longitudinal axis and communicates with the shielding gas channel and wherein the annular shielding gas passage surrounds the continuous deposit material passage, characterized in that said annular shielding gas passage has a shroud outlet disposed at a distal shroud end of a shroud nozzle, said shroud outlet being formed between an outer edge of a distal nozzle end of the nozzle and an inner edge of the distal shroud end as an annular ring through which the shielding gas exits axially and wraps the deposit material.
A re-closable container of rectangular cross-section for packaging of a liquid, made from a blank of thermoplastic coated paperboard, the blank having score lines for separating foldable panels, including a gable top part being foldable so as to initially, upon filling the container with liquid, form a closed position of the container, with a liquid tight seal between two adjoining upper gable side walls (39,75; 40,74) at said gable top part, said liquid tight seal being breakable manually while also forming an upper spout, formed by a number of spout panels (67,51; 68,52; 53,69,54; 70,55) for dispensing liquid from the container, said spout panels being manually foldable back to a closed position, wherein said two adjoining upper gable side walls (39,75; 40,74), at said gable top part, are provided with a re-closable and re-sealable zip lock fastener with two sealingly interlocking strip profiles (76, 77) of a thermoplastic material, each being attached to an associated one of said upper gable side walls (39,75; 40,74), characterized in that each of said sealingly interlocking strip profiles (76, 77) of said zip lock fastener, at its lower side, is provided with a flexible sealing fin or tube exerting a sealing pressure, when said spout panels are folded back to their closed position, on an upper edge surface (31A,30A) of an associated one (31,68; 30,69) of said spout panels and also on an adjoining spout panel (29,70; 32,67) located next to said associated spout panel when the spout panels are folded back to said closed position, whereby any seepage of liquid from the container is prevented after folding back the spout panels to their closed position.
Fixing element for fixing a thermal insulation panel to the surface of a built structure, wherein the fixing element is tubular, has an anchoring region which extends over a portion of a length of the fixing element and serves for anchoring the fixing element in the surface of a built structure, and a fixing region which extends over a portion of the length of the fixing element different from the anchoring region, wherein the peripheral surfaces or envelope surfaces of the fixing region and the anchoring region are cylindrical and the fixing region and the anchoring region have different diameters, wherein the fixing region serves for fixing the thermal insulation panel to the fixing element and has in the peripheral wall at least one lateral outflow opening for an adhesive, and wherein the fixing region has a larger diameter than the anchoring region, characterised in that the fixing element has a conical transition between the anchoring region and the fixing region as an intermediate region having no outflow opening.
A method of receiving a synchronization signal and physical broadcast channel, SS/PBCH, block, by a user equipment, UE, operating on a frequency band above 6GHz in a wireless communication system, the method comprising: receiving system information including first information related to one or more SS/ PBCH block groups and second information related to one or more SS/PBCH blocks within each of the one or more of SS/PBCH block groups, wherein the first information informs the UE of the one or more SS/PBCH block groups, among a plurality of SS/PBCH block groups, in each of which the one or more SS/PBCH blocks are transmitted, wherein the first information is in a form of a bitmap and a length of the bitmap is 8 bits, wherein each of the one or more SS/PBCH block groups corresponds to each of one or more bits having value '1' in the bitmap, wherein the second information informs the UE of the one or more transmitted SS/PBCH blocks within each of the one or more SS/PBCH block groups, wherein the second information is applied to the each of the one or more SS/PBCH block groups, wherein each of the one or more transmitted SS/PBCH blocks includes a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a PBCH signal; and receiving the SS/PBCH block based on the first information and the second information. receiving system information including first information related to one or more SS/ PBCH block groups and second information related to one or more SS/PBCH blocks within each of the one or more of SS/PBCH block groups, wherein the first information informs the UE of the one or more SS/PBCH block groups, among a plurality of SS/PBCH block groups, in each of which the one or more SS/PBCH blocks are transmitted, wherein the first information is in a form of a bitmap and a length of the bitmap is 8 bits, wherein each of the one or more SS/PBCH block groups corresponds to each of one or more bits having value '1' in the bitmap, wherein the second information informs the UE of the one or more transmitted SS/PBCH blocks within each of the one or more SS/PBCH block groups, wherein the second information is applied to the each of the one or more SS/PBCH block groups, wherein each of the one or more transmitted SS/PBCH blocks includes a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a PBCH signal; and receiving the SS/PBCH block based on the first information and the second information.