mhurhangee/patent-ind-claim-en huggingface dataset:
Device for applying top sheets to palletised loads (P), comprising at least one support for at least one palletised load (P), feeding means for supplying top sheets (C) to be applied to palletised loads (P), suitable for unwinding at least one film reel (B) from which a plurality of said sheets (C) can be obtained, and at least one applicator member suitable for arranging individually each of the top sheets (C) obtained from said reel (B) over the top of the corresponding palletised loads (P), characterized in that said applicator member comprises at least one robotic arm , having at least one operating end , and at least a winding and unwinding member associated with said operating end , said winding and unwinding member being suitable for winding said sheet (C), taken from said reel (B), on a wrapping surface , so as to take on a substantially tube-shaped configuration and then to unwind it over the top of the palletised load (P) in a stretched configuration.
Storage unit of an at last partly automated storage system , with at least one box element , characterised in that the box element is made at least substantially, namely with a total mass percentage and/or total volume percentage of more than 50 %, of a cellulose material, the storage unit comprising at least one coating element that is configured for an at least partial coating of the at least one box element .
An anchor for a replacement heart valve prosthesis, the anchor comprising: a frame for placement on an exterior of a heart, the frame having a generally conical shape and comprising two or more spaced-apart wings (512a-c) extending upwardly from a lower end of the frame ; and a tether attached to the frame , the tether configured to be attached to a replacement heart valve prosthesis ; wherein the spaced-apart wings have a length of between 4cm and 10cm. a frame for placement on an exterior of a heart, the frame having a generally conical shape and comprising two or more spaced-apart wings (512a-c) extending upwardly from a lower end of the frame ; and a tether attached to the frame , the tether configured to be attached to a replacement heart valve prosthesis ; wherein the spaced-apart wings have a length of between 4cm and 10cm.
A heat exchanger comprising: - a primary side ; - a secondary side ; - at least one primary structure on the primary side defining at least one primary space on the primary side ; and - at least one secondary structure on the secondary side defining at least one secondary space on the secondary side ; wherein one or more of the at least one primary structure and one or more of the at least one secondary structure delimit a coolant volume separated from the at least one primary space and separated from the at least one secondary space ; wherein one or more of the at least one primary structure and/or one or more of the at least one secondary structure comprises a three dimensional lattice body; and characterised in that the heat exchanger further comprises a separation structure providing a fluid tight seal between the at least one primary space on the primary side and the at least one secondary space on the secondary side , and wherein the separation structure is configured to allow coolant of the coolant volume to flow between the primary side and the secondary side . - a primary side ; - a secondary side ; - at least one primary structure on the primary side defining at least one primary space on the primary side ; and - at least one secondary structure on the secondary side defining at least one secondary space on the secondary side ; wherein one or more of the at least one primary structure and one or more of the at least one secondary structure delimit a coolant volume separated from the at least one primary space and separated from the at least one secondary space ; wherein one or more of the at least one primary structure and/or one or more of the at least one secondary structure comprises a three dimensional lattice body; and characterised in that the heat exchanger further comprises a separation structure providing a fluid tight seal between the at least one primary space on the primary side and the at least one secondary space on the secondary side , and wherein the separation structure is configured to allow coolant of the coolant volume to flow between the primary side and the secondary side .
A method of wireless communication, comprising: determining a transmission configuration for demodulation reference signals, DMRS, in a subframe of each of a plurality of served user equipments, UEs, wherein the transmission configuration includes a combination of at least a cyclic shift, CS, an orthogonal cover code, OCC, and a comb value; and dynamically signaling the transmission configuration to each of the plurality of served UEs, wherein at least one of the transmission configurations assigns a first comb value for a first slot of the subframe and a second comb value for a second slot of the subframe that is different than the first comb value, wherein the dynamic signaling includes dynamically transmitting the transmission configuration in an uplink grant to each of the plurality of served UEs, and characterized by , the transmission configuration is signaled via a joint coding of the cyclic shift, the OCC, and the first and the second comb values. determining a transmission configuration for demodulation reference signals, DMRS, in a subframe of each of a plurality of served user equipments, UEs, wherein the transmission configuration includes a combination of at least a cyclic shift, CS, an orthogonal cover code, OCC, and a comb value; and dynamically signaling the transmission configuration to each of the plurality of served UEs, wherein at least one of the transmission configurations assigns a first comb value for a first slot of the subframe and a second comb value for a second slot of the subframe that is different than the first comb value, wherein the dynamic signaling includes dynamically transmitting the transmission configuration in an uplink grant to each of the plurality of served UEs, and characterized by , the transmission configuration is signaled via a joint coding of the cyclic shift, the OCC, and the first and the second comb values.
A membrane structure comprising cellulose microfibers and an inorganic layered compound, cellulose constituting the cellulose microfibers having a carboxyl content of 0.1 to 3 mmol/g, and the mass ratio of the inorganic layered compound to the cellulose microfibers being 0.01 to 100, wherein the cellulose microfibers have an average fiber diameter of 200 nm or smaller.
2- oxo-1-imidazolidinyl imidazothiadiazole derivatives according to formula (I), their geometrical isomers, enantiomers, diastereomers, isotopes and mixtures, or a pharmaceutically acceptable salt thereof, wherein R 1 is a C 1-4 alkyl optionally substituted by one or more halogen substituents; R 2 is a C 1-4 alkyl substituted by an alkoxy substituent. R 1 is a C 1-4 alkyl optionally substituted by one or more halogen substituents; R 2 is a C 1-4 alkyl substituted by an alkoxy substituent.
A method for hybrid automatic repeat request, HARQ, timing in full duplex radio, FDR, in a wireless transmit/receive unit, WTRU, the method comprising: receiving, by the WTRU, an indication of a time division duplex, TDD, uplink/downlink, UL/DL, configuration associated with a first HARQ process timing, the method being characterised by receiving, by the WTRU, a downlink, DL, grant in a DL subframe, wherein the WTRU is configured with two or more search spaces for receiving DL control channels; applying, by the WTRU, the first HARQ process timing to a first HARQ process on a condition that the DL grant is received in a first search space of the two or more search spaces; and applying, by the WTRU, a second HARQ process timing to a the HARQ process on a condition that the DL grant is received in a second search space of the two or more search spaces. receiving, by the WTRU, an indication of a time division duplex, TDD, uplink/downlink, UL/DL, configuration associated with a first HARQ process timing, the method being characterised by receiving, by the WTRU, a downlink, DL, grant in a DL subframe, wherein the WTRU is configured with two or more search spaces for receiving DL control channels; applying, by the WTRU, the first HARQ process timing to a first HARQ process on a condition that the DL grant is received in a first search space of the two or more search spaces; and applying, by the WTRU, a second HARQ process timing to a the HARQ process on a condition that the DL grant is received in a second search space of the two or more search spaces.
Foil balloon adaptor part having a fastening portion for fastening to the foil balloon and having a guide portion for guidance in a guide rail of an automatic foil balloon dispenser , wherein the fastening portion and the guide portion are connected, wherein the fastening portion and the guide portion are each formed as hollow bodies having an internal flow path for gas which inflates the foil balloon , and the fastening portion has an outflow opening for the gas, wherein the fastening portion and the guide portion are connected detachably and via a string , characterized in that at least one retaining arm for retaining the foil balloon in the folded or rolled-up state is arranged on the adaptor part .
Cleaning device for cleaning items to be cleaned , comprising at least one cleaning chamber and at least one covering device at least partially surrounding the cleaning chamber , wherein the covering device can be moved in an opening movement direction from a closed position into an open position or in a closing movement direction from an open position into a closed position by means of at least one electromechanical drive via at least one transmission , wherein the cleaning device furthermore has a sensor , wherein the sensor is designed to detect action of a manual force on the covering device in the opening movement direction or in the closing movement direction , and wherein the cleaning device is furthermore designed to control the electromechanical drive in accordance with the detection of the action of manual force, characterized in that the cleaning device is designed in at least one of the following ways: the cleaning device is designed to detect an action of manual force in the opening movement direction and to control the electromechanical drive in such a way that the covering device is moved in the opening movement direction ; the cleaning device is designed to detect an action of manual force in the closing movement direction and to control the electromechanical drive in such a way that the covering device is moved in the closing movement direction .
A method of dicing a wiring substrate , the wiring substrate including a core substrate having at least one core surface on which an adhesive layer and a rim pattern are formed, the adhesive layer being provided with a laminate that has at least one wiring layer and at least one insulating layer , the rim pattern being provided with the insulating layer laminated thereon, wherein the adhesive layer and the rim pattern are each formed of a film of Ti, Cr, Ni, Cu or alloys thereof, or metallic peroxides, with a thickness of about 0.1 μm to 10 μm, respectively imparting adhesion between the wiring layer and the core substrate and between the insulating layer and the core substrate , characterized in that the method comprises: a step of forming separation grooves having respective groove bottoms where the rim pattern is exposed, by removing portions of the insulating layer laminated on the rim pattern ; a step of exposing the core surface of the core substrate by dissolving and removing the rim pattern of the groove bottoms ; and a step of dicing the core substrate exposed at the groove bottoms , along cutting margins each being smaller than a groove width of each of the groove bottoms. a step of forming separation grooves having respective groove bottoms where the rim pattern is exposed, by removing portions of the insulating layer laminated on the rim pattern ; a step of exposing the core surface of the core substrate by dissolving and removing the rim pattern of the groove bottoms ; and a step of dicing the core substrate exposed at the groove bottoms , along cutting margins each being smaller than a groove width of each of the groove bottoms.
A tower comprising: a section including a shell having an inner surface defining at least a portion of a volume ; and an auxiliary component at least partially disposed in the volume , the auxiliary component including a first coupling secured to the section , a body flexibly secured to the section via first coupling, a second coupling secured to the inner surface of the shell , and a linkage arm formed of a substantially rigid material and formed as a unitary body, the linkage arm having a first end portion and a second end portion opposite the first end portion , the first end portion of the linkage arm mechanically coupled to the body , the second end portion of the linkage arm mechanically coupled to the inner surface of the shell via the second coupling , wherein a first force exerted by the auxiliary component on the section via the first coupling is substantially perpendicular to a normal component of a second force exerted by the auxiliary component on the inner surface of the shell via the second coupling and, at the second coupling , the linkage arm is flexible in a direction perpendicular to the normal component of the second force, characterized in that the first end portion and the second end portion each having a respective thin dimension and a respective thick dimension along the length of the linkage arm , the linkage arm twisted along its length with the thick dimension of the first end portion and the thick dimension of the second end portion are positioned relative to a respective direction of preferred flexing of the linkage arm relative to one of the first coupling and the second coupling . a section including a shell having an inner surface defining at least a portion of a volume ; and an auxiliary component at least partially disposed in the volume , the auxiliary component including a first coupling secured to the section , a body flexibly secured to the section via first coupling, a second coupling secured to the inner surface of the shell , and a linkage arm formed of a substantially rigid material and formed as a unitary body, the linkage arm having a first end portion and a second end portion opposite the first end portion , the first end portion of the linkage arm mechanically coupled to the body , the second end portion of the linkage arm mechanically coupled to the inner surface of the shell via the second coupling , a first coupling secured to the section , a body flexibly secured to the section via first coupling, a second coupling secured to the inner surface of the shell , and a linkage arm formed of a substantially rigid material and formed as a unitary body, the linkage arm having a first end portion and a second end portion opposite the first end portion , the first end portion of the linkage arm mechanically coupled to the body , the second end portion of the linkage arm mechanically coupled to the inner surface of the shell via the second coupling ,
An environmentally protected switch for activating an electronic device in the presence of a conductive fluid, the switch comprising a hollow elongate housing defining an open end and a flexible insulated two conductor cable , each of said conductors coupleable at a first end to the electronic device, characterized in that : a partition divides said elongate housing longitudinally into two elongate chambers ; and said two conductor cable is terminated at a second end by a respective one of a pair of probes wherein each of said probes is positioned in a respective one of said elongate chambers and at an end opposite said opening; wherein upon submersion of said elongate housing into the conductive fluid, the fluid penetrates each of said chambers, the conductive fluid electrically interconnecting said first probe and said second probe to enable an electrical current to flow between said first probe and said second probe for closing an electrical path and activating the electronic device. a partition divides said elongate housing longitudinally into two elongate chambers ; and said two conductor cable is terminated at a second end by a respective one of a pair of probes wherein each of said probes is positioned in a respective one of said elongate chambers and at an end opposite said opening; wherein upon submersion of said elongate housing into the conductive fluid, the fluid penetrates each of said chambers, the conductive fluid electrically interconnecting said first probe and said second probe to enable an electrical current to flow between said first probe and said second probe for closing an electrical path and activating the electronic device.
Detection system for detecting the onset of enteric diseases in livestock, comprising: - a sensor device comprising suction means configured for suctioning air from an environment with said livestock, wherein said environment is a stable for pigs or a chicken coop, sensor means configured to determine information about the type and concentration of a plurality of smelling molecules in said air and further configured to emit a signal representative of said information of smelling molecules; - a transmission device configured to convey said signal representative of smelling molecules; - a processing device of the self-learning type configured to receive and process said signal representative of smelling molecules, detecting a risk of enteric diseases in said livestock associated with said information about the type and concentration of said smelling molecules before said enteric diseases arise; - a signaling device configured to report to a user said risk of enteric diseases in said livestock, wherein said processing device further comprises a memory adapted to contain reference data by type and concentration of smelling molecules for enteric disease cases in said livestock, and a processor adapted to compare said information about the type and concentration of said smelling molecules with said reference data, wherein said sensor means comprise at least three MOS sensors for gases adapted to identify nitrogen oxides, CH 4 and light hydrocarbons, sulfur compounds, CO and aromatics. - a sensor device comprising suction means configured for suctioning air from an environment with said livestock, wherein said environment is a stable for pigs or a chicken coop, sensor means configured to determine information about the type and concentration of a plurality of smelling molecules in said air and further configured to emit a signal representative of said information of smelling molecules; - a transmission device configured to convey said signal representative of smelling molecules; - a processing device of the self-learning type configured to receive and process said signal representative of smelling molecules, detecting a risk of enteric diseases in said livestock associated with said information about the type and concentration of said smelling molecules before said enteric diseases arise; - a signaling device configured to report to a user said risk of enteric diseases in said livestock,
A method of producing an NTP-PEG-DNA conjugate comprising: (i) conjugating aminoallyl nucleoside triphosphate (aa-NTP) with a N-hydroxysuccinimide (NHS)-PEG-maleimide (NHS-PEG) forming NTP-PEG-maleimide (NTP-PEG); (ii) conjugating a DNA oligonucleotide functionalized with a reduced thiol (thiol-DNA) with the maleimide on the NTP-PEG forming NTP-PEG-DNA; and (iii) purifying the NTP-PEG-DNA conjugate. (i) conjugating aminoallyl nucleoside triphosphate (aa-NTP) with a N-hydroxysuccinimide (NHS)-PEG-maleimide (NHS-PEG) forming NTP-PEG-maleimide (NTP-PEG); (ii) conjugating a DNA oligonucleotide functionalized with a reduced thiol (thiol-DNA) with the maleimide on the NTP-PEG forming NTP-PEG-DNA; and (iii) purifying the NTP-PEG-DNA conjugate.
A kit for detecting at least one non-nucleic acid target analyte and at least one target nucleic acid in the same vessel, comprising at least one ligase, at least one proximity detection probe set, at least one primer, at least one detector probe, at least one polymerase, at least one analyte normalizer control which is not a nucleic acid, and at least one nucleic acid normalizer control.
A method for controlling movement of an unmanned aerial vehicle , UAV, having one or more propulsion units , the method comprising: (a) outputting , from one or more processors, control signals to the one or more propulsion units to cause UAV to operate according to a first set of altitude restrictions, wherein the first set of altitude restrictions constrain altitude of the UAV relative to a first reference altitude; (b) assessing , with aid of the one or more processors and based on one or more criteria, whether the UAV should operate according to a second set of altitude restrictions; and (c) outputting , from the one or more processors, control signals to the one or more propulsion units to cause the UAV to operate according to the second set of altitude restrictions if the one or more criteria are fulfilled according to the assessment of (b), wherein the second set of altitude restrictions constrain altitude of the UAV relative to a second reference altitude; characterised in that the first reference altitude is the altitude at sea level and the second reference altitude is the altitude at ground level at a current location of the UAV , and wherein, compared to the first set of altitude restrictions, the second set of altitude restrictions defines (i) a different minimum altitude limit , or (ii) a different maximum altitude limit , and wherein the one or more criteria comprise whether a current altitude of the UAV has exceeded a predetermined altitude threshold. (a) outputting , from one or more processors, control signals to the one or more propulsion units to cause UAV to operate according to a first set of altitude restrictions, wherein the first set of altitude restrictions constrain altitude of the UAV relative to a first reference altitude; (b) assessing , with aid of the one or more processors and based on one or more criteria, whether the UAV should operate according to a second set of altitude restrictions; and (c) outputting , from the one or more processors, control signals to the one or more propulsion units to cause the UAV to operate according to the second set of altitude restrictions if the one or more criteria are fulfilled according to the assessment of (b), wherein the second set of altitude restrictions constrain altitude of the UAV relative to a second reference altitude;
A method of forming cross-linked reduced graphene oxide including: irradiating graphene oxide (GO) in a graphene oxide solution containing cross-linker, with a beam of light or radiation wherein the irradiation cross-links and reduces the GO.