mhurhangee/ep-ind-claims huggingface dataset:
A panel assembly for a composite skin of an aircraft wing, the panel assembly comprising: a panel; a stringer comprising a stringer foot and an upstanding stringer web, wherein the stringer foot comprises a flange (3a,3b) which extends in a widthwise direction between the stringer web and a lateral edge (5a,5b) and in a lengthwise direction alongside the stringer web, wherein the stringer extends in the lengthwise direction between a pair of ends, and wherein one of the ends of the stringer comprises a foot run-out (9a,9b) which extends in the lengthwise direction between the flange (3a,3b) and a tip of the stringer foot, wherein the foot run-out (9a,9b) is bonded to the panel at a foot run-out interface; and reinforcement elements which pass through the foot run-out interface, wherein the reinforcement elements are distributed across the foot run-out interface in a series of rows including an end row nearest to the tip of the stringer foot and further rows spaced progressively further from the tip of the stringer foot in the lengthwise direction, and wherein at least the end row comprises three or more of the reinforcement elements which are distributed along a polygonal curve which is not a straight line. a panel; a stringer comprising a stringer foot and an upstanding stringer web, wherein the stringer foot comprises a flange (3a,3b) which extends in a widthwise direction between the stringer web and a lateral edge (5a,5b) and in a lengthwise direction alongside the stringer web, wherein the stringer extends in the lengthwise direction between a pair of ends, and wherein one of the ends of the stringer comprises a foot run-out (9a,9b) which extends in the lengthwise direction between the flange (3a,3b) and a tip of the stringer foot, wherein the foot run-out (9a,9b) is bonded to the panel at a foot run-out interface; and reinforcement elements which pass through the foot run-out interface, wherein the reinforcement elements are distributed across the foot run-out interface in a series of rows including an end row nearest to the tip of the stringer foot and further rows spaced progressively further from the tip of the stringer foot in the lengthwise direction, and wherein at least the end row comprises three or more of the reinforcement elements which are distributed along a polygonal curve which is not a straight line.
A method for wireless communications by a user equipment, UE, comprising: determining frequency resources within one or more configured narrowband, NB, regions of a system bandwidth to monitor for a transmission, wherein the determination is based on a resource allocation received from a base station, BS, using a start NB region and a bitmap; and monitoring for the transmission on the determined frequency resources within the one or more narrowband regions of the system bandwidth. determining frequency resources within one or more configured narrowband, NB, regions of a system bandwidth to monitor for a transmission, wherein the determination is based on a resource allocation received from a base station, BS, using a start NB region and a bitmap; and monitoring for the transmission on the determined frequency resources within the one or more narrowband regions of the system bandwidth.
Lighting system for uniform light output, with a light guide unit; the light guide unit comprises: a light guide plate; several structures arranged on the light guide plate for decoupling light from the light guide plate, wherein the structures are cuboid-like and/or cylinder-like and designed in such a way that light can only exit at flanks of the structures; wherein the lighting system additionally comprises: at least one light unit mounted on a side surface of the light guide plate for the introduction of light into the light guide plate; and a glare suppression unit which is mounted on the light guide unit and on which are arranged several collimating elements; wherein to each structure is assigned a collimating element; and wherein each collimating element is designed to deflect, by total reflection, light that exits at the flanks of the structure assigned to it so that the light exits the lighting system; wherein each collimating element comprises an opening; and each structure projects into the collimating element assigned to it, wherein each structure is completely accommodated in the collimating element assigned to it, and wherein the collimating elements have the outer shape of cones cut off at the top with a circular base surface or of pyramids cut off at the top with a rectangular base surface, wherein an opening for completely accommodating the structures is formed on the surface, produced by the cut, of each collimating element. a light guide plate; several structures arranged on the light guide plate for decoupling light from the light guide plate, wherein the structures are cuboid-like and/or cylinder-like and designed in such a way that light can only exit at flanks of the structures; wherein the lighting system additionally comprises: at least one light unit mounted on a side surface of the light guide plate for the introduction of light into the light guide plate; and a glare suppression unit which is mounted on the light guide unit and on which are arranged several collimating elements; at least one light unit mounted on a side surface of the light guide plate for the introduction of light into the light guide plate; and a glare suppression unit which is mounted on the light guide unit and on which are arranged several collimating elements; wherein to each structure is assigned a collimating element; and wherein each collimating element is designed to deflect, by total reflection, light that exits at the flanks of the structure assigned to it so that the light exits the lighting system; wherein each collimating element comprises an opening; and each structure projects into the collimating element assigned to it, wherein each structure is completely accommodated in the collimating element assigned to it, and wherein the collimating elements have the outer shape of cones cut off at the top with a circular base surface or of pyramids cut off at the top with a rectangular base surface, wherein an opening for completely accommodating the structures is formed on the surface, produced by the cut, of each collimating element.
A print apparatus comprising: a print head for ejecting ink to a print medium (W,51); a belt on which the print medium (W, 51) is capable of being mounted; a driving section configured to transport the print medium, when mounted on the belt, by moving the belt; a specifying section configured to specify the print head to be adjusted using a test pattern; a position indication section configured to instruct a position of the print medium when the test pattern is printed on the print medium; and a driving controller configured to control the driving section, wherein the driving controller adjusts a position of the print medium by controlling the driving section relative to the print head to be adjusted specified by the specifying section; and wherein the print head is configured to perform printing on a first print medium for image printing and a second print medium which is the print medium on which the test pattern is to be printed and which is different from the first print medium, wherein the driving controller moves the belt in a first direction so as to transport the first print medium when the print head prints an image on the first print medium, and characterised in that the belt is moved in a second direction which is different from the first direction when the second print medium is moved to a position of the print head specified by the specifying section so that the test pattern is printed. a print head for ejecting ink to a print medium (W,51); a belt on which the print medium (W, 51) is capable of being mounted; a driving section configured to transport the print medium, when mounted on the belt, by moving the belt; a specifying section configured to specify the print head to be adjusted using a test pattern; a position indication section configured to instruct a position of the print medium when the test pattern is printed on the print medium; and a driving controller configured to control the driving section, wherein the driving controller adjusts a position of the print medium by controlling the driving section relative to the print head to be adjusted specified by the specifying section; and wherein the print head is configured to perform printing on a first print medium for image printing and a second print medium which is the print medium on which the test pattern is to be printed and which is different from the first print medium, wherein the driving controller moves the belt in a first direction so as to transport the first print medium when the print head prints an image on the first print medium, and characterised in that the belt is moved in a second direction which is different from the first direction when the second print medium is moved to a position of the print head specified by the specifying section so that the test pattern is printed.
A method for deriving data and monitoring in a power distribution network, comprising the steps of: configuring a protective relay, through a protective relay interface, to receive power system data from a plurality of source points (50, 52, 54, 56), characterised by each source point (50, 52, 54, 56) being defined based on one or more of current transformers (14, 16, 18, 19) and voltage transformers associated with the power distribution network; sensing system parameter levels at the source points (50, 52, 54, 56); performing network monitoring in the protective relay based on the sensed system parameter levels, including combining multiple system parameter levels from different source points (50, 52, 54, 56) in the protective relay; and performing protection for a power system element (50P, 87T, 50BF) in the power distribution network based on the network parameters monitored by the protective relay. configuring a protective relay, through a protective relay interface, to receive power system data from a plurality of source points (50, 52, 54, 56), characterised by each source point (50, 52, 54, 56) being defined based on one or more of current transformers (14, 16, 18, 19) and voltage transformers associated with the power distribution network; sensing system parameter levels at the source points (50, 52, 54, 56); performing network monitoring in the protective relay based on the sensed system parameter levels, including combining multiple system parameter levels from different source points (50, 52, 54, 56) in the protective relay; and performing protection for a power system element (50P, 87T, 50BF) in the power distribution network based on the network parameters monitored by the protective relay.
A method for enhancing Slow Associated Control Channel, SACCH, performance, the method comprising: if a user that uses a half-rate Traffic Channel, TCH, is contained in a paired user group, receiving, from a base station, information instructing the user on a Voice services over Adaptive Multi-user channels on One Slot, VAMOS, sub-channel to use a half-rate sub-channel 0 and a half-rate sub-channel 1 alternately; if the current 26-multiframe is an even frame in an SACCH period, transmitting, by the user on the VAMOS sub-channel, a TCH frame and an SACCH frame over the originally allocated half-rate sub-channel; and if the current 26-multiframe is an odd frame in an SACCH period, transmitting, by the user on the VAMOS sub-channel, the TCH frame and the SACCH frame after swapping the user's own half-rate sub-channels. if a user that uses a half-rate Traffic Channel, TCH, is contained in a paired user group, receiving, from a base station, information instructing the user on a Voice services over Adaptive Multi-user channels on One Slot, VAMOS, sub-channel to use a half-rate sub-channel 0 and a half-rate sub-channel 1 alternately; if the current 26-multiframe is an even frame in an SACCH period, transmitting, by the user on the VAMOS sub-channel, a TCH frame and an SACCH frame over the originally allocated half-rate sub-channel; and if the current 26-multiframe is an odd frame in an SACCH period, transmitting, by the user on the VAMOS sub-channel, the TCH frame and the SACCH frame after swapping the user's own half-rate sub-channels.
Fence subassembly capable of being transformed into a flood barrier and comprising frame modules, load-bearing elements and spans, wherein the frame modules comprise a straight frame module ( 1, 1a) and a corner frame module, the load-bearing elements comprise load-bearing piles ( 3a, 3b, 3c) mounted on a foundation settled in the ground and a span is mounted between the load-bearing piles ( 3a, 3b) of the straight frame module ( 1, 1a) by means of a support and a rod and wherein the frame modules ( 1, 1a) and are interconnected with a bolt, said fence subassembly being characterized in that it further comprises pins which are mounted atop the frame modules ( 1, 1a) and and support, in use, a flexible sealing material tightly mounted onto a dedicated sealing fixture ( 10, 11) founded in the ground.
A load-balancing device for an articulated arm able to receive a load (M, M') having a weight ( m P, m' P), the balancing device comprising a support system able to be fastened to a stationary element of the articulated arm, and an actuator element able to be attached to a movable input element of the articulated arm, the balancing device further comprising a lever arm able to exert a force on the actuator element in order to apply said force on the input element of the articulated arm, the lever arm having an adjustable length (l LI) as a function of the weight ( m P, m' P) of the load (M, M'), the balancing device further comprising an energy storage system for storing at least part of the work of the force exerted by the lever arm on the actuator element, characterized in that the support system comprises a first sliding connection and a second sliding connection, a first part of the first sliding connection being connected to a first part of the second sliding connection, and secured to said first part of the second sliding connection, a second part of the second sliding connection, translatable relative to the first part of the second sliding connection being able to be fastened to the stationary element of the articulated arm, a second part of the first sliding connection, translatable relative to the first part of the first sliding connection being connected to an extremity of the lever arm by a pivot link.
An electronic device comprising: - a debug port providing a communications interface for debugging purposes; - a first processing unit; - one or more processing unit access ports (AP1, APn) coupled to the debug port, a first of the processing unit access ports being coupled between the debug port and the first processing unit, each of the one or more processing unit access ports (AP1, APn) being configured to be in one of an open state in which it relays communications to and from the debug port and a closed state in which it blocks communications to and from the debug port; - an authentication interface circuit configured to authenticate an external device; and - a further access port coupled between the debug port and the authentication interface circuit, the further access port being configured to be in an open state in which communications are relayed between the debug port and the authentication interface circuit, the authentication interface circuit comprising registers including a status register capable of being read by the external device via the debug port and the further access port, the status register being configured to store an indication of the open or closed state of each of the processing unit access ports (AP1, APn). - a debug port providing a communications interface for debugging purposes; - a first processing unit; - one or more processing unit access ports (AP1, APn) coupled to the debug port, a first of the processing unit access ports being coupled between the debug port and the first processing unit, each of the one or more processing unit access ports (AP1, APn) being configured to be in one of an open state in which it relays communications to and from the debug port and a closed state in which it blocks communications to and from the debug port; - an authentication interface circuit configured to authenticate an external device; and - a further access port coupled between the debug port and the authentication interface circuit, the further access port being configured to be in an open state in which communications are relayed between the debug port and the authentication interface circuit, the authentication interface circuit comprising registers including a status register capable of being read by the external device via the debug port and the further access port, the status register being configured to store an indication of the open or closed state of each of the processing unit access ports (AP1, APn).
A method for producing a monolithic electromagnetic component comprising several elements including a base made from spinel ferrite and at least one planar coil (14, 14B) comprising several turns, one of the elements of the monolithic electromagnetic component being a dielectric material, characterized in that it comprises the following steps: - during an initial step, a precursor of the ferrite is obtained, the precursor of the ferrite being a mixture of oxides which do no exhibit a spinel formed phase, the granulometry of the oxides being at most 5 μm, - during a preparation step, in a mold, the elements of the monolithic electromagnetic component, including said at least one coil (14, 14B) and other than the ferrites, are submerged in the precursor, and - during a co-sintering step, said precursor is secured with the other elements of the monolithic electromagnetic component, including said at least one coil (14, 14B), by co-sintering under a load by pulsed electric current. - during an initial step, a precursor of the ferrite is obtained, the precursor of the ferrite being a mixture of oxides which do no exhibit a spinel formed phase, the granulometry of the oxides being at most 5 μm, - during a preparation step, in a mold, the elements of the monolithic electromagnetic component, including said at least one coil (14, 14B) and other than the ferrites, are submerged in the precursor, and - during a co-sintering step, said precursor is secured with the other elements of the monolithic electromagnetic component, including said at least one coil (14, 14B), by co-sintering under a load by pulsed electric current.
A grinding machine with a truing device, comprising: a truer adapted to correct a shape of a grinding wheel; and a swivel table that supports the truer such that the truer is swivelable about an axis that is perpendicular to a central axis (Aw) of the grinding wheel; characterized by detecting means adapted to directly detect a distance from a truing edge position of the truer, which contacts the grinding wheel during correction of the shape of the grinding wheel, to a swivel center of the swivel table; and control means adapted to control the truing edge position of the truer relative to the grinding wheel based on the distance detected by the detecting means to true the grinding wheel. a truer adapted to correct a shape of a grinding wheel; and a swivel table that supports the truer such that the truer is swivelable about an axis that is perpendicular to a central axis (Aw) of the grinding wheel; characterized by detecting means adapted to directly detect a distance from a truing edge position of the truer, which contacts the grinding wheel during correction of the shape of the grinding wheel, to a swivel center of the swivel table; and control means adapted to control the truing edge position of the truer relative to the grinding wheel based on the distance detected by the detecting means to true the grinding wheel.
Holding device for a mobile device, comprising a flexible material, wherein at least one positioning feature is provided which is configured to prevent the mobile device from slipping out of the holding device, and further comprising a tensioning strap being connected to the flexible material which is configured to pull the positioning feature towards an abutment being formed in the holding device in order to reliably hold the mobile device within the holding device, characterized in that the abutment is a fold in the flexible material which is formed by tightening the tensioning strap and in that the flexible material is a non-elastic material and the tensioning strap is elastic.
A process for producing (meth)acrylic acid, comprising a first step of producing (meth)acrolein as a main product from at least one reaction material selected from the group consisting of propylene, isobutylene, t-butyl alcohol and methyl-t-butyl ether, and a second step of producing (meth)acrylic acid from the (meth)acrolein, wherein yield of (meth)acrylic acid in the product of the first step is 20 mole % or higher, wherein a Mo-Bi-Nb-Te based composite metal oxide represented by the following Formula 1 is used as the first-step catalyst: [Formula 1] Moa Bib Nbc Ted Fef Cog Kj Ok, wherein Mo represents molybdenum, Bi represents bismuth, Nb represents niobium, and Te represents tellurium, Fe represents iron, Co represents cobalt, K represents potassium, and O represents oxygen; each of a, b, c, d, f, g, and k represents the atomic ratio of each element; wherein when a=12, b is 0.01 ∼ 20, c is 0.001 ∼ 20, d is 0.001 ∼ 20, f is 1.2, g is 4.5 or 5, j is 0.05, and k is a number defined by the oxidation state of each of the above elements.
A quantum dot nanoparticle comprising: a core comprising a semiconductor material comprising indium, phosphorus, and at least one element selected from the group consisting of magnesium, calcium and aluminum, wherein the quantum dot nanoparticle is a heavy metal-free quantum dot nanoparticle that emits light in the green region of the spectrum. a core comprising a semiconductor material comprising indium, phosphorus, and at least one element selected from the group consisting of magnesium, calcium and aluminum, wherein the quantum dot nanoparticle is a heavy metal-free quantum dot nanoparticle that emits light in the green region of the spectrum.