mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting uplink control information, UCI, on a physical uplink control channel, PUCCH, by a user equipment, UE, in a wireless communication system using carrier aggregation, the method comprising: generating UCI information bits comprising a scheduling request, SR, bit and hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits for a plurality of component carriers, CCs, wherein the SR bit is located at the end of the UCI information bits; performing channel coding on the UCI information bits to generate encoded information bits; modulating the encoded information bits to generate modulation symbols; spreading the modulation symbols with an orthogonal code; and transmitting the spread modulation symbols to a base station on the PUCCH. generating UCI information bits comprising a scheduling request, SR, bit and hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits for a plurality of component carriers, CCs, wherein the SR bit is located at the end of the UCI information bits; performing channel coding on the UCI information bits to generate encoded information bits; modulating the encoded information bits to generate modulation symbols; spreading the modulation symbols with an orthogonal code; and transmitting the spread modulation symbols to a base station on the PUCCH.
A retractable cord reel apparatus, the apparatus comprising a housing , a spool within and arranged for rotation relative to the housing, wherein the spool is axially divided into a plurality of chambers , said spool defining a rotating aperture mounted on the rotating spool near the axis of spool rotation, a single, continuous cord traversing the interior of the housing and the plurality of chambers and terminating in retractable and stationary ends external to the housing, characterized in that within a first of the plurality of chambers , the cord comprises a retractable coil encased within a conduit having a substantially circular cross section, the conduit wound around the axis of the spool and attached at its periphery to said retractable end through an aperture in the housing, wherein, within a second of said chambers , the cord is separated from the conduit and comprises an expandable coil wound around the axis of the spool, said expandable coil having first and second ends, said expandable coil having its first end attached to the housing wherein, during retraction of the cord from the first chamber, the expandable coil expands towards the perimeter of the second chamber, after which, the expandable coil winds back into the core of the second chamber wound in a direction opposite that which it began, wherein the expandable coil enters the core of the second chamber through a rotating aperture arranged for rotation about its own axis, and wherein the rotating aperture rotates to accommodate the changing trajectory of the expandable coil. comprising a housing , a spool within and arranged for rotation relative to the housing, wherein the spool is axially divided into a plurality of chambers , said spool defining a rotating aperture mounted on the rotating spool near the axis of spool rotation, a single, continuous cord traversing the interior of the housing and the plurality of chambers and terminating in retractable and stationary ends external to the housing, characterized in that within a first of the plurality of chambers , the cord comprises a retractable coil encased within a conduit having a substantially circular cross section, the conduit wound around the axis of the spool and attached at its periphery to said retractable end through an aperture in the housing, wherein, within a second of said chambers , the cord is separated from the conduit and comprises an expandable coil wound around the axis of the spool, said expandable coil having first and second ends, said expandable coil having its first end attached to the housing wherein, during retraction of the cord from the first chamber, the expandable coil expands towards the perimeter of the second chamber, after which, the expandable coil winds back into the core of the second chamber wound in a direction opposite that which it began, wherein the expandable coil enters the core of the second chamber through a rotating aperture arranged for rotation about its own axis, and wherein the rotating aperture rotates to accommodate the changing trajectory of the expandable coil.
A wind turbine comprising a functional module , the functional module comprising a fastening element configured to detachably fasten the functional module to the wind turbine in a predetermined position, wherein the functional module is removable from the predetermined position, when the fastening element is unfastened; a cover configured to form part of a housing of the wind turbine , when the functional module is in the predetermined position; wherein the functional module is configured to carry out a function contributing to the operation of the wind turbine , when the functional module is in the predetermined position; wherein the cover is configured to cover an opening in the housing , when the functional module is in the predetermined position, a fluid conduit configured to transport a fluid to or from parts of the functional module or of the wind turbine; and a fluid opening arranged to a side of the functional module and connected to the fluid conduit , characterized in that the fluid opening is positioned adjacent to a corresponding fluid opening in the housing , when the functional module is in the predetermined position. wherein the functional module is removable from the predetermined position, when the fastening element is unfastened; a cover configured to form part of a housing of the wind turbine , when the functional module is in the predetermined position; wherein the functional module is configured to carry out a function contributing to the operation of the wind turbine , when the functional module is in the predetermined position; wherein the cover is configured to cover an opening in the housing , when the functional module is in the predetermined position, a fluid conduit configured to transport a fluid to or from parts of the functional module or of the wind turbine; and a fluid opening arranged to a side of the functional module and connected to the fluid conduit , characterized in that the fluid opening is positioned adjacent to a corresponding fluid opening in the housing , when the functional module is in the predetermined position.
A kit for plantar plate repair, comprising: an implant assembly comprising an implant , an implant inserter , a first suture shuttle , and a second suture shuttle , wherein the implant comprises a dorsal head , a body extending from the head, a first longitudinal cannulation , a second longitudinal cannulation beside the first longitudinal cannulation, and a septum , wherein the implant inserter is coupled to the dorsal head of the implant , and wherein the first suture shuttle extends within the first longitudinal cannulation , wherein the second suture shuttle extends within the second longitudinal cannulation , wherein the first and second suture shuttles protrude from a plantar end of the implant opposite the dorsal head ; characterized in that the first longitudinal cannulation and the second longitudinal cannulation extend through the implant and are separated by the septum which extends the full length of the implant . an implant assembly comprising an implant , an implant inserter , a first suture shuttle , and a second suture shuttle , wherein the implant comprises a dorsal head , a body extending from the head, a first longitudinal cannulation , a second longitudinal cannulation beside the first longitudinal cannulation, and a septum , wherein the implant inserter is coupled to the dorsal head of the implant , and wherein the first suture shuttle extends within the first longitudinal cannulation , wherein the second suture shuttle extends within the second longitudinal cannulation , wherein the first and second suture shuttles protrude from a plantar end of the implant opposite the dorsal head ; characterized in that the first longitudinal cannulation and the second longitudinal cannulation extend through the implant and are separated by the septum which extends the full length of the implant .
Wire for producing a sliding contact , at least an inner core of the wire consists of a copper-silver alloy, characterized in that the wire comprises a coating made of a noble metal alloy.
A lithium cobalt composite oxide for a lithium secondary battery, the lithium cobalt composite oxide being doped with magnesium and having an atomic ratio of Mg/Co of 0.0035:1 to 0.01:1, wherein the lithium cobalt composite oxide is a compound represented by Formula 1: [Formula 1] Li 1-x Mg x Co 1-y M y O 2 wherein, in Formula 1, 0.001<x<0.01 and 0≤y<0.02; and M is titanium (Ti), vanadium (V), nickel (Ni), iron (Fe), niobium (Nb), molybdenum (Mo), aluminium (Al), zirconium (Zr), or manganese (Mn). 0.001<x<0.01 and 0≤y<0.02; and M is titanium (Ti), vanadium (V), nickel (Ni), iron (Fe), niobium (Nb), molybdenum (Mo), aluminium (Al), zirconium (Zr), or manganese (Mn).
A protection structure for a flexible display screen , said flexible display screen being stacked on said protection structure and said protection structure comprising: a first flexible plate ; a second flexible plate opposite to the first flexible plate , wherein a gap is formed between the first flexible plate and the second flexible plate ; a side plate surrounding peripheral sides of the first flexible plate and peripheral sides of the second flexible plate and closing the gap ; a plurality of first trapezoidal bosses densely distributed on the first flexible plate and located in the gap , wherein each of the plurality of the first trapezoidal bosses comprises a large end attached to the first flexible plate and a small end facing the second flexible plate ; and a plurality of second trapezoidal bosses densely distributed on the second flexible plate and located in the gap , wherein each of the plurality of the second trapezoidal bosses comprises a large end attached to the second flexible plate and a small end facing the first flexible plate ; characterized in that the plurality of the first trapezoidal bosses are arranged to abut against the plurality of the second trapezoidal bosses , and the plurality of the first trapezoidal bosses are coupled in series through a cable and thereafter the plurality of the second trapezoidal bosses are coupled in series through the cable . a first flexible plate ; a second flexible plate opposite to the first flexible plate , wherein a gap is formed between the first flexible plate and the second flexible plate ; a side plate surrounding peripheral sides of the first flexible plate and peripheral sides of the second flexible plate and closing the gap ; a plurality of first trapezoidal bosses densely distributed on the first flexible plate and located in the gap , wherein each of the plurality of the first trapezoidal bosses comprises a large end attached to the first flexible plate and a small end facing the second flexible plate ; and a plurality of second trapezoidal bosses densely distributed on the second flexible plate and located in the gap , wherein each of the plurality of the second trapezoidal bosses comprises a large end attached to the second flexible plate and a small end facing the first flexible plate ; characterized in that the plurality of the first trapezoidal bosses are arranged to abut against the plurality of the second trapezoidal bosses , and the plurality of the first trapezoidal bosses are coupled in series through a cable and thereafter the plurality of the second trapezoidal bosses are coupled in series through the cable .
Method for defining a maximum speed (v max ) for a vehicle (F), comprising the following steps: receiving (S1) state information about a state of at least one vehicle component of the vehicle (F), wherein the state information comprises information about a state of a brake system of the vehicle (F); calculating a braking time (TB) from a beginning of a braking procedure until the vehicle (F) is stationary based on the information about the state of the brake system ; wherein calculating the braking time (TB) comprises calculating a first braking time (TTL) from a beginning of the braking procedure until full braking power is achieved, and calculating a second braking time (T stop ) from achieving full braking power until the vehicle (F) is stationary; and defining (S2) a maximum speed (v max ) of the vehicle based on the state information such that a stopping distance (d stopping ) of the vehicle (F) from identifying a hazardous state until the vehicle (F) is stationary is less than or equal to a predefined value, wherein the maximum speed (v max ) is defined taking into consideration the braking time (TB). receiving (S1) state information about a state of at least one vehicle component of the vehicle (F), wherein the state information comprises information about a state of a brake system of the vehicle (F); calculating a braking time (TB) from a beginning of a braking procedure until the vehicle (F) is stationary based on the information about the state of the brake system ; wherein calculating the braking time (TB) comprises calculating a first braking time (TTL) from a beginning of the braking procedure until full braking power is achieved, and calculating a second braking time (T stop ) from achieving full braking power until the vehicle (F) is stationary; and defining (S2) a maximum speed (v max ) of the vehicle based on the state information such that a stopping distance (d stopping ) of the vehicle (F) from identifying a hazardous state until the vehicle (F) is stationary is less than or equal to a predefined value, wherein the maximum speed (v max ) is defined taking into consideration the braking time (TB).
An asymmetric interfering RNA duplex molecule comprising a first stand with a length of 19, 20, 21, 22, or 23 nucleotides; and a second strand with a length of 14, 15, 16, or 17 nucleotides, wherein the first strand is longer than the second strand and the last nucleotide of the first strand consists of an A, U, G or C ribonucleotide, wherein the second strand is at least 70% complementary to the first strand, forms a double-stranded region with the first strand and the first and last nucleotide of the second strand base pair with nucleotides in the first strand, wherein the first strand has a 3' overhang and a 5' blunt end, wherein the first strand is complementary to a target mRNA sequence of a gene, wherein the asymmetric interfering RNA duplex comprises a modified nucleotide or nucleotide analogue.
A stone cutting device configured to cut a workpiece with a plurality of cutting tools by swinging the cutting tools within a predetermined angle range, each of the cutting tools comprising a blade extending in a length direction of the workpiece, and at least one cutting tip disposed on an end of the blade and protruding from the blade in a width direction of the blade so as to cut the workpiece while being reciprocated in a swinging motion, and the stone cutting device comprising a frame unit configured to combine and reciprocate the cutting tools and individually adjust tension in each of the cutting tools ; characterized in that the stone cutting device comprises spacers maintaining gaps (G) between the cutting tools , the spacers comprise bodies disposed between the cutting tools and integrally combined with both widthwise ends of the bodies being clamped; accommodation portions provided on the bodies to receive the cutting tools , the accommodation portions comprising accommodation recess portions formed in sides of the bodies and having a depth corresponding to the thickness of the blades , gaps (G) are formed in the spacers between the bodies and the blades such that the spacers constrain the cutting tools from moving in a width direction of the cutting tools and allow the cutting tools to move in a length direction of the cutting tools . the stone cutting device comprising a frame unit configured to combine and reciprocate the cutting tools and individually adjust tension in each of the cutting tools ; characterized in that the stone cutting device comprises spacers maintaining gaps (G) between the cutting tools , the spacers comprise bodies disposed between the cutting tools and integrally combined with both widthwise ends of the bodies being clamped; accommodation portions provided on the bodies to receive the cutting tools , the accommodation portions comprising accommodation recess portions formed in sides of the bodies and having a depth corresponding to the thickness of the blades , gaps (G) are formed in the spacers between the bodies and the blades such that the spacers constrain the cutting tools from moving in a width direction of the cutting tools and allow the cutting tools to move in a length direction of the cutting tools .
A display device, comprising: a display panel having a first, a second, and a third area (L, C, R) disposed one after the other in a first direction; at least one first, at least one second and at least one third sound generating actuator (200, 200', 200"), respectively disposed in the first, second and third area (L, C, R), wherein the first, second, and third actuators (200, 200', 200") are configured to generate sound by vibrating the display panel ; a support structure on a rear surface of the display panel ; a first partition configured to separate the first and the second area (L,C); and a second partition configured to separate the second and the third area (C, R), characterized in that : the first and second partitions are in contact with the lower surface of the display panel in a non-adhesive configuration. a display panel having a first, a second, and a third area (L, C, R) disposed one after the other in a first direction; at least one first, at least one second and at least one third sound generating actuator (200, 200', 200"), respectively disposed in the first, second and third area (L, C, R), wherein the first, second, and third actuators (200, 200', 200") are configured to generate sound by vibrating the display panel ; a support structure on a rear surface of the display panel ; a first partition configured to separate the first and the second area (L,C); and a second partition configured to separate the second and the third area (C, R), characterized in that : the first and second partitions are in contact with the lower surface of the display panel in a non-adhesive configuration.
Inert gas welding method for keyhole welding, in which a welding torch with a non-melting electrode is guided along at least one workpiece for joint welding and a melt pool is formed in this case on the workpiece , into which melt pool a melting wire is introduced as a welding filler with a feed , wherein the wire introduced with a feed is introduced into the melt pool in a trailing manner in the guide direction of the welding torch , characterized in that the wire is additionally moved back and forth along its feed direction (12. 1) and is continuously advanced.
A mirror for use in high power optical applications, the mirror comprising: a support plate comprising a synthetic diamond material; and a reflective coating disposed over the support plate , wherein the reflective coating comprises a bonding layer of carbide forming material selected from W, Cr, or Ti, which bonds the reflective coating to the synthetic diamond material in the support plate , a reflective metal layer formed of Au, Ag, Al, Mo, Cu, Ni, Rh, or W, disposed over the bonding layer , and one or more layers of dielectric material disposed over the reflective metal layer, wherein the bonding layer and the reflective metal layer together have a total thickness in a range 50 nm to 10 μm with the reflective metal layer having a thickness of no more than 5 μm, and wherein the support plate and the reflective coating are configured such that the mirror has a reflectivity of at least 99% at an operational wavelength of the mirror, wherein the bonding layer and the reflective metal layer are formed of different materials, and wherein the operational wavelength is one of 10.6 μm, 1.06 μm, 532 nm, 355 nm, or 266 nm. a support plate comprising a synthetic diamond material; and a reflective coating disposed over the support plate , wherein the reflective coating comprises a bonding layer of carbide forming material selected from W, Cr, or Ti, which bonds the reflective coating to the synthetic diamond material in the support plate , a reflective metal layer formed of Au, Ag, Al, Mo, Cu, Ni, Rh, or W, disposed over the bonding layer , and one or more layers of dielectric material disposed over the reflective metal layer, wherein the bonding layer and the reflective metal layer together have a total thickness in a range 50 nm to 10 μm with the reflective metal layer having a thickness of no more than 5 μm, and wherein the support plate and the reflective coating are configured such that the mirror has a reflectivity of at least 99% at an operational wavelength of the mirror, wherein the bonding layer and the reflective metal layer are formed of different materials, and wherein the operational wavelength is one of 10.6 μm, 1.06 μm, 532 nm, 355 nm, or 266 nm.
Microswitch with - a cylindrical sleeve made of metal, - a piston mounted axially movable within the sleeve , - a contact pin mounted axially movable within the piston , - two mating contacts mounted in a bottom of the sleeve at a distance from one another, - a return spring between the bottom of the sleeve and the piston , which moves the piston to an original position when the microswitch is not actuated, - a damping spring which is arranged between contact pin and an actuator cap of the piston and carries a soft seating of the contact pin on the mating contacts , characterized in that - the damping spring has a higher spring force than the return spring ; and in that - the contact pin has a contact tip , whereas the contact tip and the mating contacts being conically shaped. - a cylindrical sleeve made of metal, - a piston mounted axially movable within the sleeve , - a contact pin mounted axially movable within the piston , - two mating contacts mounted in a bottom of the sleeve at a distance from one another, - a return spring between the bottom of the sleeve and the piston , which moves the piston to an original position when the microswitch is not actuated, - a damping spring which is arranged between contact pin and an actuator cap of the piston and carries a soft seating of the contact pin on the mating contacts , characterized in that - the damping spring has a higher spring force than the return spring ; and in that - the contact pin has a contact tip , whereas the contact tip and the mating contacts being conically shaped.