mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a data decoder implemented on a receiving computing device , the method comprising: receiving, from a transmitting computing device , an encoded data input, the encoded data input including a set of individual values ; determining whether a number of individual values included in the set of individual values exceeds a threshold value; in response to determining that the number of individual values included in the set of individual values exceeds the threshold value, performing a first puncturing of the encoded data input by removing at least one individual value from the set of individual values, the first puncturing yielding a first punctured encoded data input, the first punctured encoded data input including a first subset of the individual values from the set of individual values, wherein the number of individual values included in the first subset of the individual values does not exceed the threshold value; determining whether the first punctured encoded data input maps to any predetermined data outputs from a set of predetermined data outputs ; and in response to determining that the first punctured encoded data input maps to a first predetermined data output from the set of predetermined data outputs, determining that the encoded data input corresponds to the first predetermined data output. receiving, from a transmitting computing device , an encoded data input, the encoded data input including a set of individual values ; determining whether a number of individual values included in the set of individual values exceeds a threshold value; in response to determining that the number of individual values included in the set of individual values exceeds the threshold value, performing a first puncturing of the encoded data input by removing at least one individual value from the set of individual values, the first puncturing yielding a first punctured encoded data input, the first punctured encoded data input including a first subset of the individual values from the set of individual values, wherein the number of individual values included in the first subset of the individual values does not exceed the threshold value; determining whether the first punctured encoded data input maps to any predetermined data outputs from a set of predetermined data outputs ; and in response to determining that the first punctured encoded data input maps to a first predetermined data output from the set of predetermined data outputs, determining that the encoded data input corresponds to the first predetermined data output.
Floor panel for forming a floor covering, wherein this floor panel comprises a substrate , which substrate is manufactured on the basis of synthetic material; wherein this floor panel , on at least one pair of opposite edges (5-6), comprises coupling parts (7-8), which coupling parts (7-8) allow that two such floor panels can be coupled to each other by means of a downward movement (M) of one floor panel in respect to the other floor panel ; wherein these coupling parts (7-8) allow a locking in a first direction (V) perpendicular to the plane of the floor panel , as well as in a second direction (H) perpendicular to the edges (5-6) and in the plane of the floor panel ; wherein these coupling parts (7-8) substantially are formed of the material of said substrate and are made in one piece therewith; wherein these coupling parts (7-8) consist of a downward-directed upper hook-shaped part , which is situated on the one edge of said pair of opposite edges (5-6), as well as of an upward-directed lower hook-shaped part , which is situated on the other, opposite edge of said pair of opposite edges (5-6), which hook-shaped parts (9-10) can be engaged behind each other by means of said downward movement (M); and wherein the upper hook-shaped part consists of a lip which is provided with a downward-directed locking element , whereas the lower hook-shaped part consists of a lip which is provided with an upward-directed locking element ; wherein the locking elements (12-14) are provided with locking surfaces (15-16) which at least partially allow the locking in said first direction (V) perpendicular to the plane of the floor panels , which locking surfaces (15-16) comprise a first and second locking surface , which first locking surface belongs to a proximal side of the downward-directed locking element and which second locking surface belongs to a proximal side of the upward-directed locking element ; wherein said first and second locking surfaces (15-16) extend continuously over the major part of the length of the respective edges (5-6); characterized in that said first and second locking surfaces (15-16), in the coupled condition of two such floor panels , define a tangent line (R) forming an angle (A) with the plane of the floor panel , which angle (A) is smaller than 30 degrees and larger than 0 degrees, and/or that said second locking surface defines such an angle (A); and wherein the floor panel , on a distal side of the downward-directed locking element , is free of locking parts which, partially or entirely, allow a locking in said first direction (V).
Multilayer adhesive material for food contact comprising: - a polyolefin film 14 having a first surface 14a and a second surface 14b opposite the first; - a polyolefin film 11 coupled to the polyolefin film 14 on the first surface 14a by means of a layer 13 comprising at least one adhesive; - a layer 12 comprising at least one ink interposed between the polyolefin films 11 and 14; and - an adhesive layer 15 comprising at least one pressure-sensitive hot-melt adhesive arranged on the second surface 14b of the polyolefin film 14, wherein the at least one pressure-sensitive hot-melt adhesive has a hot shear value ≥ 60 min., preferably ≥ 100 min., more preferably ≥ 300 min., the hot shear value being measured on steel at 40°C according to the method disclosed in the description. - a polyolefin film 14 having a first surface 14a and a second surface 14b opposite the first; - a polyolefin film 11 coupled to the polyolefin film 14 on the first surface 14a by means of a layer 13 comprising at least one adhesive; - a layer 12 comprising at least one ink interposed between the polyolefin films 11 and 14; and - an adhesive layer 15 comprising at least one pressure-sensitive hot-melt adhesive arranged on the second surface 14b of the polyolefin film 14, wherein the at least one pressure-sensitive hot-melt adhesive has a hot shear value ≥ 60 min., preferably ≥ 100 min., more preferably ≥ 300 min., the hot shear value being measured on steel at 40°C according to the method disclosed in the description.
A method of cleaning an engine , comprising: aerating, via a gas delivered through one or more aerators , a detergent within a manifold to generate a meta-stable detergent based foam having bubble diameters of between 10 microns and 5 millimeters; delivering the meta-stable detergent based foam to the engine ; soaking the engine with the meta-stable detergent based foam for a soaking period and rinsing the engine to remove the meta-stable detergent based foam, characterized in that the meta-stable detergent based foam is generated having a half-life between 5 minutes and 180 minutes and in that the soaking period corresponds to the half-life of the meta-stable detergent based foam. aerating, via a gas delivered through one or more aerators , a detergent within a manifold to generate a meta-stable detergent based foam having bubble diameters of between 10 microns and 5 millimeters; delivering the meta-stable detergent based foam to the engine ; soaking the engine with the meta-stable detergent based foam for a soaking period and rinsing the engine to remove the meta-stable detergent based foam, characterized in that the meta-stable detergent based foam is generated having a half-life between 5 minutes and 180 minutes and in that the soaking period corresponds to the half-life of the meta-stable detergent based foam.
A bidirectional entry vestibule for a passenger aircraft, comprising: a first enclosed chamber configured for integration into a main passenger cabin of an aircraft, the first enclosed chamber enclosing an ascent means capable of providing at least one passenger access to an overhead passenger cabin disposed above the main passenger cabin; a second enclosed chamber configured for integration into the main passenger cabin, the second enclosed chamber enclosing a descent means capable of providing the at least one passenger access to a lower passenger cabin disposed within a lower lobe area of the aircraft below the main passenger cabin; at least one transitional space configured to connect the first enclosed chamber to the overhead passenger cabin; at least one sensory preparation system configured to modify the environment of the transitional space, the sensory preparation system including at least one of a physical window and a virtual window ; and at least one access door accessible from the main passenger cabin, the first enclosed chamber and the second enclosed chamber accessible via the at least one access door. a first enclosed chamber configured for integration into a main passenger cabin of an aircraft, the first enclosed chamber enclosing an ascent means capable of providing at least one passenger access to an overhead passenger cabin disposed above the main passenger cabin; a second enclosed chamber configured for integration into the main passenger cabin, the second enclosed chamber enclosing a descent means capable of providing the at least one passenger access to a lower passenger cabin disposed within a lower lobe area of the aircraft below the main passenger cabin; at least one transitional space configured to connect the first enclosed chamber to the overhead passenger cabin; at least one sensory preparation system configured to modify the environment of the transitional space, the sensory preparation system including at least one of a physical window and a virtual window ; and at least one access door accessible from the main passenger cabin, the first enclosed chamber and the second enclosed chamber accessible via the at least one access door.
An electrode for an implantable medical device , the electrode comprising: an alloy including: iridium; and at least one of cobalt and iron; and a conductive oxide layer on a surface of the alloy, the conductive oxide layer having a thickness greater than about 5 nanometers and characterized in that the conductive oxide layer includes iridium oxide. an alloy including: iridium; and at least one of cobalt and iron; and iridium; and at least one of cobalt and iron; and a conductive oxide layer on a surface of the alloy, the conductive oxide layer having a thickness greater than about 5 nanometers and characterized in that the conductive oxide layer includes iridium oxide.
A laminated light-guiding plate , comprising: a plurality of glass sheets having a refractive index nd of 1.56 or more, and having a thickness of 1.0 mm or less, an entrance member which is arranged at a position of 30 mm or less from an end surface of each of the glass sheets and is configured to allow an image signal to enter the glass sheets ; and a reflecting mirror portion or reflecting mirror portions formed in an inside of the entrance member . a plurality of glass sheets having a refractive index nd of 1.56 or more, and having a thickness of 1.0 mm or less, an entrance member which is arranged at a position of 30 mm or less from an end surface of each of the glass sheets and is configured to allow an image signal to enter the glass sheets ; and a reflecting mirror portion or reflecting mirror portions formed in an inside of the entrance member .
A hollow body molding aid, comprising: a body ; a connector , fixedly connected to the body ; a first profiling assembly , fixedly disposed on one side of the body and configured to position one half of a reinforced housing; a second profiling assembly , fixedly disposed on an other side of the body and configured to position an other half of the reinforced housing; and a positioning mechanism, disposed on the first profiling assembly and the second profiling assembly ; characterized in that the positioning mechanism comprises vacuum chucks disposed at set positions on the first profiling assembly and the second profiling assembly , and the positioning mechanism further comprises inductive switches disposed at set positions on the first profiling assembly and the second profiling assembly .
A hand-operated actuator mechanism for driving an external piercing element with a predefined force, the actuator mechanism comprising - a mounting element ; - a trigger element ; - a piercing element carrier for an external piercing element, wherein - the trigger element is connected to the mounting element via a first breakable connection element that is designed to break when a predefined force is applied to the trigger element, said trigger element further comprising or being connected to a pushing member that can be pushed with a human finger and that is arranged to transfer a finger force via the trigger element to the first breakable connection element so as to cause breaking of the first breakable connection element when a pushing finger force (F) pushing said pushing member exceeds a predetermined threshold; and wherein - the piercing element carrier is connected to the trigger element via a second breakable connection element , said piercing element carrier being movable between an initial position wherein the first and the second breakable connection elements are unbroken, and a stop position wherein an abutment stops a movement of the piercing element carrier . - a mounting element ; - a trigger element ; - a piercing element carrier for an external piercing element, wherein - the trigger element is connected to the mounting element via a first breakable connection element that is designed to break when a predefined force is applied to the trigger element, said trigger element further comprising or being connected to a pushing member that can be pushed with a human finger and that is arranged to transfer a finger force via the trigger element to the first breakable connection element so as to cause breaking of the first breakable connection element when a pushing finger force (F) pushing said pushing member exceeds a predetermined threshold; and wherein - the piercing element carrier is connected to the trigger element via a second breakable connection element , said piercing element carrier being movable between an initial position wherein the first and the second breakable connection elements are unbroken, and a stop position wherein an abutment stops a movement of the piercing element carrier .
A method of operating a wind turbine, the method comprising: determining a tower fatigue weight value based on a force exerted on the wind turbine and a tower fatigue distribution , wherein the tower fatigue distribution correlates the force exerted on the wind turbine to the estimated fatigue load caused on a tower of the wind turbine by that exerted force ; determining a wind weight value based on measured wind conditions and a wind distribution , wherein the wind distribution defines the amount of time the wind turbine is expected to operate at various wind speeds; combining the tower fatigue weight value and the wind weight value to yield a combined gain value ; and determining a pitch actuation value for dampening an oscillation in the wind turbine based on the combined gain value. determining a tower fatigue weight value based on a force exerted on the wind turbine and a tower fatigue distribution , wherein the tower fatigue distribution correlates the force exerted on the wind turbine to the estimated fatigue load caused on a tower of the wind turbine by that exerted force ; determining a wind weight value based on measured wind conditions and a wind distribution , wherein the wind distribution defines the amount of time the wind turbine is expected to operate at various wind speeds; combining the tower fatigue weight value and the wind weight value to yield a combined gain value ; and determining a pitch actuation value for dampening an oscillation in the wind turbine based on the combined gain value.
A probe assembly for measuring the concentration of exhaust's emissions in a turbine engine , the probe assembly comprising: a first probe member configured and operative to generate a beam of light of a constant wavelength upon thermal excitation of a component thereof, wherein the wavelength of the beam of light is contingent upon the configuration of the first probe member , and wherein the intensity of the beam of light is contingent upon the temperature of the first probe member; and a second probe member positioned in the probe assembly to receive the beam of light generated by the first probe member , the second probe member configured and operative to absorb and attenuate the light generated from the first probe member with a peak absorption frequency that varies in accordance with the gaseous species present in the exhaust emissions of the turbine engine , wherein the constant wavelength of the first probe member is tuned to the peak absorption frequency of the second probe member so that more or less photons will be absorbed by the second probe member depending on how much of the gaseous species is present in the exhaust. a first probe member configured and operative to generate a beam of light of a constant wavelength upon thermal excitation of a component thereof, wherein the wavelength of the beam of light is contingent upon the configuration of the first probe member , and wherein the intensity of the beam of light is contingent upon the temperature of the first probe member; and a second probe member positioned in the probe assembly to receive the beam of light generated by the first probe member , the second probe member configured and operative to absorb and attenuate the light generated from the first probe member with a peak absorption frequency that varies in accordance with the gaseous species present in the exhaust emissions of the turbine engine , wherein the constant wavelength of the first probe member is tuned to the peak absorption frequency of the second probe member so that more or less photons will be absorbed by the second probe member depending on how much of the gaseous species is present in the exhaust.
An in vitro method for seamlessly assembling two or more double-stranded nucleic acids, comprising: (a) contacting a first nucleic acid with at least one nuclease agent to generate a first digested nucleic acid with an end portion removed; (b) contacting the first digested nucleic acid with a second nucleic acid, a double stranded joiner oligo, and an exonuclease, wherein the joiner oligo is a linear double-stranded DNA that is from about 50 bp to about 400 bp and comprises: (i) a first complementary sequence that is complementary to the first digested nucleic acid; (ii) a spacer; and (iii) a second complementary sequence that is complementary to the second nucleic acid, wherein the spacer comprises a sequence identical to the end portion, wherein no nucleic acid bases are present between the first complementary sequence and the sequence identical to the end portion, and no nucleic acid bases are present between the second complementary sequence and the sequence identical to the end portion, and wherein the exonuclease exposes the first and second complementary sequences; and (c) assembling the joiner oligo with the first digested nucleic acid and the second nucleic acid, wherein the assembly reconstitutes the end portion. (a) contacting a first nucleic acid with at least one nuclease agent to generate a first digested nucleic acid with an end portion removed; (b) contacting the first digested nucleic acid with a second nucleic acid, a double stranded joiner oligo, and an exonuclease, wherein the joiner oligo is a linear double-stranded DNA that is from about 50 bp to about 400 bp and comprises: (i) a first complementary sequence that is complementary to the first digested nucleic acid; (ii) a spacer; and (iii) a second complementary sequence that is complementary to the second nucleic acid, wherein the spacer comprises a sequence identical to the end portion, wherein no nucleic acid bases are present between the first complementary sequence and the sequence identical to the end portion, and no nucleic acid bases are present between the second complementary sequence and the sequence identical to the end portion, and wherein the exonuclease exposes the first and second complementary sequences; and (i) a first complementary sequence that is complementary to the first digested nucleic acid; (ii) a spacer; and (iii) a second complementary sequence that is complementary to the second nucleic acid, (c) assembling the joiner oligo with the first digested nucleic acid and the second nucleic acid, wherein the assembly reconstitutes the end portion.
A system comprising: a first computing device; a second computing device; and a first packet forwarding device , wherein each of the first computing device and the second computing device is communicatively coupled to a respective port of the first packet forwarding device , and wherein for a first packet received from the first computing device, the first packet forwarding device is configured to: determine that a destination MAC address of the first packet is associated with the port on which the first packet was received; and forward the first packet to the second computing device, responsive to the determination that the destination MAC address of the first packet is associated with the port on which the first packet was received; and for a second packet received from the second computing device, the first packet forwarding device is configured to forward the second packet via the port associated with a source MAC address of the second packet. a first computing device; a second computing device; and a first packet forwarding device , wherein each of the first computing device and the second computing device is communicatively coupled to a respective port of the first packet forwarding device , and wherein for a first packet received from the first computing device, the first packet forwarding device is configured to: determine that a destination MAC address of the first packet is associated with the port on which the first packet was received; and forward the first packet to the second computing device, responsive to the determination that the destination MAC address of the first packet is associated with the port on which the first packet was received; and determine that a destination MAC address of the first packet is associated with the port on which the first packet was received; and forward the first packet to the second computing device, responsive to the determination that the destination MAC address of the first packet is associated with the port on which the first packet was received; and for a second packet received from the second computing device, the first packet forwarding device is configured to forward the second packet via the port associated with a source MAC address of the second packet.