mhurhangee/patent-ind-claim-en huggingface dataset:
A swing-type power unit for a saddle riding vehicle, the power unit comprising: an internal combustion engine , a transmission device , a transmission case of the transmission device being combined to a crankcase of the internal combustion engine , a final gear mounted on a drive shaft of a rear wheel (WR) in the transmission case so as to rotate integrally with the drive shaft ; and a speed detecting sensor being mounted on the transmission case , and having a coupling end coupled to a harness outside the transmission case , and configured to detect a rotation speed of the drive shaft , the coupling end projects outside the transmission case by standing upright from an outer surface of the transmission case , and the transmission case has a protection wall integrally formed at a position displaced from the coupling end in an axial direction of the drive shaft , wherein the protection wall projects from an outer surface of the transmission case , characterized in that the speed detecting sensor having a detection tip end that faces the final gear , and with the detection tip end entering a gear chamber , the transmission case has a fastening hole formed at a position displaced from the coupling end in the axial direction of the drive shaft , and the fastening hole, the speed detecting sensor and the protection wall are collocated in this order from a side of a hub of the rear wheel (WR) in the axial direction of the drive shaft . an internal combustion engine , a transmission device , a transmission case of the transmission device being combined to a crankcase of the internal combustion engine , a final gear mounted on a drive shaft of a rear wheel (WR) in the transmission case so as to rotate integrally with the drive shaft ; and a speed detecting sensor being mounted on the transmission case , and having a coupling end coupled to a harness outside the transmission case , and configured to detect a rotation speed of the drive shaft , the coupling end projects outside the transmission case by standing upright from an outer surface of the transmission case , and the transmission case has a protection wall integrally formed at a position displaced from the coupling end in an axial direction of the drive shaft , wherein the protection wall projects from an outer surface of the transmission case , characterized in that the speed detecting sensor having a detection tip end that faces the final gear , and with the detection tip end entering a gear chamber , the transmission case has a fastening hole formed at a position displaced from the coupling end in the axial direction of the drive shaft , and the fastening hole, the speed detecting sensor and the protection wall are collocated in this order from a side of a hub of the rear wheel (WR) in the axial direction of the drive shaft .
A method comprising: receiving, at a wireless transmit and receive unit, WTRU , a master information block, MIB, from an eNodeB , wherein the received MIB indicates a periodicity of a coverage-enhanced system information block, CE-SIB, and a modulation and coding scheme, MCS, level of the CE-SIB; and receiving, at the WTRU, the CE-SIB from the eNodeB in a frequency resource that is based at least in part on a physical cell ID, PCID, associated with the eNodeB, wherein the CE-SIB is received with the periodicity and the MCS level indicated in the received MIB. receiving, at a wireless transmit and receive unit, WTRU , a master information block, MIB, from an eNodeB , wherein the received MIB indicates a periodicity of a coverage-enhanced system information block, CE-SIB, and a modulation and coding scheme, MCS, level of the CE-SIB; and receiving, at the WTRU, the CE-SIB from the eNodeB in a frequency resource that is based at least in part on a physical cell ID, PCID, associated with the eNodeB, wherein the CE-SIB is received with the periodicity and the MCS level indicated in the received MIB.
A cooperative-control robot , comprising: a base component ; a mobile platform arranged proximate said base component ; a translation assembly operatively connected to said base component and said mobile platform and configured to move said mobile platform with translational degrees of freedom without rotation with respect to said base component ; a tool assembly connected to said mobile platform ; and a control system configured to communicate with said translation assembly to control motion of said mobile platform in response to forces by a user applied to at least a portion of said cooperative-control robot , wherein said translation assembly comprises at least three independently operable actuator arms , each connected to a separate position of said mobile platform , wherein said translation assembly further comprises at least three linear tracks arranged such that each of said at least three independently operable actuator arms has an end that is constrained to move along a respective one of said at least three linear tracks , and wherein, in response to said forces by said user, said control system causes said mobile platform and said tool assembly to move in a smooth manner characterized in that each of said at least three independently operable actuator arms comprises a pair of interconnected structural members , the pair of interconnected structural members being arranged to form a parallelogram shape such that the pair of interconnected structural members are parallel to each other. a base component ; a mobile platform arranged proximate said base component ; a translation assembly operatively connected to said base component and said mobile platform and configured to move said mobile platform with translational degrees of freedom without rotation with respect to said base component ; a tool assembly connected to said mobile platform ; and a control system configured to communicate with said translation assembly to control motion of said mobile platform in response to forces by a user applied to at least a portion of said cooperative-control robot , wherein said translation assembly comprises at least three independently operable actuator arms , each connected to a separate position of said mobile platform , wherein said translation assembly further comprises at least three linear tracks arranged such that each of said at least three independently operable actuator arms has an end that is constrained to move along a respective one of said at least three linear tracks , and wherein, in response to said forces by said user, said control system causes said mobile platform and said tool assembly to move in a smooth manner characterized in that each of said at least three independently operable actuator arms comprises a pair of interconnected structural members , the pair of interconnected structural members being arranged to form a parallelogram shape such that the pair of interconnected structural members are parallel to each other.
A downhole electrical energy harvesting system for harvesting electrical energy from dc currents in a well installation having metallic structure provided with cathodic protection, the system comprising: a harvesting module electrically connected to the metallic structure at a first location and electrically connected to the metallic structure at a second location spaced from the first location , the first and second locations being chosen such that, in use, there is a potential difference therebetween due to the cathodic protection currents flowing in the structure; and the harvesting module being arranged to harvest electrical energy from the cathodic protection currents wherein the harvesting module is arranged to harvest electrical energy from dc currents. a harvesting module electrically connected to the metallic structure at a first location and electrically connected to the metallic structure at a second location spaced from the first location , the first and second locations being chosen such that, in use, there is a potential difference therebetween due to the cathodic protection currents flowing in the structure; and the harvesting module being arranged to harvest electrical energy from the cathodic protection currents wherein the harvesting module is arranged to harvest electrical energy from dc currents.
A method of manufacturing a sound transducer , comprising: depositing a first metal layer onto a substrate ; applying a photo resist layer to the first metal layer ; exposing portions of the photo resist layer to electromagnetic radiation; developing the photo resist layer ; removing portions of the first metal layer ; wet etching portions of the substrate above which the first metal layer has been removed; and depositing a second metal layer onto the substrate . depositing a first metal layer onto a substrate ; applying a photo resist layer to the first metal layer ; exposing portions of the photo resist layer to electromagnetic radiation; developing the photo resist layer ; removing portions of the first metal layer ; wet etching portions of the substrate above which the first metal layer has been removed; and depositing a second metal layer onto the substrate .
A cocrystal of a compound of formula (I) or of a compound formula (II) wherein X and Y are independently selected from -CH 2 - and -C(CH 2 )-, provided that al least one of X or Y is -CH 2 -; R 1 is -CHCH 3 -Z m -W n -(CH 2 ) o -T p -S, wherein Z is O, and m is 0 or 1; W is R 4 CH - - - CHR 5 , wherein either R 4 and R 5 are H and the dashed line indicates that there is a single bond, or R 4 and R 5 together are forming a bond and the dashed line indicates that there is a double bond, and n is 0 or 1; o is 0, 1 or 3; T is selected from the group consisting of -CHR 6 - and -C(O), wherein R 6 is -OH or -CH 3 , and p is 0 or 1; S is selected from the group consisting of H, (C 1 -C 3 ) alkyl optionally substituted by -OH, (C 1 -C 3 ) haloalkyl optionally substituted by -OH, cyclopropyl, and and R 2 is -H or -OH; R 3 is H or CH 3; and the dashed line in formula (II) indicates a single or a double bond; and a hydrogen bond donor coformer which is a phenolic compound. X and Y are independently selected from -CH 2 - and -C(CH 2 )-, provided that al least one of X or Y is -CH 2 -; R 1 is -CHCH 3 -Z m -W n -(CH 2 ) o -T p -S, wherein Z is O, and m is 0 or 1; W is R 4 CH - - - CHR 5 , wherein either R 4 and R 5 are H and the dashed line indicates that there is a single bond, or R 4 and R 5 together are forming a bond and the dashed line indicates that there is a double bond, and n is 0 or 1; o is 0, 1 or 3; T is selected from the group consisting of -CHR 6 - and -C(O), wherein R 6 is -OH or -CH 3 , and p is 0 or 1; S is selected from the group consisting of H, (C 1 -C 3 ) alkyl optionally substituted by -OH, (C 1 -C 3 ) haloalkyl optionally substituted by -OH, cyclopropyl, and and R 2 is -H or -OH; R 3 is H or CH 3; and the dashed line in formula (II) indicates a single or a double bond; and a hydrogen bond donor coformer which is a phenolic compound.
Antenna apparatus supporting adjustability of an antenna beam direction comprising an antenna array of antennas ; a beamforming network comprising M antenna interfaces and being switchable between m fixedly preconfigured beamforming states so as to couple the M antenna interfaces at different mutual phase and/or amplitude variations, a switching network switchable between N different connecting states, wherein the switching network is configured to, in each connecting state, connect the M antenna interfaces with a set of M antennas of the antenna array such that relative positions of the M antennas connected to the M antenna interfaces in the respective connecting state, differ among the N connection states, characterized by a further antenna array (23 2 ) of further antennas; a further beam forming network (26 2 ) comprising M' further antenna interfaces and being switchable between m' fixedly preconfigured beamforming states so as to couple the M' further antenna interfaces at different mutual phase and/or amplitude variations; a further switching network (30 2 ) switchable between at least N' different connecting states, wherein the further switching network (30 2 ) is configured to, in each connecting state, connect the M' antenna interfaces with a set of M' further antennas of the further antenna array (23 2 ) such that relative positions of the M' further antennas connected to the M' further antenna interfaces in the respective connection state, differ among the N' connection states; and a controllable combination circuit configured to couple, at a controllable manner, a signal interface of the beam forming network and a further signal interface of the further beam forming network (26 2 ) so that the antenna beam direction results from a combination of beams of the antenna array and the further antenna array (23 2 ).
Retainer in the form of a lingual retainer, which is suitable for the purpose of interacting with a lingual surface of teeth that are to be treated, for the stabilisation of the disposition of teeth of a human dentition, comprising an archwire , which, as viewed globally, has a parabolically curved shape, such that the retainer can be applied to teeth of an upper jaw or a lower jaw of a patient that is to be treated, wherein the retainer , as viewed locally, has a multiplicity of forms , arranged along its central axis , and extending at right angles to the central axis , wherein the forms in each case are suitable for the purpose of interacting with interdental spaces between adjacent teeth , wherein the retainer is formed in one piece, characterised in that , the retainer is formed from a thermoplastic plastic, which is suitable for the purpose of being processed within the context of a 3D-printing method, wherein the retainer is designed to be planar, such that a height of the retainer , measured parallel to a vertical axis of the retainer , exceeds a thickness of the retainer by a factor of at least two, wherein the retainer is inclined relative to its vertical axis , such that a distance of an upper edge of the retainer from the vertical axis is greater than a distance of a lower edge of the retainer from the axis. the retainer , as viewed locally, has a multiplicity of forms , arranged along its central axis , and extending at right angles to the central axis , wherein the forms in each case are suitable for the purpose of interacting with interdental spaces between adjacent teeth , wherein the retainer is formed in one piece, the retainer is formed from a thermoplastic plastic, which is suitable for the purpose of being processed within the context of a 3D-printing method, wherein the retainer is designed to be planar, such that a height of the retainer , measured parallel to a vertical axis of the retainer , exceeds a thickness of the retainer by a factor of at least two, wherein the retainer is inclined relative to its vertical axis , such that a distance of an upper edge of the retainer from the vertical axis is greater than a distance of a lower edge of the retainer from the axis.
A method for producing a material electrical connection between a solid conductor of a busbar and an end face at one end of a stranded conductor made up of a plurality of individual wires, wherein the method comprises - creating (S1) a receptacle in the solid conductor , in which the end of the stranded conductor can be received; - putting (S2) a sleeve on the end of the stranded conductor ; - pressing (S3) the sleeve with the stranded conductor ; - inserting (S5) the end of the stranded conductor into the previously created receptacle ; and - connecting (S6) the solid conductor and the stranded conductor by means of friction stir welding. - creating (S1) a receptacle in the solid conductor , in which the end of the stranded conductor can be received; - putting (S2) a sleeve on the end of the stranded conductor ; - pressing (S3) the sleeve with the stranded conductor ; - inserting (S5) the end of the stranded conductor into the previously created receptacle ; and - connecting (S6) the solid conductor and the stranded conductor by means of friction stir welding.
A decoding method in a multichannel audio system comprising three audio channels, the method comprising: receiving first, second and third input audio channels ; receiving side information indicating coding schemes; subjecting said first and second input audio channels to a first stereo decoding so as to obtain first and second stereo decoded intermediate audio channels , subjecting said first stereo decoded intermediate audio channel and said third input audio channel to a second stereo decoding so as to obtain first and second stereo decoded output audio channels , outputting said first and second stereo decoded output audio channels and said second stereo decoded intermediate audio channel , characterized in that the first and second stereo decodings include forming, for at least one frequency band and at least one time frame, a weighted or non-weighted sum of the two audio channels subjected to the respective stereo decoding and a weighted or non-weighted difference between the two audio channels subjected to the respective stereo decoding, wherein decoding schemes of the first and second stereo decodings are selected from LR-decoding, MS-decoding or enhanced MS-decoding, based on the side information , wherein enhanced MS-decoding is defined by the relationships: Ln = 1 + α An + Bn , and Rn = 1 − α An − Bn , where An, Bn are the input channels of the decoding, Ln, Rn are the output channels of the decoding, and α is a parameter in the range from minus one to one. receiving first, second and third input audio channels ; receiving side information indicating coding schemes; subjecting said first and second input audio channels to a first stereo decoding so as to obtain first and second stereo decoded intermediate audio channels , subjecting said first stereo decoded intermediate audio channel and said third input audio channel to a second stereo decoding so as to obtain first and second stereo decoded output audio channels , outputting said first and second stereo decoded output audio channels and said second stereo decoded intermediate audio channel , characterized in that the first and second stereo decodings include forming, for at least one frequency band and at least one time frame, a weighted or non-weighted sum of the two audio channels subjected to the respective stereo decoding and a weighted or non-weighted difference between the two audio channels subjected to the respective stereo decoding, wherein decoding schemes of the first and second stereo decodings are selected from LR-decoding, MS-decoding or enhanced MS-decoding, based on the side information , wherein enhanced MS-decoding is defined by the relationships: Ln = 1 + α An + Bn , and Rn = 1 − α An − Bn , where An, Bn are the input channels of the decoding, Ln, Rn are the output channels of the decoding, and α is a parameter in the range from minus one to one.
A computer system for facilitating forwarding of packets, the system comprising: a processor ; and a storage device storing instructions that when executed by the processor cause the processor to perform a method , the method comprising: determining, by a content requesting device or content producing device, a message that includes a plurality of bit groups, each corresponding to a type, a length, and a set of values, wherein one or more bit groups are marked for encryption, and wherein the message indicates a name that is a hierarchically structured variable-length identifier comprising contiguous name components ordered from a most general level to a most specific level ; computing a plurality of cipher blocks for the message based on an authenticated encryption protocol ; encrypting the one or more bit groups marked for encryption based on one or more symmetric keys, wherein the marked bit groups include one or more name components ; and indicating the encrypted bit groups as encrypted , thereby facilitating selective encryption of bit groups of the message. a processor ; and a storage device storing instructions that when executed by the processor cause the processor to perform a method , the method comprising: determining, by a content requesting device or content producing device, a message that includes a plurality of bit groups, each corresponding to a type, a length, and a set of values, wherein one or more bit groups are marked for encryption, and wherein the message indicates a name that is a hierarchically structured variable-length identifier comprising contiguous name components ordered from a most general level to a most specific level ; computing a plurality of cipher blocks for the message based on an authenticated encryption protocol ; encrypting the one or more bit groups marked for encryption based on one or more symmetric keys, wherein the marked bit groups include one or more name components ; and indicating the encrypted bit groups as encrypted , thereby facilitating selective encryption of bit groups of the message. determining, by a content requesting device or content producing device, a message that includes a plurality of bit groups, each corresponding to a type, a length, and a set of values, wherein one or more bit groups are marked for encryption, and wherein the message indicates a name that is a hierarchically structured variable-length identifier comprising contiguous name components ordered from a most general level to a most specific level ; computing a plurality of cipher blocks for the message based on an authenticated encryption protocol ; encrypting the one or more bit groups marked for encryption based on one or more symmetric keys, wherein the marked bit groups include one or more name components ; and indicating the encrypted bit groups as encrypted , thereby facilitating selective encryption of bit groups of the message.
A positive photosensitive resin composition comprising: (a') a polysiloxane containing metal compound-containing particles synthesised by hydrolysing and partially condensing an organosilane represented by the following general formula and an organosilane that has a carboxyl group and/or a dicarboxylic acid anhydride structure in the presence of particles of one or more metal compounds selected from among an aluminium compound, a tin compound, a titanium compound and a zirconium compound, or in the presence of composite particles of a silicon compound and one or more metal compounds selected from among an aluminium compound, a tin compound, a titanium compound and a zirconium compound; (b) a naphthoquinone diazide compound; and (c) a solvent: wherein R 1 represents hydrogen, an alkyl group with a carbon number of 1 to 10, an alkenyl group with a carbon number of 2 to 10 or an aryl group with a carbon number of 6 to 16, R 2 represents hydrogen, an alkyl group with a carbon number of 1 to 6, an acyl group with a carbon number of 2 to 6 or an aryl group with a carbon number of 6 to 16, n represents an integer of 0 to 3, and when n is 2 or more, R 1 s may be the same or different, respectively, and when n is 2 or less, R 2 s may be the same or different, respectively.