mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of formula (I) or an N-oxide thereof, or a pharmaceutically acceptable salt or solvate thereof: wherein n represents an integer equal to 0 or 1; Y represents aryl or heteroaryl, any of which groups may be optionally substituted by one or more substituents selected from halogen, cyano, amino, C 1-6 alkyl, C 1-6 alkylsulphonyl, C 1 - 6 alkoxy, trifluoromethoxy and difluoromethoxy; X represents oxygen, sulphur, S(O) or N(R d ) ; or a straight or branched C 1-4 alkylene chain; R 1 represents, halogen, heteroaryl, or (C 3-7 )heterocycloalkyl-heteroaryl any of which groups may be optionally substituted by one or more substituents selected from hydroxy, hydroxy(C 1-6 alkyl) and C 1-6 alkoxy; R 2 and R 3 independently represent hydrogen, halogen, or C 1-6 alkyl; R 4 represents hydrogen, hydroxy, halogen or trifluoromethyl; R 5a represents hydrogen, hydroxy or -OR a ; R 5b represents hydrogen; R a represents C 1-6 alkyl, aryl(C 1-6 )alkyl, or heteroaryl(C 1-6 )alkyl, any of which groups may be optionally substituted by one or more substituents selected from C 1-6 alkoxy, oxo and aminocarbonyl; and R d represents hydrogen or C 1-6 alkyl. n represents an integer equal to 0 or 1; Y represents aryl or heteroaryl, any of which groups may be optionally substituted by one or more substituents selected from halogen, cyano, amino, C 1-6 alkyl, C 1-6 alkylsulphonyl, C 1 - 6 alkoxy, trifluoromethoxy and difluoromethoxy; X represents oxygen, sulphur, S(O) or N(R d ) ; or a straight or branched C 1-4 alkylene chain; R 1 represents, halogen, heteroaryl, or (C 3-7 )heterocycloalkyl-heteroaryl any of which groups may be optionally substituted by one or more substituents selected from hydroxy, hydroxy(C 1-6 alkyl) and C 1-6 alkoxy; R 2 and R 3 independently represent hydrogen, halogen, or C 1-6 alkyl; R 4 represents hydrogen, hydroxy, halogen or trifluoromethyl; R 5a represents hydrogen, hydroxy or -OR a ; R 5b represents hydrogen; R a represents C 1-6 alkyl, aryl(C 1-6 )alkyl, or heteroaryl(C 1-6 )alkyl, any of which groups may be optionally substituted by one or more substituents selected from C 1-6 alkoxy, oxo and aminocarbonyl; and R d represents hydrogen or C 1-6 alkyl.
An article of footwear having an upper and a sole structure secured together, the upper comprising: a plurality of material elements joined together to define a lace region and a lower region , the material elements including a base material layer located in at least the lace region , the base material layer having a first surface and an opposite second surface, and the base material layer defining an aperture of a lace-receiving element that extends from the first surface to the second surface in the lace region, the lower region being spaced from the lace region and located proximal to an area where the sole structure is secured to the upper ; and a plurality of strand segments extending from the lace region to the lower region , the strand segments including a first strand segment and a second strand segment , the first strand segment being located adjacent to the first surface of the base material layer and extending at least partially around the aperture , and the second strand segment being located adjacent to the second surface of the base material layer and extending at least partially around the aperture , wherein a cover material layer is secured to the first surface of the base material layer , a portion of the first strand segment being located between the cover material layer and the base material layer ; a backing material layer is secured to the second surface of the base material layer and located inward of the cover material layer , a portion of the second strand segment being located between the backing material layer and the base material layer ; and the first strand segment has a substantially vertical orientation in the area between the lace region and the lower region , and the second strand segment extends toward a heel region of the footwear in the area between the lace region and the lower region . a plurality of material elements joined together to define a lace region and a lower region , the material elements including a base material layer located in at least the lace region , the base material layer having a first surface and an opposite second surface, and the base material layer defining an aperture of a lace-receiving element that extends from the first surface to the second surface in the lace region, the lower region being spaced from the lace region and located proximal to an area where the sole structure is secured to the upper ; and a plurality of strand segments extending from the lace region to the lower region , the strand segments including a first strand segment and a second strand segment , the first strand segment being located adjacent to the first surface of the base material layer and extending at least partially around the aperture , and the second strand segment being located adjacent to the second surface of the base material layer and extending at least partially around the aperture ,
Battery pack comprising a casing , this casing comprising a battery cooler , this cooler comprising a heat transfer fluid pipe having at least one fluid connection connecting the pipe to a fluid circuit external to the battery pack, this connector being covered by a removable anti-intrusion cap , characterized in that , in addition to its anti-intrusion function, this cap has a function of positioning the cooler relative to the housing .
Grinding belt , comprising a grinding surface , configured centrally along a circumferential direction, and a stop surface , characterized in that the stop surface is formed by way of two side sections of the grinding belt which are arranged on the left and on the right in relation to the grinding surface , and the stop surface being positioned offset by an offset (x) with respect to the grinding surface , as a result of which a grinding depth (t) can be set via a height or thickness of the grinding belt .
Wiper blade adapter device having at least one fluid channel for conducting a fluid, having at least one connecting unit for connecting the fluid channel , in particular fluidically, to a wiper arm , in particular to at least one fluid line element of the wiper arm , and having at least one valve element , which is provided to make the fluidic connection of the fluid channel to the wiper arm , in particular to the fluid line element , closable, characterized in that the valve element has at least one blocking and/or passage direction , and is arranged in such a manner that the blocking and/or passage direction are/is aligned at least substantially parallel with a connecting direction of the connecting unit , wherein the connecting unit comprises at least one connector , which is provided for force-fitting and/or form-fitting connection to the fluid line element , and wherein the valve element is at least partially arranged within the connector and is activatable mechanically, pneumatically and/or hydraulically.
A method, comprising: receiving, by a device, a target data set for a target population associated with a first spectroscopic model to update the first spectroscopic model; obtaining, by the device, a master data set for the first spectroscopic model ; determining, by the device, an optimal partial least squares (PLS) factor using cross-validation, wherein the optimal PLS factor is determined based on a plurality of training data sets, each training data set including a respective portion of the target data set and all of the master data set and based on a plurality of validation data sets, each validation data set including a respective portion of the target data set and not including data of the master data set; merging, by the device, the target data set and the master data set to generate a merged data set; generating, by the device and using the merged data set and the optimal PLS factor, a second spectroscopic model, wherein the second spectroscopic model is an update of the first spectroscopic model; and providing, by the device, the second spectroscopic model to replace the first spectroscopic model. receiving, by a device, a target data set for a target population associated with a first spectroscopic model to update the first spectroscopic model; obtaining, by the device, a master data set for the first spectroscopic model ; determining, by the device, an optimal partial least squares (PLS) factor using cross-validation, wherein the optimal PLS factor is determined based on a plurality of training data sets, each training data set including a respective portion of the target data set and all of the master data set and based on a plurality of validation data sets, each validation data set including a respective portion of the target data set and not including data of the master data set; merging, by the device, the target data set and the master data set to generate a merged data set; generating, by the device and using the merged data set and the optimal PLS factor, a second spectroscopic model, wherein the second spectroscopic model is an update of the first spectroscopic model; and providing, by the device, the second spectroscopic model to replace the first spectroscopic model.
A rectangular waveguide antenna comprising: a first plurality of slots , configured for producing a beam having a first radiation pattern at a first resonant frequency, wherein said first plurality of slots have a spacing of λ g1 , where λ g1 is the wavelength of radiation at said first resonant frequency in the waveguide; and a second plurality of slots , configured for producing a beam having a second radiation pattern at a second resonant frequency, wherein said second plurality of slots have a spacing of λ g2 /2, where λ g2 is the wavelength of radiation at said second resonant frequency in the waveguide, wherein the first resonant frequency and the second resonant frequency are different resonant frequencies, wherein said first and second pluralities of slots are provided on a broad side of said rectangular waveguide antenna, and wherein said first and second pluralities of slots are provided on opposite sides of a longitudinal centreline of said broad side. a first plurality of slots , configured for producing a beam having a first radiation pattern at a first resonant frequency, wherein said first plurality of slots have a spacing of λ g1 , where λ g1 is the wavelength of radiation at said first resonant frequency in the waveguide; and a second plurality of slots , configured for producing a beam having a second radiation pattern at a second resonant frequency, wherein said second plurality of slots have a spacing of λ g2 /2, where λ g2 is the wavelength of radiation at said second resonant frequency in the waveguide,
An impedance matching device for matching RF supply side impedance to load side impedance , comprising a variable reactor having a main winding and a control winding, being wound around a core, and rendering inductance to be variable according to variation of a generated magnetic field that is generated by control current passing through the control winding, and a control current forming part configured to apply a control current to the control winding to perform impedance matching by inductance variation in the variable reactor according to the control current, wherein, the control current forming part comprises an operation part configured to input a control target value and a feedback value for impedance matching and configured to calculate a control variable; and a control current generator configured to generate the control current at a current amplitude determined on the basis of an amplitude of the control variable; wherein the operation part is configured to provide the control variable as an AC signal having amplitude oscillations between positive and negative polarities and configured so that the control variable converges to a control settled value that settles a deviation component obtained by amplifying the difference between the control target value and the feedback value for impedance matching, and the control current generator is configured to generate the control current having a current direction determined on the basis of whether the AC signal has positive or negative polarity; and wherein, the operation part configures a double loop control, comprising; a first arithmetic circuit constituting a major loop on the basis of a difference between the control target value for impedance matching and the feedback value for impedance matching, and computing the control variable according to the major loop, and a second arithmetic circuit constituting a minor loop on the basis of a difference between the control variable of the first arithmetic circuit and a feedback value of the control current, and computing an amplitude of the control variable by the minor loop, so as to obtain a control current command, and the control current generator is configured to switch current directions of the control current on the basis of positive and negative properties of the control variable, and to generate the control current whose amplitude is determined on the basis of the control current command.
A gas engine heat pump comprising: an engine which burns a mixed air of air and fuel; a first charger including a first compressor which compresses the mixed air and supplies to the engine , and a first turbine which receives exhaust gas discharged from the engine to drive the first compressor ; a second charger including a second compressor which compresses exhaust gas discharged from the engine to flow into the engine , and a second turbine which receives exhaust gas discharged from the engine to drive the second compressor ; and an exhaust flow path which exhaust gas discharged from the engine flows, wherein the exhaust flow path including: a first exhaust flow path which connects the engine and the first turbine ; a second exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine and connects the engine and the second turbine ; and a third exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine , wherein the gas engine heat pump further comprising a second bypass valve configured to open and close the third exhaust flow path . an engine which burns a mixed air of air and fuel; a first charger including a first compressor which compresses the mixed air and supplies to the engine , and a first turbine which receives exhaust gas discharged from the engine to drive the first compressor ; a second charger including a second compressor which compresses exhaust gas discharged from the engine to flow into the engine , and a second turbine which receives exhaust gas discharged from the engine to drive the second compressor ; and an exhaust flow path which exhaust gas discharged from the engine flows, wherein the exhaust flow path including: a first exhaust flow path which connects the engine and the first turbine ; a second exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine and connects the engine and the second turbine ; and a third exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine , wherein the gas engine heat pump further comprising a second bypass valve configured to open and close the third exhaust flow path . a first exhaust flow path which connects the engine and the first turbine ; a second exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine and connects the engine and the second turbine ; and a third exhaust flow path which is branched from the first exhaust flow path between the engine and the first turbine , wherein the gas engine heat pump further comprising a second bypass valve configured to open and close the third exhaust flow path .
An access gate for detecting movement through the access gate , the access gate comprising: a first optical emitter provided on a first side of the access gate , wherein the first optical emitter is configured to transmit a first beam of light in a direction perpendicular to a direction of movement through the access gate ; a first plurality of optical receivers provided on a second side of the access gate , wherein each of the first plurality of optical receivers is configured to detect when the first beam of light is received at each of the first plurality of receivers , wherein an angle of the first beam of light emitted from the first optical emitter is sufficiently wide for each of the first plurality of optical receivers to receive the beam of light when a path of the beam of light is uninterrupted; a second optical emitter provided on the second side of the access gate , wherein the second optical emitter is configured to transmit a second beam of light in a direction opposite to that of the first beam of light; a second plurality of optical receivers provided on the first side of the access gate , wherein each of the second plurality of optical receivers is configured to detect whether or not the second beam of light is received thereat; characterized in that the access gate comprises a module configured to monitor output signals from the optical receivers periodically or on an ongoing basis and if the intensity of the monitored output signals is drifting and the drift is below a threshold, then adjust the transmit intensity of the optical emitters such that the intensity of the monitored output signals remains within one or more thresholds that ensure reliable operation of the access gate, and if the drift exceeds the threshold, generate an alert to replace components including at least one of optical emitters or optical receivers or to manually adjust the threshold. a first optical emitter provided on a first side of the access gate , wherein the first optical emitter is configured to transmit a first beam of light in a direction perpendicular to a direction of movement through the access gate ; a first plurality of optical receivers provided on a second side of the access gate , wherein each of the first plurality of optical receivers is configured to detect when the first beam of light is received at each of the first plurality of receivers , wherein an angle of the first beam of light emitted from the first optical emitter is sufficiently wide for each of the first plurality of optical receivers to receive the beam of light when a path of the beam of light is uninterrupted; a second optical emitter provided on the second side of the access gate , wherein the second optical emitter is configured to transmit a second beam of light in a direction opposite to that of the first beam of light; a second plurality of optical receivers provided on the first side of the access gate , wherein each of the second plurality of optical receivers is configured to detect whether or not the second beam of light is received thereat;
A data transmission method, comprising: performing polar code coding on to-be-coded bits, to obtain a mother code, wherein a code length of the mother code is related to K and M i , i=1,2,...,K, K is a quantity of sending times, M i is a length of bits sent at an i th time, and K and M i are positive integers greater than 1; performing rate matching on the mother code, to obtain to-be-sent bits, wherein a quantity of the to-be-sent bits is a sum of lengths of bits sent at K times; and sending M i to-be-sent bits at the i th time; characterised in that : the encoded bits which are successively sent at the K times belong to respective batches of a punctured polar code with the size of the batches corresponding to the respective lengths M i ; wherein the code length of the mother code is determined as 2 ⌈ log 2 ∑ i = 1 K M i ⌉ . performing polar code coding on to-be-coded bits, to obtain a mother code, wherein a code length of the mother code is related to K and M i , i=1,2,...,K, K is a quantity of sending times, M i is a length of bits sent at an i th time, and K and M i are positive integers greater than 1; performing rate matching on the mother code, to obtain to-be-sent bits, wherein a quantity of the to-be-sent bits is a sum of lengths of bits sent at K times; and sending M i to-be-sent bits at the i th time; characterised in that : the encoded bits which are successively sent at the K times belong to respective batches of a punctured polar code with the size of the batches corresponding to the respective lengths M i ; wherein the code length of the mother code is determined as 2 ⌈ log 2 ∑ i = 1 K M i ⌉ . the encoded bits which are successively sent at the K times belong to respective batches of a punctured polar code with the size of the batches corresponding to the respective lengths M i ; wherein the code length of the mother code is determined as 2 ⌈ log 2 ∑ i = 1 K M i ⌉ .
A security sheet comprising a plastic substrate , the plastic substrate comprising first and second outer surfaces , at least one opaque region at least partially surrounding at least one window and perforations extending between the first and second outer surfaces , characterized in that the perforations form a first data element located partially in the at least one window and partially in the at least one opaque region .
A multi-row dough-portioning apparatus - having a chamber housing , - having a number of portioning chambers for predetermining a portioned quantity of dough, - having a number of measuring pistons , which can each be displaced in the portioning chambers along a displacement direction -- between a retracted, measuring position, in which the respective measuring piston in the respective portioning chamber predetermines a predetermined portioning volume, -- and a pushed-out, ejecting position, - having a rotation prevention bar , which is installed in a releasable manner on a rear wall on the chamber housing and interacts with a circumferential recess in the measuring pistons in order to prevent rotation of the measuring pistons , - wherein the rotation prevention bar is installed on the chamber housing such that, upon release, it can be removed from the chamber housing in a removal direction perpendicular to the displacement direction of the measuring pistons , characterized in that the chamber housing has a projecting section which projects beyond the rear housing wall , - wherein the rotation prevention bar is configured to be installed on the chamber housing and removed from the chamber housing without any tools being required. - having a chamber housing , - having a number of portioning chambers for predetermining a portioned quantity of dough, - having a number of measuring pistons , which can each be displaced in the portioning chambers along a displacement direction -- between a retracted, measuring position, in which the respective measuring piston in the respective portioning chamber predetermines a predetermined portioning volume, -- and a pushed-out, ejecting position, -- between a retracted, measuring position, in which the respective measuring piston in the respective portioning chamber predetermines a predetermined portioning volume, -- and a pushed-out, ejecting position, - having a rotation prevention bar , which is installed in a releasable manner on a rear wall on the chamber housing and interacts with a circumferential recess in the measuring pistons in order to prevent rotation of the measuring pistons , - wherein the rotation prevention bar is installed on the chamber housing such that, upon release, it can be removed from the chamber housing in a removal direction perpendicular to the displacement direction of the measuring pistons , - wherein the rotation prevention bar is configured to be installed on the chamber housing and removed from the chamber housing without any tools being required.