mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing a sulfonic acid group-containing monomer, comprising the step of mixing and stirring the following: a cyclic compound represented by the following general formula (in the formula , X is F or CF 3 and n is an integer from 1 to 6, when n is 2 or more, each CFX can be the same or different); and a silanol compound represented by the following general formula R 1 R 2 R 3 Si(OM) (in the formula , M is an alkali metal or an alkaline earth metal; and each of R 1 to R 3 is independently an optionally substituted hydrocarbon group having a carbon number from 1 to 10, or OM (M is an alkali metal or an alkaline earth metal), wherein the sulfonic acid group-containing monomer is represented by the following general formula CF 2 =CFO(CFX) n SO 3 Y (in the formula , n and X are the same as n and X in the general formula ; and Y is a hydrogen atom, M, or R 1 R 2 R 3 Si (wherein M and R 1 to R 3 are the same as M and R 1 to R 3 in the general formula ). a cyclic compound represented by the following general formula (in the formula , X is F or CF 3 and n is an integer from 1 to 6, when n is 2 or more, each CFX can be the same or different); and a silanol compound represented by the following general formula R 1 R 2 R 3 Si(OM) (in the formula , M is an alkali metal or an alkaline earth metal; and each of R 1 to R 3 is independently an optionally substituted hydrocarbon group having a carbon number from 1 to 10, or OM (M is an alkali metal or an alkaline earth metal), wherein the sulfonic acid group-containing monomer is represented by the following general formula CF 2 =CFO(CFX) n SO 3 Y (in the formula , n and X are the same as n and X in the general formula ; and Y is a hydrogen atom, M, or R 1 R 2 R 3 Si (wherein M and R 1 to R 3 are the same as M and R 1 to R 3 in the general formula ).
An enclosure defining an interior and an exterior , the enclosure comprising: a frame ; a plurality of panels coupled to the frame and configured to define the interior and the exterior of the enclosure ; a floor defining a bottom of the enclosure and comprising an entry module coupled to the enclosure and configured to facilitate passage of at least one cable into the enclosure , characterized in that the entry module comprises: a first module plate comprising a first edge defining a first edge profile ; and a second module plate comprising a second edge defining a second edge profile , wherein the first module plate lies substantially in a first plane and the second module plate lies substantially in a second plane, and wherein the first module plate and the second module plate are configured to approach one another, such that the first edge profile and the second edge profile define at least one aperture therebetween and such that the first plane and the second plane are substantially coplanar with respect to one another. a frame ; a plurality of panels coupled to the frame and configured to define the interior and the exterior of the enclosure ; a floor defining a bottom of the enclosure and comprising an entry module coupled to the enclosure and configured to facilitate passage of at least one cable into the enclosure , characterized in that the entry module comprises: a first module plate comprising a first edge defining a first edge profile ; and a second module plate comprising a second edge defining a second edge profile , wherein the first module plate lies substantially in a first plane and the second module plate lies substantially in a second plane, and wherein the first module plate and the second module plate are configured to approach one another, such that the first edge profile and the second edge profile define at least one aperture therebetween and such that the first plane and the second plane are substantially coplanar with respect to one another. a first module plate comprising a first edge defining a first edge profile ; and a second module plate comprising a second edge defining a second edge profile , wherein the first module plate lies substantially in a first plane and the second module plate lies substantially in a second plane, and wherein the first module plate and the second module plate are configured to approach one another, such that the first edge profile and the second edge profile define at least one aperture therebetween and such that the first plane and the second plane are substantially coplanar with respect to one another.
A synthetic aperture radar, SAR, system configured for SAR processing, the SAR comprising: front-end circuitry coupled to transmit radar signals , to receive return radar signals , and to output digital radar data; FFT circuits coupled to receive the digital radar data and to output interpolated FFT data based upon pixel ranges and oversampled pixel range values, the FFT circuits comprising a vector processor engine and an accelerator coupled to the vector processor engine , wherein the vector processor engine is configured to provide parallel processing of the digital radar data and the accelerator is configured to select data elements to be processed; and a processor coupled to receive the interpolated FFT data and to process the interpolated FFT data to apply phase compensation and coherent integration and to generate radar pixel data representing a radar image; wherein the vector processor engine comprises a single-instruction multiple data, SIMD, processor; the accelerator comprises logic programmed to select an arbitrary subset of data elements from an input vector of data elements based upon a user-configured and ordered vector of selection indices to generate a continuous output vector comprising the subset; and the accelerator further comprises a plurality of multiplexers ; and wherein the selection indices are used to generate address offsets and page offsets to control the plurality of multiplexers. front-end circuitry coupled to transmit radar signals , to receive return radar signals , and to output digital radar data; FFT circuits coupled to receive the digital radar data and to output interpolated FFT data based upon pixel ranges and oversampled pixel range values, the FFT circuits comprising a vector processor engine and an accelerator coupled to the vector processor engine , wherein the vector processor engine is configured to provide parallel processing of the digital radar data and the accelerator is configured to select data elements to be processed; and a processor coupled to receive the interpolated FFT data and to process the interpolated FFT data to apply phase compensation and coherent integration and to generate radar pixel data representing a radar image; wherein the vector processor engine comprises a single-instruction multiple data, SIMD, processor; the accelerator comprises logic programmed to select an arbitrary subset of data elements from an input vector of data elements based upon a user-configured and ordered vector of selection indices to generate a continuous output vector comprising the subset; and the accelerator further comprises a plurality of multiplexers ; and wherein the selection indices are used to generate address offsets and page offsets to control the plurality of multiplexers.
A system for resolving inconsistencies in device models within a process control system while executing a control process, the system comprising: a process controller having a first copy of a model of an entity of the process control system; a control process execution engine having a second copy of the model of the entity of the process control system, wherein the control process execution engine is adapted to provide a control instruction to the process controller based on the second copy of the model of the entity, and wherein the process controller is adapted to execute the control instruction based on the first copy of the model of the entity; and a control execution object that detects a difference between the first and second copies of the model of the entity during execution of the control process and generates a prompt in response detection of the difference, and receives an operation instruction regarding continued operation of the control process, wherein the operation instruction comprises one of continuing execution of the control process or aborting execution of the control process. a process controller having a first copy of a model of an entity of the process control system; a control process execution engine having a second copy of the model of the entity of the process control system, wherein the control process execution engine is adapted to provide a control instruction to the process controller based on the second copy of the model of the entity, and wherein the process controller is adapted to execute the control instruction based on the first copy of the model of the entity; and a control execution object that detects a difference between the first and second copies of the model of the entity during execution of the control process and generates a prompt in response detection of the difference, and receives an operation instruction regarding continued operation of the control process, wherein the operation instruction comprises one of continuing execution of the control process or aborting execution of the control process.
A liquid supply for a body cavity irrigation device, comprising: a pump base unit having a housing ; a conduit formed in the housing , the conduit having an external surface and an internal fluid passageway therethrough; a reservoir mounted on the pump base unit in fluid communication with the passageway of the conduit, wherein the reservoir is adapted to contain water; and characterized in that : a temperature sensor mounted on the conduit in contact with the external surface thereof, wherein the temperature sensor is not in direct contact with the water. a pump base unit having a housing ; a conduit formed in the housing , the conduit having an external surface and an internal fluid passageway therethrough; a reservoir mounted on the pump base unit in fluid communication with the passageway of the conduit, wherein the reservoir is adapted to contain water; and characterized in that : a temperature sensor mounted on the conduit in contact with the external surface thereof, wherein the temperature sensor is not in direct contact with the water.
A conveyor system for transporting articles in a checkout counter, comprising a loading conveyor on which articles may be placed by a customer, a second conveyor arranged in series with the loading conveyor which second conveyor is operated at a higher speed than said loading conveyor for increasing the distance between adjacent articles, wherein the loading conveyor is tilted with respect to a horizontal plane in a lateral direction, and wherein said conveyor system further comprises an intermediate acceleration device being arranged between the loading conveyor and the second conveyor for accelerating the articles when moving from the loading conveyor to the second conveyor , characterized in that the loading conveyor , the second conveyor and the intermediate acceleration device are tilted by different angles and in that the tilting angle of the loading conveyor is higher than the tilting angle of the second conveyor .
An amniotic fluid collection device , comprising: a collection chamber ; a collection chamber inlet valve coupled to the collection chamber ; a proximal fluid-extraction tube coupled to the collection chamber inlet valve , the proximal fluid-extraction tube comprising a medical grade material; and a distal fluid-extraction tube coupled to the proximal fluid-extraction tube , the distal fluid extraction tube comprising a transfer portion and an inlet , wherein the inlet comprises a main inlet , a penetrating tip , and one or more lateral inlets , characterized in that the distal fluid extraction tube comprises a moldable polymer plastic comprising softeners, and in that the penetrating tip comprises a surface having a cutting angle of between 25 degrees and 75 degrees. a collection chamber ; a collection chamber inlet valve coupled to the collection chamber ; a proximal fluid-extraction tube coupled to the collection chamber inlet valve , the proximal fluid-extraction tube comprising a medical grade material; and a distal fluid-extraction tube coupled to the proximal fluid-extraction tube , the distal fluid extraction tube comprising a transfer portion and an inlet , wherein the inlet comprises a main inlet , a penetrating tip , and one or more lateral inlets , characterized in that the distal fluid extraction tube comprises a moldable polymer plastic comprising softeners, and in that the penetrating tip comprises a surface having a cutting angle of between 25 degrees and 75 degrees.
An insulation member for a hollow space of a vehicle bodywork, said insulation member comprising an expandable insulation body and a gas-impermeable cover , said cover comprising a yieldable chamber portion enclosing said expandable insulation body , wherein a pressure inside said chamber portion in a non-expanded state of said insulation member is less than atmospheric pressure, wherein said cover further comprises at least one attachment portion comprising at least one indicium for an aperture adapted for attachment to said vehicle bodywork, characterized in that the indicium is in the form of a local weakening of the attachment portion.
A computer-implemented method for determining one or more operating modes for a crude oil displacement system, the crude oil displacement system being arranged to inject an aqueous displacement fluid into one or more reservoirs , each reservoir comprising a porous and permeable rock formation, wherein crude oil and formation water are contained within a pore space of the rock formation, said crude oil displacement system being for use in displacing crude oil from the pore space of the rock formation, the method comprising the steps of: receiving measurement data associated with one or more chemical characteristics of the displacement fluid and one or more chemical characteristics of the rock formation, the crude oil and the formation water of the one or more reservoirs; inputting said measurement data and data representing a predetermined volume of oil into a computer-implemented predictive model , wherein the predictive model is based on correlations between data indicative of known incremental displacement of oil and data indicative of chemical characteristics corresponding to the rock formation, the crude oil, the formation water and the displacement fluid; operating the predictive model so as to generate predicted data indicative of a predicted additional amount of oil, compared with the predetermined volume of oil, that will be displaced from the pore space of the one or more rock formations by configuring the crude oil displacement system so as to inject said displacement fluid having said measured chemical characteristics into the one or more reservoirs, wherein said predicted data is generated based on said measured chemical characteristics; and determining, on the basis of the predicted data, said one or more operating modes of the crude oil displacement system. receiving measurement data associated with one or more chemical characteristics of the displacement fluid and one or more chemical characteristics of the rock formation, the crude oil and the formation water of the one or more reservoirs; inputting said measurement data and data representing a predetermined volume of oil into a computer-implemented predictive model , wherein the predictive model is based on correlations between data indicative of known incremental displacement of oil and data indicative of chemical characteristics corresponding to the rock formation, the crude oil, the formation water and the displacement fluid; operating the predictive model so as to generate predicted data indicative of a predicted additional amount of oil, compared with the predetermined volume of oil, that will be displaced from the pore space of the one or more rock formations by configuring the crude oil displacement system so as to inject said displacement fluid having said measured chemical characteristics into the one or more reservoirs, wherein said predicted data is generated based on said measured chemical characteristics; and determining, on the basis of the predicted data, said one or more operating modes of the crude oil displacement system.
An ink-jet print head comprising a polymeric material layer defining ink passage ways formed on a substrate, the polymeric material layer being formed by curing a curable resin composition comprising a cyclic aromatic difunctional epoxy resin (a) obtained by condensation of bisphenol A and epichlorohydrine having a weight per epoxide (EEW) of ≥ 400 g/eq., a cyclic aliphatic difunctional epoxy resin (b) of the formula (I): wherein R is a carboxyalkylene group of the formula -(CH 2 ) p -COO-or -(CH 2 ) q -COO-(CH 2 ) r -OOC-(CH 2 ) s -, wherein p, q, r and s each independently is an integer of 1 to 9, a polymerization initiator. a cyclic aromatic difunctional epoxy resin (a) obtained by condensation of bisphenol A and epichlorohydrine having a weight per epoxide (EEW) of ≥ 400 g/eq., a cyclic aliphatic difunctional epoxy resin (b) of the formula (I): wherein R is a carboxyalkylene group of the formula -(CH 2 ) p -COO-or -(CH 2 ) q -COO-(CH 2 ) r -OOC-(CH 2 ) s -, wherein p, q, r and s each independently is an integer of 1 to 9, a polymerization initiator.
A computer-implemented method for monitoring a person performing a physical exercise based on a sequence of image frames showing the person's exercise activity, the method comprising the following steps - extracting, based on the sequence of image frames, for each image frame a set of body key points (5-1 - 5-16) using a neural network, a body key point being a point at a predetermined position of the person's body, and the set of body key points (5-1 - 5-16) being indicative of the person's posture in the image frame; - deriving, based on a subset of the body key points (5-1 - 5-16) in each image frame, at least one characteristic parameter indicating the progression of the person's movement, wherein at least one of the characteristic parameters is derived from a subset of body key points in the sequence of image frames using machine learning; - detecting a start loop condition by evaluating the time progression of the at least one characteristic parameter, said start loop condition indicating a transition from a start posture of the person to the person's movement when performing the physical exercise, wherein the detecting of the start loop condition comprises detecting when the characteristic parameter leaves a pre-determine value range corresponding to the person's start posture or detecting when a change of slope of the characteristic parameter's time progression occurs, the change of slope indicating the onset of performing the physical exercise, and wherein a loop of exercising encompasses one single repetition of the physical exercise. - extracting, based on the sequence of image frames, for each image frame a set of body key points (5-1 - 5-16) using a neural network, a body key point being a point at a predetermined position of the person's body, and the set of body key points (5-1 - 5-16) being indicative of the person's posture in the image frame; - deriving, based on a subset of the body key points (5-1 - 5-16) in each image frame, at least one characteristic parameter indicating the progression of the person's movement, wherein at least one of the characteristic parameters is derived from a subset of body key points in the sequence of image frames using machine learning; - detecting a start loop condition by evaluating the time progression of the at least one characteristic parameter, said start loop condition indicating a transition from a start posture of the person to the person's movement when performing the physical exercise, wherein the detecting of the start loop condition comprises detecting when the characteristic parameter leaves a pre-determine value range corresponding to the person's start posture or detecting when a change of slope of the characteristic parameter's time progression occurs, the change of slope indicating the onset of performing the physical exercise, detecting when the characteristic parameter leaves a pre-determine value range corresponding to the person's start posture or detecting when a change of slope of the characteristic parameter's time progression occurs, the change of slope indicating the onset of performing the physical exercise,
A display device, comprising: a substrate (SUB) which includes a display area (AA) including a first pixel (P13) and a non-display area (NA) including a second pixel (P11); a first data line (DL3) which is disposed on the substrate (SUB) and configured to apply a data signal to the first pixel (P13); a second data line (DL1) which is disposed on the substrate (SUB) and configured to apply a data signal to the second pixel (P11); and a gate line (GL) which is disposed on the substrate (SUB) and configured to apply gate signals to the first pixel (P13) and the second pixel (P11) at the same timing, wherein the first pixel (P13) and the second pixel (P11) have different area from each other, and wherein the first pixel (P13) and the second pixel (P11) include a pixel electrode which includes a plurality of pixel electrodes (PE) and a common electrode which includes a plurality of common electrodes (CE), and the plurality of pixel electrodes (PE) and the plurality of common electrodes (CE) disposed in the second pixel (P11) have different lengths and shapes from the plurality of pixel electrodes (PE) and the plurality of common electrodes (CE) disposed in the first pixel (P13). a substrate (SUB) which includes a display area (AA) including a first pixel (P13) and a non-display area (NA) including a second pixel (P11); a first data line (DL3) which is disposed on the substrate (SUB) and configured to apply a data signal to the first pixel (P13); a second data line (DL1) which is disposed on the substrate (SUB) and configured to apply a data signal to the second pixel (P11); and a gate line (GL) which is disposed on the substrate (SUB) and configured to apply gate signals to the first pixel (P13) and the second pixel (P11) at the same timing, wherein the first pixel (P13) and the second pixel (P11) have different area from each other, and wherein the first pixel (P13) and the second pixel (P11) include a pixel electrode which includes a plurality of pixel electrodes (PE) and a common electrode which includes a plurality of common electrodes (CE), and the plurality of pixel electrodes (PE) and the plurality of common electrodes (CE) disposed in the second pixel (P11) have different lengths and shapes from the plurality of pixel electrodes (PE) and the plurality of common electrodes (CE) disposed in the first pixel (P13).
A process for producing a titanium or titanium alloy load-bearing structure as a unitary construction, which process comprises cold-gas dynamic spraying of titanium or titanium alloy particles to deposit a layer of titanium or titanium alloy on to a support member having a shape and configuration that reflects the shape and configuration of the load bearing structure to be produced, wherein (i) the so formed layer of titanium or titanium alloy is load-bearing, (ii) the so formed unitary construction is not produced by joining together individual components; and (iii) after cold-gas dynamic spraying has been completed the support member is retained at specific locations and removed from other locations of the load-bearing structure.