mhurhangee/patent-ind-claim-en huggingface dataset:
An orifice plate assembly for use with a process variable transmitter for measuring flow of a process fluid, the orifice plate assembly comprising: a single piece body including: a circumferential support ring having a first face configured to be sealingly coupled to a first flange of a first process pipe and a second face configured to be sealingly coupled to a second flange of a second process pipe ; a flow plate region positioned between the first and second process pipes having first and second sides and concentric with the circumferential support ring ; at least one flow orifice in the flow plate region configured to provide a restricted fluid path between the first and second process pipes ; a first pressure tap extending through the circumferential support ring and being coupled to a first bore hole , which extends to the first side of the flow plate region , wherein the first pressure tap and the first bore hole are configured to fluidically couple the process variable transmitter to the process fluid proximate the first side of the flow plate region ; and a second pressure tap extending through the circumferential support ring and being coupled to a second bore hole , which extends to the second side of the flow plate region , wherein the second pressure tap and the second bore hole are configured to fluidically couple the process variable transmitter to the process fluid proximate the second side of the flow plate region , wherein the first pressure tap and the second pressure tap are radially offset from one another. a circumferential support ring having a first face configured to be sealingly coupled to a first flange of a first process pipe and a second face configured to be sealingly coupled to a second flange of a second process pipe ; a flow plate region positioned between the first and second process pipes having first and second sides and concentric with the circumferential support ring ; at least one flow orifice in the flow plate region configured to provide a restricted fluid path between the first and second process pipes ; a first pressure tap extending through the circumferential support ring and being coupled to a first bore hole , which extends to the first side of the flow plate region , wherein the first pressure tap and the first bore hole are configured to fluidically couple the process variable transmitter to the process fluid proximate the first side of the flow plate region ; and a second pressure tap extending through the circumferential support ring and being coupled to a second bore hole , which extends to the second side of the flow plate region , wherein the second pressure tap and the second bore hole are configured to fluidically couple the process variable transmitter to the process fluid proximate the second side of the flow plate region , wherein the first pressure tap and the second pressure tap are radially offset from one another.
A method for performing a shuttle shift with a transmission of a work vehicle , the transmission including an input shaft , a counter shaft and a plurality of driven shafts extending generally parallel to the input and counter shafts , the method comprising: - disengaging a clutch associated with a first directional gear of a directional shaft of the plurality of driven shafts , the first directional gear being configured to rotate the directional shaft in a first direction; and engaging clutches associated with at least two gears of at least one secondary driven shaft of the plurality of driven shafts to reduce a rotational speed of the directional shaft ; wherein said engaging clutches comprises: - maintaining partial engagement of a previously engaged clutch of the at least one secondary driven shaft ; and - partially engaging a previously non-engaged clutch of the at least one secondary driven shaft and after the rotational speed of the directional shaft is reduced, engaging a clutch associated with a second directional gear of the directional shaft such that the directional shaft rotates in a second direction - disengaging a clutch associated with a first directional gear of a directional shaft of the plurality of driven shafts , the first directional gear being configured to rotate the directional shaft in a first direction; and - maintaining partial engagement of a previously engaged clutch of the at least one secondary driven shaft ; and - partially engaging a previously non-engaged clutch of the at least one secondary driven shaft and
A composite vane comprising both a vane body extending in a longitudinal direction (DL) between an inner end and an outer end and also at least one fastener base connected to the inner end or to the outer end of the vane body, the vane comprising metal reinforcement associated with an organic matrix , the vane being characterized in that the metal reinforcement defines integrally as a single part both a longitudinal core extending between the inner and outer ends of the vane body and also said at least one fastener base , the longitudinal core having the organic matrix overmolded thereon, the organic matrix defining the outside shape of the vane, the vane also comprising an inner and outer platform formed by the organic matrix , the vane further comprising an inner fastener base connected to the inner end of the vane body and an outer fastener base connected to the outer end of the vane body, the inner and outer fastener bases both being defined by the metal reinforcement and being made integrally with the longitudinal core .
A method, comprising: performing, by a plurality of computers: maintaining data in multiple physical data blocks of a data storage system on behalf of one or more clients, wherein each physical data block is associated with a unique identifier; performing a backup operation to store a respective copy of data stored in a given physical data block in a key-value storage system that is distinct from the data storage system; subsequent to storing the respective copy of the data stored in the given physical data block, restoring the data stored in the given physical data block from the key-value storage system to the data storage system while accepting and servicing queries directed to the data maintained on behalf of the one or more clients, wherein said accepting and servicing queries is performed prior to restoring all of the data stored in the multiple physical data blocks , and wherein said servicing comprises: streaming at least some of the respective copy of data in the key-value storage system using the unique identifier associated with the given physical data block as a key in the key-value storage system. maintaining data in multiple physical data blocks of a data storage system on behalf of one or more clients, wherein each physical data block is associated with a unique identifier; performing a backup operation to store a respective copy of data stored in a given physical data block in a key-value storage system that is distinct from the data storage system; subsequent to storing the respective copy of the data stored in the given physical data block, restoring the data stored in the given physical data block from the key-value storage system to the data storage system while accepting and servicing queries directed to the data maintained on behalf of the one or more clients, wherein said accepting and servicing queries is performed prior to restoring all of the data stored in the multiple physical data blocks , and wherein said servicing comprises: streaming at least some of the respective copy of data in the key-value storage system using the unique identifier associated with the given physical data block as a key in the key-value storage system. wherein said accepting and servicing queries is performed prior to restoring all of the data stored in the multiple physical data blocks , and wherein said servicing comprises: streaming at least some of the respective copy of data in the key-value storage system using the unique identifier associated with the given physical data block as a key in the key-value storage system.
A method for detecting a mature small RNA in a sample comprising a mature small RNA, the method comprising: polyadenylating the 3' end of the mature small RNA and ligating a single-stranded adaptor to the 5' end of the mature small RNA in the presence of single strand RNA ligase, whereby an RNA ligation product is formed, wherein the adaptor comprises a universal forward primer portion; reverse transcribing the RNA ligation product using a reverse transcription (RT) primer, thereby forming a cDNA product of the RNA ligation product, wherein the RT primer comprises a poly(T) portion and a tail portion, wherein the tail portion comprises a universal reverse primer portion; amplifying the cDNA product using a first forward and reverse primer pair to form an amplification product, wherein the first forward primer can hybridize to the universal forward primer portion or its complement, and the first reverse primer can hybridize to the universal reverse primer portion or its complement; and detecting the amplification product corresponding to the mature small RNA via quantitative real-time polymerase chain reaction (qPCR), wherein the cDNA product amplifying is a pre-amplification step, and wherein polyadenylation, ligation, and reverse transcription are performed in the same reaction vessel, and wherein polyadenylation, ligation, reverse transcription and pre-amplification are performed without intervening extraction, precipitation, purification and/or other clean-up processes. polyadenylating the 3' end of the mature small RNA and ligating a single-stranded adaptor to the 5' end of the mature small RNA in the presence of single strand RNA ligase, whereby an RNA ligation product is formed, wherein the adaptor comprises a universal forward primer portion; reverse transcribing the RNA ligation product using a reverse transcription (RT) primer, thereby forming a cDNA product of the RNA ligation product, wherein the RT primer comprises a poly(T) portion and a tail portion, wherein the tail portion comprises a universal reverse primer portion; amplifying the cDNA product using a first forward and reverse primer pair to form an amplification product, wherein the first forward primer can hybridize to the universal forward primer portion or its complement, and the first reverse primer can hybridize to the universal reverse primer portion or its complement; and detecting the amplification product corresponding to the mature small RNA via quantitative real-time polymerase chain reaction (qPCR), wherein the cDNA product amplifying is a pre-amplification step, and wherein polyadenylation, ligation, and reverse transcription are performed in the same reaction vessel, and wherein polyadenylation, ligation, reverse transcription and pre-amplification are performed without intervening extraction, precipitation, purification and/or other clean-up processes.
A robot cleaner comprising: a body including a driving unit and a cleaning unit ; a dust box mounted to the body to store dust; a dust sensing unit to detect dust stored in the dust box , the dust sensing unit including a light emitting unit attached to the body to emit light signal, and a light receiving sensor attached to the body to sense the light signal emitted by the light emitting unit, wherein the light emitting unit and the light receiving sensor remain attached to the body even when the dust box is removed from the body, characterized in that the dust box is removably mounted to the body to store dust and comprises an inlet through which dust is introduced into the dust box, and the light signal emitted by the light emitting unit travels horizontally across an inlet of the dust box. a body including a driving unit and a cleaning unit ; a dust box mounted to the body to store dust; a dust sensing unit to detect dust stored in the dust box , the dust sensing unit including a light emitting unit attached to the body to emit light signal, and a light receiving sensor attached to the body to sense the light signal emitted by the light emitting unit, wherein the light emitting unit and the light receiving sensor remain attached to the body even when the dust box is removed from the body, a light emitting unit attached to the body to emit light signal, and a light receiving sensor attached to the body to sense the light signal emitted by the light emitting unit, wherein the light emitting unit and the light receiving sensor remain attached to the body even when the dust box is removed from the body, characterized in that the dust box is removably mounted to the body to store dust and comprises an inlet through which dust is introduced into the dust box, and the light signal emitted by the light emitting unit travels horizontally across an inlet of the dust box.
A cleaning composition comprising: a mixture of a linear alkylbenzene sulfonate (LAS) and a sodium lauryl ether sulfate (SLES), wherein the mixture is present in the cleaning composition in an amount of about 1%-2% by weight and wherein a weight ratio of LAS:SLES is selected from the group consisting of about 3:1 to about 1:1 and about 6:1 to about 4:1; a nonionic surfactant; and a fragrance. a mixture of a linear alkylbenzene sulfonate (LAS) and a sodium lauryl ether sulfate (SLES), wherein the mixture is present in the cleaning composition in an amount of about 1%-2% by weight and wherein a weight ratio of LAS:SLES is selected from the group consisting of about 3:1 to about 1:1 and about 6:1 to about 4:1; a nonionic surfactant; and a fragrance.
A detection method based on a laser radar, characterized by comprising the following operations: (S101/S201/S301/S401), obtaining scanning data of the laser radar; (S102), performing an algorithm splitting on a feature algorithm used for detection based on the scanning data to obtain at least one sub-algorithm capable of parallel processing in the feature algorithm; (S103/S203/S303/S403), performing a heterogeneous acceleration on the at least one sub-algorithm to process the scanning data, and obtaining a detected position of an obstacle and a detected drivable area based on a processing result. (S101/S201/S301/S401), obtaining scanning data of the laser radar; (S102), performing an algorithm splitting on a feature algorithm used for detection based on the scanning data to obtain at least one sub-algorithm capable of parallel processing in the feature algorithm; (S103/S203/S303/S403), performing a heterogeneous acceleration on the at least one sub-algorithm to process the scanning data, and obtaining a detected position of an obstacle and a detected drivable area based on a processing result.
Method for producing a security element having a security feature , which security feature comprises a first motif producing a color-tilting effect and a second motif , comprising the steps of: - providing a carrier substrate ; - applying a lift-off capable embossing lacquer layer ; - producing the second motif by partial removal of the lift-off capable embossing lacquer layer in the form of the first motif by embossing the first motif into the lift-off capable embossing lacquer layer in such a way that the lift-off capable embossing lacquer layer is removed in an embossing direction up to a layer lying directly below the lift-off capable embossing lacquer layer ; - applying a thin-film element producing the color-tilting effect comprising an absorber layer , a dielectric spacer layer and a reflective layer ; - removing the remaining lift-off capable embossing lacquer layer by means of a lift-off process, so that those areas of the thin-film element applied to the lift-off capable embossing lacquer layer in the form of the second motif are removed together with the lift-off capable embossing lacquer layer , while the thin-film element in the form of the first motif remains on the layer lying immediately below the lift-off capable embossing lacquer layer . - providing a carrier substrate ; - applying a lift-off capable embossing lacquer layer ; - producing the second motif by partial removal of the lift-off capable embossing lacquer layer in the form of the first motif by embossing the first motif into the lift-off capable embossing lacquer layer in such a way that the lift-off capable embossing lacquer layer is removed in an embossing direction up to a layer lying directly below the lift-off capable embossing lacquer layer ; - applying a thin-film element producing the color-tilting effect comprising an absorber layer , a dielectric spacer layer and a reflective layer ; - removing the remaining lift-off capable embossing lacquer layer by means of a lift-off process, so that those areas of the thin-film element applied to the lift-off capable embossing lacquer layer in the form of the second motif are removed together with the lift-off capable embossing lacquer layer , while the thin-film element in the form of the first motif remains on the layer lying immediately below the lift-off capable embossing lacquer layer .
An agricultural baler , comprising: a main bale chamber including a pair of opposed side walls , each said side wall including a plunger slot arrangement defining a plunger slot ; a pair of plunger slot rails positioned in each plunger slot , including a top rail positioned at a top of the respective plunger slot and a bottom rail positioned at a bottom of the respective plunger slot ; a plunger reciprocally disposed within said main bale chamber , said plunger including a pair of opposed sides and at least one roller extending laterally outward from each said side , each said roller being positioned within a respective said plunger slot ; and a pair of plunger slot cover assemblies , each said cover assembly being associated with a respective said plunger slot and having an upper cover and a lower cover , said upper cover extending downward from the top rail and having a lower edge positioned between at least one respective said roller and the plunger when the plunger is at a forward position, said lower cover extending upward from the bottom rail and having an upper edge positioned between at least one respective said roller and the plunger when the plunger is at the forward position; characterized by: a plurality of scrapers , each said scraper being associated with a respective said roller and positioned within a corresponding said plunger slot . a main bale chamber including a pair of opposed side walls , each said side wall including a plunger slot arrangement defining a plunger slot ; a pair of plunger slot rails positioned in each plunger slot , including a top rail positioned at a top of the respective plunger slot and a bottom rail positioned at a bottom of the respective plunger slot ; a plunger reciprocally disposed within said main bale chamber , said plunger including a pair of opposed sides and at least one roller extending laterally outward from each said side , each said roller being positioned within a respective said plunger slot ; and a pair of plunger slot cover assemblies , each said cover assembly being associated with a respective said plunger slot and having an upper cover and a lower cover , said upper cover extending downward from the top rail and having a lower edge positioned between at least one respective said roller and the plunger when the plunger is at a forward position, said lower cover extending upward from the bottom rail and having an upper edge positioned between at least one respective said roller and the plunger when the plunger is at the forward position; characterized by: a plurality of scrapers , each said scraper being associated with a respective said roller and positioned within a corresponding said plunger slot .
A center de-skew (CDS) subassembly to align a document about a center of a path to be traveled by the document comprising: a lower-central plate with a planar surface having a centerline ; a transport mechanism configured to transport the document so that the document is adjacent the lower-central plate; a pair of generally planar plates operable to move in tandem toward and away from the centerline; a plurality of edge-detection sensors (175 A-D) on the pair of generally planar plates configured to sense an edge of the document as the planar plates move toward the centerline; a translate/rotate mechanism configured to translate and rotate the document until one of the edge-detection sensors (175 A-D) detects an edge of the document; and a control logic configured to control the planar plates to move in tandem toward and from the centerline moving the plurality of edge-detection sensors (175 A-D) until at least one of the edge-detection sensors (175 A-D) detects an edge of the document, wherein the control logic is configured to operate the translate/rotate mechanism to rotate the document while controlling the plates to move in tandem toward the centerline so that the translate/rotate mechanism aligns the document parallel to the centerline as a parallel-aligned document, and wherein the control logic is configured to control the translate/rotate mechanism to center the parallel-aligned document about the centerline to create a centered document. a lower-central plate with a planar surface having a centerline ; a transport mechanism configured to transport the document so that the document is adjacent the lower-central plate; a pair of generally planar plates operable to move in tandem toward and away from the centerline; a plurality of edge-detection sensors (175 A-D) on the pair of generally planar plates configured to sense an edge of the document as the planar plates move toward the centerline; a translate/rotate mechanism configured to translate and rotate the document until one of the edge-detection sensors (175 A-D) detects an edge of the document; and a control logic configured to control the planar plates to move in tandem toward and from the centerline moving the plurality of edge-detection sensors (175 A-D) until at least one of the edge-detection sensors (175 A-D) detects an edge of the document, wherein the control logic is configured to operate the translate/rotate mechanism to rotate the document while controlling the plates to move in tandem toward the centerline so that the translate/rotate mechanism aligns the document parallel to the centerline as a parallel-aligned document, and wherein the control logic is configured to control the translate/rotate mechanism to center the parallel-aligned document about the centerline to create a centered document.