mhurhangee/patent-ind-claim-en huggingface dataset:
Diaphragm pump for the pneumatic high-pressure delivery of 1 to 10 MPa fluidized dusts, in which: - a pressure-tight housing is provided, - the volume in the housing is divided by a levelly (horizontally) arranged diaphragm into a lower dust chamber and an upper hydraulic chamber , - the dust chamber has, from below, an entrance for the dust which can be shut off by means of an inlet fitting , - the dust chamber has, from below, an exit for the dust which can be shut off by means of an outlet fitting , - at the base of the dust chamber, there is arranged a gas-permeable loosening surface which is connected to a gas port , - the hydraulic chamber is connected to a hydraulic port for the supply and discharge of hydraulic fluid. - a pressure-tight housing is provided, - the volume in the housing is divided by a levelly (horizontally) arranged diaphragm into a lower dust chamber and an upper hydraulic chamber , - the dust chamber has, from below, an entrance for the dust which can be shut off by means of an inlet fitting , - the dust chamber has, from below, an exit for the dust which can be shut off by means of an outlet fitting , - at the base of the dust chamber, there is arranged a gas-permeable loosening surface which is connected to a gas port , - the hydraulic chamber is connected to a hydraulic port for the supply and discharge of hydraulic fluid.
A treatment device for the treatment of a metal article for treatment , wherein the article for treatment is a wire or a wire part, wherein the treatment comprises at least pickling and phosphating of the article for treatment , wherein a protective layer is produced on the surface of the article for treatment by means of the phosphating, wherein the treatment device comprises at least the following specified apparatus: a treatment container for receiving the article for treatment and for receiving a flowable treatment substance , a pump apparatus for circulating at least a proportion of the treatment substance , wherein the treatment substance can flow around at least a portion of the article for treatment , in particular the entire article for treatment , and wherein an apparatus for applying ultrasound to the article for treatment and/or the treatment substance is disposed in or on the treatment container , wherein the application of the ultrasound brings about a movement of at least portions of the article for treatment , wherein the ultrasound apparatus is disposed on a retaining apparatus which receives the article for treatment in the form of a wire or a wire coil. a treatment container for receiving the article for treatment and for receiving a flowable treatment substance , a pump apparatus for circulating at least a proportion of the treatment substance , wherein the treatment substance can flow around at least a portion of the article for treatment , in particular the entire article for treatment , and wherein an apparatus for applying ultrasound to the article for treatment and/or the treatment substance is disposed in or on the treatment container , wherein the application of the ultrasound brings about a movement of at least portions of the article for treatment , wherein the ultrasound apparatus is disposed on a retaining apparatus which receives the article for treatment in the form of a wire or a wire coil.
A method comprising: combining: a template ribonucleic acid (RNA); a template switch oligonucleotide comprising a 3' hybridization domain and a first sequencing platform adapter construct; a first primer comprising: a first domain that hybridizes to the template RNA; and a second domain that does not hybridize to the template RNA and comprises a second sequencing platform adapter construct, wherein the first and second sequencing adapter constructs are different; a template switching polymerase; and dNTPs; in a reaction mixture under conditions sufficient to produce a product nucleic acid comprising the template RNA and the template switch oligonucleotide each hybridized to adjacent regions of a single product nucleic acid comprising a region polymerized from the dNTPs by the polymerase; subjecting the single product nucleic acid to amplification conditions to generate an amplified product nucleic acid with the first sequencing platform adapter construct at one end and the second sequencing platform adapter construct at the other end; and sequencing the amplified single product nucleic acid on sequencing platform using both the first and second sequencing platform adapter constructs. a first domain that hybridizes to the template RNA; and a second domain that does not hybridize to the template RNA and comprises a second sequencing platform adapter construct, wherein the first and second sequencing adapter constructs are different; a template switching polymerase; and dNTPs; in a reaction mixture under conditions sufficient to produce a product nucleic acid comprising the template RNA and the template switch oligonucleotide each hybridized to adjacent regions of a single product nucleic acid comprising a region polymerized from the dNTPs by the polymerase; subjecting the single product nucleic acid to amplification conditions to generate an amplified product nucleic acid with the first sequencing platform adapter construct at one end and the second sequencing platform adapter construct at the other end; and sequencing the amplified single product nucleic acid on sequencing platform using both the first and second sequencing platform adapter constructs.
An optical combiner comprising: a plurality of first input optical fibers each including a core ; a bridge fiber having a bridge input surface including a single core connected to the cores of the plurality of first input optical fibers , a diameter reduction portion having a diameter gradually reduced away from the bridge input surface along an optical axis, and a bridge output surface located opposite to the bridge input surface along the optical axis; an intermediate optical fiber including a core connected to the bridge output surface of the bridge fiber ; at least one second input optical fiber including a core ; and an output optical fiber including a first optical waveguide connected to the core of the intermediate optical fiber and a second optical waveguide connected to the core of the at least one second input optical fiber . a plurality of first input optical fibers each including a core ; a bridge fiber having a bridge input surface including a single core connected to the cores of the plurality of first input optical fibers , a diameter reduction portion having a diameter gradually reduced away from the bridge input surface along an optical axis, and a bridge output surface located opposite to the bridge input surface along the optical axis; an intermediate optical fiber including a core connected to the bridge output surface of the bridge fiber ; at least one second input optical fiber including a core ; and an output optical fiber including a first optical waveguide connected to the core of the intermediate optical fiber and a second optical waveguide connected to the core of the at least one second input optical fiber .
A process for preparing a supported catalyst comprising at least one first element selected from iridium, rhodium, palladium, platinum and any mixture thereof, supported on a carrier, said carrier comprising aluminum, at least one second element selected from chromium, molybdenum, tungsten and any mixture thereof, and optionally rhenium, comprising: (A) Preparing an aqueous solution containing at least one precursor of the second element, optionally at least one precursor of rhenium and at least one precursor of aluminum; (B) Modifying the pH of the aqueous solution to order to obtain a precipitate; (C) Separating said precipitate of (B) by filtration or centrifugation; (D) Removing the water of the separated precipitate of (C) in order to obtain a first dried solid; (E) Treating the first dried solid of (D) with a gas containing oxygen at a temperature of higher than 700 °C and lower than or equal to 1000°C, in order to obtain a first calcined solid; (F) Contacting the first calcined solid of (E) with an aqueous solution of at least one precursor of the first element; (G) Removing the water of (F) in order to obtain a second dried solid; (H) Calcining the second dried solid of (G) with a gas containing oxygen in order to obtain a second calcined solid; (I) Contacting the second calcined solid of (H) with a gas containing hydrogen in order to obtain the solid catalyst. (A) Preparing an aqueous solution containing at least one precursor of the second element, optionally at least one precursor of rhenium and at least one precursor of aluminum; (B) Modifying the pH of the aqueous solution to order to obtain a precipitate; (C) Separating said precipitate of (B) by filtration or centrifugation; (D) Removing the water of the separated precipitate of (C) in order to obtain a first dried solid; (E) Treating the first dried solid of (D) with a gas containing oxygen at a temperature of higher than 700 °C and lower than or equal to 1000°C, in order to obtain a first calcined solid; (F) Contacting the first calcined solid of (E) with an aqueous solution of at least one precursor of the first element; (G) Removing the water of (F) in order to obtain a second dried solid; (H) Calcining the second dried solid of (G) with a gas containing oxygen in order to obtain a second calcined solid; (I) Contacting the second calcined solid of (H) with a gas containing hydrogen in order to obtain the solid catalyst.
Method of detecting the absolute position of a rotatable element by means of a multi-turn absolute encoder ; the multi-turn absolute encoder comprising a single magnet , the magnet being connected to the rotatable element in order to rotate with the latter; an absolute detection device for detecting the absolute position of the element in a single turn; and a multi-turn detection group for determining the number of turns performed by the element and containing at least three actuatable switches and positioned around the magnet in order to be capable of distinguishing at least three different positions of the element in a single turn; the method comprising a step of detecting a sequence of actuations of the switches .
Tool for fixing electrical cables to a supporting surface by means of clamps , comprising a housing containing one in axial direction movable ramming bolt , a replaceable magazine for storing a set of clamps and a loading or charging mechanism for bringing one and one clamp from the magazine to a position in a bore , where the ramming bolt is configured for driving the clamp out of the tool and into the supporting surface, the tool comprises a mechanism that is configured for separating a first clamp from a second clamp in the magazine , characterised in that the loading or charging mechanism comprises a magnet.
Radial magnetic bearing with an axis , a stator and a rotor , where said stator comprises at least two stator assemblies axially spaced from one another, where each of said stator assemblies comprises a magnetically soft core , where at least one of said stator assemblies comprises one said magnetically soft core with several radially projecting teeth arranged distributed in the circumferential direction, and several coils likewise arranged distributed in the circumferential direction, and where two respective teeth of said magnetically soft core that are successive in the circumferential direction are connected to each other by way of a connecting section of said core , where said magnetic bearing further comprises a permanent magnet assembly disposed axially between said two magnetically soft cores , characterized in that at least one said stator arrangement , which comprises several coils arranged distributed in the circumferential direction and the magnetically soft core of which comprises several radially projecting teeth arranged distributed in the circumferential direction, is configured such that one of said respective connecting sections is wound with one of said respective coils .
A method for identifying methylation status of a nucleic acid analyte in a biological sample which is a tissue sample, the method comprising: (a) contacting the biological sample with an array comprising a plurality of capture probes, wherein a capture probe in the plurality of capture probes comprises (i) a spatial barcode and (ii) a capture domain comprising at least one methylated cytosine; (b) deaminating the nucleic acid analyte in the biological sample; (c) contacting the nucleic acid analyte with a plurality of probes comprising a first probe and a second probe, wherein the first probe comprises (i) a sequence complementary to at least a first sequence of the nucleic acid analyte and (ii) a sequence complementary to the capture domain; and the second probe comprises a sequence complementary to at least a second sequence of the nucleic acid analyte; (d) ligating the first probe and the second probe, thereby generating a ligation product; (e) hybridizing the ligation product to the capture probe; (f) extending the capture probe using the ligation product as a template; thereby generating an extended capture probe; and (g) determining (i) the sequence of the spatial barcode or the complement thereof, and (ii) all or a portion of the sequence of the extended capture probe, or a complement thereof, and using the determined sequences of (i) and (ii) to identify the methylation status of the nucleic acid analyte in the biological sample. (a) contacting the biological sample with an array comprising a plurality of capture probes, wherein a capture probe in the plurality of capture probes comprises (i) a spatial barcode and (ii) a capture domain comprising at least one methylated cytosine; (b) deaminating the nucleic acid analyte in the biological sample; (c) contacting the nucleic acid analyte with a plurality of probes comprising a first probe and a second probe, wherein the first probe comprises (i) a sequence complementary to at least a first sequence of the nucleic acid analyte and (ii) a sequence complementary to the capture domain; and the second probe comprises a sequence complementary to at least a second sequence of the nucleic acid analyte; the first probe comprises (i) a sequence complementary to at least a first sequence of the nucleic acid analyte and (ii) a sequence complementary to the capture domain; and the second probe comprises a sequence complementary to at least a second sequence of the nucleic acid analyte; (d) ligating the first probe and the second probe, thereby generating a ligation product; (e) hybridizing the ligation product to the capture probe; (f) extending the capture probe using the ligation product as a template; thereby generating an extended capture probe; and (g) determining (i) the sequence of the spatial barcode or the complement thereof, and (ii) all or a portion of the sequence of the extended capture probe, or a complement thereof, and using the determined sequences of (i) and (ii) to identify the methylation status of the nucleic acid analyte in the biological sample.
A measurement device comprising: an unwinding mechanism , configured to unwind a material tape ; an adjustment mechanism , arranged downstream of the unwinding mechanism and comprising a first drive roller and a second drive roller , the material tape being wound around the first drive roller and the second drive roller , the adjustment mechanism being configured to adjust a tensioning force of the material tape by adjusting material tape conveying speeds of the first drive roller and the second drive roller and keep the material tape under a preset tensioning force so that the material tape forms a tensioned area between the first drive roller and the second drive roller ; a measurement mechanism , configured to measure the size of the material tape in the tensioned area ; and a winding mechanism , arranged downstream of the adjustment mechanism and configured to wind up the material tape . an unwinding mechanism , configured to unwind a material tape ; an adjustment mechanism , arranged downstream of the unwinding mechanism and comprising a first drive roller and a second drive roller , the material tape being wound around the first drive roller and the second drive roller , the adjustment mechanism being configured to adjust a tensioning force of the material tape by adjusting material tape conveying speeds of the first drive roller and the second drive roller and keep the material tape under a preset tensioning force so that the material tape forms a tensioned area between the first drive roller and the second drive roller ; a measurement mechanism , configured to measure the size of the material tape in the tensioned area ; and a winding mechanism , arranged downstream of the adjustment mechanism and configured to wind up the material tape .
A battery assembly method, comprising: stacking a plurality of battery cells in a stacking fixture to create a stack of battery cells; compressing the stack of battery cells by exerting pressure on an external layer of the stack of battery cells using a plurality of pneumatic cylinders ; removing the stacking fixture; inserting a first portion of the compressed stack of battery cells in a can , prior to releasing any of the plurality of pneumatic cylinders, including by advancing the stack of battery cells into the can up to a component comprising a first one or more of the plurality pneumatic cylinders; and releasing the first portion of the stack of battery cells from the first one or more of the plurality of pneumatic cylinders while a second portion of the stack of battery cells remains compressed by one or more other of the plurality of pneumatic cylinders. stacking a plurality of battery cells in a stacking fixture to create a stack of battery cells; compressing the stack of battery cells by exerting pressure on an external layer of the stack of battery cells using a plurality of pneumatic cylinders ; removing the stacking fixture; inserting a first portion of the compressed stack of battery cells in a can , prior to releasing any of the plurality of pneumatic cylinders, including by advancing the stack of battery cells into the can up to a component comprising a first one or more of the plurality pneumatic cylinders; and releasing the first portion of the stack of battery cells from the first one or more of the plurality of pneumatic cylinders while a second portion of the stack of battery cells remains compressed by one or more other of the plurality of pneumatic cylinders.
A transfer inkjet printer device (P) comprising: ink made by dispersing toner particles having a property to be charged in a dispersion medium an intermediate transfer body including an intermediate transfer surface capable of rotationally moving along a rotation route; an inkjet head used to discharge the ink, onto the intermediate transfer surface of the intermediate transfer body at a first area in the rotation route in a state where the toner particles are charged, so as to form an intermediate image composed of an ink layer on the intermediate transfer surface; and a pressure device used to press the ink layer of the intermediate image on the intermediate transfer surface, onto a surface of a recording medium (M) at a second area in a downstream side of the first area in the rotation route, wherein the transfer inkjet printer device further comprises an electric field application device configured to electrophorese the charged toner particles in the dispersion medium of the ink layer of the intermediate image on the intermediate transfer surface, toward the recording medium at the second area. ink made by dispersing toner particles having a property to be charged in a dispersion medium an intermediate transfer body including an intermediate transfer surface capable of rotationally moving along a rotation route; an inkjet head used to discharge the ink, onto the intermediate transfer surface of the intermediate transfer body at a first area in the rotation route in a state where the toner particles are charged, so as to form an intermediate image composed of an ink layer on the intermediate transfer surface; and a pressure device used to press the ink layer of the intermediate image on the intermediate transfer surface, onto a surface of a recording medium (M) at a second area in a downstream side of the first area in the rotation route, wherein the transfer inkjet printer device further comprises an electric field application device configured to electrophorese the charged toner particles in the dispersion medium of the ink layer of the intermediate image on the intermediate transfer surface, toward the recording medium at the second area.
A method for measuring preload tension in a fastener system comprising a bolt , the method comprising: impinging a portion of the fastener system for microscopic ablation with a laser beam from a laser emitter mounted in a probe ; detecting an acoustic wave responsive to the microscopic ablation with an acoustic detector in the probe ; and, calculating a strain measurement of the fastener system based on data received by detecting the acoustic wave; and the method further comprising: connecting the probe to a torqueing tool and employing the torqueing tool for tightening of the fastener system , wherein the torqueing tool is a wrench ; attaching the probe to the wrench with an arm ; and aligning the probe axially with the bolt in the fastener system , wherein the step of calculating a strain measurement further comprises: determining a length of the bolt in the fastener system from the reflected acoustic wave; calculating strain from the length of the bolt based on predetermined data for the fastener system and comparison of bolt length in an untensioned or relaxed state; and calculating preload tension in the bolt based on the strain. impinging a portion of the fastener system for microscopic ablation with a laser beam from a laser emitter mounted in a probe ; detecting an acoustic wave responsive to the microscopic ablation with an acoustic detector in the probe ; and, calculating a strain measurement of the fastener system based on data received by detecting the acoustic wave; and the method further comprising: connecting the probe to a torqueing tool and employing the torqueing tool for tightening of the fastener system , wherein the torqueing tool is a wrench ; attaching the probe to the wrench with an arm ; and aligning the probe axially with the bolt in the fastener system , connecting the probe to a torqueing tool and employing the torqueing tool for tightening of the fastener system , wherein the torqueing tool is a wrench ; attaching the probe to the wrench with an arm ; and aligning the probe axially with the bolt in the fastener system , determining a length of the bolt in the fastener system from the reflected acoustic wave; calculating strain from the length of the bolt based on predetermined data for the fastener system and comparison of bolt length in an untensioned or relaxed state; and calculating preload tension in the bolt based on the strain.