mhurhangee/ep-ind-claims huggingface dataset:
A duct comprising a number of wall sections (1, 2, 3) at least partly produced from fibre material and a binder agent, which together define a closed, elongate flow space, mutually meeting wall sections being united by the intermediary of at least one longitudinal fold or joint line, wherein there are disposed, in the fibre material and binder agent of the duct, longitudinal rigidifying elements and that the duct has, on its outside, longitudinal bead-like projections which comprise the fibre material and the binder agent, wherein at least certain of the rigidifying elements are disposed internally in the projections.
An assembly device for pivotally attaching at least two parts (M1, M2), comprising a screw designed to be screwed into a first piece and carrying a pivoting guide pin for a second part, the assembly device comprising at least one elastic ring able to work in conjunction with a blocking element of one of the two parts (M1, M2), so as to prevent accidental axial movement of the assembly device, characterized in that the elastic ring comprises an annular base from where extend at least two elastic clips parallel to the axis of the assembly device, these elastic clips comprising a portion able to work in conjunction with a blocking element of one of the two parts (M1, M2) of greater diameter than the diameter of the pivoting guide pin, surrounded by at least one beveled edge (681, 682) to promote the insertion and/or removal of the assembly device into/from the two parts (M1, M2).
A method for capturing a nucleic acid analyte from a first region of interest of a tissue sample, the method comprising: (a) identifying the first region of interest on the tissue sample and a second region, wherein the second region (i) is a region on the tissue sample, (ii) is a region surrounding the tissue sample, or (iii) comprises a region on the tissue sample and a region surrounding the tissue sample; (b) contacting the tissue sample with a substrate comprising a plurality of capture probes, wherein a capture probe of the plurality of capture probes is a nucleic acid and comprises a spatial barcode and a capture domain; (c) contacting the second region with a sealant, wherein the sealant is selected from the group consisting of: a coverslip sealant, a liquid coverslip, nail polish, liquid from a hydrophobic pen, a mounting media, a gel, an adhesive, and a bilayer, or a combination thereof; (d) permeabilizing the tissue sample using a permeabilization agent; and (e) hybridizing the nucleic acid analyte from the first region of interest to the capture probe, thereby capturing the nucleic acid analyte from the first region of interest of the tissue sample. (a) identifying the first region of interest on the tissue sample and a second region, wherein the second region (i) is a region on the tissue sample, (ii) is a region surrounding the tissue sample, or (iii) comprises a region on the tissue sample and a region surrounding the tissue sample; (b) contacting the tissue sample with a substrate comprising a plurality of capture probes, wherein a capture probe of the plurality of capture probes is a nucleic acid and comprises a spatial barcode and a capture domain; (c) contacting the second region with a sealant, wherein the sealant is selected from the group consisting of: a coverslip sealant, a liquid coverslip, nail polish, liquid from a hydrophobic pen, a mounting media, a gel, an adhesive, and a bilayer, or a combination thereof; (d) permeabilizing the tissue sample using a permeabilization agent; and (e) hybridizing the nucleic acid analyte from the first region of interest to the capture probe, thereby capturing the nucleic acid analyte from the first region of interest of the tissue sample.
A method for the removal of soluble particulate matter from a gas stream, wherein the method is carried out in the finishing equipment of claim 9 which comprises a particle capture zone, wherein the method comprises subjecting the gas stream to quenching with an aqueous quenching liquid and passing the quenched gas through said particle capture zone, wherein the gas stream is subjected to said quenching in at least two stages in series, using an upstream quenching liquid and a downstream quenching liquid, with the terms upstream and downstream being defined with reference to the flowing direction of the gas stream, wherein soluble particulate matter dissolves in the aqueous quenching liquid and wherein the downstream quenching liquid has a lower concentration of dissolved said particulate matter than the upstream quenching liquid, wherein the quenching is conducted by spraying liquid water, wherein the concentration of the dissolved particulate in the upstream quenching liquid is between 20% and 50%, and wherein the concentration of the dissolved particulate in the downstream quenching liquid is between 0.1 wt.% and 5 wt.%, wherein the gas stream is the off-gas of a finishing section of a urea production plant, and the particulate matter is urea dust. wherein the quenching is conducted by spraying liquid water, wherein the concentration of the dissolved particulate in the upstream quenching liquid is between 20% and 50%, and wherein the concentration of the dissolved particulate in the downstream quenching liquid is between 0.1 wt.% and 5 wt.%, wherein the gas stream is the off-gas of a finishing section of a urea production plant, and the particulate matter is urea dust.
Tyre made of rubbery material comprising a sidewall and a pattern formed in this sidewall, the said sidewall extending along a mean surface, the said pattern comprising a plurality of recessed elements, each recessed element having the form of a part of a sphere, the said recessed elements meeting each other at connection zones, the connection zones extending under the mean surface of the sidewall, characterized in that, viewed in cross section, all or part of the recessed elements subtend an angle (α) less than or equal to 70°, the said angle (α) corresponds to the angle formed by two segments passing through the connection zones and meeting at the centre C of the recessed element.
Luminaire with an elongated housing having two side walls (52, 53) as well as an elongated light exit opening, wherein the luminaire has an attachment element, which optionally can be mounted to one of the two longitudinal sides of the luminaire housing, and which, in the region of the light exit opening of the luminaire housing, forms a reflection region (A, B), preferably extending over the entire length of the housing, and wherein the attachment element is formed by a profile body that can be put on the side wall (52, 53) of the luminaire housing and locked therewith/snapped onto it, characterized in that the profile body has an intake region for interacting with a bottom edge of the side wall (52, 53) of the luminaire housing as well as a clamping region reaching in mounted condition over the top edge of the corresponding side wall (52, 53).
Digital measurement input for an electric automation device, with - a receiving device which is configured to receive digital input measurement values which have been generated by sampling an analog measurement signal at a first sampling rate; and - a signal conversion device which is designed to form and provide digital output measurement values from the digital input measurement values, wherein the sampling rate and/or respective sampling times of the digital output measurement values is/are adapted to a specified sampling rate and/or specified sampling times, wherein - the signal conversion device has a digital encoder filter on the input side and a decoder filter on the output side, between which an interpolator is provided, characterized in that - the encoder filter, the interpolator and the decoder filter are matched to one another so that the adaptation of the sampling rate and/or sampling times of the digital input measurement values is effected by them. - a receiving device which is configured to receive digital input measurement values which have been generated by sampling an analog measurement signal at a first sampling rate; and - a signal conversion device which is designed to form and provide digital output measurement values from the digital input measurement values, wherein the sampling rate and/or respective sampling times of the digital output measurement values is/are adapted to a specified sampling rate and/or specified sampling times, wherein - the signal conversion device has a digital encoder filter on the input side and a decoder filter on the output side, between which an interpolator is provided, characterized in that - the encoder filter, the interpolator and the decoder filter are matched to one another so that the adaptation of the sampling rate and/or sampling times of the digital input measurement values is effected by them.
A control method for an internal combustion engine based on fuel properties, said engine being capable of using gaseous fuel as main fuel, the method comprising the following steps: - providing an analysing unit for analysing fuel properties of gaseous fuel, characterized in that the analysing unit comprises a rapid compression machine, arranged in fluid communication with a fuel delivery line (4; 4a) of the internal combustion engine for receiving at least gaseous fuel to be analysed, wherein the method further comprises the following steps of: - compressing said fuel within a compression chamber of the analysing unit so as to induce said fuel to auto-ignite and combust with air; - obtaining pressure data of said combustion, said pressure data being indicative of fuel auto ignition delay properties; - determining fuel auto ignition delay properties at least from the obtained pressure data; - transmitting information indicative of fuel auto ignition delay properties to the control device, and - controlling engine control parameters at least based on the determined fuel auto ignition delay properties. - providing an analysing unit for analysing fuel properties of gaseous fuel, characterized in that the analysing unit comprises a rapid compression machine, arranged in fluid communication with a fuel delivery line (4; 4a) of the internal combustion engine for receiving at least gaseous fuel to be analysed, wherein the method further comprises the following steps of: - compressing said fuel within a compression chamber of the analysing unit so as to induce said fuel to auto-ignite and combust with air; - obtaining pressure data of said combustion, said pressure data being indicative of fuel auto ignition delay properties; - determining fuel auto ignition delay properties at least from the obtained pressure data; - transmitting information indicative of fuel auto ignition delay properties to the control device, and - controlling engine control parameters at least based on the determined fuel auto ignition delay properties. - compressing said fuel within a compression chamber of the analysing unit so as to induce said fuel to auto-ignite and combust with air; - obtaining pressure data of said combustion, said pressure data being indicative of fuel auto ignition delay properties; - determining fuel auto ignition delay properties at least from the obtained pressure data; - transmitting information indicative of fuel auto ignition delay properties to the control device, and - controlling engine control parameters at least based on the determined fuel auto ignition delay properties.
A system for detecting characteristics of passing railway vehicles on a railway, wherein at least one measuring unit for the temperature measurement of wheelsets of a passing railway vehicle is provided, characterised in that for monitoring the at least one measuring unit, at least one load sensor is provided which detects the mechanical loads acting on the at least one measuring unit, and at least one additional sensor (26, 28) which provides at least one internal status value of the at least one measuring unit, wherein the at least one load sensor and the at least one additional sensor (26, 28) are connected with an evaluation unit which is configured to determine at least one value which represents the load condition of the at least one measuring unit, and wherein the at least one measuring unit comprises at least one non-volatile memory.
A double-stranded ribonucleic acid molecule comprising a sense strand and an antisense strand wherein: said sense strand and said antisense strand form a fully complimentary sequence of 19 base pairs, said sense strand comprises SEQ ID NO. 9 and has at least one modified nucleotide, said antisense strand comprises SEQ ID NO. 242 and has at least one modified nucleotide, and preferably wherein said sense strand and said antisense strand are each less than 30 nucleotides in length. said sense strand and said antisense strand form a fully complimentary sequence of 19 base pairs, said sense strand comprises SEQ ID NO. 9 and has at least one modified nucleotide, said antisense strand comprises SEQ ID NO. 242 and has at least one modified nucleotide, and
An apparatus for providing at least one treatment to at least one tissue, comprising: a first structural arrangement configured to expand a first portion at a distal end of the apparatus; a second structural arrangement configured to expand a second portion at the distal end; and at least one lumen extending from a proximal end of the apparatus to the distal end and having an opening at the proximal end, wherein the at least one lumen is located between and separate from the first structural arrangement and the second structural arrangement, wherein the first structural arrangement is configured to position the at least one lumen at a particular position with respect to the at least one tissue based on an expansion of the first portion, and wherein the second structural arrangement is configured to position the at least one lumen at the particular position with respect to the at least one tissue based on an expansion of the second portion, and wherein at least one of the first structural arrangement or the second structural arrangement is a baffle filled with at least one of sterile water or air. a first structural arrangement configured to expand a first portion at a distal end of the apparatus; a second structural arrangement configured to expand a second portion at the distal end; and at least one lumen extending from a proximal end of the apparatus to the distal end and having an opening at the proximal end, wherein the at least one lumen is located between and separate from the first structural arrangement and the second structural arrangement, wherein the first structural arrangement is configured to position the at least one lumen at a particular position with respect to the at least one tissue based on an expansion of the first portion, and wherein the second structural arrangement is configured to position the at least one lumen at the particular position with respect to the at least one tissue based on an expansion of the second portion, and wherein at least one of the first structural arrangement or the second structural arrangement is a baffle filled with at least one of sterile water or air.
An oil film bearing for rotatably supporting a shaft, said bearing assembly comprising: a spherical housing having a bore in which said shaft is rotatably supported, said spherical housing having an outer spherical surface; and a chock containing said spherical housing, said chock being internally configured with an inner spherical surface coacting with the outer spherical surface of said spherical housing to define a raceway configured to accommodate angular rotation of said shaft about a central point said inner spherical surface being defined by circulars arrays of discrete inserts interposed between a cylindrical interior surface of said chock and said spherical housing, said inserts having spherical interior surfaces. a spherical housing having a bore in which said shaft is rotatably supported, said spherical housing having an outer spherical surface; and a chock containing said spherical housing, said chock being internally configured with an inner spherical surface coacting with the outer spherical surface of said spherical housing to define a raceway configured to accommodate angular rotation of said shaft about a central point said inner spherical surface being defined by circulars arrays of discrete inserts interposed between a cylindrical interior surface of said chock and said spherical housing, said inserts having spherical interior surfaces.
Dosing device for the introduction of an operating or auxiliary substance into a flow pipe of an internal combustion engine, in particular for introducing a reducing agent into an exhaust pipe, comprising an injection valve and a receiving device which comprises a cooling body element, wherein the injection valve and the receiving device are combined to form a structural unit by way of at least one cohesive connection (62, 64), wherein the injection valve is, at a lower end in the region of a spray hole disk, connected cohesively and sealingly to the cooling body element by way of a weld seam, that the cooling body element is a multi-part construction composed of thin-walled components (16, 17) which are cohesively connected to one another in such a way that a ring-shaped chamber is formed which is connectable to a cooling medium inlet and to a cooling medium outlet in order for the ring-shaped chamber to be charged with cooling medium, wherein a flow path defined by dividing elements is imparted to the cooling medium, and that, for the compensation of different thermal length expansions of injection valve and receiving device, an expansion compensation means is provided, characterized in that the receiving device comprises a cover element which is connected by way of a weld seam to the cooling body element and the injection valve is, at an upper end, connected cohesively and sealingly to the cover element of the receiving device by way of a weld seam, wherein the expansion compensation means is configured in the form of a spring element or a corrugated bellows.
A printing system (100;600) comprising: one or more print heads configured to print a black ink and a white ink in an interdigitated pattern onto a target object formed from corrugated material to form a machine-readable bar code on the target object such that the bar code has a symbol contrast of at least 40%; and a controller configured to direct the one or more print heads to print the bar code by printing the black ink and the white ink onto the target object so that none of the black ink is printed on top of the white ink and none of the white ink is printed on top of the black ink within the bar code. one or more print heads configured to print a black ink and a white ink in an interdigitated pattern onto a target object formed from corrugated material to form a machine-readable bar code on the target object such that the bar code has a symbol contrast of at least 40%; and a controller configured to direct the one or more print heads to print the bar code by printing the black ink and the white ink onto the target object so that none of the black ink is printed on top of the white ink and none of the white ink is printed on top of the black ink within the bar code.
Vehicle headlamp (1, 1'), in particular motor vehicle headlamp, comprising - a vehicle headlamp housing closed by means of a translucent cover lens, - at least one light module arranged inside the vehicle headlamp housing for generating a light distribution in a main radiation direction, and - at least one sensor module arranged inside the vehicle headlamp housing, the at least one sensor module having at least one optical sensor for optical detection of the vehicle headlamp surroundings, the at least one optical sensor being assigned a detection area for this purpose, and the sensor module being arranged in such a way that the vehicle headlamp surroundings are detected through the cover pane, the vehicle headlamp (1, 1') has at least one controllable pivoting means for spatially pivoting the entire detection area of the at least one optical sensor, characterized in that the vehicle headlight (1, 1') has at least one additional optical sensor which is arranged in the vehicle headlight (1, 1') in a positionally fixed and rotationally fixed manner and is arranged in the vehicle headlight (1, 1') in such a way that its detection area is oriented in the main radiation direction of the vehicle. - a vehicle headlamp housing closed by means of a translucent cover lens, - at least one light module arranged inside the vehicle headlamp housing for generating a light distribution in a main radiation direction, and - at least one sensor module arranged inside the vehicle headlamp housing, the at least one sensor module having at least one optical sensor for optical detection of the vehicle headlamp surroundings, the at least one optical sensor being assigned a detection area for this purpose, and the sensor module being arranged in such a way that the vehicle headlamp surroundings are detected through the cover pane, the vehicle headlamp (1, 1') has at least one controllable pivoting means for spatially pivoting the entire detection area of the at least one optical sensor, characterized in that the vehicle headlight (1, 1') has at least one additional optical sensor which is arranged in the vehicle headlight (1, 1') in a positionally fixed and rotationally fixed manner and is arranged in the vehicle headlight (1, 1') in such a way that its detection area is oriented in the main radiation direction of the vehicle.
A framing microcoil for use in treating a vascular disorder, the microcoil comprising: a substantially spherical portion formed from a primary coil formed from a helically wound wire, the substantially spherical portion comprising at least two curved, lobe-shaped loops crossing at a common point at a base of the substantially spherical portion, wherein none of the curved, lobe-shaped loops crosses a point on the substantially spherical portion diametrically opposite the common point.
Method for providing a hydrogel coating on a polymeric substrate of a medical device comprising: (i) a priming step wherein the polymeric substrate is contacted with a priming solution, comprising a radical source and a crosslinking agent, comprising 1 to 30 wt % of a polyethylene glycol diacrylate having an average molecular weight of 300 to 750 Da; (ii) a grafting step following the priming step wherein the polymeric substrate is contacted with a grafting solution, comprising a polymer mixture, wherein the polymer mixture is a mixture of polyvinylpyrrolidone and polyethylene oxide, thereby providing a polymeric substrate of a medical device having a hydrogel coating. (i) a priming step wherein the polymeric substrate is contacted with a priming solution, comprising a radical source and a crosslinking agent, comprising 1 to 30 wt % of a polyethylene glycol diacrylate having an average molecular weight of 300 to 750 Da; (ii) a grafting step following the priming step wherein the polymeric substrate is contacted with a grafting solution, comprising a polymer mixture, wherein the polymer mixture is a mixture of polyvinylpyrrolidone and polyethylene oxide, thereby providing a polymeric substrate of a medical device having a hydrogel coating.
A radio frequency RF read/write head, comprising: a plurality of optical transmitters, a chip and a RF antenna, wherein the RF antenna is connected with the chip; the plurality of optical transmitters are connected with the chip; and the chip is configured i) to control an optical transmitter corresponding to a designated radio frequency identification RFID tag in the plurality of optical transmitters to emit light so as to supply power to the designated RFID tag when a read/write operation is carried out on the designated RFID tag in a plurality of RFID tags, and ii) to control the RF antenna to carry out the read/write operation on the designated RFID tag.
A glossing and opacifying coating composition comprising an aqueous nanoparticle dispersion, wherein the nanoparticles are substantially dispersed and have a mean particle size D50 (Mal) of less than 1 micron, wherein said nanoparticles are ground calcium carbonate.