mhurhangee/patent-ind-claim-en huggingface dataset:
A filter comprising: first and second filter media packs extending from a first end to a second end , the first end having a length dimension and a width dimension that extend transversely, the width dimension being defined by the first and second media packs , the first and second filter media packs converging at the first end and diverging when moving away from the first end toward the second end to define an air flow cavity therebetween; a housing seal system at the second end ; a handle at the first end ; a shield element projecting at the first end over the first and second media packs a span in the width direction of at least 40% of the width dimension defined by the first and second media packs and projecting a span in the length direction of at least 5% of the length dimension defined by the first end; and a bridge element at the first end spanning across the first and second media packs along the width dimension less than the width dimension of the first end, characterized in that : the shield element comprises a first wing panel and a second wing panel, the first and second wing panels extending outward from the bridge element along the width dimension in opposite directions such that the first wing panel extends over the first filter media pack to a farther extent than the bridge element and the second wing panel extends over the second media pack to a farther extent than the bridge element , the first and second wing panels extending along the length dimension less than the bridge element extends along the length dimension. first and second filter media packs extending from a first end to a second end , the first end having a length dimension and a width dimension that extend transversely, the width dimension being defined by the first and second media packs , the first and second filter media packs converging at the first end and diverging when moving away from the first end toward the second end to define an air flow cavity therebetween; a housing seal system at the second end ; a handle at the first end ; a shield element projecting at the first end over the first and second media packs a span in the width direction of at least 40% of the width dimension defined by the first and second media packs and projecting a span in the length direction of at least 5% of the length dimension defined by the first end; and a bridge element at the first end spanning across the first and second media packs along the width dimension less than the width dimension of the first end, characterized in that : the shield element comprises a first wing panel and a second wing panel, the first and second wing panels extending outward from the bridge element along the width dimension in opposite directions such that the first wing panel extends over the first filter media pack to a farther extent than the bridge element and the second wing panel extends over the second media pack to a farther extent than the bridge element , the first and second wing panels extending along the length dimension less than the bridge element extends along the length dimension.
Device for closing off a bay made in a structure, comprising a fixed portion , in which an aperture is defined, and at least one slidably movable panel which is guided along two guide rails mounted on one face of said fixed panel , between a closed position, sealing said aperture, in a first plane defined by said fixed panel , called sealing plane, and at least one opening position, in a second plane, called sliding plane, substantially parallel to said sealing plane, each of said guide rails carrying at least one shuttle which is guided in translation in said rail , each shuttle comprising two guide tracks or two fixed pins capable of cooperating respectively with two fixed pins or two guide tracks carried by said movable panel , said device for closing off further comprising actuating means acting on one of said shuttles to ensure a translational displacement of the latter in said guide rails , and the passage of the movable panel from said sealing position to said at least one sliding position, and vice versa, said device for closing off further comprising means for synchronising the displacement of said shuttles , comprising two synchronisation elements , characterised in that one end of one of said synchronisation elements is connected to the frame of said movable panel via a spring for holding the movable panel in the opening position, the other ends of said synchronisation elements being connected to one of said shuttles . each of said guide rails carrying at least one shuttle which is guided in translation in said rail , each shuttle comprising two guide tracks or two fixed pins capable of cooperating respectively with two fixed pins or two guide tracks carried by said movable panel , said device for closing off further comprising actuating means acting on one of said shuttles to ensure a translational displacement of the latter in said guide rails , and the passage of the movable panel from said sealing position to said at least one sliding position, and vice versa, said device for closing off further comprising means for synchronising the displacement of said shuttles , comprising two synchronisation elements , characterised in that one end of one of said synchronisation elements is connected to the frame of said movable panel via a spring for holding the movable panel in the opening position, the other ends of said synchronisation elements being connected to one of said shuttles .
Method of detecting defective printing nozzles in printing heads of an inkjet printing machine with a computer , wherein multi-row nozzle test charts are printed onto the printing substrate in the form of printing sheets for detection purposes, said nozzle test charts consisting of a specified number n of horizontal rows of equidistant vertical lines printed periodically and disposed underneath one another in the printing direction, wherein only every nth printing nozzle of a printing head of the inkjet printing machine is active in every row of the nozzle test chart and thus contributes to the lines in the row of the nozzle test chart , wherein the active printing nozzles are incremented from row to row , and wherein the nozzle test charts are recorded by at least one image sensor and analyzed by the computer to determine the defective printing nozzles, characterized in that the order of the horizontal rows of vertical equidistant lines printed periodically and underneath one another in the printing direction is varied from printing sheet to printing sheet .
A tire comprising: a tire frame having an annular shape; a reinforcement layer located outward of the tire frame in a tire radial direction; and tread rubber located outward of the reinforcement layer in the tire radial direction, wherein the reinforcement layer includes a reinforcement member that is coated with a resin composition containing from 50 mass% to 100 mass% of a resin material, characterized in that the tread rubber has a loss tangent (tan δ 60°C ) during 1% strain at 60°C under conditions of an initial load of 160 mg and a frequency of 52 Hz and a storage modulus (E' 30°C ) during 1% strain at 30°C under conditions of an initial load of 160 mg and a frequency of 52 Hz that satisfy a relationship in formula shown below: 27.5 × tan δ 60°C + 1.125 ≤ E' 30°C ≤ 27.5 × tan δ 60°C + 11.25 where, in formula , tan δ 60°C is the loss tangent during 1% strain at 60°C and E' 30°C is the storage modulus (MPa) during 1% strain at 30°C. a tire frame having an annular shape; a reinforcement layer located outward of the tire frame in a tire radial direction; and tread rubber located outward of the reinforcement layer in the tire radial direction, wherein the reinforcement layer includes a reinforcement member that is coated with a resin composition containing from 50 mass% to 100 mass% of a resin material, characterized in that the tread rubber has a loss tangent (tan δ 60°C ) during 1% strain at 60°C under conditions of an initial load of 160 mg and a frequency of 52 Hz and a storage modulus (E' 30°C ) during 1% strain at 30°C under conditions of an initial load of 160 mg and a frequency of 52 Hz that satisfy a relationship in formula shown below: 27.5 × tan δ 60°C + 1.125 ≤ E' 30°C ≤ 27.5 × tan δ 60°C + 11.25 where, in formula , tan δ 60°C is the loss tangent during 1% strain at 60°C and E' 30°C is the storage modulus (MPa) during 1% strain at 30°C.
A device for processing bulk grain products with ultraviolet radiation, that consists of successively arranged modules , the module consists of a rectangular housing , wherein inside the housing at an equal distance from each other, horizontally, with the possibility of adjusting the mutual position, lamps of ultraviolet radiation are installed, equipped on the top with a protective shield , each module comprises a lamps ultraviolet intensity sensor aimed at one of the lamps , as well as a device for cleaning the lamps from contamination, the modules are mounted on racks with the possibility of adjusting the distance between modules , the racks are fixed on a frame equipped with a vibration mechanism, characterized in that the lamps are equipped with a protective, transparent for ultraviolet radiation, Teflon coating adjacent to the lamp glass, and the device comprises a bipolar ionizer for the removal of static electricity from each module.
Non-therapeutic use of one or more methoxyacrylate compounds selected from Table 1 below in mosquito control. Table 1 Compound no. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23
Knitting machine having a guide channel and a knitting element guided in the latter, wherein the knitting element is received and guided so as to be displaceable in the guide channel in a substantially exact fit, and wherein the knitting element on at least one of the knitting-element lateral flanks thereof that when viewed in the cross section are mutually opposite, and/or the guide channel on at least one of the channel side walls that face the knitting-element lateral flanks , when viewed in each case in the production state or in the manufacturing and initial state, respectively, at least in regions is configured so as to have a surface structure, wherein the surface structure has a multiplicity of mutually spaced-apart elevations which are disposed and configured such that said elevations when in operation bear in a punctiform and/or linear manner on the respective facing region of the knitting-element lateral flanks and/or of the channel side walls , and wherein the surface structure furthermore has a multiplicity of mutually spaced-apart depressions which are configured and disposed such that said depressions configure a plurality of mutually spaced-apart lubricant reservoirs in which part of a fluid lubricant, in particular a lubricating oil, that is incorporated in the guide channel is received, and thus when in operation forming a lubricant film in the region between the knitting-element lateral flanks and the channel side walls , characterized in that the surface structure according to DIN EN ISO 4287 has a material proportion (Rmr) of 50% at a section height (c) from 0.4 μm to 3 μm, preferably at a section height (c) from 0.6 μm to 1.6 μm.
A silicon wafer bonding method, the method including the formation of cryptocrystal layers on the surfaces of two wafers by Chemical Vapor Processing where a vapor mixture of chemicals is reacted on the wafers which involves the following steps: a) preparing a Teflon reaction chamber comprising an orifice and conduct ultrasound cleaning processes b) Preparation of chemical mixture of HF and HNO 3 with ratios (4-10):(1-8) and 25-50% hidrofluoric acid (HF) and 55-75% nitric acid (HN03), c) Flushing the mixure with Nitrogen and priming mixture with a piece of silicon wafer for 10 seconds, d) Closing entirely the orifice of the reaction chamber with the wafer to be processed, e) ensuring the evacuation of reaction by products in the reaction chamber through exhaust channels, f) Adjusting temperature and pH between 10°C- 50°C and 1-6 respectively g) Having the vapor of HF and HN03, reacted on the silicon wafer surface according to the following Silicon mediated reaction Si + 6HF + 2HNO 3 → (NH 4 ) 2 SiF 6 + 3O 2 thereby transforming the wafer surface into a cryptocrystal layer at a rate of 1 μm/h the method further including pressing the wafer surfaces under H2O, Nitrogen or Hydrogen at high temperature. a) preparing a Teflon reaction chamber comprising an orifice and conduct ultrasound cleaning processes b) Preparation of chemical mixture of HF and HNO 3 with ratios (4-10):(1-8) and 25-50% hidrofluoric acid (HF) and 55-75% nitric acid (HN03), c) Flushing the mixure with Nitrogen and priming mixture with a piece of silicon wafer for 10 seconds, d) Closing entirely the orifice of the reaction chamber with the wafer to be processed, e) ensuring the evacuation of reaction by products in the reaction chamber through exhaust channels, f) Adjusting temperature and pH between 10°C- 50°C and 1-6 respectively g) Having the vapor of HF and HN03, reacted on the silicon wafer surface according to the following Silicon mediated reaction Si + 6HF + 2HNO 3 → (NH 4 ) 2 SiF 6 + 3O 2 thereby transforming the wafer surface into a cryptocrystal layer at a rate of 1 μm/h the method further including pressing the wafer surfaces under H2O, Nitrogen or Hydrogen at high temperature.
An apparatus for transmitting, simultaneously and wirelessly, information and power from a first device as the first device moves relative to a second device, the apparatus comprising: a set of first coils for fitting to a said first device for interacting with a set of second coils for fitting to a said second device, at least some of the coils in the set of first coils having magnetic cores to enable power transfer to a said set of second coils by magnetic induction through relative movement of the magnetic cores of the set of first coils with respect to a said set of second coils ; and a controller configured to open and close switches for each coil in the set of first coils so that the first coils act as either an open circuit or closed circuit and thereby allow each coil in the set of first coils to be selectively powered, in order to enable transmission of information to a said set of second coils by induction from the power induced in a said set of second coils as the set of selectively powered first coils move relative to a said set of second coils . a set of first coils for fitting to a said first device for interacting with a set of second coils for fitting to a said second device, at least some of the coils in the set of first coils having magnetic cores to enable power transfer to a said set of second coils by magnetic induction through relative movement of the magnetic cores of the set of first coils with respect to a said set of second coils ; and a controller configured to open and close switches for each coil in the set of first coils so that the first coils act as either an open circuit or closed circuit and thereby allow each coil in the set of first coils to be selectively powered, in order to enable transmission of information to a said set of second coils by induction from the power induced in a said set of second coils as the set of selectively powered first coils move relative to a said set of second coils .
An ultrasonic flowmeter , comprising: a housing , which defines a fluid inlet and a fluid outlet with a fluid passage therebetween; and at least two pairs of ultrasonic sensors , wherein each pair of the at least two pairs of ultrasonic sensors have a first ultrasonic sensor and a second ultrasonic sensor arranged opposite to each other; wherein the at least two pairs of ultrasonic sensors are arranged in grooves on an inner wall of the fluid passage , and center points of front end faces of each of the at least two pairs of ultrasonic sensors are located on a cylindrical curved surface defined by the inner wall of the fluid passage , characterised in that ; connecting lines of the first ultrasonic sensor and the second ultrasonic sensor in each pair of the at least two pairs of ultrasonic sensors are parallel to each other and form an included angle of 53-57° with a central axis of the fluid passage, or form an included angle of 54-56° with a central axis of the fluid passage, or form an included angle of approximately 55° with a central axis of the fluid passage . a housing , which defines a fluid inlet and a fluid outlet with a fluid passage therebetween; and at least two pairs of ultrasonic sensors , wherein each pair of the at least two pairs of ultrasonic sensors have a first ultrasonic sensor and a second ultrasonic sensor arranged opposite to each other; wherein the at least two pairs of ultrasonic sensors are arranged in grooves on an inner wall of the fluid passage , and center points of front end faces of each of the at least two pairs of ultrasonic sensors are located on a cylindrical curved surface defined by the inner wall of the fluid passage , characterised in that ; connecting lines of the first ultrasonic sensor and the second ultrasonic sensor in each pair of the at least two pairs of ultrasonic sensors are parallel to each other and form an included angle of 53-57° with a central axis of the fluid passage, or form an included angle of 54-56° with a central axis of the fluid passage, or form an included angle of approximately 55° with a central axis of the fluid passage .
A pharmaceutical composition comprising a bone delivery conjugate having the structure: Z-sALP-Y-D n -X, wherein X is absent or is an amino acid sequence of at least one amino acid; Y is absent or is an amino acid sequence of at least one amino acid; Z is absent or is an amino acid sequence of at least one amino acid; D n is a poly aspartate, wherein n=10 to 16; and sALP is a soluble alkaline phosphatase; and a pharmaceutically acceptable sterile aqueous solvent comprising buffered sodium chloride solution formulated for parenteral administration. wherein X is absent or is an amino acid sequence of at least one amino acid; Y is absent or is an amino acid sequence of at least one amino acid; Z is absent or is an amino acid sequence of at least one amino acid; D n is a poly aspartate, wherein n=10 to 16; and sALP is a soluble alkaline phosphatase; and a pharmaceutically acceptable sterile aqueous solvent comprising buffered sodium chloride solution formulated for parenteral administration.
An apparatus for forming a trench in a sea floor and/or displacing material on the sea floor, the apparatus comprising:- a body ; and sea floor engaging means mounted to the body for engaging the sea floor and supporting the body; wherein the sea floor engaging means is adjustable between a first mode of said sea floor engaging means, in which the sea floor engaging means engages the sea floor, and a second mode of the sea floor engaging means, in which the sea floor engaging means engages the sea floor adjacent the trench and at at least one wall of the trench wherein the apparatus is a plough comprising a debris clearing member , and wherein the sea floor engaging means comprises skids , wherein the front skids of the plough , together with the debris clearing member , are pivotable relative to the body , by means of hydraulic actuators , between a generally horizontal orientation and a generally vertical orientation corresponding to a launch/recovery configuration in which the overall length of the apparatus is reduced. a body ; and sea floor engaging means mounted to the body for engaging the sea floor and supporting the body; wherein the sea floor engaging means is adjustable between a first mode of said sea floor engaging means, in which the sea floor engaging means engages the sea floor, and a second mode of the sea floor engaging means, in which the sea floor engaging means engages the sea floor adjacent the trench and at at least one wall of the trench wherein the apparatus is a plough comprising a debris clearing member , and wherein the sea floor engaging means comprises skids , wherein the front skids of the plough , together with the debris clearing member , are pivotable relative to the body , by means of hydraulic actuators , between a generally horizontal orientation and a generally vertical orientation corresponding to a launch/recovery configuration in which the overall length of the apparatus is reduced.
A method for in situ genomic and transcriptomic assessment of target nucleic acids present in a biological sample comprising the steps of: (a) treating the biological sample with a nucleic acid reactive reagent that also carries a chemical group that can get incorporated into a swellable material; (b) embedding the biological sample wherein the nucleic acid reactive reagent is bound to at least one target nucleic acid in the biological sample and to the swellable material; (c) subjecting the biological sample to a physical disruption method; (d) swelling the swellable material to form an expanded biological sample; (e) providing at least one oligonucleotide complementary to the at least one target nucleic acid, wherein the at least one oligonucleotide hybridizes to the at least one target nucleic acid; and (f) genomically or transcriptomically assessing the expanded biological sample. (a) treating the biological sample with a nucleic acid reactive reagent that also carries a chemical group that can get incorporated into a swellable material; (b) embedding the biological sample wherein the nucleic acid reactive reagent is bound to at least one target nucleic acid in the biological sample and to the swellable material; (c) subjecting the biological sample to a physical disruption method; (d) swelling the swellable material to form an expanded biological sample; (e) providing at least one oligonucleotide complementary to the at least one target nucleic acid, wherein the at least one oligonucleotide hybridizes to the at least one target nucleic acid; and (f) genomically or transcriptomically assessing the expanded biological sample.
A process for the preparation of a compound of formula (A'): comprising at least the steps of: a) reacting a compound of formula (B") with nBuLi to obtain a compound of formula (C") b) reacting the compound of formula (C") with a compound (D') in the presence of NiCl 2 (PPh 3 )IPr wherein IPr represents 1,3-bis(2,6-diisopropylphenyl)imidazolidin-2-ylidene to form compound (E"); and reducing compound (E") in the presence of TsOH. a) reacting a compound of formula (B") with nBuLi to obtain a compound of formula (C") b) reacting the compound of formula (C") with a compound (D') in the presence of NiCl 2 (PPh 3 )IPr wherein IPr represents 1,3-bis(2,6-diisopropylphenyl)imidazolidin-2-ylidene to form compound (E"); and reducing compound (E") in the presence of TsOH.
A wire strand comprising at least three wires , wherein an optical fiber is arranged in a cavity between three adjacent ones of the at least three wires , which optical fiber comprises a fiber core and at least one further layer surrounding the fiber core , wherein the diameter (D1) of the largest imaginary circle inscribable in the cross-section of the cavity is smaller than the outer diameter (D2) of the optical fiber , wherein the diameter of the fiber core is smaller than the diameter (D1) of said largest imaginary circle , characterized in that the ratio of the outer diameter (D2) of the optical fiber to the diameter (D3) of that one of the three adjacent wires which has the smallest diameter is at least about 0.15 and at most about 0.18. wherein an optical fiber is arranged in a cavity between three adjacent ones of the at least three wires , which optical fiber comprises a fiber core and at least one further layer surrounding the fiber core , wherein the diameter (D1) of the largest imaginary circle inscribable in the cross-section of the cavity is smaller than the outer diameter (D2) of the optical fiber , wherein the diameter of the fiber core is smaller than the diameter (D1) of said largest imaginary circle , characterized in that the ratio of the outer diameter (D2) of the optical fiber to the diameter (D3) of that one of the three adjacent wires which has the smallest diameter is at least about 0.15 and at most about 0.18.