mhurhangee/patent-ind-claim-en huggingface dataset:
A vaporizer device comprising: a cartridge body having a proximal body end and a distal body end opposite the proximal body end; a reservoir configured to contain a vaporizable material; a back piece forming a distal reservoir end of the reservoir and being sealed to the cartridge body from within the cartridge body ; a mouthpiece configured to deliver an aerosol comprising the vaporizable material to a user; an air flow path having an air flow path axis: a heating element configured to heat and cause vaporization of the vaporizable material into air drawn into the vaporizer device along the air flow path, the air flow path connecting an opening via which air from outside the vaporizer device enters the vaporizer device and the mouthpiece, the air flow path passing proximate to the heating element; an absorbent pad positioned within or proximate to the mouthpiece and extending off-axis relative to the air path; and a bottom plate at the distal body end comprising an air opening , wherein an air chamber is formed between the bottom plate and the back piece , and wherein the air opening allows air to pass into the air chamber. a cartridge body having a proximal body end and a distal body end opposite the proximal body end; a reservoir configured to contain a vaporizable material; a back piece forming a distal reservoir end of the reservoir and being sealed to the cartridge body from within the cartridge body ; a mouthpiece configured to deliver an aerosol comprising the vaporizable material to a user; an air flow path having an air flow path axis: a heating element configured to heat and cause vaporization of the vaporizable material into air drawn into the vaporizer device along the air flow path, the air flow path connecting an opening via which air from outside the vaporizer device enters the vaporizer device and the mouthpiece, the air flow path passing proximate to the heating element; an absorbent pad positioned within or proximate to the mouthpiece and extending off-axis relative to the air path; and a bottom plate at the distal body end comprising an air opening , wherein an air chamber is formed between the bottom plate and the back piece , and wherein the air opening allows air to pass into the air chamber. a heating element configured to heat and cause vaporization of the vaporizable material into air drawn into the vaporizer device along the air flow path, the air flow path connecting an opening via which air from outside the vaporizer device enters the vaporizer device and the mouthpiece, the air flow path passing proximate to the heating element; an absorbent pad positioned within or proximate to the mouthpiece and extending off-axis relative to the air path; and a bottom plate at the distal body end comprising an air opening , wherein an air chamber is formed between the bottom plate and the back piece , and wherein the air opening allows air to pass into the air chamber.
A method of calibrating an optics module for an additive fabrication device , the method comprising: directing light from a light source of an optics module onto a plurality of locations on a calibration pattern within the additive fabrication device, the optics module comprising the light source ; receiving light reflected and/or scattered from the plurality of locations on the calibration pattern by a light sensor ; determining, using at least one processor based on the light received by the light sensor, a beam path traversed by the light from the light source; and determining, using the at least one processor, at least one correction to the determined beam path based at least in part on deviations of the determined beam path from a desired beam path wherein the method is characterized in that directing the light beam from the light source of the optics module onto the plurality of locations on the calibration pattern comprises moving the optics module along a first axis while directing the light beam along a second axis perpendicular to the first axis. directing light from a light source of an optics module onto a plurality of locations on a calibration pattern within the additive fabrication device, the optics module comprising the light source ; receiving light reflected and/or scattered from the plurality of locations on the calibration pattern by a light sensor ; determining, using at least one processor based on the light received by the light sensor, a beam path traversed by the light from the light source; and determining, using the at least one processor, at least one correction to the determined beam path based at least in part on deviations of the determined beam path from a desired beam path wherein the method is characterized in that directing the light beam from the light source of the optics module onto the plurality of locations on the calibration pattern comprises moving the optics module along a first axis while directing the light beam along a second axis perpendicular to the first axis.
A method of loading a molecule of interest into a sample well, the method comprising: contacting a sample comprising a molecule of interest to a surface of an integrated device, wherein the molecule of interest comprises a sequence template, wherein the integrated device comprises a plurality of sample wells in the surface of the integrated device, and wherein each sample well of the plurality of sample wells has a bottom surface distal to the surface of the integrated device and a top aperture distal to the bottom surface; and applying a layer comprising a crowding agent at an upper surface over the sample on the surface of the integrated device, wherein the crowding agent provided over the sample reduces a bulk volume of the sample such that the molecule of interest is excluded from the bulk volume of the sample and driven into a sample well of said plurality of sample wells. contacting a sample comprising a molecule of interest to a surface of an integrated device, wherein the molecule of interest comprises a sequence template, wherein the integrated device comprises a plurality of sample wells in the surface of the integrated device, and wherein each sample well of the plurality of sample wells has a bottom surface distal to the surface of the integrated device and a top aperture distal to the bottom surface; and applying a layer comprising a crowding agent at an upper surface over the sample on the surface of the integrated device, wherein the crowding agent provided over the sample reduces a bulk volume of the sample such that the molecule of interest is excluded from the bulk volume of the sample and driven into a sample well of said plurality of sample wells.
Dosing apparatus for dosing of bulk material into block-forming elements and for arrangement on a filling truck of a filling apparatus of a block-forming machine for producing patterned blocks, in particular paving blocks, wherein the filling truck can be pushed forwards and backwards in a displacement direction (V) over block-forming elements and a first bulk material component can be filled into the block-forming elements by the filling truck, and the dosing apparatus comprises at least one filling box , wherein the filling box has a lower outlet which can be opened and closed with the aid of a closure , wherein a second bulk material component can be filled from the filling box into the block-forming elements through the lower outlet , characterised in that the outlet in its open state can still be closed in part-regions in a direction (Q) transverse to the displacement direction (V) with the aid of a partial closure element , so that the second bulk material component can be filled into the block forming elements in segments, and the second bulk material component which emerges in segments can be moved to and fro in a transverse direction (Q) transverse to the displacement direction (V) and relative to the block-forming elements with the aid of a drive unit which is arranged on the dosing apparatus , wherein the partial closure element has a flat basic shape which is designed to be complementary to the shape of the outlet.
A medical device comprising: a support structure that is collapsible and has a proximal end , a distal end , and an intermediate portion situated between the proximal and distal ends; a flow media comprising a porous fabric received over and attached to an outside surface of the intermediate portion of the support structure ; and a proximal capture feature coupled to the proximal end of the support structure and a distal capture feature coupled to the distal end of the support structure, the proximal and distal capture features facilitating retrograde and antegrade deployment of the medical device . and retrograde and antegrade capture of the medical device . a support structure that is collapsible and has a proximal end , a distal end , and an intermediate portion situated between the proximal and distal ends; a flow media comprising a porous fabric received over and attached to an outside surface of the intermediate portion of the support structure ; and a proximal capture feature coupled to the proximal end of the support structure and a distal capture feature coupled to the distal end of the support structure, the proximal and distal capture features facilitating retrograde and antegrade deployment of the medical device . and retrograde and antegrade capture of the medical device .
A polyolefin polymer processing system comprising: at least one polymer processor selected from at least one of a pelletizer, a blow molding device, a roto molding device, an injection molding device, a cast film device, a blown film device and a coextrusion device, and one or more devices each comprising a head member , an elongated body comprising a hollow section and having a longitudinal axis, a plurality of holes extending through at least one wall of the elongated body, and at least one shoulder parallel to the longitudinal axis; the head member of the device having a conical shape and tapering away from the at least one shoulder, characterized in that : the polyolefin polymer processing system further comprises: at least one extruder and at least one screen changer or at least one plate member; the one or more device(s) being placed in a fixed position in the at least one screen changer or the at least one plate member; and further characterized in that the plurality of holes of the one or more devices comprises, respectively to each hole, an inner aperture and outer aperture and the diameter of the outer aperture is greater than the diameter of the inner aperture. at least one polymer processor selected from at least one of a pelletizer, a blow molding device, a roto molding device, an injection molding device, a cast film device, a blown film device and a coextrusion device, and one or more devices each comprising a head member , an elongated body comprising a hollow section and having a longitudinal axis, a plurality of holes extending through at least one wall of the elongated body, and at least one shoulder parallel to the longitudinal axis; the head member of the device having a conical shape and tapering away from the at least one shoulder, characterized in that : the polyolefin polymer processing system further comprises: at least one extruder and at least one screen changer or at least one plate member; the one or more device(s) being placed in a fixed position in the at least one screen changer or the at least one plate member; and further characterized in that the plurality of holes of the one or more devices comprises, respectively to each hole, an inner aperture and outer aperture and the diameter of the outer aperture is greater than the diameter of the inner aperture. the polyolefin polymer processing system further comprises: at least one extruder and at least one screen changer or at least one plate member; at least one extruder and at least one screen changer or at least one plate member; the one or more device(s) being placed in a fixed position in the at least one screen changer or the at least one plate member; and further characterized in that the plurality of holes of the one or more devices comprises, respectively to each hole, an inner aperture and outer aperture and the diameter of the outer aperture is greater than the diameter of the inner aperture.
A photocurable resin composition comprising the following components (A) to (E): component (A): a monofunctional urethane (meth)acrylate having a polyether skeleton; component (B): a monofunctional (meth)acrylic monomer having a polyether skeleton and having no urethane skeleton; component (C) : a photoradical polymerization initiator; component (D): a polyfunctional (meth)acrylic monomer having 4 or more functionalities; and component (E): a polyether-based plasticizer having no (meth)acryloyl group. component (A): a monofunctional urethane (meth)acrylate having a polyether skeleton; component (B): a monofunctional (meth)acrylic monomer having a polyether skeleton and having no urethane skeleton; component (C) : a photoradical polymerization initiator; component (D): a polyfunctional (meth)acrylic monomer having 4 or more functionalities; and component (E): a polyether-based plasticizer having no (meth)acryloyl group.
A consumption meter comprising a foldable printed circuit board assembly , which foldable printed circuit board assembly comprises a printed circuit board substrate having at least a first and a second rigid part, and a radio frequency (RF) antenna extends mainly on the second rigid part , characterized in that electronic components and a battery are mounted on the first rigid part , which also comprises an electrical ground plane, a first flexible part of the printed circuit board substrate being arranged to allow the printed circuit board assembly to be folded so that the first and second rigid parts extend in two different but substantially parallel geometric planes, and a Near Field Communication (NFC) antenna extends mainly on the second rigid part of the printed circuit board substrate.
A method of manufacturing a pipeline having at least one cable applied thereto, the method comprising: performing insulation resistance monitoring on the at least one cable during application of the at least one cable to the pipeline while the at least one cable is moving relative to the pipeline ; and raising an alert if the insulation resistance monitoring detects a fault in the at least one cable applied to the pipeline . performing insulation resistance monitoring on the at least one cable during application of the at least one cable to the pipeline while the at least one cable is moving relative to the pipeline ; and raising an alert if the insulation resistance monitoring detects a fault in the at least one cable applied to the pipeline .
A dust separator for use in treating flue gas produced in a combustion process to produce cleaned flue gas comprising: a dust separator housing defining an interior area with a dust trap arranged therein for capturing particulate matter from a flue gas as it flows in rotation around a horizontal axis H perpendicular to the flow of flue gas FG within the dust separator interior area , following a path between the housing interior surface and a curved inner wall 41a, characterized in that the dust trap is arranged at an inner end of the inner wall and is formed with opposed L-shaped angled arms which are integrally formed with or attached perpendicularly to the inner end of the inner wall forming a triangular plate (43(a)) between the opposed L shaped angled arms. a dust separator housing defining an interior area with a dust trap arranged therein for capturing particulate matter from a flue gas as it flows in rotation around a horizontal axis H perpendicular to the flow of flue gas FG within the dust separator interior area , following a path between the housing interior surface and a curved inner wall 41a, characterized in that the dust trap is arranged at an inner end of the inner wall and is formed with opposed L-shaped angled arms which are integrally formed with or attached perpendicularly to the inner end of the inner wall forming a triangular plate (43(a)) between the opposed L shaped angled arms.
A scattering measurement analysis method, the method being performed by a scattering measurement analysis device and comprising the step of obtaining a theoretical scattering intensity I(q) from a structural model that consists of N scatterers, wherein q represents an amount of a scattering vector q ⇀ , wherein the obtaining of the theoretical scattering intensity I(q) comprises: calculating a first contribution to the theoretical scattering intensity I(q) for pairs of scatterers (m, n), with m, n = {1,..., N}, among the N scatterers, for which a distance r mn between the scatterers n and m is shorter than a predetermined distance value R, according to the expression ∑ m ∑ n , r mn < R f m q f n ∗ q sin qr mn qr mn , wherein f m (q) and f n *(q) are scattering factors of the respective scatterers m and n, and r mn is a center-to-center distance between the respective scatterers m and n; and calculating a second contribution to the theoretical scattering intensity I(q) for the pairs of scatterers (m,n), for which the distance r mn between the scatterers n and m is equal to or larger than the predetermined distance value R, according to expression f ave ∗ q ∑ m f m q ∫ r ≥ R r max 4 πρ a r 2 sin qr qr dr , wherein f ave *(q) represents an average value of the scattering factor f n *(q) associated with the scatterers n , and ρ a represents an average density value of a probability density function p m (r) which is indicative of the number of scatterers existing at a distance r from the scatterer m . calculating a first contribution to the theoretical scattering intensity I(q) for pairs of scatterers (m, n), with m, n = {1,..., N}, among the N scatterers, for which a distance r mn between the scatterers n and m is shorter than a predetermined distance value R, according to the expression ∑ m ∑ n , r mn < R f m q f n ∗ q sin qr mn qr mn , wherein f m (q) and f n *(q) are scattering factors of the respective scatterers m and n, and r mn is a center-to-center distance between the respective scatterers m and n; and calculating a second contribution to the theoretical scattering intensity I(q) for the pairs of scatterers (m,n), for which the distance r mn between the scatterers n and m is equal to or larger than the predetermined distance value R, according to expression f ave ∗ q ∑ m f m q ∫ r ≥ R r max 4 πρ a r 2 sin qr qr dr , wherein f ave *(q) represents an average value of the scattering factor f n *(q) associated with the scatterers n , and ρ a represents an average density value of a probability density function p m (r) which is indicative of the number of scatterers existing at a distance r from the scatterer m .
A terminal deoxynucleotidyl transferase (TdT) variant comprising an amino acid sequence at least 90% identical to the amino acid sequence as set forth in the amino acid sequence selected from SEQ ID NO: 11, 13, 15, 17, 19, 21, 23, 25, 27, 29, 31, 33 or 35, - wherein the amino acid sequence comprises at least one amino acid substitution of a cysteine residue at position 173 with respect to SEQ ID NOs 11, 13, 17, 19, 21, 29 or 31, or of a functionally equivalent cysteine residue selected from a cysteine at position 172 with respect to SEQ ID NO: 15, or cysteine at position 178 with respect to SEQ ID NO: 23, or cysteine at position 174 with respect to SEQ ID NO: 25, or cysteine at position 171 with respect to SEQ ID NO: 27, or cysteine at position 182 with respect to SEQ ID NO: 33, or cysteine at position 176 with respect to SEQ ID NO: 35, - wherein the amino acid sequence comprises a further substitution of an arginine residue at position 207 with respect to SEQ ID NOs 11, 13, 17, 19, 23, 29 of 31, or of a functionally equivalent arginine residue selected from an arginine at position 206 with respect to SEQ ID NO: 15, or a arginine at position 208 with respect to SEQ ID NOs 21 or 25, or arginine at position 205 with respect to SEQ ID NO: 27, or arginine at position 216 with respect to SEQ ID NO: 33, or a arginine at position 210 with respect to SEQ ID NO: 35, wherein the TdT variant (i) is capable of synthesizing a nucleic acid fragment without a template and (ii) is capable of incorporating a modified nucleotide into a nucleic acid fragment. - wherein the amino acid sequence comprises at least one amino acid substitution of a cysteine residue at position 173 with respect to SEQ ID NOs 11, 13, 17, 19, 21, 29 or 31, or of a functionally equivalent cysteine residue selected from a cysteine at position 172 with respect to SEQ ID NO: 15, or cysteine at position 178 with respect to SEQ ID NO: 23, or cysteine at position 174 with respect to SEQ ID NO: 25, or cysteine at position 171 with respect to SEQ ID NO: 27, or cysteine at position 182 with respect to SEQ ID NO: 33, or cysteine at position 176 with respect to SEQ ID NO: 35, - wherein the amino acid sequence comprises a further substitution of an arginine residue at position 207 with respect to SEQ ID NOs 11, 13, 17, 19, 23, 29 of 31, or of a functionally equivalent arginine residue selected from an arginine at position 206 with respect to SEQ ID NO: 15, or a arginine at position 208 with respect to SEQ ID NOs 21 or 25, or arginine at position 205 with respect to SEQ ID NO: 27, or arginine at position 216 with respect to SEQ ID NO: 33, or a arginine at position 210 with respect to SEQ ID NO: 35,
A discharge valve structure configured to be used in a compressor comprising a cylinder block having formed therein cylinder bores , pistons which move reciprocally linearly in the cylinder bores , and a cylinder head having formed therein a space in which to temporarily store a working fluid; the discharge valve structure comprising: a valve plate which, configured to be provided between the cylinder block and the cylinder head , has formed therein ports which provide communication between the cylinder bores and the space ; and reed valves which open and close the ports in the valve plate ; wherein an annular valve seat with which each of the reed valves comes into abutment is provided on the periphery of the open end of each of the ports in the valve plate , the radial width of the valve seat is formed to be larger on the side corresponding to a leading end portion of the reed valve than on the side corresponding to a base end portion of the reed valve , and the outer edge of the leading end portion of the reed valve is positioned inside the outer edge of the valve seat in a state where the port is closed by the reed valve ; characterized in that the discharge reed valve is formed so that a moment of inertia of area of a base end side is higher than a moment of inertia of area of a leading end side, wherein the reed valve is formed so that the width thereof increases gradually as it goes from the leading end portion to the base end portion . a valve plate which, configured to be provided between the cylinder block and the cylinder head , has formed therein ports which provide communication between the cylinder bores and the space ; and reed valves which open and close the ports in the valve plate ; wherein an annular valve seat with which each of the reed valves comes into abutment is provided on the periphery of the open end of each of the ports in the valve plate , the radial width of the valve seat is formed to be larger on the side corresponding to a leading end portion of the reed valve than on the side corresponding to a base end portion of the reed valve , and the outer edge of the leading end portion of the reed valve is positioned inside the outer edge of the valve seat in a state where the port is closed by the reed valve ; characterized in that the discharge reed valve is formed so that a moment of inertia of area of a base end side is higher than a moment of inertia of area of a leading end side, wherein the reed valve is formed so that the width thereof increases gradually as it goes from the leading end portion to the base end portion .