mhurhangee/patent-ind-claim-en huggingface dataset:
A breath sampling device comprising: a housing having a fluid inlet positioned at a fluid inlet end , a fluid outlet positioned at a fluid outlet end , and a fluid channel extending between the fluid inlet and the fluid outlet ; a gas sensor fluidly coupled to the fluid channel , wherein the gas sensor is structurally configured to detect a presence of a target gas in a gas sample; a humidity shield fluidly coupled to the fluid channel and positioned in a fluid flow path upstream the gas sensor , wherein, upon contact between a gas sample and the humidity shield , the humidity shield reduces the humidity of the gas sample; and a heat dissipation shield fluidly coupled to the fluid channel and positioned in a fluid flow path upstream the gas sensor , wherein, upon contact between a gas sample and the heat dissipation shield , the heat dissipation shield reduces the heat of the gas sample. a housing having a fluid inlet positioned at a fluid inlet end , a fluid outlet positioned at a fluid outlet end , and a fluid channel extending between the fluid inlet and the fluid outlet ; a gas sensor fluidly coupled to the fluid channel , wherein the gas sensor is structurally configured to detect a presence of a target gas in a gas sample; a humidity shield fluidly coupled to the fluid channel and positioned in a fluid flow path upstream the gas sensor , wherein, upon contact between a gas sample and the humidity shield , the humidity shield reduces the humidity of the gas sample; and a heat dissipation shield fluidly coupled to the fluid channel and positioned in a fluid flow path upstream the gas sensor , wherein, upon contact between a gas sample and the heat dissipation shield , the heat dissipation shield reduces the heat of the gas sample.
A fan assembly , comprising: a fan , including: a fan hub located at a fan central axis ; and a plurality of fan blades extending outwardly from the fan hub; the fan hub having a fan hub opening at the fan central axis, the fan hub opening at least partially defined by a plurality of nodes extending radially inwardly toward the fan central axis from the fan hub; and a fan drive installed in the fan hub opening via an interference fit between the plurality of nodes and an outer surface of the fan drive, thus centering the fan drive in the fan hub opening; the fan assembly being characterised in that , a node of the plurality of nodes includes a pocket to increase a deformability of the node during installation of the fan to the fan drive; wherein the pocket is a localized reduction in axial thickness of the node. a fan , including: a fan hub located at a fan central axis ; and a plurality of fan blades extending outwardly from the fan hub; the fan hub having a fan hub opening at the fan central axis, the fan hub opening at least partially defined by a plurality of nodes extending radially inwardly toward the fan central axis from the fan hub; and a fan hub located at a fan central axis ; and a plurality of fan blades extending outwardly from the fan hub; the fan hub having a fan hub opening at the fan central axis, the fan hub opening at least partially defined by a plurality of nodes extending radially inwardly toward the fan central axis from the fan hub; and a fan drive installed in the fan hub opening via an interference fit between the plurality of nodes and an outer surface of the fan drive, thus centering the fan drive in the fan hub opening; the fan assembly being characterised in that , a node of the plurality of nodes includes a pocket to increase a deformability of the node during installation of the fan to the fan drive; wherein the pocket is a localized reduction in axial thickness of the node.
A light-emitting module comprising: a package substrate that is provided with a recessed portion having an opening at an upper surface thereof; a light-emitting device that is housed in the recessed portion; a window member that is provided on the upper surface such that the window member covers the opening; and a sealing portion that bonds the package substrate and the window member, wherein the window member includes a lens portion facing the light-emitting device and a flange portion that projects from the lens portion and bonds to the sealing portion, the lens portion and the flange portion being formed of the same glass material, wherein the flange portion has a bonding portion that is bonded to the sealing portion and a connecting portion that connects the lens portion and the bonding portion, the thickness (d1) of the connecting portion in a direction perpendicular to the projecting direction of the flange portion being smaller than the thickness (d2) of the bonding portion, the bonding portion facing the upper surface of the package substrate , and the connecting portion provided away from the upper surface of the package substrate . a package substrate that is provided with a recessed portion having an opening at an upper surface thereof; a light-emitting device that is housed in the recessed portion; a window member that is provided on the upper surface such that the window member covers the opening; and a sealing portion that bonds the package substrate and the window member, wherein the window member includes a lens portion facing the light-emitting device and a flange portion that projects from the lens portion and bonds to the sealing portion, the lens portion and the flange portion being formed of the same glass material, wherein the flange portion has a bonding portion that is bonded to the sealing portion and a connecting portion that connects the lens portion and the bonding portion, the thickness (d1) of the connecting portion in a direction perpendicular to the projecting direction of the flange portion being smaller than the thickness (d2) of the bonding portion, the bonding portion facing the upper surface of the package substrate , and the connecting portion provided away from the upper surface of the package substrate .
Medical implant for targeted injection composed of a main implant and one or more complementary implants , characterized in that the main implant has three parts, the central part of which is called the body of polygonal section, preferably hexagonal, offers planar faces over its entire periphery, which are perforated to its longitudinal axis hollowed in light of orifices, preferably tapped holes called to be plugged by one or more micro screws coming from complementary implants , or to remain open, and that the proximal part contains an injection chamber which can extend over the entire length of the body of said screw, called to receive a specific cannula of dedicated instrumentation; in that each complementary implant consists of a plug, usefully a micro screw called to plug one of the tapped holes of the main implant , separated by a sleeve insertion by a breakable zone .
A system for jetting viscous medium onto a substrate, said system comprising: an ejector for jetting a viscous medium onto a substrate , the ejector comprising: - a jetting chamber adapted to accommodate the viscous medium; a nozzle communicatively connected to the chamber; and - an impacting device adapted to impact a volume of the viscous medium in the chamber such that viscous medium is jetted through the nozzle towards the substrate; wherein the impacting device is configured to at least one of moving in a sequence of vertical movements and rotationally moving such that shearing is induced in the viscous medium to be jetted; and characterised in that the system comprises a sensor for measuring a shear force acting on the impacting device as it induces shearing in the viscous medium. an ejector for jetting a viscous medium onto a substrate , the ejector comprising: - a jetting chamber adapted to accommodate the viscous medium; a nozzle communicatively connected to the chamber; and - an impacting device adapted to impact a volume of the viscous medium in the chamber such that viscous medium is jetted through the nozzle towards the substrate; wherein the impacting device is configured to at least one of moving in a sequence of vertical movements and rotationally moving such that shearing is induced in the viscous medium to be jetted; and - a jetting chamber adapted to accommodate the viscous medium; a nozzle communicatively connected to the chamber; and - an impacting device adapted to impact a volume of the viscous medium in the chamber such that viscous medium is jetted through the nozzle towards the substrate; wherein the impacting device is configured to at least one of moving in a sequence of vertical movements and rotationally moving such that shearing is induced in the viscous medium to be jetted; and characterised in that the system comprises a sensor for measuring a shear force acting on the impacting device as it induces shearing in the viscous medium.
A motor vehicle comprising: - a passenger compartment ; - an engine compartment ; - at least one transparent wall having an outer surface; - a tank arranged in said engine compartment and designed to contain a wiper fluid; - a dispensing device connected to said tank and operable to deliver and/or spray the wiper fluid on said outer surface; - a duct to feed the wiper fluid into said tank , said duct being arranged in said engine compartment ; characterized by - a filling device to feed the wiper fluid into said tank without having to use said duct ; said filling device comprising a further duct having an inlet arranged in said passenger compartment ; the inlet being arranged at the bottom of a compartment defining a basin or a funnel, in which the driver can easily pour the wiper fluid. - a passenger compartment ; - an engine compartment ; - at least one transparent wall having an outer surface; - a tank arranged in said engine compartment and designed to contain a wiper fluid; - a dispensing device connected to said tank and operable to deliver and/or spray the wiper fluid on said outer surface; - a duct to feed the wiper fluid into said tank , said duct being arranged in said engine compartment ; characterized by - a filling device to feed the wiper fluid into said tank without having to use said duct ; said filling device comprising a further duct having an inlet arranged in said passenger compartment ; the inlet being arranged at the bottom of a compartment defining a basin or a funnel, in which the driver can easily pour the wiper fluid.
A crosslinked polymeric composition comprising: (A) a silane functionalized ethylene-based polymer; (B) inorganic hollow microspheres having (i) a D 90 particle size from 10 μm to 100 μm; (ii) a crush strength from 17 MPa to 140 MPa, measured in accordance with ASTM D3102-72; (iii) a density from 0.10 g/cc to 0.40 g/cc, measured in accordance with ASTM D792, Method B; the crosslinked polymeric composition having a tensile strength from 11 MPa to 40 MPa, measured in accordance with ASTM D638; and a tensile elongation from 12% to 100%, measured in accordance with ASTM D638. (A) a silane functionalized ethylene-based polymer; (B) inorganic hollow microspheres having (i) a D 90 particle size from 10 μm to 100 μm; (ii) a crush strength from 17 MPa to 140 MPa, measured in accordance with ASTM D3102-72; (iii) a density from 0.10 g/cc to 0.40 g/cc, measured in accordance with ASTM D792, Method B; (i) a D 90 particle size from 10 μm to 100 μm; (ii) a crush strength from 17 MPa to 140 MPa, measured in accordance with ASTM D3102-72; (iii) a density from 0.10 g/cc to 0.40 g/cc, measured in accordance with ASTM D792, Method B; the crosslinked polymeric composition having a tensile strength from 11 MPa to 40 MPa, measured in accordance with ASTM D638; and a tensile elongation from 12% to 100%, measured in accordance with ASTM D638.
High pressure and high efficient heating installation comprising at least one membrane panel, wherein a material of the panel is selected from steel alloys, comprising 0.002-3 wt.% C, and at least one metal selected from Mo, Mn, B, Ti, V, Nb, Cr, Al, Cu, Si, Co, W, and, Ni, in an amount of total metal of 0-10 wt.%, wherein the installation is adapted to operate at a water-steam pressure from 3*10 3 kPa-3*10 4 kPa (30-300 atm.) and at a flue gas temperature of 850-1650 K, wherein the installation is preferably a waste incineration installation, wherein the membrane panel comprises at least one tube, and a NiCr alloy cladding, wherein the NiCr alloy comprises >35 atom % Ni, >18 atom% Cr, 0-6 atom% Fe, <19 atom% Mo, 0.1-5 atom% Nb+Ta, and 0-10 atom% of at least one of C, Mn, Si, P, S, Al, Ti, W, Cu, and Co, wherein the cladding has at least one of a surface roughness (Ra) of < 60 μm, a surface purity (SA) of >_ 2.0, and a thickness of 1.5-10 mm over at least 50% of the cladded area. wherein the installation is adapted to operate at a water-steam pressure from 3*10 3 kPa-3*10 4 kPa (30-300 atm.) and at a flue gas temperature of 850-1650 K, wherein the installation is preferably a waste incineration installation, wherein the membrane panel comprises at least one tube, and a NiCr alloy cladding, wherein the NiCr alloy comprises >35 atom % Ni, >18 atom% Cr, 0-6 atom% Fe, <19 atom% Mo, 0.1-5 atom% Nb+Ta, and 0-10 atom% of at least one of C, Mn, Si, P, S, Al, Ti, W, Cu, and Co, wherein the cladding has at least one of a surface roughness (Ra) of < 60 μm, a surface purity (SA) of >_ 2.0, and a thickness of 1.5-10 mm over at least 50% of the cladded area.
A method for manufacturing an electrode for a solid state battery, comprising the steps of: (S10) preparing a slurry for forming an electrode comprising: - a first polymer electrolyte, or the first polymer electrolyte and a binder resin, - a conductive material, and - a plurality of electrode active material particles; (S20) coating the surface of a current collector with the slurry; and (S30) impregnating the product of (S20) with a second polymer electrolyte, wherein step (S20) is carried out by an electrospraying process. (S10) preparing a slurry for forming an electrode comprising: - a first polymer electrolyte, or the first polymer electrolyte and a binder resin, - a conductive material, and - a plurality of electrode active material particles; - a first polymer electrolyte, or the first polymer electrolyte and a binder resin, - a conductive material, and - a plurality of electrode active material particles; (S20) coating the surface of a current collector with the slurry; and (S30) impregnating the product of (S20) with a second polymer electrolyte, wherein step (S20) is carried out by an electrospraying process.
An apparatus for automatic handling of a sample within a receptacle , said apparatus having an axis (A-A) and comprising: a base having a first end and a second end , said axis (A-A) extending laterally between the first and second ends; a carousel supported on the base and intersected by the axis (A-A) said carousel being configured to rotate about an axis of rotation (A R ); and a support extending above the carousel between the first and second ends of the base, said support including a carrier configured to move along X, Z coordinate axes to transport receptacles from a first location to a second location; wherein, said X coordinate axis is parallel to the axis (A-A), said Z coordinate axis is perpendicular to the axis (A-A) and to the X coordinate axis, and said X and Z coordinate axes define a line of operation, and wherein, the apparatus is configured so that rotation of the carousel aligns a receptacle with the line of operation of the carrier to allow the carrier to transport the receptacle from the first location to the second location; wherein the apparatus further comprises a centrifuge ; characterized in that the centrifuge is positioned below the carousel along the axis (A-A), the centrifuge and the carousel are each configured to rotate about a same axis of rotation (A R ), and the carousel defines a void to allow access to the centrifuge through the carousel. a base having a first end and a second end , said axis (A-A) extending laterally between the first and second ends; a carousel supported on the base and intersected by the axis (A-A) said carousel being configured to rotate about an axis of rotation (A R ); and a support extending above the carousel between the first and second ends of the base, said support including a carrier configured to move along X, Z coordinate axes to transport receptacles from a first location to a second location; wherein, said X coordinate axis is parallel to the axis (A-A), said Z coordinate axis is perpendicular to the axis (A-A) and to the X coordinate axis, and said X and Z coordinate axes define a line of operation, and wherein, the apparatus is configured so that rotation of the carousel aligns a receptacle with the line of operation of the carrier to allow the carrier to transport the receptacle from the first location to the second location; wherein the apparatus further comprises a centrifuge ; characterized in that the centrifuge is positioned below the carousel along the axis (A-A), the centrifuge and the carousel are each configured to rotate about a same axis of rotation (A R ), and the carousel defines a void to allow access to the centrifuge through the carousel.
A dual fuel delivery system for a gas turbine, comprising: a main fuel line having a main fuel oil conduit and a main fuel gas conduit , wherein the main fuel gas conduit encloses, at least partially, the main fuel oil conduit ; and a first fuel divider having a first fuel oil divider connected to the main fuel oil conduit and a first fuel gas divider connected to the main fuel gas conduit , wherein the first fuel gas divider encloses, at least partially, the first fuel oil divider ; the first fuel divider having one inlet and two outlets; the dual fuel delivery system being characterized by further comprising: two second fuel dividers , each of which has a second fuel oil divider and a second fuel gas divider , and wherein the outlets of the first fuel divider are connected to a respective inlet of a respective second fuel divider ; and an injection head , the injection head comprises at least one injection nozzle adapted to inject a fuel oil and/or a fuel gas , wherein the injection head is connected to the second fuel dividers . two second fuel dividers , each of which has a second fuel oil divider and a second fuel gas divider , and wherein the outlets of the first fuel divider are connected to a respective inlet of a respective second fuel divider ; and an injection head , the injection head comprises at least one injection nozzle adapted to inject a fuel oil and/or a fuel gas , wherein the injection head is connected to the second fuel dividers .
Method for provisioning a multimedia service to a multimedia rendering device (RD) by a multi media application server (IPTV-AS), said multimedia application server (IPTV-AS), being coupled to said rendering device (RD) over a communication network (CN-1), whereby said method further comprises the step of: a. determining at least one additional multimedia service associated with said multimedia service provisioned by said multimedia application server (IPTV-AS), to said rendering device (RD); and b. selecting an additional multimedia service of said at least one additional multimedia service by a communications device (CD, CD1, CD2) associated with said multimedia service provisioned to said rendering device (RD), said communications device (CD, CD1, CD2) being associated with said multimedia service by means of registration at said multimedia application server (IPTV-AS); and c. provisioning, said additional multimedia service of said at least one additional multimedia service selected by said communications device associated with said multimedia service provisioned to said rendering device (RD), to said respective communications device. a. determining at least one additional multimedia service associated with said multimedia service provisioned by said multimedia application server (IPTV-AS), to said rendering device (RD); and b. selecting an additional multimedia service of said at least one additional multimedia service by a communications device (CD, CD1, CD2) associated with said multimedia service provisioned to said rendering device (RD), said communications device (CD, CD1, CD2) being associated with said multimedia service by means of registration at said multimedia application server (IPTV-AS); and c. provisioning, said additional multimedia service of said at least one additional multimedia service selected by said communications device associated with said multimedia service provisioned to said rendering device (RD), to said respective communications device.
An overvoltage protection device comprising: first and second electrically conductive electrode members; and a varistor member formed of a varistor material and electrically connected with each of the first and second electrode members; characterized in that the overvoltage protection device includes both: an integral first fail-safe mechanism configured to electrically short circuit the first and second electrode members about the varistor member when triggered by a first set of operating conditions; and an integral second fail-safe mechanism configured to electrically short circuit the first and second electrode members about the varistor member when triggered by a second set of operating conditions different from the first set of operating conditions, wherein: the second fail-safe mechanism includes an electrically conductive meltable member ; and the meltable member is responsive to heat in the overvoltage protection device to melt and form a current flow path between the first and second electrode members through the meltable member. first and second electrically conductive electrode members; and a varistor member formed of a varistor material and electrically connected with each of the first and second electrode members; characterized in that the overvoltage protection device includes both: an integral first fail-safe mechanism configured to electrically short circuit the first and second electrode members about the varistor member when triggered by a first set of operating conditions; and an integral first fail-safe mechanism configured to electrically short circuit the first and second electrode members about the varistor member when triggered by a first set of operating conditions; and an integral second fail-safe mechanism configured to electrically short circuit the first and second electrode members about the varistor member when triggered by a second set of operating conditions different from the first set of operating conditions, wherein: the second fail-safe mechanism includes an electrically conductive meltable member ; and the meltable member is responsive to heat in the overvoltage protection device to melt and form a current flow path between the first and second electrode members through the meltable member. the second fail-safe mechanism includes an electrically conductive meltable member ; and the meltable member is responsive to heat in the overvoltage protection device to melt and form a current flow path between the first and second electrode members through the meltable member.