mhurhangee/patent-ind-claim-en huggingface dataset:
Measuring device for determining an estimated value for the blood sugar content of a person by means of a non-invasive impedance measurement, wherein the measuring device has a transmitter for determining a blood sugar content from a measured value and having a sensor unit for detecting the measured value, wherein the sensor unit has at least two tetrapolar electrode arrangements (6-9), each having at least two electrode pairs (6.1, 6.2 and 6.3, 6.4) which are arranged along a first linear axis, wherein the axes of the two tetrapolar electrode arrangements (6, 8 or 7, 9) are aligned perpendicular to one another and wherein a first pair of electrodes (6.1, 6.2) is provided for emitting and receiving a current signal and wherein a second pair of electrodes (6.3, 6.4) is provided for tapping a potential on contact with the skin of the person, characterized in that at least one of the electrodes (6.1-6.4, 20) of the sensor unit has a contact surface for contacting the skin, which consists of a metal or a metal alloy with a conductivity of more than 1*10 7 S/m, and the electrode (6.1-6.4, 20) has an inner electrode which consists of a precious metal and has a support sleeve made of a material with a Vickers hardness of more than 40, according to DIN EN 6507-1:2018-07, or of a silicon compound with a Vickers hardness of more than 40, according to DIN EN 6507-1:2018-07, and with a thermal conductivity of more than 100 W/(m*K). wherein the sensor unit has at least two tetrapolar electrode arrangements (6-9), each having at least two electrode pairs (6.1, 6.2 and 6.3, 6.4) which are arranged along a first linear axis, wherein the axes of the two tetrapolar electrode arrangements (6, 8 or 7, 9) are aligned perpendicular to one another and wherein a first pair of electrodes (6.1, 6.2) is provided for emitting and receiving a current signal and wherein a second pair of electrodes (6.3, 6.4) is provided for tapping a potential on contact with the skin of the person, characterized in that at least one of the electrodes (6.1-6.4, 20) of the sensor unit has a contact surface for contacting the skin, which consists of a metal or a metal alloy with a conductivity of more than 1*10 7 S/m, and the electrode (6.1-6.4, 20) has an inner electrode which consists of a precious metal and has a support sleeve made of a material with a Vickers hardness of more than 40, according to DIN EN 6507-1:2018-07, or of a silicon compound with a Vickers hardness of more than 40, according to DIN EN 6507-1:2018-07, and with a thermal conductivity of more than 100 W/(m*K).
Device for load monitoring , having at least one panel on which a load can be positioned, wherein the panel has a plurality of sensors and wherein the sensors of the panel are electrically connected to a transmission unit in such a way that the sensor measurement data can be transmitted from the sensors to the transmission unit , wherein the measurement data from the sensors can be transmitted to at least one evaluation unit with the aid of the transmission unit , and wherein the panel has a flexible layer in and/or on which at least one of the sensors is arranged, characterized in that the panel consists of at least three layers, wherein an inner layer is designed as the flexible layer and the two outer layers are made of wood.
A piston , comprising: an upper part providing an upper combustion surface including a top land , a land ring , a combustion bowl and an undercrown surface formed under the combustion bowl ; and a lower part including pin bosses and a piston skirt formed under the undercrown surface , wherein at least one of the upper part and the lower part are formed with metal injection molding. an upper part providing an upper combustion surface including a top land , a land ring , a combustion bowl and an undercrown surface formed under the combustion bowl ; and a lower part including pin bosses and a piston skirt formed under the undercrown surface , wherein at least one of the upper part and the lower part are formed with metal injection molding.
An aircraft comprising: a tail cone (T); a liquid cooled internal combustion power plant ; and a cooling system for the liquid cooled internal combustion aircraft power plant , the cooling system comprising: an air inlet defined through a wall (T2) of the tail cone (T) and fluidly connected to an environment (E) outside the aircraft; a heat exchanger having at least one first conduit fluidly connected to the environment (E) via the air inlet and at least one second conduit in heat exchange relationship with the at least one first conduit and fluidly connectable to a coolant circuitry of the liquid cooled internal combustion aircraft power plant ; a blower fluidly connected to the environment (E) via the air inlet ; and an air outlet (C1) fluidly connected to the blower and defined through a wall (T2, C2) of the aircraft upstream of the air inlet relative to a direction of an airflow (D2) along the aircraft, whereby the direction of an airflow (D2) along the aircraft is opposite to the direction of travel (D1) of the aircraft, wherein the air inlet comprises louvers defined in the wall (T2) of the tail cone (T). a tail cone (T); a liquid cooled internal combustion power plant ; and a cooling system for the liquid cooled internal combustion aircraft power plant , the cooling system comprising: an air inlet defined through a wall (T2) of the tail cone (T) and fluidly connected to an environment (E) outside the aircraft; a heat exchanger having at least one first conduit fluidly connected to the environment (E) via the air inlet and at least one second conduit in heat exchange relationship with the at least one first conduit and fluidly connectable to a coolant circuitry of the liquid cooled internal combustion aircraft power plant ; a blower fluidly connected to the environment (E) via the air inlet ; and an air outlet (C1) fluidly connected to the blower and defined through a wall (T2, C2) of the aircraft upstream of the air inlet relative to a direction of an airflow (D2) along the aircraft, whereby the direction of an airflow (D2) along the aircraft is opposite to the direction of travel (D1) of the aircraft, wherein the air inlet comprises louvers defined in the wall (T2) of the tail cone (T). an air inlet defined through a wall (T2) of the tail cone (T) and fluidly connected to an environment (E) outside the aircraft; a heat exchanger having at least one first conduit fluidly connected to the environment (E) via the air inlet and at least one second conduit in heat exchange relationship with the at least one first conduit and fluidly connectable to a coolant circuitry of the liquid cooled internal combustion aircraft power plant ; a blower fluidly connected to the environment (E) via the air inlet ; and an air outlet (C1) fluidly connected to the blower and defined through a wall (T2, C2) of the aircraft upstream of the air inlet relative to a direction of an airflow (D2) along the aircraft, whereby the direction of an airflow (D2) along the aircraft is opposite to the direction of travel (D1) of the aircraft, wherein the air inlet comprises louvers defined in the wall (T2) of the tail cone (T).
Quick release coupling for an excavator bucket coupler comprising a jaw for engaging and holding a bucket pin and a locking device for locking said jaw in a holding position of said bucket pin , wherein the locking device comprises: a side pin arranged to move between a retracted unlocking position and a protruding locking position wherein the pin enters a cavity or hole of the bucket coupler to prevent relative movement between the jaw and the bucket coupler; a locking spring arranged to bias the side pin into the protruding position; and a socket for receiving a manual actuator for moving said side pin into the retracted position. a side pin arranged to move between a retracted unlocking position and a protruding locking position wherein the pin enters a cavity or hole of the bucket coupler to prevent relative movement between the jaw and the bucket coupler; a locking spring arranged to bias the side pin into the protruding position; and a socket for receiving a manual actuator for moving said side pin into the retracted position.
A method for controlling the length of a sprocket chain of a chain type comprising alternately arranged inner chain links and outer chain links respectively connected to each other by means of a chain link , wherein each outer chain link includes two outer link plates each having two openings and two pins pressed into the openings of the outer link plates , wherein the pins of the outer chain links each have a link region with a link diameter (Dg ) being in contact with the inner chain links and two joint regions with a joint diameter (D F ) pressed into the openings of the outer link plates , characterized by the following steps: - providing a pin set comprising a plurality of pins wherein at least two of the pins of the pin set have different link diameters (D G ) of the link regions and wherein for at least one of the pins of the pin set the link diameter (D G ) of the link region differs from the joint diameter (D F ) of the joint regions , - determining the link diameter (D G ) of the link region of the pins required for a specified chain length, - selecting the pins with the determined link diameter (D G ) of the link region from the pin set, - pressing the joint regions of the pins into the openings in the outer link plates and completing the sprocket chain . - providing a pin set comprising a plurality of pins wherein at least two of the pins of the pin set have different link diameters (D G ) of the link regions and wherein for at least one of the pins of the pin set the link diameter (D G ) of the link region differs from the joint diameter (D F ) of the joint regions , - determining the link diameter (D G ) of the link region of the pins required for a specified chain length, - selecting the pins with the determined link diameter (D G ) of the link region from the pin set, - pressing the joint regions of the pins into the openings in the outer link plates and completing the sprocket chain .
Fire door leaf for a fire door , wherein the fire door leaf comprises at least one casing sheet and a filling , wherein a hooking device arranged on the casing sheet always engages behind a further door element of the fire door in the closed state of the fire door , wherein said hooking device is a grasping element formed of metal for grasping said further door element, wherein said grasping element is designed in such a way that the grasping element hooks onto the further door element in the event of fire, characterized in that on account of said hooking action a tensile force (F) acts in such way that the grasping element is moved from a normal position into an extended position.
A silicone composition comprising: (A) 50 to 99.9 parts by weight of organopolysiloxane having at least two aliphatic unsaturated hydrocarbon groups per molecule and a kinematic viscosity determined in accordance with the procedure outlined in the description at 25°C of from 60 to 100,000 mm 2 /s, (B) 0.1 to 50 parts by weight of silicone resin having at least one aliphatic unsaturated hydrocarbon group per molecule provided that the combined amount of components (A) and (B) is 100 parts by weight (C) organohydrogenpolysiloxane of structural formula below wherein each R 1 independently is an alkyl group of 1 to 6 carbon atoms or a hydrogen atom, and m and n are numbers which satisfy the conditions 50 ≤ m+n ≤ 100 and n/(m+n) ≤ 0.6, provided that the molecule has an SiH group and the R 1 groups are not all hydrogen atoms, (D) organic peroxide having a ten hour half-life temperature of at least 40°C, in an amount of from 0.01 to 10 parts by weight per 100 parts by weight of components (A) and (B) combined, and (E) heat-conductive filler having a thermal conductivity of at least 10 W/(m·°C), in an amount of from 100 to 3,000 parts by weight per 100 parts by weight of components (A) and (B) combined. (A) 50 to 99.9 parts by weight of organopolysiloxane having at least two aliphatic unsaturated hydrocarbon groups per molecule and a kinematic viscosity determined in accordance with the procedure outlined in the description at 25°C of from 60 to 100,000 mm 2 /s, (B) 0.1 to 50 parts by weight of silicone resin having at least one aliphatic unsaturated hydrocarbon group per molecule provided that the combined amount of components (A) and (B) is 100 parts by weight (C) organohydrogenpolysiloxane of structural formula below wherein each R 1 independently is an alkyl group of 1 to 6 carbon atoms or a hydrogen atom, and m and n are numbers which satisfy the conditions 50 ≤ m+n ≤ 100 and n/(m+n) ≤ 0.6, provided that the molecule has an SiH group and the R 1 groups are not all hydrogen atoms, (D) organic peroxide having a ten hour half-life temperature of at least 40°C, in an amount of from 0.01 to 10 parts by weight per 100 parts by weight of components (A) and (B) combined, and (E) heat-conductive filler having a thermal conductivity of at least 10 W/(m·°C), in an amount of from 100 to 3,000 parts by weight per 100 parts by weight of components (A) and (B) combined.
A device for monitoring and in particular for controlling a laser cutting process on a workpiece , comprising: an image capturing apparatus for capturing an image of a region of the workpiece to be monitored, which comprises a region of interaction of a laser beam with the workpiece , and an evaluation apparatus that is designed to determine the presence or lack of burr formation on the cut gap as characteristic value of the laser cutting process based on the image of the region of interaction , characterized in that the evaluation apparatus is designed, during a flame cutting process, upon the occurrence of a local intensity minimum of the image of the region of interaction in the region of the cutting front , to conclude that there is a lack of burr formation and/or in that the evaluation apparatus is designed, during a melt cutting process, based on the lack of a repeating fluctuation in the intensity of the thermal image in the region of the cut gap and/or upon the occurrence of three luminescent stripes (30a-c) originating from the cutting front , to conclude that burr formation is present. an image capturing apparatus for capturing an image of a region of the workpiece to be monitored, which comprises a region of interaction of a laser beam with the workpiece , and an evaluation apparatus that is designed to determine the presence or lack of burr formation on the cut gap as characteristic value of the laser cutting process based on the image of the region of interaction , characterized in that the evaluation apparatus is designed, during a flame cutting process, upon the occurrence of a local intensity minimum of the image of the region of interaction in the region of the cutting front , to conclude that there is a lack of burr formation and/or in that the evaluation apparatus is designed, during a melt cutting process, based on the lack of a repeating fluctuation in the intensity of the thermal image in the region of the cut gap and/or upon the occurrence of three luminescent stripes (30a-c) originating from the cutting front , to conclude that burr formation is present.
An apparatus for treating a fracture of a bone, the fracture including segments, the bone having an inner cavity, the apparatus comprising: a structural support for positioning a first of the bone segments relative to a second of the bone segments, the structural support being configured to be deployed in the inner cavity; and an anchoring substrate configured to stabilize the first bone segment relative to the second bone segment and/or compress the first bone segment against the second bone segment, the anchoring substrate being configured to be deployed in the inner cavity and to self-expand inside the inner cavity to engage, in an expanded state: a first threaded screw configured to be driven through the first bone segment to secure the first bone segment to the anchoring substrate ; and a second threaded screw configured to be driven through the second bone segment to secure the second bone segment to the anchoring substrate in a position relative to the first bone segment suitable to promote healing of the fracture. a structural support for positioning a first of the bone segments relative to a second of the bone segments, the structural support being configured to be deployed in the inner cavity; and an anchoring substrate configured to stabilize the first bone segment relative to the second bone segment and/or compress the first bone segment against the second bone segment, the anchoring substrate being configured to be deployed in the inner cavity and to self-expand inside the inner cavity to engage, in an expanded state: a first threaded screw configured to be driven through the first bone segment to secure the first bone segment to the anchoring substrate ; and a second threaded screw configured to be driven through the second bone segment to secure the second bone segment to the anchoring substrate in a position relative to the first bone segment suitable to promote healing of the fracture. a first threaded screw configured to be driven through the first bone segment to secure the first bone segment to the anchoring substrate ; and a second threaded screw configured to be driven through the second bone segment to secure the second bone segment to the anchoring substrate in a position relative to the first bone segment suitable to promote healing of the fracture.
Process for manufacturing a chip-card module , comprising the operations of providing a dielectric substrate supporting a first layer of electrically conductive material on a first main face of the substrate , and a second layer of electrically conductive material on a second main face of the substrate , fixing at least one integrated circuit on the substrate , on the side of the first main face thereof, and connecting said at least one integrated circuit to first connection pads , characterized in that it furthermore comprises one or more operations during which a meltable solder material is deposited on second connection pads formed in the first layer of electrically conductive material and at least one electronic component is connected to the second connection pads by re-melting the solder material . fixing at least one integrated circuit on the substrate , on the side of the first main face thereof, and connecting said at least one integrated circuit to first connection pads , characterized in that it furthermore comprises one or more operations during which a meltable solder material is deposited on second connection pads formed in the first layer of electrically conductive material and at least one electronic component is connected to the second connection pads by re-melting the solder material .
A sandwich-structured, flat molded body for use in the interiors of buildings or in the interiors of means of transport, comprising a) a central core layer with a plurality of hollow bodies, b) a fiber mesh on both sides of the core layer and c) an at least partially foamed, substantially inorganic binder comprising a geopolymer and applied to both sides of the fiber mesh, wherein the geopolymer is producible from the thermal polymerization of a curable and foamable composition comprising - at least one solid stone-forming phase consisting of metakaolin, - at least one aqueous, alkaline phase, - at least one foaming agent and - at least one surfactant, wherein the majority of the formed foam cells of the substantially inorganic binder comprising a geopolymer are again largely destroyed during thermal curing in the limited expansion space of a mold. a) a central core layer with a plurality of hollow bodies, b) a fiber mesh on both sides of the core layer and c) an at least partially foamed, substantially inorganic binder comprising a geopolymer and applied to both sides of the fiber mesh, wherein the geopolymer is producible from the thermal polymerization of a curable and foamable composition comprising - at least one solid stone-forming phase consisting of metakaolin, - at least one aqueous, alkaline phase, - at least one foaming agent and - at least one surfactant, wherein the majority of the formed foam cells of the substantially inorganic binder comprising a geopolymer are again largely destroyed during thermal curing in the limited expansion space of a mold. wherein the geopolymer is producible from the thermal polymerization of a curable and foamable composition comprising - at least one solid stone-forming phase consisting of metakaolin, - at least one aqueous, alkaline phase, - at least one foaming agent and - at least one surfactant, - at least one solid stone-forming phase consisting of metakaolin, - at least one aqueous, alkaline phase, - at least one foaming agent and - at least one surfactant, wherein the majority of the formed foam cells of the substantially inorganic binder comprising a geopolymer are again largely destroyed during thermal curing in the limited expansion space of a mold.
A display apparatus comprising a substrate having a bent region (BA) located between a first region and a second region and bent in the bent region (BA) about a bending axis (BAX); an organic material layer located on the substrate to correspond to and overlapping the bent region (BA); and a plurality of first conductive layers extending from the first region through the bent region (BA) to the second region and located on the organic material layer ; and second openings or second grooves provided in the organic material layer and extending from the first region to the second region in a direction that intersects the bending axis (BAX), wherein the second openings or the second grooves are interposed between the plurality of first conductive layers . an organic material layer located on the substrate to correspond to and overlapping the bent region (BA); and a plurality of first conductive layers extending from the first region through the bent region (BA) to the second region and located on the organic material layer ; and second openings or second grooves provided in the organic material layer and extending from the first region to the second region in a direction that intersects the bending axis (BAX), wherein the second openings or the second grooves are interposed between the plurality of first conductive layers .