mhurhangee/patent-ind-claim-en huggingface dataset:
Method for preserving plant products, comprising the storage in a closed chamber of the products in an atmosphere whose relative humidity (RH) is equal to or greater than 99%, and implementing a set to treat the atmosphere, wherein the set comprises: - a device for bringing the atmosphere into contact with an aqueous stream, comprising a packing; - a device for injecting an aqueous stream into the contacting device; - a device for circulating the storage atmosphere in the contacting device; wherein the contacting device is so shaped that the atmosphere is brought into contact with the aqueous stream by circulation in the packing, and in that the atmosphere has a relative humidity greater than 99%; and wherein the method comprises: - a step of collecting the aqueous stream resulting from the contacting step; - a step of regeneration of the aqueous stream resulting from the contacting step, during which the aqueous stream is brought into contact with a flow of air outside the circulation storage in an external packing, wherein the aqueous stream is then reused in the contacting step; - a step of measuring the concentration of CO 2 and/or O 2 in the storage atmosphere and/or the temperature of the storage atmosphere, wherein the flow rate of the aqueous stream at the contacting step and/or of the air flow outside the regeneration step is set at least according to the measured parameter; Characterized in that the atmosphere is moistened with water vapor at room temperature until saturation of air. - a device for bringing the atmosphere into contact with an aqueous stream, comprising a packing; - a device for injecting an aqueous stream into the contacting device; - a device for circulating the storage atmosphere in the contacting device; - a step of collecting the aqueous stream resulting from the contacting step; - a step of regeneration of the aqueous stream resulting from the contacting step, during which the aqueous stream is brought into contact with a flow of air outside the circulation storage in an external packing, wherein the aqueous stream is then reused in the contacting step; - a step of measuring the concentration of CO 2 and/or O 2 in the storage atmosphere and/or the temperature of the storage atmosphere, wherein the flow rate of the aqueous stream at the contacting step and/or of the air flow outside the regeneration step is set at least according to the measured parameter;
Thioether silane of the formula I (R 1 ) x (R 2 ) 3-x Si-R 3 -S-C(CH 2 R 4 ) y (R 5 ) 3-y (I) where R 1 is the same or different and is C1-C10-alkoxy groups, phenoxy groups, C4-C10-cycloalkoxy groups or alkyl polyether groups -O-(R 6 -O) r -R 7 where R 6 is the same or different and is a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic divalent C1-C30 hydrocarbon group, r is an integer from 1 to 30 and R 7 is an unsubstituted or substituted, branched or unbranched, monovalent alkyl, alkenyl, aryl or aralkyl group, R 2 is the same or different and is C6-C20-aryl groups, C1-C10-alkyl groups, C2-C20-alkenyl groups, C7-C20-aralkyl groups or halogen, R 3 is a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic divalent C1-C30 hydrocarbon group, R 4 is the same or different and is H, branched or unbranched, saturated or unsaturated, aliphatic C1-C30 hydrocarbon groups, R 5 is the same or different and is unsubstituted C6-C20-aryl groups, alkyl-substituted C6-C20-aryl groups or -C≡C-R 8 groups where R 8 is H, an unsubstituted or substituted, branched or unbranched monovalent alkyl group or a C6-C20-aryl group, and x = 1, 2 or 3, y = 1 or 2. R 2 is the same or different and is C6-C20-aryl groups, C1-C10-alkyl groups, C2-C20-alkenyl groups, C7-C20-aralkyl groups or halogen, R 3 is a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic divalent C1-C30 hydrocarbon group, R 4 is the same or different and is H, branched or unbranched, saturated or unsaturated, aliphatic C1-C30 hydrocarbon groups, R 5 is the same or different and is unsubstituted C6-C20-aryl groups, alkyl-substituted C6-C20-aryl groups or -C≡C-R 8 groups where R 8 is H, an unsubstituted or substituted, branched or unbranched monovalent alkyl group or a C6-C20-aryl group, and x = 1, 2 or 3, y = 1 or 2.
An unbalance arrangement for a compactor roller of a soil compactor, comprising: - a first unbalance mass unit (34; 34a) rotatable around an unbalance axis of rotation (U) and having a first centre of mass (M 1 ) eccentric with respect to the unbalance axis of rotation (U), - a second unbalance mass unit (36; 36a) rotatable around the unbalance axis of rotation (U) and having a second centre of mass (M 2 ) eccentric with respect to the unbalance axis of rotation (U), - an unbalance drive (42; 42a) for jointly driving the first unbalance mass unit (34; 34a) and the second unbalance mass unit to rotate around the unbalance axis of rotation (U), - a phase position adjustment unit (46; 46a) for adjusting a phase position of the first centre of mass (M 1 ) with respect to the second centre of mass (M 2 ) around the unbalance axis of rotation (U), wherein the phase position adjustment unit (46; 46a) comprises a spur gear arrangement (68; 68a) in the torque transmission path between the unbalance drive (42; 42a) and the first unbalance mass unit (34; 34a) or the second unbalance mass unit (36; 36a), wherein the spur gear arrangement (68; 68a) comprises a gear input spur gear (66; 66a) drivable by the unbalance drive (42; 42a) to rotate around a gear axis of rotation (G), a gear output spur gear (70; 70a) rotatable around the gear axis of rotation (G), characterized in that the spur gear arrangement (68; 68a) comprises a group of gear adjustment spur gears (78, 80; 78a, 80a) in meshing engagement with the gear input spur gear (66; 66a) and the gear output spur gear (70; 70a), wherein the gear adjustment spur gears (78, 80; 78a, 80a) are rotatably supported on an adjustment spur gear carrier (82; 82a), and wherein the adjustment spur gear carrier (82; 82a) is rotatable with respect to the gear input spur gear (66; 66a) and the gear output spur gear (70; 70a) around the gear axis of rotation (G). - a first unbalance mass unit (34; 34a) rotatable around an unbalance axis of rotation (U) and having a first centre of mass (M 1 ) eccentric with respect to the unbalance axis of rotation (U), - a second unbalance mass unit (36; 36a) rotatable around the unbalance axis of rotation (U) and having a second centre of mass (M 2 ) eccentric with respect to the unbalance axis of rotation (U), - an unbalance drive (42; 42a) for jointly driving the first unbalance mass unit (34; 34a) and the second unbalance mass unit to rotate around the unbalance axis of rotation (U), - a phase position adjustment unit (46; 46a) for adjusting a phase position of the first centre of mass (M 1 ) with respect to the second centre of mass (M 2 ) around the unbalance axis of rotation (U),
A multifocal IOL for optimizing peripheral vision comprising: an optic which produces at least two foci having essentially the same dioptric power, characterised in that the optic is comprised of at least two zones with each zone focusing an image at a different part of the retina, and wherein the inner zone is a spherical lens and the outer zone consists of a spherical lens combined with a prism for focusing an image at a predetermined spot in the periphery. an optic which produces at least two foci having essentially the same dioptric power, characterised in that the optic is comprised of at least two zones with each zone focusing an image at a different part of the retina, and wherein the inner zone is a spherical lens and the outer zone consists of a spherical lens combined with a prism for focusing an image at a predetermined spot in the periphery.
A pedal system for a vehicle, wherein the vehicle is configured for operating in a first vehicle mode (M V1 ) for flight operational use and a second vehicle mode (M V2 ) for road operational use, wherein the pedal system comprises a first pedal arrangement having a first lower pedal part and a first upper pedal part arranged in connection to each other, wherein in the first vehicle mode (Mvi) the first lower pedal part is configured for activating a rudder function of the vehicle, and wherein in the first vehicle mode (Mvi) the first upper pedal part is configured for activating a braking function of the vehicle, characterized in that in the second vehicle mode (M V2 ) the first lower pedal part and the first upper pedal part are configured for cooperating with each other to activate a throttle function of the vehicle. wherein the pedal system comprises a first pedal arrangement having a first lower pedal part and a first upper pedal part arranged in connection to each other, wherein in the first vehicle mode (Mvi) the first lower pedal part is configured for activating a rudder function of the vehicle, and wherein in the first vehicle mode (Mvi) the first upper pedal part is configured for activating a braking function of the vehicle, characterized in that in the second vehicle mode (M V2 ) the first lower pedal part and the first upper pedal part are configured for cooperating with each other to activate a throttle function of the vehicle.
A medical device comprising: a motion sensor configured to produce a motion signal; and a control circuit configured to: set a ventricular diastolic event window having an ending time; set a first threshold amplitude during the ventricular diastolic event window for sensing an atrial event in response to the motion signal crossing the first threshold amplitude during the ventricular diastolic window; determine a maximum amplitude of the motion signal during the ventricular diastolic event window for a plurality of ventricular cycles; determine an amplitude metric based on a first portion of the determined maximum amplitudes; determine a target value of the first threshold amplitude based on at least the amplitude metric; adjust the first threshold amplitude toward the target value; and sense an atrial event in response to the motion signal crossing the adjusted first threshold amplitude. a motion sensor configured to produce a motion signal; and a control circuit configured to: set a ventricular diastolic event window having an ending time; set a first threshold amplitude during the ventricular diastolic event window for sensing an atrial event in response to the motion signal crossing the first threshold amplitude during the ventricular diastolic window; determine a maximum amplitude of the motion signal during the ventricular diastolic event window for a plurality of ventricular cycles; determine an amplitude metric based on a first portion of the determined maximum amplitudes; determine a target value of the first threshold amplitude based on at least the amplitude metric; adjust the first threshold amplitude toward the target value; and sense an atrial event in response to the motion signal crossing the adjusted first threshold amplitude. set a ventricular diastolic event window having an ending time; set a first threshold amplitude during the ventricular diastolic event window for sensing an atrial event in response to the motion signal crossing the first threshold amplitude during the ventricular diastolic window; determine a maximum amplitude of the motion signal during the ventricular diastolic event window for a plurality of ventricular cycles; determine an amplitude metric based on a first portion of the determined maximum amplitudes; determine a target value of the first threshold amplitude based on at least the amplitude metric; adjust the first threshold amplitude toward the target value; and sense an atrial event in response to the motion signal crossing the adjusted first threshold amplitude.
A heat exchanger comprising: a first tube through which a first heat medium flows; and a second tube through which a second heat medium flows, the second tube being wound around the first tube , the first tube having a plurality of protrusions protruding inside of the first tube , the plurality of protrusions being provided in a plurality of streaks being provided in a spiral manner in a direction to which the first heat medium of the first path flows in the first tube , the heat exchanger being characterized by one streak of the plurality of streaks including the plurality of protrusions each being arranged at unequal spacing intervals. a first tube through which a first heat medium flows; and a second tube through which a second heat medium flows, the second tube being wound around the first tube , the first tube having a plurality of protrusions protruding inside of the first tube , the plurality of protrusions being provided in a plurality of streaks being provided in a spiral manner in a direction to which the first heat medium of the first path flows in the first tube , the heat exchanger being characterized by one streak of the plurality of streaks including the plurality of protrusions each being arranged at unequal spacing intervals.
A hot-pressed steel sheet member, comprising: a chemical composition represented by, in mass%: C: 0.10% to 0.24%; Si: 0.001% to 2.0%; Mn: 1.2% to 2.3%; sol. Al: 0.001% to 1.0%; Ti: 0.060% to 0.20%; P: 0.05% or less; S: 0.01% or less; N: 0.01% or less; Nb: 0% to 0.20%; V: 0% to 0.20%; Cr: 0% to 1.0%; Mo: 0% to 0.15%; Cu: 0% to 1.0%; Ni: 0% to 1.0%; Ca: 0% to 0.01%; Mg: 0% to 0.01%; REM: 0% to 0.01%; Zr: 0% to 0.01%; B: 0% to 0.005%; Bi: 0% to 0.01%; and balance: Fe and impurities; and a steel microstructure represented by, in area%: ferrite: 10% to 70%; martensite: 30% to 90%; and a total area ratio of ferrite and martensite: 90% to 100%, wherein 90% or more of all Ti in steel is precipitated, and wherein a tensile strength of the hot-pressed steel sheet member is 980 MPa or more. a chemical composition represented by, in mass%: C: 0.10% to 0.24%; Si: 0.001% to 2.0%; Mn: 1.2% to 2.3%; sol. Al: 0.001% to 1.0%; Ti: 0.060% to 0.20%; P: 0.05% or less; S: 0.01% or less; N: 0.01% or less; Nb: 0% to 0.20%; V: 0% to 0.20%; Cr: 0% to 1.0%; Mo: 0% to 0.15%; Cu: 0% to 1.0%; Ni: 0% to 1.0%; Ca: 0% to 0.01%; Mg: 0% to 0.01%; REM: 0% to 0.01%; Zr: 0% to 0.01%; B: 0% to 0.005%; Bi: 0% to 0.01%; and balance: Fe and impurities; and C: 0.10% to 0.24%; Si: 0.001% to 2.0%; Mn: 1.2% to 2.3%; sol. Al: 0.001% to 1.0%; Ti: 0.060% to 0.20%; P: 0.05% or less; S: 0.01% or less; N: 0.01% or less; Nb: 0% to 0.20%; V: 0% to 0.20%; Cr: 0% to 1.0%; Mo: 0% to 0.15%; Cu: 0% to 1.0%; Ni: 0% to 1.0%; Ca: 0% to 0.01%; Mg: 0% to 0.01%; REM: 0% to 0.01%; Zr: 0% to 0.01%; B: 0% to 0.005%; Bi: 0% to 0.01%; and balance: Fe and impurities; and a steel microstructure represented by, in area%: ferrite: 10% to 70%; martensite: 30% to 90%; and a total area ratio of ferrite and martensite: 90% to 100%, ferrite: 10% to 70%; martensite: 30% to 90%; and a total area ratio of ferrite and martensite: 90% to 100%, wherein 90% or more of all Ti in steel is precipitated, and wherein a tensile strength of the hot-pressed steel sheet member is 980 MPa or more.
A pipetting apparatus, having a pipetting conduit that extends along a conduit axis (K) defining an axial direction and radial directions orthogonal thereto, and that passes through a conduit component arrangement that comprises, at a coupling longitudinal end , a coupling configuration for releasable attachment of a pipette tip , the coupling configuration comprising a locking component having an engagement surface arrangement which faces radially outward with reference to the conduit axis (K) and is displaceable between a locked position located radially farther from the conduit axis and an unlocked position located radially closer to the conduit axis (K), the pipetting apparatus further comprising a locking actuator that is shiftable along the conduit axis (K) between an engagement position in which the locking actuator is in engagement with the locking component in such a way that it prevents a displacement of the engagement surface arrangement from the locked position into the unlocked position and a release position in which the locking actuator permits assumption of the unlocked position by the engagement surface arrangement , the pipetting apparatus further comprising an actuator drive system that is motion-transferringly connected to the locking actuator in order to drive the locking actuator at least in a motion direction for shifting between an engagement position and a release position, wherein the actuator drive system comprises a switchable magnetic-field source and a ferromagnetic reaction component movable by the locally modifiable magnetic field of the switchable magnetic-field source, the reaction component being motion-transferringly connected to the locking actuator characterized in that the coupling configuration comprises, at an axial distance from the locking component , a sealing component that is embodied separately from the locking component and extends around the pipetting conduit , and in that the engagement surface arrangement is constituted by external surface portions of a plurality of rolling elements provided radially movably on the conduit component arrangement .
Fungal strain of the genus Trichoderma with the designation HSA12 that was deposited at the Leibniz Institute DSMZ-German Collection of Microorganisms and Cell Cultures GmbH under the patent deposit designation number DSM 32722 on 12 January 2018, or spores thereof.
A method for applying a non-magnetic, abrasive, wear-resistant hardfacing material to a surface of a drill string member , comprising: providing a non-magnetic drill string member formed of a non-magnetic material, the drill string member having an outer surface; disposing a non-magnetic intermediate material on the outer surface of the drill string member , the intermediate material having an outer surface away from the drill string member ; providing a non-magnetic hardfacing precursor material comprising a plurality of non-magnetic, sintered carbide pellets and a non-magnetic matrix material ; heating a portion of the non-magnetic hardfacing precursor material to a temperature above the melting point of the matrix material to melt the matrix material ; applying the molten non-magnetic matrix material and the plurality of non-magnetic, sintered carbide pellets to the outer surface of the intermediate material ; and solidifying the molten non-magnetic matrix material to form a layer of a non-magnetic hardfacing material having a plurality of non-magnetic, sintered carbide pellets dispersed in the hardfacing material and a heat affected zone disposed between and in direct physical contact with the outer surface of the intermediate material and the layer of the non-magnetic hardfacing material , the heat affected zone and the layer of the non-magnetic hardfacing material being spaced from the outer surface of the drill string member . providing a non-magnetic drill string member formed of a non-magnetic material, the drill string member having an outer surface; disposing a non-magnetic intermediate material on the outer surface of the drill string member , the intermediate material having an outer surface away from the drill string member ; providing a non-magnetic hardfacing precursor material comprising a plurality of non-magnetic, sintered carbide pellets and a non-magnetic matrix material ; heating a portion of the non-magnetic hardfacing precursor material to a temperature above the melting point of the matrix material to melt the matrix material ; applying the molten non-magnetic matrix material and the plurality of non-magnetic, sintered carbide pellets to the outer surface of the intermediate material ; and solidifying the molten non-magnetic matrix material to form a layer of a non-magnetic hardfacing material having a plurality of non-magnetic, sintered carbide pellets dispersed in the hardfacing material and a heat affected zone disposed between and in direct physical contact with the outer surface of the intermediate material and the layer of the non-magnetic hardfacing material , the heat affected zone and the layer of the non-magnetic hardfacing material being spaced from the outer surface of the drill string member .
Device for operating an electrical machine , wherein the device comprises an inverter that is configured to electrically disconnect the terminals of the electrical machine from one another in a freewheeling mode and to electrically connect the terminals of the electrical machine to one another in a short-circuit mode; wherein the device further comprises a voltage sensor that is configured to detect an electrical voltage across the terminals of the electrical machine , or comprises a rotation angle encoder that is configured to detect an angular position of a rotor of the electrical machine , wherein the electrical voltage across the terminals of the electrical machine is determined based on the angular position of the rotor of the electrical machine , characterized in that the inverter is configured to switch over from the freewheeling mode to the short-circuit mode when the magnitude of the voltage in a string of the electrical machine is at a maximum.
A fluid ejection assembly comprising: a substrate including substrate ribs that define ink feed slots extending from a top side to a bottom side of the substrate ; a substrate carrier including carrier ribs that define fluid passageways to provide ink to the ink feed slots ; and concavely tapered adhesive bonds , each to adhere a substrate rib surface to a carrier rib surface without protruding into the ink feed slots or the fluid passageways , wherein for each adhesive bond a carrier adhesive footprint is provided, the carrier adhesive footprint defining a contact point of the adhesive bond at the carrier rib surface, characterised in that a width, W3, of the carrier adhesive footprint is less than a width, W4, of the carrier rib surface. a substrate including substrate ribs that define ink feed slots extending from a top side to a bottom side of the substrate ; a substrate carrier including carrier ribs that define fluid passageways to provide ink to the ink feed slots ; and concavely tapered adhesive bonds , each to adhere a substrate rib surface to a carrier rib surface without protruding into the ink feed slots or the fluid passageways , wherein for each adhesive bond a carrier adhesive footprint is provided, the carrier adhesive footprint defining a contact point of the adhesive bond at the carrier rib surface, characterised in that a width, W3, of the carrier adhesive footprint is less than a width, W4, of the carrier rib surface.
Baclofen for use in a method of treating cerebellar ataxia, wherein the method comprises administering baclofen and chlorzoxazone to a subject suffering from cerebellar ataxia such that the cerebellar ataxia or symptoms thereof are reduced or eliminated.
A method for producing a solder connection between a plurality of components in a process chamber sealed off from its surroundings by heating and melting solder material which is arranged between the components to be connected, the components to be connected being provisionally connected with a bonding material to form a solder group in which the components are fixed relative to one another in a joining position, characterised in that the solder group is heated to an intermediate temperature which is lower than the melting temperature of the solder material at atmospheric pressure, and in that the pressure in the process chamber is reduced to a pressure below the evaporation pressure of the bonding material at the intermediate temperature, such that the bonding material evaporates, wherein the pressure in the process chamber is initially reduced to a pressure above the evaporation pressure of the bonding material at the intermediate temperature, such that the bonding material does not yet evaporate, subsequently a cleaning agent, in particular methanoic acid, hydrogen or a plasma, is introduced into the process chamber to clean the solder group , and further subsequently the pressure in the process chamber is reduced to a pressure below the evaporation pressure of the bonding material at the intermediate temperature.