mhurhangee/patent-ind-claim-en huggingface dataset:
An acoustic interface for a device such as an alarm device, the acoustic interface comprising a vibratory element , and a drive circuit with a processor for delivering drive electrical control signals to the element to cause it to vibrate and generate a sound signal with encoded binary data, wherein the vibrating element has a natural frequency, characterized in that , the control signals are frequency encoded with pulses having pulse widths (t p ) which are shorter than the vibrating element natural frequency period (1/f N ) and a frequency which is greater than said natural frequency.
An apparatus comprising: a base ; a first container ; a second container ; a first -container support to retain the first -container , the first container support comprising a collar to engage a groove of the first container and a ridge to engage a first rim of the first container , the first container being movable between a locked position in which the first rim of the first container engages the ridge to non-rotatably couple the first container to the base and an unlocked position in which the first container is raised so that the first rim disengages from the ridge and the groove is rotatable about the collar ; and a second container support to retain the second container , the second container support comprising first posts to engage a second rim of the second container to non-rotatably couple the second container to the base . a base ; a first container ; a second container ; a first -container support to retain the first -container , the first container support comprising a collar to engage a groove of the first container and a ridge to engage a first rim of the first container , the first container being movable between a locked position in which the first rim of the first container engages the ridge to non-rotatably couple the first container to the base and an unlocked position in which the first container is raised so that the first rim disengages from the ridge and the groove is rotatable about the collar ; and a second container support to retain the second container , the second container support comprising first posts to engage a second rim of the second container to non-rotatably couple the second container to the base .
A method for allocating an elevator car of an elevator system, the method comprising: obtaining image data associated with an area associated with a plurality of elevators (202A-202F); detecting, based on the image data, an automated guided vehicle ; determining, based on the image data, parameter data associated with the automated guided vehicle ; obtaining information indicating a destination floor for the automated guided vehicle based on the image data; allocating an elevator car for the automated guided vehicle by taking into account at least the parameter data and the destination floor; and causing transmission of information identifying the allocated elevator car to the automated guided vehicle . obtaining image data associated with an area associated with a plurality of elevators (202A-202F); detecting, based on the image data, an automated guided vehicle ; determining, based on the image data, parameter data associated with the automated guided vehicle ; obtaining information indicating a destination floor for the automated guided vehicle based on the image data; allocating an elevator car for the automated guided vehicle by taking into account at least the parameter data and the destination floor; and causing transmission of information identifying the allocated elevator car to the automated guided vehicle .
A filtration device configured for filtering a cooling gas associated with an integrated compressor unit , wherein the filtration device comprises: - an outer housing having an inner cylindrical wall (W1) extending along a longitudinal axis (X), - an inner cartridge having an outer cylindrical wall (W0) extending along the longitudinal axis (X) and an inner passage for a filtered gas, the inner cartridge being mounted in the outer housing and defining therewith in a cross sectional plane orthogonal to the longitudinal axis (X) a duct dividing the gas flow into two streams flowing in opposite directions, the duct being located between an inlet for the cooling gas and a first outlet for trapped particles, the inlet and first outlet each comprising at least one hole passing through the outer housing , the inner cartridge having an assembly of at least one second filtering outlet extending from the duct and leading to the inner passage and arranged between the inlet and the first outlet , characterized in that outer wall (W0) has a flat portion facing the first outlet . - an outer housing having an inner cylindrical wall (W1) extending along a longitudinal axis (X), - an inner cartridge having an outer cylindrical wall (W0) extending along the longitudinal axis (X) and an inner passage for a filtered gas, the inner cartridge being mounted in the outer housing and defining therewith in a cross sectional plane orthogonal to the longitudinal axis (X) a duct dividing the gas flow into two streams flowing in opposite directions, the duct being located between an inlet for the cooling gas and a first outlet for trapped particles, the inlet and first outlet each comprising at least one hole passing through the outer housing , the inner cartridge having an assembly of at least one second filtering outlet extending from the duct and leading to the inner passage and arranged between the inlet and the first outlet , characterized in that outer wall (W0) has a flat portion facing the first outlet .
Tread profile of a pneumatic vehicle tyre - in particular a pneumatic car tyre - with profile positives that are separated from one another by grooves, in which two profile strips that are made to extend over the circumference and are arranged next to one another are separated from one another in the axial direction A by a circumferential groove , wherein the profile strips are delimited outwards in the radial direction R by a radially outer surface and in the axial direction A towards the circumferential groove respectively by a profile strip flank , wherein the circumferential groove is delimited radially inwards by a groove base and in the axial direction A on both sides of the groove base respectively by a profile strip flank of the adjacent profile strips , wherein, distributed over the circumference of the pneumatic vehicle tyre, there are formed in the circumferential groove supporting bodies which are raised from the groove base and extend in the form of webs from the profile strip flank of the one profile strip transversely to the circumferential direction U through the circumferential groove to the profile strip flank of the second profile strip and connect them to one another, wherein the supporting body is delimited outwards in the radial direction R respectively by a radially outer body surface and upstream and downstream of the body surface in the circumferential direction U respectively by a body flank , which is made to extend in the radial direction R from the groove base to the body surface , wherein the body surface is formed with a sectional contour in the sectional planes that contain the tyre axis, wherein the sectional contour has along its extent between the two profile strip flanks an altered course of the height h measured in the radial direction R from the groove base , wherein the sectional contour is formed with its minimum value h min of its height h in a position P between the two profile strip flanks and rising linearly axially outwards in the direction of the respectively adjacent profile strip flank on both sides of the position P, and wherein the sectional contour is formed running asymmetrically in relation to the radial through P, characterized in that the body surface delimiting the supporting body radially outwards is formed in its length of extent L, measured in the circumferential direction U, with its minimum L min in the position P and with increasing length L axially outwards in the direction of the respectively adjacent profile strip flank on both sides of the position P.
A cloud computing system , comprising: a processor; and a memory, accessible by the processor, the memory storing instructions, that when executed by the processor, cause the processor to perform operations comprising: receiving operation data associated with an operation of a user-configured program , the operation data comprising a start time and an origin of the operation, wherein the origin of the operation is indicative of one or more additional operations that directly call the operation or result in execution of the operation; canonicalizing the operation data by removing operation-specific variable data to generate stripped operation data for the operation; and aggregating the operation data based on the start time and the origin, wherein the aggregated operation data relates to performance metrics of the operation. a processor; and a memory, accessible by the processor, the memory storing instructions, that when executed by the processor, cause the processor to perform operations comprising: receiving operation data associated with an operation of a user-configured program , the operation data comprising a start time and an origin of the operation, wherein the origin of the operation is indicative of one or more additional operations that directly call the operation or result in execution of the operation; canonicalizing the operation data by removing operation-specific variable data to generate stripped operation data for the operation; and aggregating the operation data based on the start time and the origin, wherein the aggregated operation data relates to performance metrics of the operation. receiving operation data associated with an operation of a user-configured program , the operation data comprising a start time and an origin of the operation, wherein the origin of the operation is indicative of one or more additional operations that directly call the operation or result in execution of the operation; canonicalizing the operation data by removing operation-specific variable data to generate stripped operation data for the operation; and aggregating the operation data based on the start time and the origin, wherein the aggregated operation data relates to performance metrics of the operation.
A liquid composition for stabilizing an analyte in intact nucleated cells of a whole-blood sample ex-vivo, the composition comprising an amount of whole blood and an aqueous solution, the solution comprising an anticoagulant, a phosphate salt, a cell-metabolizable sugar, adenine, and an antioxidant, wherein the antioxidant comprises a mitochondria-targeted antioxidant selected from the group consisting of SkQ1, MitoQ, SS-31, and wherein the concentration of the antioxidant in the composition is selected from the group consisting of 50 nM - 200 μM SkQ1, 50 nM - 250 nM MitoQ, and 500 nM - 10 μM SS-31.
A non-aqueous nicotine formulation comprising nicotine, an orally-acceptable nicotine salt, an orally-acceptable alcohol, flavor components, and an orally-acceptable binder, in a water-permeable, water-insoluble pouch, wherein the orally-acceptable alcohol is propylene glycol.
A system for characterizing surroundings of a vehicle, the system comprising: - projection means arranged for projecting a pattern of laser light towards said surroundings in a sequence of pulses, said pattern of laser light comprising a pattern of discrete spots; - a detector comprising a plurality of pixels, said detector being configured for detecting light representing said pattern of laser light as reflected by said surroundings in synchronization with said sequence of pulses; and - processing means configured to calculate distances to objects in said surroundings as a function of exposure values generated by said pixels in response to said detected light; characterized in that said detector is further configured for detecting light forming a two-dimensional image of said surroundings at points in time that do not coincide with said sequence of pulses. - projection means arranged for projecting a pattern of laser light towards said surroundings in a sequence of pulses, said pattern of laser light comprising a pattern of discrete spots; - a detector comprising a plurality of pixels, said detector being configured for detecting light representing said pattern of laser light as reflected by said surroundings in synchronization with said sequence of pulses; and - processing means configured to calculate distances to objects in said surroundings as a function of exposure values generated by said pixels in response to said detected light;
A gas-operated flame bowl serving to provide an agreeable atmosphere, comprising a burner unit with a burner (4, 4.1, 4.2, 4.3) which can be connected to a fuel supply, said burner (4, 4.1, 4.2, 4.3) comprising a plurality of gas outlet openings (16, 16.1, 16.2, 16.3), from which, during the operation of the burner (4, 4.1, 4.2, 4.3), gas emerges in order to operate the flame bowl, and means for establishing uniformity of the flame pattern presented during the operation of the burner (4, 4.1, 4.2, 4.3), wherein the burner unit is provided, in addition to the burner (4, 4.1, 4.2, 4.3), with at least one gas outlet deflection component (12, 12.1, 12.2, 12.3, 12.4), through which the gas flows emerging from the gas outlet openings (16, 16.1, 16.2, 16.3) pass, with a gas deflection surface (14, 14.1, 14.2) as an impact surface, which gas deflection surface (14, 14.1, 14.2) is arranged in a transverse direction to the flow direction of the gas flowing out of the gas outlet openings (16, 16.1, 16.2, 16.3), and through which the gas part flows are brought together before their flame formation so as to produce a uniform flame pattern.
Contact housing for an electrical connector having numerous electrical contact units , comprising at least two contact housing modules , in which a plurality of electrical contact units can be established respectively, wherein by means of the contact housing modules contact securing means of the electrical contact units can be mutually established in the contact housing modules , wherein the contact securing means are formed as contact securing combs , wherein a contact securing comb (120/220) of a first contact housing module (10/20) is formed such that it is engageable in a second contact housing module (20/10), and a contact securing comb (220/120) of the second contact housing module (20/10) is formed such that it is engageable in the first contact housing module (10/20), characterised in that the contact housing is formed being able to be snap-fitted, starting from a preassembly position (V) of the two contact housing modules to one another for a final assembly position (E) of the two contact housing modules to one another, wherein the contact housing modules can be pre-latched to one another by means of latching units , which are partially complementary to one another, of the base bodies of the contact housing modules .
A sample preparation device, comprising a reservoir member having a sample reservoir , a column extending axially from said reservoir , and an outlet positioned on said column and spaced from and in fluid communication with said sample reservoir , and a filtration device attached to said reservoir member , said filtration device comprising side walls, a filtrate collection chamber, one or more filtration membranes arranged on said sidewalls and spaced from each other and sealingly positioned between said sample reservoir and said filtrate collection chamber, a retentate chamber defining a dead-stop volume below said filtration membranes , wherein said outlet of said reservoir member is positioned in said dead-stop volume.
A monoclonal antibody which binds to the Ligand Binding Domain of Vitamin D Receptor (VDR-LBD)/1,25-dihydroxyvitamin D complex, wherein the amino acid sequences of the CDRs of the heavy chain variable domain of the monoclonal antibody are SEQ ID NOs: 1, 2 and 3, and the amino acid sequences of the CDRs of the light chain variable domain of the monoclonal antibody are SEQ ID NOs: 4, 5 and 6.
A method for determining a period for warming up a power converter of a wind turbine , the method comprising: determining a first indicator that is indicative of a time that the power converter has been inactive; determining the period for warming up at least partially based on the first indicator; determining a temperature of a coolant of the power converter; estimating a dew point; and determining the warm-up period at least partially based on a difference between the estimated dew point and the coolant temperature. determining a first indicator that is indicative of a time that the power converter has been inactive; determining the period for warming up at least partially based on the first indicator; determining a temperature of a coolant of the power converter; estimating a dew point; and determining the warm-up period at least partially based on a difference between the estimated dew point and the coolant temperature.
A process for providing devices such as an antenna, a heater, an electromagnetic screen, an electrical interconnection and the like, which consists of: - selecting at least one sheet essentially constituted by a free-standing preassembled sheet of graphene derivatives; - selecting at least one supporting layer of material chosen from among polymeric, composite, ceramic, paper, natural substances and combinations and/or derivatives thereof; - coupling at least one portion of said at least one sheet and at least one portion of said at least one supporting layer , and shaping from said at least one sheet at least one flexible ribbon-like conducting path after the coupling of said at least one sheet to said at least one supporting layer , thus obtaining a conducting path that is integral with a respective supporting layer that is identically shaped; or - shaping from said at least one sheet at least one flexible ribbon-like conducting path prior to the coupling of said at least one sheet to said at least one supporting layer , and then coupling said conducting path on said supporting layer . - selecting at least one sheet essentially constituted by a free-standing preassembled sheet of graphene derivatives; - selecting at least one supporting layer of material chosen from among polymeric, composite, ceramic, paper, natural substances and combinations and/or derivatives thereof; - coupling at least one portion of said at least one sheet and at least one portion of said at least one supporting layer , and shaping from said at least one sheet at least one flexible ribbon-like conducting path after the coupling of said at least one sheet to said at least one supporting layer , thus obtaining a conducting path that is integral with a respective supporting layer that is identically shaped; - shaping from said at least one sheet at least one flexible ribbon-like conducting path prior to the coupling of said at least one sheet to said at least one supporting layer , and then coupling said conducting path on said supporting layer .
A hot-stamping formed article made of steel, which is a lower A pillar outer panel or a front side member, wherein the hot-stamping formed article has at least one of a tensile strength of 1200 MPa or more and a martensitic steel structure and includes a first portion , a corner portion , and a second portion , which are sequentially continuous from one end portion to an other end portion in a longitudinal direction, each of the first portion , the corner portion , and the second portion includes a top sheet and two vertical walls connected to the top sheet when viewed in a cross section perpendicular to the longitudinal direction, the second portion includes a first outward flange adjacent to the vertical wall located on an outer peripheral side of the corner portion out of the two vertical walls , and characterized in that the corner portion includes a vertical flange extending from the vertical wall located on the outer peripheral side of the corner portion out of the two vertical walls of the first portion , a second outward flange adjacent to the vertical wall located on the outer peripheral side of the corner portion out of the two vertical walls , and a transition portion in which the vertical flange and the second outward flange are continuous. wherein the hot-stamping formed article has at least one of a tensile strength of 1200 MPa or more and a martensitic steel structure and includes a first portion , a corner portion , and a second portion , which are sequentially continuous from one end portion to an other end portion in a longitudinal direction, each of the first portion , the corner portion , and the second portion includes a top sheet and two vertical walls connected to the top sheet when viewed in a cross section perpendicular to the longitudinal direction, the second portion includes a first outward flange adjacent to the vertical wall located on an outer peripheral side of the corner portion out of the two vertical walls , and characterized in that the corner portion includes a vertical flange extending from the vertical wall located on the outer peripheral side of the corner portion out of the two vertical walls of the first portion , a second outward flange adjacent to the vertical wall located on the outer peripheral side of the corner portion out of the two vertical walls , and a transition portion in which the vertical flange and the second outward flange are continuous. a vertical flange extending from the vertical wall located on the outer peripheral side of the corner portion out of the two vertical walls of the first portion , a second outward flange adjacent to the vertical wall located on the outer peripheral side of the corner portion out of the two vertical walls , and a transition portion in which the vertical flange and the second outward flange are continuous.
An electrode including: an active material having a surface wherein the active material is selected from the group consisting of silicon, silicon containing materials including silicon oxides, composites and alloys, tin, a tin containing materials including tin oxides, composites and alloys, germanium, a germanium containing material including germanium oxides, composites and alloys, carbon, graphite, sulphur, LiFePO 4 (LFP), and mixed metal oxides which include one or more of cobalt, lithium, nickel, iron and manganese; and an oligomeric metal-ligand complex associated with the active material surface, the oligomeric metal-ligand complex including at least one ligand datively bonded to a metal ion and wherein the metal of the oligomeric metal-ligand complex is selected from the group consisting of chromium, ruthenium, iron, cobalt, aluminium, zirconium, and rhodium; wherein the metal ion is associated with the active material surface through a dative bond and, optionally, wherein the surface is encapsulated by a layer of the oligomeric metal-ligand complex. an active material having a surface wherein the active material is selected from the group consisting of silicon, silicon containing materials including silicon oxides, composites and alloys, tin, a tin containing materials including tin oxides, composites and alloys, germanium, a germanium containing material including germanium oxides, composites and alloys, carbon, graphite, sulphur, LiFePO 4 (LFP), and mixed metal oxides which include one or more of cobalt, lithium, nickel, iron and manganese; and an oligomeric metal-ligand complex associated with the active material surface, the oligomeric metal-ligand complex including at least one ligand datively bonded to a metal ion and wherein the metal of the oligomeric metal-ligand complex is selected from the group consisting of chromium, ruthenium, iron, cobalt, aluminium, zirconium, and rhodium;