mhurhangee/ep-ind-claims huggingface dataset:
A belt conveyor for a food processing facility, comprising a control arrangement, a belt drive, a belt tensioner, two deflection rollers and an endless conveyor belt tensioned by the belt tensioner along a main conveyor axis between the two deflection rollers and driven by the belt drive, - wherein one deflection roller or both deflection rollers are each rotatably mounted on both sides in pivot bearings via lateral journals, - wherein the pivot bearings of one deflection roller or both deflection rollers are each arranged to be displaceable along the main conveyor axis, in particular in a linear bearing, - wherein a belt tracking correction arrangement is provided which controls the tracking of the conveyor belt by tilting the rotational axis of at least one of the deflection rollers, characterised - in that the belt tracking correction arrangement comprises a correction drive, a correction shaft extending transversely to the main conveyor axis and drivable by the correction drive, and two drive members provided on the correction shaft and acting eccentrically in opposite directions, - and in that the two drive members are each in operative contact with one of the pivot bearings and displace them in opposite directions along the main conveyor axis when the correction shaft is rotated, thereby pivoting the deflection roller about a correction axis. - wherein one deflection roller or both deflection rollers are each rotatably mounted on both sides in pivot bearings via lateral journals, - wherein the pivot bearings of one deflection roller or both deflection rollers are each arranged to be displaceable along the main conveyor axis, in particular in a linear bearing, - wherein a belt tracking correction arrangement is provided which controls the tracking of the conveyor belt by tilting the rotational axis of at least one of the deflection rollers, characterised - in that the belt tracking correction arrangement comprises a correction drive, a correction shaft extending transversely to the main conveyor axis and drivable by the correction drive, and two drive members provided on the correction shaft and acting eccentrically in opposite directions, - and in that the two drive members are each in operative contact with one of the pivot bearings and displace them in opposite directions along the main conveyor axis when the correction shaft is rotated, thereby pivoting the deflection roller about a correction axis.
Method for setting a temperature (T cat,out) of a component (130, 140, 150) of an exhaust gas system which is connected to an exhaust gas outlet of an internal combustion engine, characterized in that using a temperature model of the exhaust gas system in which at least one component (130, 140, 150) of the exhaust gas system is replicated, a respective temperature of a specified component (130, 140, 150) of the exhaust gas system replicated in the temperature model, or of a part (141, 142, 143, 151, 152, 153) of the component, is ascertained for different values for at least one input variable (η z, ṁ eng,exh) influencing a temperature of the exhaust gas system until a value of the temperature (T cat,out) lies within a predetermined range, and wherein, in response to this, the at least one input variable (η z, ṁ eng,exh) is set to the value last used. using a temperature model of the exhaust gas system in which at least one component (130, 140, 150) of the exhaust gas system is replicated, a respective temperature of a specified component (130, 140, 150) of the exhaust gas system replicated in the temperature model, or of a part (141, 142, 143, 151, 152, 153) of the component, is ascertained for different values for at least one input variable (η z, ṁ eng,exh) influencing a temperature of the exhaust gas system until a value of the temperature (T cat,out) lies within a predetermined range, and wherein, in response to this, the at least one input variable (η z, ṁ eng,exh) is set to the value last used.
A belt for an elevator system, comprising: a plurality of tension members arranged along a belt width and extending longitudinally along a length of the belt, each tension member including a plurality of mineral load carrying fibers disposed in a matrix material; and a jacket material at least partially encapsulating the plurality of tension members, wherein the plurality of mineral load carrying fibers are a plurality of basalt load carrying fibers, characterized in that the matrix material is a polybenzoxazine; and the basalt load carrying fibers are coated with a sizing compound. a plurality of tension members arranged along a belt width and extending longitudinally along a length of the belt, each tension member including a plurality of mineral load carrying fibers disposed in a matrix material; and a jacket material at least partially encapsulating the plurality of tension members, wherein the plurality of mineral load carrying fibers are a plurality of basalt load carrying fibers, characterized in that the matrix material is a polybenzoxazine; and the basalt load carrying fibers are coated with a sizing compound.
A hearing aid system comprising a first hearing aid (12, 12A) with a first microphone (16, 16A) for provision of a first audio input signal (20, 20A) in response to sound signals received at the first microphone (16, 16A) in a sound environment, a first processor (24, 24A) that is configured to process the first audio input signal (20, 20A) in accordance with a first signal processing algorithm to generate a first hearing loss compensated audio signal (26, 26A), and a first output transducer (28, 28A) for conversion of the first hearing loss compensated audio signal (26, 26A) to a first acoustic output signal; a first sound environment detector (14, 14A) configured for determining a type of sound environment surrounding a user of the hearing aid system, and for provision of a first output (34, 34A) for selection of the first signal processing algorithm based on the determined type of sound environment; and a location detector configured for determining a geographical position of the hearing aid system and including a GPS receiver; wherein the first sound environment detector is configured for determining the type of sound environment surrounding the user of the hearing aid system based on the first audio input signal (20, 20A) and the geographical position of the hearing aid system, and wherein the location detector comprises a calendar system, and wherein the location detector is configured for accessing the calendar system to obtain information regarding a location of the user and to determine the geographical position of the hearing aid system based on the information regarding the location of the user. a first microphone (16, 16A) for provision of a first audio input signal (20, 20A) in response to sound signals received at the first microphone (16, 16A) in a sound environment, a first processor (24, 24A) that is configured to process the first audio input signal (20, 20A) in accordance with a first signal processing algorithm to generate a first hearing loss compensated audio signal (26, 26A), and a first output transducer (28, 28A) for conversion of the first hearing loss compensated audio signal (26, 26A) to a first acoustic output signal; a first sound environment detector (14, 14A) configured for determining a type of sound environment surrounding a user of the hearing aid system, and for provision of a first output (34, 34A) for selection of the first signal processing algorithm based on the determined type of sound environment; and wherein the first sound environment detector is configured for determining the type of sound environment surrounding the user of the hearing aid system based on the first audio input signal (20, 20A) and the geographical position of the hearing aid system, and wherein
Liquid mixture constituted of 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and of xanthine compound: wherein: R1, R2 and R3, independently of one another, denote a hydrogen atom or a methyl or ethyl radical.
A power-module substrate unit comprising at least one power-module substrate comprising one ceramic substrate, a circuit layer formed on one surface of the ceramic substrate, and a metal layer formed on another surface of the ceramic substrate; and a heat sink on which the metal layer of the power-module substrate is bonded, wherein: the metal layer is made of an aluminum plate having purity of 99.99 mass% or higher; the heat sink is formed from an aluminum plate having purity of 99.90 mass% or lower; and the circuit layer has a stacking structure of a first layer made of an aluminum plate having the purity of 99.99 mass% or higher and being bonded to the ceramic substrate; and a second layer made of an aluminum plate having the purity lower than 99.90 mass% and being bonded on a surface of the first layer; characterized in that a ratio (t1×A1×σ1)/(t2×A2×σ2) is 0.85 or larger and 1.40 or smaller: wherein t1 (mm) is a thickness of the second layer; A1 (mm 2) is a bonding area of the second layer; σ1 (N/mm 2) is a yield stress of the second layer; t2 (mm) is a thickness of the heat sink; A2 (mm 2) is a bonding area of the heat sink; σ2 (N/mm 2) is a yield stress of the heat sink. the metal layer is made of an aluminum plate having purity of 99.99 mass% or higher; the heat sink is formed from an aluminum plate having purity of 99.90 mass% or lower; and the circuit layer has a stacking structure of a first layer made of an aluminum plate having the purity of 99.99 mass% or higher and being bonded to the ceramic substrate; and a second layer made of an aluminum plate having the purity lower than 99.90 mass% and being bonded on a surface of the first layer; characterized in that a ratio (t1×A1×σ1)/(t2×A2×σ2) is 0.85 or larger and 1.40 or smaller: wherein t1 (mm) is a thickness of the second layer; A1 (mm 2) is a bonding area of the second layer; σ1 (N/mm 2) is a yield stress of the second layer; t2 (mm) is a thickness of the heat sink; A2 (mm 2) is a bonding area of the heat sink; σ2 (N/mm 2) is a yield stress of the heat sink.
A method for allocating a plurality of power reserves to deliver power to a power network to meet a power reserve requirement for balancing a frequency of the power network, the method comprising: obtaining, for a plurality of power reserves of a power network, power reserve flexibility characteristics associated with each power reserve; obtaining, for the plurality of power reserves, indexing values associated with the delivery of power by each respective power reserve; determining a power reserve requirement associated with the power network; and assigning one or more of the plurality of power reserves to deliver power to the power network, the plurality of power reserves assigned in accordance with the power reserve flexibility characteristics associated with each of the power reserves, the indexing value associated with each respective power reserve, and the power reserve requirement associated with the power network, wherein the assigning comprises selecting one or more of the plurality power reserves to provide the power reserve requirement in order of the indexing values associated with the respective one or more power reserves. obtaining, for a plurality of power reserves of a power network, power reserve flexibility characteristics associated with each power reserve; obtaining, for the plurality of power reserves, indexing values associated with the delivery of power by each respective power reserve; determining a power reserve requirement associated with the power network; and assigning one or more of the plurality of power reserves to deliver power to the power network, the plurality of power reserves assigned in accordance with the power reserve flexibility characteristics associated with each of the power reserves, the indexing value associated with each respective power reserve, and the power reserve requirement associated with the power network, wherein the assigning comprises selecting one or more of the plurality power reserves to provide the power reserve requirement in order of the indexing values associated with the respective one or more power reserves.
A micro-pump comprising: a pump body, the pump body having walls defining a pump chamber that is compartmentalized into plural compartments (130, 132, 134,...142), with the pump chamber having a plurality of inlet ports providing fluid ingress into the pump chamber and a plurality of outlet ports providing fluid egress from the pump chamber; a plurality of membranes (116, 118, 120,...126) disposed in the pump chamber, with the plurality of membranes anchored between opposing walls of the pump body and which membranes compartmentalize the pump chamber into the plural compartments within the pump chamber; and a plurality of electrodes, with a first pair of the plurality of electrodes disposed on a pair of opposing walls (106, 108) of the pump body, and remaining ones of the plurality of electrodes disposed on major surfaces of the membranes (116 - 126). a pump body, the pump body having walls defining a pump chamber that is compartmentalized into plural compartments (130, 132, 134,...142), with the pump chamber having a plurality of inlet ports providing fluid ingress into the pump chamber and a plurality of outlet ports providing fluid egress from the pump chamber; a plurality of membranes (116, 118, 120,...126) disposed in the pump chamber, with the plurality of membranes anchored between opposing walls of the pump body and which membranes compartmentalize the pump chamber into the plural compartments within the pump chamber; and a plurality of electrodes, with a first pair of the plurality of electrodes disposed on a pair of opposing walls (106, 108) of the pump body, and remaining ones of the plurality of electrodes disposed on major surfaces of the membranes (116 - 126).
An audio streaming device (102, 200) comprising: an communication module configured to establish a first connection with a first headset of a plurality of headsets and a second connection with a second headset of the plurality of headsets; and a streaming module communicatively coupled to the streaming policy enforcement module, configured to selectively stream a selected first audio channel to the first and second headsets based on a streaming policy; characterised by: a user interface module configured to enable a user to create and/or modify one or more rules of a streaming policy; a streaming policy enforcement module configured to map the selected first audio channel to the first and second headsets as a function of the streaming policy, wherein the streaming policy dictates whether the first audio channel is to be streamed to both the first and second headsets or only to the first headset but not to the second headset. an communication module configured to establish a first connection with a first headset of a plurality of headsets and a second connection with a second headset of the plurality of headsets; and a streaming module communicatively coupled to the streaming policy enforcement module, configured to selectively stream a selected first audio channel to the first and second headsets based on a streaming policy; characterised by: a user interface module configured to enable a user to create and/or modify one or more rules of a streaming policy; a streaming policy enforcement module configured to map the selected first audio channel to the first and second headsets as a function of the streaming policy, wherein the streaming policy dictates whether the first audio channel is to be streamed to both the first and second headsets or only to the first headset but not to the second headset. a user interface module configured to enable a user to create and/or modify one or more rules of a streaming policy; a streaming policy enforcement module configured to map the selected first audio channel to the first and second headsets as a function of the streaming policy, wherein the streaming policy dictates whether the first audio channel is to be streamed to both the first and second headsets or only to the first headset but not to the second headset.
A multi-level apartment type three-dimensional water tank comprising: one or more than one modular structures composed of horizontal members stacked surrounding four surfaces of a vertical member, wherein the vertical member is composed of a hollow polygonal frame which is open in an upper and a lower part thereof; modular water tanks mounted on front, back, left and right surfaces of each horizontal member with the vertical member in the middle; wherein each modular water tank comprises: a water tank body having an upper opening, a bottom part with a predetermined area, a polygonally shaped water tank outer wall; a filter retainer mounted on an edge of an inner surface of the water tank outer wall; a drain-through hole connected to a water tank drainage apparatus for water tanks formed on a surface of the water tank outer wall; and a water discharging line formed at the outer portion of the drain-through hole; wherein each surface of each modular water tank is composed of a transparent material; and a system controller installed on the upper opening part of the polygonal frame, said system controller being configured to control an environment in said modular water tanks. one or more than one modular structures composed of horizontal members stacked surrounding four surfaces of a vertical member, wherein the vertical member is composed of a hollow polygonal frame which is open in an upper and a lower part thereof; modular water tanks mounted on front, back, left and right surfaces of each horizontal member with the vertical member in the middle; wherein each modular water tank comprises: a water tank body having an upper opening, a bottom part with a predetermined area, a polygonally shaped water tank outer wall; a filter retainer mounted on an edge of an inner surface of the water tank outer wall; a drain-through hole connected to a water tank drainage apparatus for water tanks formed on a surface of the water tank outer wall; and a water discharging line formed at the outer portion of the drain-through hole; wherein each surface of each modular water tank is composed of a transparent material; and a system controller installed on the upper opening part of the polygonal frame, said system controller being configured to control an environment in said modular water tanks.
A method for determining a magnetic field of a magnet along a surface of said magnet, the method comprising: - performing a relative movement between said surface of said magnet and a magnetic camera device; - measuring said magnetic field by means of said magnetic camera device, to thereby obtain magnetic field measurements for said surface; characterized in that said relative movement is a continuous movement which is a combination of a relative translational movement and a relative rotational movement, the relative movement being a helical or spiraling relative movement. - performing a relative movement between said surface of said magnet and a magnetic camera device; - measuring said magnetic field by means of said magnetic camera device, to thereby obtain magnetic field measurements for said surface;
An implantable device for fixation of spinous processes, comprising: first and second spaced plates, the first plate having a first surface facing a second surface of the second plate; and an implant comprising a first face facing the first surface, a second face facing the second surface, a top portion, and a bottom portion, wherein the first plate is connected to a portion of the implant substantially adjacent the first face, and wherein the second plate is connected to a portion of the implant substantially adjacent the second face; a first post projecting therefrom the first face and a second post projecting therefrom the second face; wherein the implantable device is configured for polyaxial movement of the first and second plates with respect to the implant; characterized in that the first plate comprises a first socket for complimentary receipt of the first post and that the second plate comprises a second socket for complimentary receipt of the second post. first and second spaced plates, the first plate having a first surface facing a second surface of the second plate; and an implant comprising a first face facing the first surface, a second face facing the second surface, a top portion, and a bottom portion, wherein the first plate is connected to a portion of the implant substantially adjacent the first face, and wherein the second plate is connected to a portion of the implant substantially adjacent the second face; a first post projecting therefrom the first face and a second post projecting therefrom the second face; wherein the implantable device is configured for polyaxial movement of the first and second plates with respect to the implant; characterized in that the first plate comprises a first socket for complimentary receipt of the first post and that the second plate comprises a second socket for complimentary receipt of the second post.
A wafer structure comprising: a first substrate including at least one MEMS device, the first substrate including at least one patterned germanium layer; and a second substrate, the second substrate including at least one patterned aluminum layer; characterised in that the at least one patterned germanium layer is bonded to the at least one patterned aluminum layer to provide a eutectic alloy. a first substrate including at least one MEMS device, the first substrate including at least one patterned germanium layer; and a second substrate, the second substrate including at least one patterned aluminum layer; characterised in that the at least one patterned germanium layer is bonded to the at least one patterned aluminum layer to provide a eutectic alloy.
Method for picking individual items having the method steps of - creating an order list comprising a plurality of individual items by means of a control unit, wherein the order list has at least one order, - conveying the individual items in the order list from an item store to an order interim storage, - temporarily storing the individual items in the order interim storage, - conveying the individual items in the order list from the order interim storage to a sorting unit, - picking the individual items for the at least one order in the order list by means of the sorting unit, - conveying the individual items picked for an order from the sorting unit to a packing station, characterised by creating a new order list after a time interval has elapsed, which can be varied, wherein the time interval starts when the previous order list is created and wherein the size of the time interval depends on the sorting capacity of the sorting unit. - creating an order list comprising a plurality of individual items by means of a control unit, wherein the order list has at least one order, - conveying the individual items in the order list from an item store to an order interim storage, - temporarily storing the individual items in the order interim storage, - conveying the individual items in the order list from the order interim storage to a sorting unit, - picking the individual items for the at least one order in the order list by means of the sorting unit, - conveying the individual items picked for an order from the sorting unit to a packing station, characterised by creating a new order list after a time interval has elapsed, which can be varied, wherein the time interval starts when the previous order list is created and wherein the size of the time interval depends on the sorting capacity of the sorting unit.