mhurhangee/ep-ind-claims huggingface dataset:
Method for operating an oven comprising: - a first and a second chamber (13, 14) in which a heated fluid cooks a product, respectively, - conveyor means for transporting products from an inlet through the chambers (13, 14) to the outlet, wherein preferably the conveyor means are at least partially arranged in a helical path, - separation means to separate the first and second chamber (13, 14), wherein the conveyor means pass through the separation means, wherein a pressure difference (P1-P2) is established or reduced between the fluid in the first and the fluid in the second chamber (13, 14) preferably in the vicinity of the separation means, characterized in, that a dew-point of the fluid in the respective chamber is adjusted by controlling the pressure difference (P1 - P2) by adjusting the recirculation rate in the chambers (13, 14), and that the dew-point of the chamber with the higher recirculation rate is lower and that the dew-point of the chamber with the lower recirculation rate is higher, and that the chamber furthest downstream, relative to the product flow direction, has the highest recirculation rate. - a first and a second chamber (13, 14) in which a heated fluid cooks a product, respectively, - conveyor means for transporting products from an inlet through the chambers (13, 14) to the outlet, - separation means to separate the first and second chamber (13, 14),
A tripod housing, comprising: a housing body extending between a first housing end and a second housing end along an axis, the housing body defining a guide channel that extends from the first housing end towards the second housing end, the guide channel having a first wall, a second wall, and a third wall extending between the first wall and the second wall, wherein the housing body includes a separator radially extending from an inner housing body surface adjacent the guide channel wall (70, 72) with a textured functional area (82, 92) and toward the axis, the separator defining a chamfer extending from the inner housing body surface toward a surface of the separator nearest the axis, characterized in that at least one of the first wall, the second wall, and the third wall includes a selectively textured functional area (82, 92, 112), and the separator axially extends from the first housing end towards the second housing end. a housing body extending between a first housing end and a second housing end along an axis, the housing body defining a guide channel that extends from the first housing end towards the second housing end, the guide channel having a first wall, a second wall, and a third wall extending between the first wall and the second wall, wherein the housing body includes a separator radially extending from an inner housing body surface adjacent the guide channel wall (70, 72) with a textured functional area (82, 92) and toward the axis, the separator defining a chamfer extending from the inner housing body surface toward a surface of the separator nearest the axis, characterized in that at least one of the first wall, the second wall, and the third wall includes a selectively textured functional area (82, 92, 112), and the separator axially extends from the first housing end towards the second housing end.
Power semiconductor module with a substrate for arranging on a cooling device or on a base plate, wherein said substrate has an insulator and a first metallic layer which is arranged on its first main surface facing the interior of the power semiconductor module, is textured per se and therefore forms first strip conductors (220, 222) and a second metallic layer which is arranged on its second main surface facing away from the interior of the power semiconductor module, wherein a power semiconductor component is arranged on a strip conductor (220, 220) and is connected thereto in an electrically conducting manner, and wherein a first adaptation element is arranged on said strip conductor or a further strip conductor (220, 222) and a connection element is arranged on said adaptation element, wherein a first main surface of the adaptation element, which main surface faces the first connection element, is connected to said adaptation element in an integrally bonded and electrically conducting manner, thus forming a first type of connection, while a second main surface of the first adaptation element, which main surface faces the associated strip conductor (220, 222), is connected to said adaptation element by means of a connecting means in an electrically conducting and integrally bonded manner, thus forming a second type of connection, wherein the power semiconductor component is arranged and connected in an electrically conducting manner by means of a pressure-sintering connection and either the first adaptation element itself is in the form of an internal connecting device between the connection element and a first contact surface of the power semiconductor component, which contact surface faces away from the substrate, wherein the first type of connection is in the form of a welding connection and the second type of connection is in the form of a pressure-sintering connection, or in addition to the first adaptation element, wherein the first type of connection thereof is in the form of a welding connection and the second type of connection thereof is in the form of a pressure-sintering connection, a second adaptation element is arranged with respect to the cooling device or to the base plate, wherein a second main surface of the adaptation element, which main surface faces the cooling device or the base plate, is connected to said adaptation element in an integrally bonded manner by means of a roll-cladding connection.
A functional monomer of a rare earth compound or a metal compound, comprising: a mother solution; an organic ester, wherein the organic ester is an acrylate or an epoxy ester; an additive agent and deionized water; wherein: the mother solution comprises a rare earth compound or a metal compound, an organic acid, an organic amine and deionized water; wherein the rare earth compound or the metal compound is an oxide, a hydroxide, or a carbonate of a rare earth or a metal, or a mixture thereof; wherein the rare earth is lanthanum, cerium, europium, terbium or neodymium; the metal is zinc, calcium, magnesium, manganese, copper, nickel, aluminum, niobium, molybdenum, ruthenium, tungsten, rhenium or hafnium; characterized in that the organic acid is citric acid, maleic acid, ethylenediaminetetraacetic acid (EDTA), succinic acid, adipic acid, or a mixture thereof. solution; an organic ester, wherein the organic ester is an acrylate or an epoxy ester; an additive agent and deionized water; wherein: the mother solution comprises a rare earth compound or a metal compound, an organic acid, an organic amine and deionized water; wherein the rare earth compound or the metal compound is an oxide, a hydroxide, or a carbonate of a rare earth or a metal, or a mixture thereof; wherein the rare earth is lanthanum, cerium, europium, terbium or neodymium; the metal is zinc, calcium, magnesium, manganese, copper, nickel, aluminum, niobium, molybdenum, ruthenium, tungsten, rhenium or hafnium; characterized in that the organic acid is citric acid, maleic acid, ethylenediaminetetraacetic acid (EDTA), succinic acid, adipic acid, or a mixture thereof.
A backpack with a first shoulder belt and a second shoulder belt, wherein respective end regions of the shoulder belts (12, 14) are connected to each other via a central piece, wherein the central piece is continuously displaceable along at least one guide element (18, 20) in a vertical direction of the backpack, wherein the central piece is attached to a strap, which comprises a first free end and a second free end, wherein the free ends (38, 40) are coupled to each other in a manner, which allows transferring a tensile force, and wherein the strap is deflected at a first deflecting element and a second deflecting element, which are opposing each other in the vertical direction of the backpack, wherein the strap includes a first layer and a second layer, which are movable in directions opposite to each other by deflecting the strap around the deflecting elements (44, 66), wherein a detent device for reversibly fixing the first layer relative to the second layer is provided, wherein the detent device includes a lever, which is movable from a locking position, in which the two layers (32, 34) are fixed relative to each other, into a release position, in which the two layers (32, 34) are movable in the directions opposite to each other, wherein the lever is arranged at a buckle element, at which one of the deflecting elements is formed, and wherein the lever abuts on a cover part in the locking position, by which a partial area of the buckle element is pressed against a back part of the backpack.
An electromagnetic wave identification method of receiving an electromagnetic wave radiated from a radiation source and determining whether or not the electromagnetic wave is a direct wave, a direct wave being an electromagnetic wave propagating between two positions which can be seen from each other, comprising: detecting an electromagnetic wave signal whose level is equal to or greater than a predetermined level; recording and storing the detected electromagnetic wave waveform data; and normalizing the recorded and stored electromagnetic wave waveform data by a maximum amplitude value to obtain normalized data, and determining whether or not the received electromagnetic wave is a direct wave by reference to the normalized data, characterized in that the determination as to whether or not the received electromagnetic wave is a direct wave is performed by obtaining a kurtosis from a histogram of amplitude values of the normalized data and determining whether or not the kurtosis is equal to or greater than a predetermined threshold, or by obtaining a normal probability plot from the normalized data and determining whether a value of the normalized data at a predetermined probability is equal to or greater than, or equal to or less than, a predetermined threshold or determining whether a probability at a predetermined normalized data value is equal to or greater than, or equal to or less than, a predetermined probability. detecting an electromagnetic wave signal whose level is equal to or greater than a predetermined level; recording and storing the detected electromagnetic wave waveform data; and normalizing the recorded and stored electromagnetic wave waveform data by a maximum amplitude value to obtain normalized data, and determining whether or not the received electromagnetic wave is a direct wave by reference to the normalized data, characterized in that the determination as to whether or not the received electromagnetic wave is a direct wave is performed by obtaining a kurtosis from a histogram of amplitude values of the normalized data and determining whether or not the kurtosis is equal to or greater than a predetermined threshold, or by obtaining a normal probability plot from the normalized data and determining whether a value of the normalized data at a predetermined probability is equal to or greater than, or equal to or less than, a predetermined threshold or determining whether a probability at a predetermined normalized data value is equal to or greater than, or equal to or less than, a predetermined probability.
An airfoil retention arrangement for a gas turbine engine comprising: a support structure having a collar; an airfoil assembly having a lip; and a retention assembly including a first retention segment and a second retention segment each separately moved to an installed position relative to the airfoil assembly and the support structure, the first retention segment and the second retention segment each having a portion positioned between the lip of the airfoil assembly and the collar of the support structure when in the installed position, wherein the retention assembly is configured to limit radial movement of the airfoil assembly relative to the support structure when in the installed position; characterised in that: the support structure is a platform ring having an axis, the platform ring having a ledge extending about at least a portion of an aperture established within the platform ring, wherein the contact between the lip of the airfoil assembly and the ledge limits relative radial movement of the airfoil assembly toward the axis, and in that a surface of the lip that faces the axis is configured to contact the ledge and a surface of the lip that faces away from the axis is configured to contact the retention assembly when the retention assembly is in the installed position. a support structure having a collar; an airfoil assembly having a lip; and a retention assembly including a first retention segment and a second retention segment each separately moved to an installed position relative to the airfoil assembly and the support structure, the first retention segment and the second retention segment each having a portion positioned between the lip of the airfoil assembly and the collar of the support structure when in the installed position, wherein the retention assembly is configured to limit radial movement of the airfoil assembly relative to the support structure when in the installed position; characterised in that: the support structure is a platform ring having an axis, the platform ring having a ledge extending about at least a portion of an aperture established within the platform ring, wherein the contact between the lip of the airfoil assembly and the ledge limits relative radial movement of the airfoil assembly toward the axis, and in that a surface of the lip that faces the axis is configured to contact the ledge and a surface of the lip that faces away from the axis is configured to contact the retention assembly when the retention assembly is in the installed position. the support structure is a platform ring having an axis, the platform ring having a ledge extending about at least a portion of an aperture established within the platform ring, wherein the contact between the lip of the airfoil assembly and the ledge limits relative radial movement of the airfoil assembly toward the axis, and in that a surface of the lip that faces the axis is configured to contact the ledge and a surface of the lip that faces away from the axis is configured to contact the retention assembly when the retention assembly is in the installed position.
A method for detecting a leak between a dressing and an at least partly electrically conductive object, which dressing is a base plate for an ostomy bag, and wherein the dressing is applied to a surface of the at least partly electrically conductive object, said dressing comprising an adhesive for attaching the dressing to the electrically conductive object and at least two electrodes (20, 21) arranged in a distance from the electrically conductive object, the method comprising: - applying a voltage to the first and second electrode (20, 21) so as to establish an electrical circuit comprising: - a first capacitor between the first electrode and the electrically conductive object, and - a second capacitor between the second electrode and the electrically conductive object, - detecting changes in a capacitance between at least one of the first and the second electrode (20, 21) and the electrically conductive object, and - activating an alarm when the changes of the capacitance reach a predetermined value. - applying a voltage to the first and second electrode (20, 21) so as to establish an electrical circuit comprising: - a first capacitor between the first electrode and the electrically conductive object, and - a second capacitor between the second electrode and the electrically conductive object, - a first capacitor between the first electrode and the electrically conductive object, and - a second capacitor between the second electrode and the electrically conductive object, - detecting changes in a capacitance between at least one of the first and the second electrode (20, 21) and the electrically conductive object, and - activating an alarm when the changes of the capacitance reach a predetermined value.
A tread for a tire, the tread comprising a rubber composition that is based upon a cross-linkable elastomer composition, the cross-linkable elastomer composition comprising, per 100 parts by weight of rubber (phr): greater than 90 phr of an elastomer component selected from a styrene-butadiene rubber, a polybutadiene rubber or combinations thereof having a glass transition temperature of between -100 °C and less than -50° C, as determined by differential scanning calorimetry according to ASTM E1356; between 0 phr and 9 phr of an additional highly unsaturated diene elastomer; a plasticizing system comprising between 5 phr and 120 phr of a plasticizing resin having a Tg, as measured by differential scanning calorimetry according to ASTM D3418, of at least 25° C and between 0 phr and 60 phr of a plasticizing liquid; a reinforcing filler; and a curing system. greater than 90 phr of an elastomer component selected from a styrene-butadiene rubber, a polybutadiene rubber or combinations thereof having a glass transition temperature of between -100 °C and less than -50° C, as determined by differential scanning calorimetry according to ASTM E1356; between 0 phr and 9 phr of an additional highly unsaturated diene elastomer; a plasticizing system comprising between 5 phr and 120 phr of a plasticizing resin having a Tg, as measured by differential scanning calorimetry according to ASTM D3418, of at least 25° C and between 0 phr and 60 phr of a plasticizing liquid; a reinforcing filler; and a curing system.
Driveline of a hybrid vehicle, in particular of an industrial or commercial vehicle, the driveline comprising: - a gearbox having an input shaft (GRIN) adapted to be connected with a thermal drivetrain and an output shaft (GROUT) to drive a driving axle of a vehicle and first processing means (GRUN) configured to identify an optimal transmission ratio based on a signal of a first speed sensor, - a main clutch interposed between said thermal drivetrain and said input shaft (GRIN), - a main drive shaft, interposed between the output shaft (GROUT) and said driving axle, - a first auxiliary clutch to interconnect said main drive shaft and said output shaft, wherein said main drive shaft is associable with an electric drivetrain regardless of a state of opening or closing of said first auxiliary clutch and wherein said first speed sensor is connected stably with said main drive shaft to measure a related first speed; the driveline further comprising a second processing unit arranged to carry out the following steps in succession to command a switching between a pure electric driving mode and a hybrid or pure thermal mode: - activating said thermal drivetrain, - waiting until said optimal transmission ratio of the gearbox has been entered, then - monitoring a second rotation speed of said output shaft (GROUT) by means of a second speed sensor associated therewith and acquisition of said first speed, - controlling a revolution speed of the thermal drivetrain so as to force a difference between said first and second speed below a predetermined threshold, - commanding a closing of said first secondary clutch; the driveline being characterized in that said second processing unit is configured to command a closing of said main clutch immediately after activation of said thermal drivetrain and before said identification of said optimal transmission ratio. - a gearbox having an input shaft (GRIN) adapted to be connected with a thermal drivetrain and an output shaft (GROUT) to drive a driving axle of a vehicle and first processing means (GRUN) configured to identify an optimal transmission ratio based on a signal of a first speed sensor, - a main clutch interposed between said thermal drivetrain and said input shaft (GRIN), - a main drive shaft, interposed between the output shaft (GROUT) and said driving axle, - a first auxiliary clutch to interconnect said main drive shaft and said output shaft, - activating said thermal drivetrain, - waiting until said optimal transmission ratio of the gearbox has been entered, then - monitoring a second rotation speed of said output shaft (GROUT) by means of a second speed sensor associated therewith and acquisition of said first speed, - controlling a revolution speed of the thermal drivetrain so as to force a difference between said first and second speed below a predetermined threshold, - commanding a closing of said first secondary clutch; the driveline being characterized in that said second processing unit is configured to command a closing of said main clutch immediately after activation of said thermal drivetrain and before said identification of said optimal transmission ratio.
Wall mount having a cylindrical receiving space for holding a remote control in the cylindrical receiving space on a support body, comprising - a jacket wall at least partially wrapped around a jacket side of the receiving space - a bottom wall adjoining the jacket wall on a base side of the receiving space and having an inner side directed into the receiving space and an outer side opposite the inner side, and - an insertion opening on a deck side of the receiving space, via which the remote control can be inserted into the receiving space, - wherein two through-openings (22, 24) are guided through the bottom wall, through each of which a fastening means for fastening the bottom wall to the carrying body can be guided, and - characterised in that two chambers (26, 28) are arranged in the base wall from the outside, in each of which chambers there is a magnet (10, 11) for holding the remote control in the receiving space, - wherein the wall holder further comprises a support rib projecting onto the floor wall into the receiving space, which rib is placed around the chambers (26, 28, 36) with a height above the floor wall which projects beyond the chambers (26, 28, 36), so that the remote control can be placed onto the support rib. - a jacket wall at least partially wrapped around a jacket side of the receiving space - a bottom wall adjoining the jacket wall on a base side of the receiving space and having an inner side directed into the receiving space and an outer side opposite the inner side, and - an insertion opening on a deck side of the receiving space, via which the remote control can be inserted into the receiving space, - wherein two through-openings (22, 24) are guided through the bottom wall, through each of which a fastening means for fastening the bottom wall to the carrying body can be guided, and - characterised in that two chambers (26, 28) are arranged in the base wall from the outside, in each of which chambers there is a magnet (10, 11) for holding the remote control in the receiving space, - wherein the wall holder further comprises a support rib projecting onto the floor wall into the receiving space, which rib is placed around the chambers (26, 28, 36) with a height above the floor wall which projects beyond the chambers (26, 28, 36), so that the remote control can be placed onto the support rib.
An implantable construct for use in a method of augmenting or replacing a genitourinary organ in a subject, the construct comprising: a) a polymeric biocompatible matrix shaped to conform to at least a part of a native genitourinary organ; and b) a smooth muscle cell population deposited on or in a surface of the matrix, wherein the cell population is autologous to the subject and not derived from the native genitourinary organ that is the target of the augmentation or replacement, wherein the SMC population is derived from adipose tissue or peripheral blood.