mhurhangee/ep-ind-claims huggingface dataset:
An optical sensor unit (118, 300,604,1500, 1600,1700) comprising: a first reflective structure (200, 1502, 1602, 1702) configured to be associated with an optical fiber (126,302); a second reflective structure (202,1510,1610,1710); and a cavity system located between the first reflective structure (200, 1502, 1602, 1702) and the second reflective structure (202,1510,1610,1710); wherein the cavity system comprises a sealed cavity (210, 406, 1402, 1506, 1606, 1706); the first reflective structure comprises at least one first cavity and at least one first channel between the first reflective structure and the cavity system; and the second reflective structure comprises at least one second cavity and at least one second channel between the second reflective structure and the cavity system. a first reflective structure (200, 1502, 1602, 1702) configured to be associated with an optical fiber (126,302); a second reflective structure (202,1510,1610,1710); and a cavity system located between the first reflective structure (200, 1502, 1602, 1702) and the second reflective structure (202,1510,1610,1710); wherein the cavity system comprises a sealed cavity (210, 406, 1402, 1506, 1606, 1706); the first reflective structure comprises at least one first cavity and at least one first channel between the first reflective structure and the cavity system; and the second reflective structure comprises at least one second cavity and at least one second channel between the second reflective structure and the cavity system.
A power line communications device that comprises a multicarrier MIMO transmitter comprising a demultiplexer and symbol mapper unit adapted to receive an input bit stream and adapted to generate from the input bit stream, a plurality of symbol streams, with a number of symbol streams corresponding to a number of transmission channels, each symbol stream comprising a plurality of data symbols, each data symbol being attributed to a different carrier, wherein a mapping of bits to the data symbols is performed according to a constellation for the respective carrier, one or more multicarrier modulators (20-1, 20-n), each of the multicarrier modulators being configured to generate a multicarrier modulated signal based on one of the symbol streams or, in case of eigenbeamforming, more than one of the symbol streams and at least two transmit ports (24-1, 24-n) configured to transmit the multicarrier modulated signals over main power lines, the main power lines providing at least two transmission channels, wherein the demultiplexer and symbol mapper unit is configured to adjust a bit rate of each transmission channel separately wherein the demultiplexer and symbol mapper unit is adapted to split the input bit stream into a plurality of split bit streams and to generate each of said symbol streams based on a different one of said split bit streams; wherein each transmission channel has allocated a number of bits representing the data throughput rate of the respective transmission channel and said splitting of the input bit stream into the plurality of split bit streams is based on the number of bits allocated to the transmission channels and/or is based on one or more ratios of the number of bits allocated to the transmission channels.
Method for mounting an engine on an aircraft strut comprising members for suspending the engine secured to the strut, the engine being secured to a suspension cradle by means of which it is suspended on the strut, the method comprising a step of hauling up the engine in a vertical direction as far as the strut and then a step of docking the strut by a movement of the engine in another direction, characterised by the fact that an intermediate piece presenting an interface intended to cooperate with a complementary interface provided on the cradle is fixed in advance to the strut, by attaching it to said suspension members, so as to wedge the cradle in position with respect to the intermediate piece at the end of the docking of the strut.
A battery module, comprising: a battery cell stack in which a plurality of battery cells are stacked; a casing configured to surround the battery cell stack; and a heat transfer member disposed between any one battery cell of the battery cell stack and another battery cell adjacent to the any one battery cell to cool or heat the battery cells, wherein the heat transfer member includes: a bimetal in which a plurality of metals having different thermal expansion coefficients are coupled to each other; and a thermoelectric element coupled to at least one of both sides the bimetal, and wherein the heat transfer member is installed to be spaced apart from the battery cells and is configured to contact the battery cells to cool or heat the battery cells since the bimetal is configured to be bent toward the battery cells by convection of heat generated from the battery cells or due to an external low temperature. a battery cell stack in which a plurality of battery cells are stacked; a casing configured to surround the battery cell stack; and a heat transfer member disposed between any one battery cell of the battery cell stack and another battery cell adjacent to the any one battery cell to cool or heat the battery cells, wherein the heat transfer member includes: a bimetal in which a plurality of metals having different thermal expansion coefficients are coupled to each other; and a thermoelectric element coupled to at least one of both sides the bimetal, and a bimetal in which a plurality of metals having different thermal expansion coefficients are coupled to each other; and a thermoelectric element coupled to at least one of both sides the bimetal, and wherein the heat transfer member is installed to be spaced apart from the battery cells and is configured to contact the battery cells to cool or heat the battery cells since the bimetal is configured to be bent toward the battery cells by convection of heat generated from the battery cells or due to an external low temperature.
A bearing arrangement for a common rail fuel injection pump of a piston engine, the bearing arrangement being configured to carry radial forces and comprising - a housing, - a bearing element that is arranged within the housing and provided with a sliding surface for supporting a rotating journal or shaft, - at least one oil feeding port opening onto the sliding surface of the bearing element, - an oil supply bore that is arranged in the housing, and - an oil groove that is arranged between the housing and the bearing element for establishing fluid communication between the oil supply bore and the oil feeding port, characterized in that the sliding surface of the bearing element comprises an oil pocket that is arranged around the oil feeding port. - a housing, - a bearing element that is arranged within the housing and provided with a sliding surface for supporting a rotating journal or shaft, - at least one oil feeding port opening onto the sliding surface of the bearing element, - an oil supply bore that is arranged in the housing, and - an oil groove that is arranged between the housing and the bearing element for establishing fluid communication between the oil supply bore and the oil feeding port,
An agricultural implement for feeding of granules, such as seed, fertilizer or herbicide, comprising: a container (4, 4') for said granules; and a primary distributor (5, 5a, 5b, 5c) connected to the container and set up to feed said granules from the container in order to produce a first flow of granules; flow-generating means for producing an air flow for driving at least the first flow of granules, at least two shares for feeding out said granules to the ground, the primary distributor being arranged to feed said granules to the at least two shares, singulating devices (1, 1', 1", 1′′′, 1 IV, 1 V), connected to a respective share, and arranged to receive the first flows of granules from the container and to feed out a second flow of granules to the respective share, wherein the singulating devices comprise: a singulating disk (19, 19', 19", 19"'), which has a plurality of through holes, a housing (10, 11, 12), in which the singulating disk is disposed, the housing comprising an inlet for granule-bearing air, and an outlet for granule-bearing air, wherein the holes are tailored in terms of shape and size to receive individual granules, and wherein the shape and size of the holes are such that the granules can only pass one at a time through each hole. a container (4, 4') for said granules; and a primary distributor (5, 5a, 5b, 5c) connected to the container and set up to feed said granules from the container in order to produce a first flow of granules; flow-generating means for producing an air flow for driving at least the first flow of granules, at least two shares for feeding out said granules to the ground, the primary distributor being arranged to feed said granules to the at least two shares, singulating devices (1, 1', 1", 1′′′, 1 IV, 1 V), connected to a respective share, and arranged to receive the first flows of granules from the container and to feed out a second flow of granules to the respective share, wherein the singulating devices comprise: a singulating disk (19, 19', 19", 19"'), which has a plurality of through holes, a housing (10, 11, 12), in which the singulating disk is disposed, the housing comprising an inlet for granule-bearing air, and an outlet for granule-bearing air, wherein the holes are tailored in terms of shape and size to receive individual granules, and wherein the shape and size of the holes are such that the granules can only pass one at a time through each hole. a singulating disk (19, 19', 19", 19"'), which has a plurality of through holes, a housing (10, 11, 12), in which the singulating disk is disposed, the housing comprising an inlet for granule-bearing air, and an outlet for granule-bearing air, wherein the holes are tailored in terms of shape and size to receive individual granules, and wherein the shape and size of the holes are such that the granules can only pass one at a time through each hole.
A method for manufacturing an optically variable security element with a microcapsule-based ink layer with a motif region in the form of patterns, characters or a coding, in which D) a printing ink is made available which in a binding agent contains a multiplicity of microcapsules each of which having a capsule shell, a carrier liquid enclosed in the capsule shell and a magnetically orientable, non-spherical pigment which is substantially freely rotatable and can be reversibly oriented in the microcapsule by an external magnetic field, A) the printing ink is applied to a background to form a microcapsule-based ink layer, and M) applying an external magnetic field in a partial region of the ink layer containing the motive region, in order to orient the rotatable pigments in the microcapsules there, characterized in that B) in the motif region the capsule shells of the microcapsules are damaged so that the carrier liquid exits from the microcapsules and the pigments remain immobile in the damaged capsule shells. D) a printing ink is made available which in a binding agent contains a multiplicity of microcapsules each of which having a capsule shell, a carrier liquid enclosed in the capsule shell and a magnetically orientable, non-spherical pigment which is substantially freely rotatable and can be reversibly oriented in the microcapsule by an external magnetic field, A) the printing ink is applied to a background to form a microcapsule-based ink layer, and M) applying an external magnetic field in a partial region of the ink layer containing the motive region, in order to orient the rotatable pigments in the microcapsules there, B) in the motif region the capsule shells of the microcapsules are damaged so that the carrier liquid exits from the microcapsules and the pigments remain immobile in the damaged capsule shells.
A method comprising: receiving a memory request provided from a first processing element at a first decomposition unit of a memory unit, wherein the memory unit includes a plurality of memory banks and a crossbar switch, the crossbar switch communicatively connecting each of a plurality of decomposition units to each of the plurality of memory banks; decomposing the memory request into a first partial request and a second partial request, at the first decomposition unit; determining that a requested first data of the first partial request resides in a first memory bank of the plurality of memory banks; determining that a requested second data of the second partial request resides in a second memory bank of the plurality of memory banks; directing the first partial request to the first memory bank via the crossbar switch; directing the second partial request to the second memory bank via the crossbar switch; retrieving the requested first data from the first memory bank via the crossbar switch; retrieving the requested second data from the second memory bank via the crossbar switch; preparing a partial response that includes the requested first and second data; and providing the partial response to the first processing element. receiving a memory request provided from a first processing element at a first decomposition unit of a memory unit, wherein the memory unit includes a plurality of memory banks and a crossbar switch, the crossbar switch communicatively connecting each of a plurality of decomposition units to each of the plurality of memory banks; decomposing the memory request into a first partial request and a second partial request, at the first decomposition unit; determining that a requested first data of the first partial request resides in a first memory bank of the plurality of memory banks; determining that a requested second data of the second partial request resides in a second memory bank of the plurality of memory banks; directing the first partial request to the first memory bank via the crossbar switch; directing the second partial request to the second memory bank via the crossbar switch; retrieving the requested first data from the first memory bank via the crossbar switch; retrieving the requested second data from the second memory bank via the crossbar switch; preparing a partial response that includes the requested first and second data; and providing the partial response to the first processing element.
A method for coating a substrate with a deposition material, including the steps of: (a) applying a pre-deposition treatment to the deposition material, wherein applying a pre-deposition treatment includes the step of de-agglomerating the deposition material; (b) directing the deposition material onto the substrate by means of electrostatic charging; wherein directing the deposition material onto the substrate includes directing the deposition material into an electrostatic gun (Fig. 5-1) through a plurality of powder feed inlets (Fig. 5-2), wherein the plurality of powder feed inlets (Fig. 5-2) are angled in the direction of air flow from the electrostatic gun (Fig. 5-1) and wherein directing the deposition material onto the substrate includes directing air into the electrostatic gun (Fig. 5-1) through a plurality of air inlets; and wherein the plurality of air inlets include a booster air inlet (Fig. 10-5), and directing the deposition material onto the substrate includes directing main feed air into the electrostatic gun through the booster air inlet, wherein the plurality of air inlets further comprise a vortex air inlet (Fig. 10-3), and directing the deposition material onto the substrate includes directing air into the electrostatic gun tangentially through the vortex air inlet, whereby a vortex is created within the gun; and (c) applying an in situ treatment or a post-deposition treatment to the substrate whereby the deposition material is bound to the substrate. (a) applying a pre-deposition treatment to the deposition material, wherein applying a pre-deposition treatment includes the step of de-agglomerating the deposition material; (b) directing the deposition material onto the substrate by means of electrostatic charging; wherein directing the deposition material onto the substrate includes directing the deposition material into an electrostatic gun (Fig. 5-1) through a plurality of powder feed inlets (Fig. 5-2), wherein the plurality of powder feed inlets (Fig. 5-2) are angled in the direction of air flow from the electrostatic gun (Fig. 5-1) and wherein directing the deposition material onto the substrate includes directing air into the electrostatic gun (Fig. 5-1) through a plurality of air inlets; and wherein the plurality of air inlets include a booster air inlet (Fig. 10-5), and directing the deposition material onto the substrate includes directing main feed air into the electrostatic gun through the booster air inlet, wherein the plurality of air inlets further comprise a vortex air inlet (Fig. 10-3), and directing the deposition material onto the substrate includes directing air into the electrostatic gun tangentially through the vortex air inlet, whereby a vortex is created within the gun; and (c) applying an in situ treatment or a post-deposition treatment to the substrate whereby the deposition material is bound to the substrate.
A curable elastomeric composition, comprising an optional first component, a second component, and a third component wherein the optional first component includes a copolymer derived from ethylene and a polar monomer containing at least 28 weight percent of a polar monomer based on the total weight of the copolymer; the second component includes a copolymer derived from ethylene, a vinyl acetate or alkyl (meth)acrylate, and carbon monoxide; the third component includes a copolymer derived from ethylene and an alkyl (meth)acrylate containing at least 45 weight percent of alkyl (meth)acrylate based on the total weight of the copolymer, a polymer of alkyl (meth)acrylate, or combinations thereof.
A modular diaphragm pump system comprising: a motor; a drive mechanism, the drive mechanism configured to convert rotational motion output from the motor into linear reciprocal motion; a portable frame (8,32) on which the motor and the drive mechanism are mounted; a diaphragm pump comprising a diaphragm, a drive rod, and a housing (22,24), the diaphragm located within the housing (22,24), the drive rod connected to the diaphragm such that the diaphragm is moved by the drive rod; a coupling that mounts the diaphragm pump to the drive mechanism, the coupling forming a static connection that fixes the housing (22,24) with respect to the frame and a dynamic connection that attaches the drive rod to the drive mechanism such that the drive mechanism can move the diaphragm relative to the housing (22,24) by moving the drive rod, wherein the coupling is configured to allow the diaphragm pump to be dismounted from the drive mechanism by disengaging the static connection and the dynamic connection, characterised in that the coupling is configured to dismount the diaphragm pump from the drive mechanism by a sliding motion of the diaphragm pump relative to the drive mechanism disengaging the static connection and the dynamic connection; and wherein the coupling is configured to mount the diaphragm pump on the drive mechanism by a sliding motion of the diaphragm pump relative to the drive mechanism to engage the static connection and the dynamic connection. a motor; a drive mechanism, the drive mechanism configured to convert rotational motion output from the motor into linear reciprocal motion; a portable frame (8,32) on which the motor and the drive mechanism are mounted; a diaphragm pump comprising a diaphragm, a drive rod, and a housing (22,24), the diaphragm located within the housing (22,24), the drive rod connected to the diaphragm such that the diaphragm is moved by the drive rod; a coupling that mounts the diaphragm pump to the drive mechanism, the coupling forming a static connection that fixes the housing (22,24) with respect to the frame and a dynamic connection that attaches the drive rod to the drive mechanism such that the drive mechanism can move the diaphragm relative to the housing (22,24) by moving the drive rod, wherein the coupling is configured to allow the diaphragm pump to be dismounted from the drive mechanism by disengaging the static connection and the dynamic connection, characterised in that the coupling is configured to dismount the diaphragm pump from the drive mechanism by a sliding motion of the diaphragm pump relative to the drive mechanism disengaging the static connection and the dynamic connection; and wherein the coupling is configured to mount the diaphragm pump on the drive mechanism by a sliding motion of the diaphragm pump relative to the drive mechanism to engage the static connection and the dynamic connection.
A printing/coating method characterized by comprising the steps of: transferring highly reactive ink/varnish which cures with a low light energy onto a transfer object; characterized by the step irradiating the transfer object, onto which the reactive ink/varnish is transferred, with light containing all wavelength components in a wavelength range having a lower limit of 260 nm to 300 nm and an upper limit of 380 nm to 420 nm, in which no ozone is generated, to cure the reactive ink/varnish on the transfer object. transferring highly reactive ink/varnish which cures with a low light energy onto a transfer object; irradiating the transfer object, onto which the reactive ink/varnish is transferred, with light containing all wavelength components in a wavelength range having a lower limit of 260 nm to 300 nm and an upper limit of 380 nm to 420 nm, in which no ozone is generated, to cure the reactive ink/varnish on the transfer object.
A transesterified polylactic acid resulting from the reaction of a reaction mixture comprising: a) polylactic acid present in an amount of from 50 to 85 weight percent based on a total weight of a reaction mixture; b) at least one natural oil present in an amount of from 13 to 30 weight percent based on said total weight of said reaction mixture; c) a diol present in an amount of from 2 to 36 weight percent based on said total weight of said reaction mixture; and d) optionally, a transesterification catalyst, wherein said transesterified polylactic acid is liquid at room temperature. a) polylactic acid present in an amount of from 50 to 85 weight percent based on a total weight of a reaction mixture; b) at least one natural oil present in an amount of from 13 to 30 weight percent based on said total weight of said reaction mixture; c) a diol present in an amount of from 2 to 36 weight percent based on said total weight of said reaction mixture; and d) optionally, a transesterification catalyst,
An electrical current transducer comprising a housing, at least one magnetic core comprising an air gap and defining a central passage configured to receive a primary conductor carrying a primary current to be measured through the central passage, a magnetic field detector positioned at least partially in the air gap, and a grounding element (10, 10', 10", 10"'), the magnetic core being made of a wound strip of thin high magnetic permeability sheet material so as to form stacked concentric ring layers, from a radially innermost ring layer to a radially outermost ring layer, a lateral surface of the magnetic core being formed by edges of the wound strip, wherein said lateral surface of the magnetic core is positioned against the grounding element in the housing without direct conductive fixed attachment between the magnetic core and the grounding element such that the grounding of the magnetic core relies solely or principally on the capacitive coupling between the magnetic core and the grounding element, and the grounding element overlaps the magnetic core to an extent configured to ensure that a capacitive coupling between the magnetic core and the grounding element is greater than a capacitive coupling between the magnetic core and the magnetic field detector, characterized in that the grounding element is positioned on a floor of the housing and is stamped from sheet metal.