mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of a polymeric agglomerate obtained from expanded sulfone polymer recovered from extrusion or injection moulding processes of sulfone polymer, characterized in that it provides: - a grinding step of the recovered expanded polymer into particles having a size ranging from 0.1 to 10 mm, - a drawing step through the holes of a die-plate wherein the grinded material, for a time of a fraction of a second and with a heating lower than the melting point of the sulfone polymer, is compacted into a dense granule forming the agglomeration of said expanded sulfone polymer, with an increase in density from at least 30 Kg/m 3 to at least 1000 Kg/m 3 with a drawing time less than 5 seconds. - a grinding step of the recovered expanded polymer into particles having a size ranging from 0.1 to 10 mm, - a drawing step through the holes of a die-plate wherein the grinded material, for a time of a fraction of a second and with a heating lower than the melting point of the sulfone polymer, is compacted into a dense granule forming the agglomeration of said expanded sulfone polymer, with an increase in density from at least 30 Kg/m 3 to at least 1000 Kg/m 3 with a drawing time less than 5 seconds.
Methyl 1-{2-[(3S,4R)-1-[(3R,4R)-1-cyclopentyl-3-fluoro-4-(4-methoxyphenyl)pyrrolidine-3-carbonyl]-4-(methoxymethyl)pyrrolidin-3-yl]-5-(trifluoromethyl)phenyl}piperidine-4-carboxylate 1/2 ethane-1,2-disulfonic acid, which is represented by formula:
A communication device, comprising: an antenna; a transceiver coupled with the antenna; a matching network including variable reactance elements, wherein the matching network is coupled with the antenna and the transceiver; an iterative matching network tuner coupled with the matching network to adjust the variable reactance elements according to a tuning search path comprising a series of adjustments defined by a preset sequential tuning algorithm that tunes the matching network to a desired voltage standing wave ratio, VSWR; and a calibrating controller coupled with the iterative matching network tuner, wherein the calibrating controller is configured to perform operations comprising: calibrating the iterative matching network tuner to a search path comprising a series of adjustments based on a history of previous tuning search paths; calibrating the iterative matching network tuner based on usage modes comprising user states and/or device states for the communication device; and calibrating the iterative matching network tuner based on an estimation of antenna impedance. an antenna; a transceiver coupled with the antenna; a matching network including variable reactance elements, wherein the matching network is coupled with the antenna and the transceiver; an iterative matching network tuner coupled with the matching network to adjust the variable reactance elements according to a tuning search path comprising a series of adjustments defined by a preset sequential tuning algorithm that tunes the matching network to a desired voltage standing wave ratio, VSWR; and a calibrating controller coupled with the iterative matching network tuner, wherein the calibrating controller is configured to perform operations comprising: calibrating the iterative matching network tuner to a search path comprising a series of adjustments based on a history of previous tuning search paths; calibrating the iterative matching network tuner based on usage modes comprising user states and/or device states for the communication device; and calibrating the iterative matching network tuner based on an estimation of antenna impedance. calibrating the iterative matching network tuner to a search path comprising a series of adjustments based on a history of previous tuning search paths; calibrating the iterative matching network tuner based on usage modes comprising user states and/or device states for the communication device; and calibrating the iterative matching network tuner based on an estimation of antenna impedance.
An electroluminescent device, comprising: - a substrate; - a light-emitting area formed over the substrate and comprising first and second electrodes and one or more EL unit(s) comprising at least one light-emitting layer formed between the electrodes (12, 16), wherein the light-emitting layer comprises inorganic light-emitting quantum dots in a semiconductor matrix, wherein at least one electrode (12, 16) comprises a transparent electrode; - a cover located over the light-emitting area; wherein either the substrate or cover is transparent and transmits light emitted from the EL unit (s); - a light-scattering layer located between the substrate and the cover, and being adjacent to and in contact with the transparent electrode on a side opposite the one or more EL unit(s), wherein the light-scattering layer comprises transparent, light-scattering particles characterised in that the ratio of the volume of light-scattering particles to the volume of the light-scattering layer is between 0.55 and 0.75 over a majority of the light-emitting area, and the light-scattering particles have an average maximum diameter between one half and two micrometers, and the light-scattering layer is less than one micrometer thick. - a substrate; - a light-emitting area formed over the substrate and comprising first and second electrodes and one or more EL unit(s) comprising at least one light-emitting layer formed between the electrodes (12, 16), wherein the light-emitting layer comprises inorganic light-emitting quantum dots in a semiconductor matrix, wherein at least one electrode (12, 16) comprises a transparent electrode; - a cover located over the light-emitting area; wherein either the substrate or cover is transparent and transmits light emitted from the EL unit (s); - a light-scattering layer located between the substrate and the cover, and being adjacent to and in contact with the transparent electrode on a side opposite the one or more EL unit(s), wherein the light-scattering layer comprises transparent, light-scattering particles characterised in that
A control method for a heat pump system with a plurality of heat pumps, characterized by comprising: obtaining (101, 301, 401, 501) a system requirement value of a current period and a historical level of a previous period, and performing level prediction for the current period based on the system requirement value to obtain a candidate level; wherein the historical level is used to represent the quantity of heat pumps that were in operation in the previous period of the current period, and the candidate level is used to represent the quantity of heat pumps that are to be in operation in the current period; comparing the candidate level with the historical level to obtain a target level; wherein the target level is used to represent the total quantity of heat pumps to be in operation in the heat pump system; and controlling one or more heat pumps in the heat pump system to be turned on or off based on the target level. obtaining (101, 301, 401, 501) a system requirement value of a current period and a historical level of a previous period, and performing level prediction for the current period based on the system requirement value to obtain a candidate level; wherein the historical level is used to represent the quantity of heat pumps that were in operation in the previous period of the current period, and the candidate level is used to represent the quantity of heat pumps that are to be in operation in the current period; comparing the candidate level with the historical level to obtain a target level; wherein the target level is used to represent the total quantity of heat pumps to be in operation in the heat pump system; and controlling one or more heat pumps in the heat pump system to be turned on or off based on the target level.
A tool for manufacturing a piece and applying a coating to said piece by injection molding, particularly a piece made of composite material comprising a fiber reinforcement densified by a matrix, the tool comprising: - a first impression, adapted for molding a first face of the piece, and - a second impression, adapted for molding a second face of the piece, and - an element for holding the piece, adapted for holding the fiber reinforcement of the piece in position into the tool, the first impression, the second impression and the holding element together defining an inner volume of the tool, the tool being characterized in that the holding element and at least one of the first impression and the second impression are movable in relation to one another, in such a way as to modify the inner volume of the tool between a molding position, in which the piece is manufactured into the tool, and a coating position, in which the coating is injected in said tool onto the piece thus manufactured, the fiber reinforcement of the piece being held in position by the holding element into the tool whatever the molding position. - a first impression, adapted for molding a first face of the piece, and - a second impression, adapted for molding a second face of the piece, and - an element for holding the piece, adapted for holding the fiber reinforcement of the piece in position into the tool, the first impression, the second impression and the holding element together defining an inner volume of the tool,
A componential analyzer, comprising: a holding unit for holding a plurality of containers holding a predetermined cell; a temperature controlling unit for controlling temperatures in the plurality of containers; and an analyzing unit for measuring a component in the plurality of containers and analyzing the measured component, wherein the plurality of containers comprises at least a first container and a second container; the first container and the second container each contain a first buffer solution; the temperature controlling unit is configured to control temperature in the first container and temperature in the second container so that the temperatures are different from each other; and the analyzing unit is configured to measure: an amount of the component excreted from a cell in the first container to the first buffer solution in the first container and an amount of the component excreted from a cell in the second container to the first buffer solution in the second container; and the analyzing unit is configured to analyze an amount of the component excreted via transporters in the cells. a holding unit for holding a plurality of containers holding a predetermined cell; a temperature controlling unit for controlling temperatures in the plurality of containers; and an analyzing unit for measuring a component in the plurality of containers and analyzing the measured component, wherein the plurality of containers comprises at least a first container and a second container; the first container and the second container each contain a first buffer solution; the temperature controlling unit is configured to control temperature in the first container and temperature in the second container so that the temperatures are different from each other; and the analyzing unit is configured to measure: an amount of the component excreted from a cell in the first container to the first buffer solution in the first container and an amount of the component excreted from a cell in the second container to the first buffer solution in the second container; and an amount of the component excreted from a cell in the first container to the first buffer solution in the first container and an amount of the component excreted from a cell in the second container to the first buffer solution in the second container; and the analyzing unit is configured to analyze an amount of the component excreted via transporters in the cells.
Process for making a decorative coating for an element of a vehicle interior, characterized by a stage (i) in which at least one edge (B1j) of two leather parts (PCj) is shrunk to an inner face, and each thin edge is folded to form a realignment (Rj) on each leather part (PCj), and a step (ii) in which the said leather parts (PCj) are combined with a decorative insert interspersed between them (PCj) having two edges (B2j) placed under the said replenishments (Rj).
A method for transferring objects onto a substrate, preferably running, characterized in that it is executed by means of a transfer area containing a carrier liquid forming a conveyor, said objects being held by a compact film of particles floating on the carrier liquid of this transfer area, within which said objects are displaced with said film of particles so as to be transferred onto the substrate when they reach the outlet, said method also comprising making at least one connector in contact with at least one of said objects, said connector being made by means of a substance comprising a polymerisable compound, placed in contact with said object arranged within the transfer area, then by polymerization of said substance.
A method by a terminal for measuring an interference in a wireless communication system comprising a plurality of transmission points, the method comprising: receiving channel measurement information and interference measurement information from a base station; receiving a channel state information reference signal, CSI-RS, from a transmission point and a CSI-RS from an interfering transmission point; determining a received signal energy based on the channel measurement information and the CSI-RS from said transmission point; determining an interference based on the interference measurement information and the CSI-RS from said interfering transmission point; generating channel quality information based on the received signal energy and the interference; and transmitting the channel quality information to the base station; said method being characterized in that the interference measurement information comprises a transmit power ratio between the CSI-RS from said interfering transmission point and a data channel incurring interference to the terminal from said interfering transmission point; and wherein the channel measurement information comprises a transmit power ratio between the channel state information reference signal from said transmission point and a data channel for use in data transmission to the terminal from said transmission point. receiving channel measurement information and interference measurement information from a base station; receiving a channel state information reference signal, CSI-RS, from a transmission point and a CSI-RS from an interfering transmission point; determining a received signal energy based on the channel measurement information and the CSI-RS from said transmission point; determining an interference based on the interference measurement information and the CSI-RS from said interfering transmission point; generating channel quality information based on the received signal energy and the interference; and transmitting the channel quality information to the base station; said method being characterized in that the interference measurement information comprises a transmit power ratio between the CSI-RS from said interfering transmission point and a data channel incurring interference to the terminal from said interfering transmission point; and wherein the channel measurement information comprises a transmit power ratio between the channel state information reference signal from said transmission point and a data channel for use in data transmission to the terminal from said transmission point.
Elevator/escalator system having a transport appliance and safety circuit comprising at least one serial circuit of two or more switches (3, 4, 5, 6), and an arrangement for monitoring the safety circuit, whereby electricity supply of a motor of the transport appliance and in the elevator system the opening of the holding brakes are only permitted when all switches of the safety circuit are closed, in which the arrangement comprises a control appliance, first means (10, 11) for measuring the status of at least one switch, as well as means (8, 14, 15), in connection with the first means (10, 11), for conveying the status information of the switch to the control appliance, characterized in that at least one serial connection of switches is fitted in connection with the brake control circuit.
A method of fabricating exhaust gas handling devices, in particular emission control devices, each having an outer housing with an insert clamped in place therein, characterized by the following steps: (a) deforming each insert inwards in a predetermined manner by exerting a pressure at its circumference, (b) determining, from the values ascertained therein, the required deformation of each insert necessary for attaining a set pressure, (c) fitting the insert in an outer housing the internal dimensions of which correspond to the external dimensions of the insert with the required deformation ascertained; (d) a predetermined pressure acting inwards being exerted on each insert at its circumference and the required deformation being determined in that the elastic deformation of the insert is measured at least on attaining the predetermined pressure, the predetermined pressure applied being lower than the set pressure and the required deformation being extrapolated based on the deformation upon application of the predetermined pressure. (a) deforming each insert inwards in a predetermined manner by exerting a pressure at its circumference, (b) determining, from the values ascertained therein, the required deformation of each insert necessary for attaining a set pressure, (c) fitting the insert in an outer housing the internal dimensions of which correspond to the external dimensions of the insert with the required deformation ascertained; (d) a predetermined pressure acting inwards being exerted on each insert at its circumference and the required deformation being determined in that the elastic deformation of the insert is measured at least on attaining the predetermined pressure, the predetermined pressure applied being lower than the set pressure and the required deformation being extrapolated based on the deformation upon application of the predetermined pressure.
Process for the production of a wooden board, in particular in the form of a wood-plastic composite, comprising the steps of: - application of a mixture of wood fibres with a wood-fibre moisture content of from 6 to 15% and plastic with a mixing ratio of from 70% by weight of wood fibres / 30% by weight of plastic to 40% by weight of wood fibres / 60% by weight of plastic to a first conveyor belt with formation of a preliminary web and introduction of the preliminary web into at least one first heat-conditioning oven for precompaction; - transfer of the precompacted preliminary web into at least one twin-belt press for further compaction to give a wooden board; and - cooling of the compacted wooden board in at least one cooling press to temperatures of from 10 to 70°C. - application of a mixture of wood fibres with a wood-fibre moisture content of from 6 to 15% and plastic with a mixing ratio of from 70% by weight of wood fibres / 30% by weight of plastic to 40% by weight of wood fibres / 60% by weight of plastic to a first conveyor belt with formation of a preliminary web and introduction of the preliminary web into at least one first heat-conditioning oven for precompaction; - transfer of the precompacted preliminary web into at least one twin-belt press for further compaction to give a wooden board; and - cooling of the compacted wooden board in at least one cooling press to temperatures of from 10 to 70°C.
A conductor rail assembly comprising: a cap; a first support member defining a rib; and a second support member defining a concavity; wherein portions of each of the first and second support members (14,16) are friction fit or compression fit within the cap; and wherein the rib of the first support member is disposed within the concavity of the second support member, further characterised in that: the first support member and second support member are joined together along bottom surfaces of the first and second support members (14,16). a cap; a first support member defining a rib; and a second support member defining a concavity; wherein portions of each of the first and second support members (14,16) are friction fit or compression fit within the cap; and wherein the rib of the first support member is disposed within the concavity of the second support member, further characterised in that: the first support member and second support member are joined together along bottom surfaces of the first and second support members (14,16). the first support member and second support member are joined together along bottom surfaces of the first and second support members (14,16).
Tube-type sedimentation system, having a shaft that is accessible from above and having a horizontally arranged sedimentation chamber that is designed in the form of a tube, an inlet hole that is disposed inside the shaft and and that opens out into the sedimentation chamber near a first end of the sedimentation chamber and having an outlet hole that is disposed near to a second end of the sedimentation chamber in the upper circumferential half of the sedimentation chamber, characterised in that a pre-chamber that incorporates an untreated-water inlet and is separated from the sedimentation chamber by a partition wall is disposed upstream of the sedimentation chamber, where a flow channel extends over the partition wall to the inlet hole of the sedimentation chamber and the inlet hole can be optionally closed by means of a flap and where the flap is provided with a float in such a way that, if the water level rises, the flap automatically takes up its closed position. having a shaft that is accessible from above and having a horizontally arranged sedimentation chamber that is designed in the form of a tube, an inlet hole that is disposed inside the shaft and and that opens out into the sedimentation chamber near a first end of the sedimentation chamber and having an outlet hole that is disposed near to a second end of the sedimentation chamber in the upper circumferential half of the sedimentation chamber, characterised in that a pre-chamber that incorporates an untreated-water inlet and is separated from the sedimentation chamber by a partition wall is disposed upstream of the sedimentation chamber, where a flow channel extends over the partition wall to the inlet hole of the sedimentation chamber and the inlet hole can be optionally closed by means of a flap and where the flap is provided with a float in such a way that, if the water level rises, the flap automatically takes up its closed position.