mhurhangee/ep-ind-claims huggingface dataset:
A process for producing an ethylene copolymer comprising: a. compressing ethylene monomer in one or more compressors to a pressure equal to or greater than 120 MPa in order to obtain a compressed ethylene monomer; b. adding to the compressed ethylene monomer a fresh comonomer in liquid form at a pressure equal to or greater than 120 MPa in order to obtain a compressed ethylene/comonomer mixture; c. optionally, adding into the compressed ethylene/comonomer mixture a fresh modifier in liquid form at a pressure equal to or greater than 120 MPa in order to obtain a compressed reaction mixture; d. introducing the compressed ethylene/comonomer mixture, or the compressed reaction mixture into an autoclave reactor and, optionally, at least one additional reactor; e. adding into the autoclave reactor and, optionally, into the at least one additional reactor at least one free radical initiator in order to start a polymerization reaction; and f. separating the ethylene polymer; wherein the autoclave reactor has a first reaction zone and at least one more reaction zone, and all the compressed ethylene/comonomer mixture, or all the compressed reaction mixture that is introduced in the autoclave reactor is introduced into the first reaction zone; wherein the autoclave reactor has a total reactor volume, and the first reaction zone has a volume that is greater than 50% of the total reactor volume; and wherein the compressed ethylene/comonomer or the compressed reaction mixture is introduced into the autoclave reactor and, optionally, into the at least one additional reactor at a temperature from -20 °C to 70 °C. a. compressing ethylene monomer in one or more compressors to a pressure equal to or greater than 120 MPa in order to obtain a compressed ethylene monomer; b. adding to the compressed ethylene monomer a fresh comonomer in liquid form at a pressure equal to or greater than 120 MPa in order to obtain a compressed ethylene/comonomer mixture; c. optionally, adding into the compressed ethylene/comonomer mixture a fresh modifier in liquid form at a pressure equal to or greater than 120 MPa in order to obtain a compressed reaction mixture; d. introducing the compressed ethylene/comonomer mixture, or the compressed reaction mixture into an autoclave reactor and, optionally, at least one additional reactor; e. adding into the autoclave reactor and, optionally, into the at least one additional reactor at least one free radical initiator in order to start a polymerization reaction; and f. separating the ethylene polymer; wherein the autoclave reactor has a first reaction zone and at least one more reaction zone, and all the compressed ethylene/comonomer mixture, or all the compressed reaction mixture that is introduced in the autoclave reactor is introduced into the first reaction zone; wherein the autoclave reactor has a total reactor volume, and the first reaction zone has a volume that is greater than 50% of the total reactor volume; and wherein the compressed ethylene/comonomer or the compressed reaction mixture is introduced into the autoclave reactor and, optionally, into the at least one additional reactor at a temperature from -20 °C to 70 °C.
A method for the excitation of a mobile station for repeated transmission of messages to a base station in a public mobile-telephone network wherein, in the case of a call not noticeable by the user of the MS, an RRC connection is established between the MS and the BS; wherein, after initialisation of the RRC connection and transmission of a position-update request (20, 30, 40, 60) from the mobile station to the BS, the disconnection of the RRC connection is delayed as long as possible, in that, before a response is given by the base station with the transmission of a position-update rejection (22, 32, 42, 62) or a position-update acceptance (22, 32, 42), authentication requests (45, 47) are transmitted repeatedly from the BS to the MS; wherein the device identity (IMEI) of the mobile station is retrieved by the base station, and the device type of the mobile station is determined from the device identity (IMEI) of the mobile station by means of a databank; and wherein the number of repetitions is determined dependent upon the device type.
An electronic device, comprising a substrate; a driving layer disposed on the substrate, wherein the driving layer comprises a thin film transistor, and the thin film transistor comprises a drain, a source and a gate; an organic layer disposed on the driving layer, the organic layer comprising a connecting hole and a through hole portion, wherein the through hole portion comprises a through hole; a dielectric layer disposed between the gate and the organic layer; and a light emitting unit disposed on the organic layer, the light emitting unit being electrically connected to the driving layer by a bonding pad (1280, 1282); wherein a portion of the drain is exposed by the connecting hole and a portion of an upper surface of the dielectric layer is exposed by the through hole, wherein the upper surface of the dielectric layer is disposed far away from the substrate in a top view direction, wherein a ratio of an area of the through hole portion overlapped with the bonding pad (1280, 1282) to an area of the bonding pad (1280, 1282) is greater than or equal to 0.3 and less than or equal to 3 in the top view direction of the electronic device, wherein the light emitting unit comprises a conductive pad electrically connected to the bonding pad (1280, 1282), the light emitting unit overlaps the bonding pad (1280, 1282) in the top view direction, and the conductive pad overlaps the bonding pad (1280, 1282) in the top view direction. a substrate; a driving layer disposed on the substrate, wherein the driving layer comprises a thin film transistor, and the thin film transistor comprises a drain, a source and a gate; an organic layer disposed on the driving layer, the organic layer comprising a connecting hole and a through hole portion, wherein the through hole portion comprises a through hole; a dielectric layer disposed between the gate and the organic layer; and a light emitting unit disposed on the organic layer, the light emitting unit being electrically connected to the driving layer by a bonding pad (1280, 1282); wherein a portion of the drain is exposed by the connecting hole and a portion of an upper surface of the dielectric layer is exposed by the through hole, wherein the upper surface of the dielectric layer is disposed far away from the substrate in a top view direction, wherein a ratio of an area of the through hole portion overlapped with the bonding pad (1280, 1282) to an area of the bonding pad (1280, 1282) is greater than or equal to 0.3 and less than or equal to 3 in the top view direction of the electronic device, wherein the light emitting unit comprises a conductive pad electrically connected to the bonding pad (1280, 1282), the light emitting unit overlaps the bonding pad (1280, 1282) in the top view direction, and the conductive pad overlaps the bonding pad (1280, 1282) in the top view direction.
Expansible fixing plug, having a sleeve-like portion, an expander body, and an expansion part which is arranged between the sleeve-like portion and the expander body, which expansion part has expansion elements which, in a non-expanded state, are integrally joined to the sleeve-like portion and to the expander body, wherein the expander body is movable towards the sleeve-like portion by means of an expander screw, with the result that the expander body expands the expansion part in such a way that, on expansion, the expansion elements become detached from the expander body at predetermined breaking points in such a way that, in an expanded state, they are separate from the expander body, wherein the expansion part has connecting elements which integrally join the sleeve-like portion and the expander body in the non-expanded state and also in the expanded state, characterised in that the connecting elements are interlockingly connected to the expander body. wherein the expander body is movable towards the sleeve-like portion by means of an expander screw, with the result that the expander body expands the expansion part in such a way that, on expansion, the expansion elements become detached from the expander body at predetermined breaking points in such a way that, in an expanded state, they are separate from the expander body, wherein the expansion part has connecting elements which integrally join the sleeve-like portion and the expander body in the non-expanded state and also in the expanded state, characterised in that the connecting elements are interlockingly connected to the expander body.
A lifting device (1a, 1b) for lifting blanked parts or sheets of material, wherein the lifting device (1a, 1b) can be inserted into a holding slot of a tool, with a first spring element having a first spring constant, characterised by a second spring element having a second spring constant.
An audio signal processing method (500, 600) performed by an audio decoder for adaptively adjusting a decorrelator, the method comprising: obtaining (501, 601) a control parameter; estimating (502, 602) a mean of the control parameter; estimating (504, 604) a variation of the control parameter; calculating (506, 606) a ratio of said variation and mean of the control parameter; and calculating (508, 608) a targeted decorrelation filter length based on said ratio. obtaining (501, 601) a control parameter; estimating (502, 602) a mean of the control parameter; estimating (504, 604) a variation of the control parameter; calculating (506, 606) a ratio of said variation and mean of the control parameter; and calculating (508, 608) a targeted decorrelation filter length based on said ratio.
SCR method for purifying the exhaust gases of an internal combustion engine of a vehicle, according to which ammonia gas is exclusively metered in the exhaust gases, the method comprising a step of releasing ammonia gas from at least one solid absorbing matrix where it is stored by sorption and a step of metering the released ammonia gas in the exhaust gases, wherein the method comprises a step of regenerating the solid absorbing matrix that consists in: - generating a refilling ammonia gas by thermally decomposing a ammonia precursor in a heater mounted on board the vehicle; - directing the refilling ammonia gas to the solid absorbing matrix where it is stored thereon, wherein a first tank in which the solid absorbing matrix is stored is connected to a security valve configured to release the excess of gaseous ammonia in order to release the pressure above a given set-point, wherein the ammonia precursor is stored in a second tank and is an aqueous solution of urea, and wherein the excess of gaseous ammonia released by the security valve is first dissolved in an adequate amount of water before being returned to the ammonia precursor tank. - generating a refilling ammonia gas by thermally decomposing a ammonia precursor in a heater mounted on board the vehicle; - directing the refilling ammonia gas to the solid absorbing matrix where it is stored thereon,
Composition comprising carbon nanotubes and an electrolytic (co)polymer, this electrolytic (co)polymer comprising monomers corresponding to formula I. X = H, CH 3 or aryl
A control apparatus for an electric machine, comprising a terminal that includes a plurality of electrically conductive plate materials, a base member on which the terminal is provided, a first electronic component that includes a plurality of electronic elements which are electrically connected to the terminal, a power device that supplies electric power to a motor and that controls driving of the motor, and a connector used for a control signal that controls driving of the motor, wherein a window part from which part of the terminal is exposed, is formed on the base member so as to penetrate in a thickness direction of the base member, and an extension electronic component arrangement part is provided in the vicinity of the power device and the connector used for a control signal on the base member, wherein the first electronic component is electrically connected to the terminal that is exposed from the window part, and a second electronic component is electrically connectable selectively between terminals of the extension electronic component arrangement part, wherein the control apparatus further comprises: a housing that is attached to the base member and that has a higher thermal conductivity than that of the base member; and a contact plate that is arranged on a contact plate arrangement part of the housing and that is formed of a conductive and elastically deformable metal material, wherein the contact plate includes an elastically deformable part that is curved to form a convex shape toward the base member and a pair of support pieces that extend inward in a width direction from an outer end in the width direction of the elastically deformable part, and wherein the contact plate is supported such that the elastically deformable part of the contact plate receives a stress and is pressed and deformed by the base member and the housing. a housing that is attached to the base member and that has a higher thermal conductivity than that of the base member; and a contact plate that is arranged on a contact plate arrangement part of the housing and that is formed of a conductive and elastically deformable metal material, wherein the contact plate includes an elastically deformable part that is curved to form a convex shape toward the base member and a pair of support pieces that extend inward in a width direction from an outer end in the width direction of the elastically deformable part, and wherein the contact plate is supported such that the elastically deformable part of the contact plate receives a stress and is pressed and deformed by the base member and the housing.
An assembly for use with an intraocular lens having an optical portion with an outer fringe and first and second supporting portions on the outer fringe, the assembly comprising: an intraocular lens insertion device including a tapered distal member with an internal lumen and a nozzle portion, a lens placement portion for storing the intraocular lens in such a manner that the first supporting portion is located between the optical portion and the nozzle portion, and a plunger that pushes the intraocular lens in a lens advancing direction (x) through the nozzle portion; and a casing on which the intraocular lens insertion device is detachably installed; characterized by the tapered distal member of the intraocular lens insertion device includes a protrusion insertion hole; the casing includes a protrusion; and the intraocular lens insertion device and the casing are respectively configured such that the protrusion extends through the protrusion insertion hole and into the internal lumen at a location between the nozzle portion and the first support portion when the intraocular lens insertion device is installed on the casing. an intraocular lens insertion device including a tapered distal member with an internal lumen and a nozzle portion, a lens placement portion for storing the intraocular lens in such a manner that the first supporting portion is located between the optical portion and the nozzle portion, and a plunger that pushes the intraocular lens in a lens advancing direction (x) through the nozzle portion; and a casing on which the intraocular lens insertion device is detachably installed; characterized by the tapered distal member of the intraocular lens insertion device includes a protrusion insertion hole; the casing includes a protrusion; and the intraocular lens insertion device and the casing are respectively configured such that the protrusion extends through the protrusion insertion hole and into the internal lumen at a location between the nozzle portion and the first support portion when the intraocular lens insertion device is installed on the casing.
A self-lubricating journal bearing assembly (200, 300, 400, 500) comprising: an outer sleeve extending from a first axial end to a second axial end thereof, the outer sleeve having an exterior surface and an interior surface, the interior surface having a first recess formed therein, the first recess extending axially inward from the first axial end and radially outward from the interior surface, the interior surface having a second recess formed therein, the second recess extending axially inward from the second axial end and radially outward from the interior surface; a self-lubricating sleeve being secured to the interior surface between the first recess and the second recess, the self-lubricating sleeve radially engaging against a shaft for rotation relative thereto; and at least one of a first annular seal disposed in the first recess and at least one of a second annular seal disposed in the second recess, the first annular seal and the second annular seal being radially urged by contact with the shaft, wherein the self-lubricating sleeve comprises at least one groove therein. an outer sleeve extending from a first axial end to a second axial end thereof, the outer sleeve having an exterior surface and an interior surface, the interior surface having a first recess formed therein, the first recess extending axially inward from the first axial end and radially outward from the interior surface, the interior surface having a second recess formed therein, the second recess extending axially inward from the second axial end and radially outward from the interior surface; a self-lubricating sleeve being secured to the interior surface between the first recess and the second recess, the self-lubricating sleeve radially engaging against a shaft for rotation relative thereto; and at least one of a first annular seal disposed in the first recess and at least one of a second annular seal disposed in the second recess, the first annular seal and the second annular seal being radially urged by contact with the shaft, wherein the self-lubricating sleeve comprises at least one groove therein.
A wearable wireless sensor for measuring one or more physiological parameters of a subject, said wearable wireless sensor comprising: a housing containing a circuit board; a base comprising a first aperture; the circuit board enclosed by the housing, said circuit board comprising a top surface, a bottom surface opposite the top surface, and a first through-hole via extending through said circuit board; a temperature sensor responsive to a thermal energy of the subject, said temperature sensor mounted on the top surface of said circuit board, said temperature sensor configured to be in thermal contact with a portion of the subject's skin, wherein said first through-hole via is aligned with said temperature sensor and with said first aperture of said base, and wherein said first through-hole via allows said thermal energy of the subject that passes through the first aperture to pass through the circuit board and to the temperature sensor; and thermally conductive material positioned within the first aperture of said base and said first through-hole via, said thermally conductive material configured to cause said temperature sensor to be in thermal contact with said portion of the subject's skin adjacent said first aperture of said base. a housing containing a circuit board; a base comprising a first aperture; the circuit board enclosed by the housing, said circuit board comprising a top surface, a bottom surface opposite the top surface, and a first through-hole via extending through said circuit board; a temperature sensor responsive to a thermal energy of the subject, said temperature sensor mounted on the top surface of said circuit board, said temperature sensor configured to be in thermal contact with a portion of the subject's skin, wherein said first through-hole via is aligned with said temperature sensor and with said first aperture of said base, and wherein said first through-hole via allows said thermal energy of the subject that passes through the first aperture to pass through the circuit board and to the temperature sensor; and thermally conductive material positioned within the first aperture of said base and said first through-hole via, said thermally conductive material configured to cause said temperature sensor to be in thermal contact with said portion of the subject's skin adjacent said first aperture of said base.
Multilayer structure having high weathering stability, comprising a) a substrate layer containing polycarbonate, b) an outer layer at least on one side of the substrate layer, characterized in that a1) the substrate layer further comprises: a combination of colourants of the structure with at least one colourant of the structures,, or wherein the colourants are each used in concentrations of 0.02% to 0.2% by weight, a2) 0.01% by weight to 1.00% by weight of one or more demoulding agents based on a fatty acid ester and the outer layer consists of a polysiloxane-based or polyacrylate-based or polyurethane acrylate-based coating and contains at least one UV absorber and has a layer thickness of 2-15 μm. a) a substrate layer containing polycarbonate, b) an outer layer at least on one side of the substrate layer, a1) the substrate layer further comprises: a combination of colourants of the structure with at least one colourant of the structures,, or wherein the colourants are each used in concentrations of 0.02% to 0.2% by weight, a2) 0.01% by weight to 1.00% by weight of one or more demoulding agents based on a fatty acid ester and the outer layer consists of a polysiloxane-based or polyacrylate-based or polyurethane acrylate-based coating and contains at least one UV absorber and has a layer thickness of 2-15 μm.
A fork leveling system, comprising: an active leveling oil cylinder; a passive leveling oil cylinder; an electric control oil supplement valve; and a pressure reducing valve, wherein a rodless cavity of the active leveling oil cylinder is communicated with a rodless cavity of the passive leveling oil cylinder, and a rod cavity of the active leveling oil cylinder is communicated with a rod cavity of the passive leveling oil cylinder; an oil inlet of the electric control oil supplement valve is connected to an oil pump, an oil outlet of the electric control oil supplement valve is connected to an oil inlet of the pressure reducing valve; an oil outlet of the pressure reducing valve is connected to the rodless cavity of the active leveling oil cylinder and the rod cavity of the active leveling oil cylinder. an active leveling oil cylinder; a passive leveling oil cylinder; an electric control oil supplement valve; and a pressure reducing valve, wherein a rodless cavity of the active leveling oil cylinder is communicated with a rodless cavity of the passive leveling oil cylinder, and a rod cavity of the active leveling oil cylinder is communicated with a rod cavity of the passive leveling oil cylinder; an oil inlet of the electric control oil supplement valve is connected to an oil pump, an oil outlet of the electric control oil supplement valve is connected to an oil inlet of the pressure reducing valve; an oil outlet of the pressure reducing valve is connected to the rodless cavity of the active leveling oil cylinder and the rod cavity of the active leveling oil cylinder.
A small components device with a lifting platform vertically displaceable on a guide system and, arranged on the lifting platform, horizontally displaceable load bearing means, and arranged at each of an upper and lower end section of the guide system a running gear (1, 2) for the horizontal displacement movement of the small components device, wherein the guide system has at least two guide masts arranged at least largely in parallel with each other with an intermediate space and the lifting platform being arranged in the intermediate space, characterised in that on the lower running gear the guide masts are borne rotatably in a fixed bearing and on the upper running gear are borne in a floating bearing.