mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a compressor of a refrigeration system comprising a motor, whereby a controller controls the refrigerant flow through the compressor via at least one valve, whereby the valve is controlled in a cycle of consecutive time intervals of an identical length, either in the sense of opening 5 or in the sense of closing, so that the valve is either completely closed or completely open during a time interval, whereby a. a percentage capacity of the compressor corresponding to the current refrigeration requirement of a refrigeration location is determined, b. an open time percentage of the valve over a number of time intervals 10 including the current time interval (I n) and further preceding time intervals (I n-1, I n-2, I n-3, I n-4) is determined, c. the valve is opened for the following time interval (I n+1) when the ratio of the percentage capacity of the compressor corresponding to the refrigeration requirement is greater than that determined for the open time 15 percentage of the valve in the past, and d. the valve for the following time interval (I n+1) is closed when the ratio of the percentage capacity of the compressor corresponding to the refrigeration requirement is smaller than that determined for the open time percentage of the valve in the past. a. a percentage capacity of the compressor corresponding to the current refrigeration requirement of a refrigeration location is determined, b. an open time percentage of the valve over a number of time intervals 10 including the current time interval (I n) and further preceding time intervals (I n-1, I n-2, I n-3, I n-4) is determined, c. the valve is opened for the following time interval (I n+1) when the ratio of the percentage capacity of the compressor corresponding to the refrigeration requirement is greater than that determined for the open time 15 percentage of the valve in the past, and d. the valve for the following time interval (I n+1) is closed when the ratio of the percentage capacity of the compressor corresponding to the refrigeration requirement is smaller than that determined for the open time percentage of the valve in the past.
A method of operating a network anchor entity comprising: receiving, by said network anchor entity, available resource information in a transmission request from each base transceiver station of a plurality of base transceiver stations, said transmission request being in response to a multimedia broadcast multicast service notification from said network anchor entity; creating, by a multimedia broadcast multicast transmission control function of said network anchor entity a resource allocation and scheduling profile for said plurality of base transceiver stations, the method being characterized by: creating, by said network anchor entity, a segmentation and reassembly profile and sending said segmentation and reassembly profile to said plurality of base transceiver stations; and sending, by said network anchor entity, said resource allocation and scheduling profile to said plurality of base transceiver stations. receiving, by said network anchor entity, available resource information in a transmission request from each base transceiver station of a plurality of base transceiver stations, said transmission request being in response to a multimedia broadcast multicast service notification from said network anchor entity; creating, by a multimedia broadcast multicast transmission control function of said network anchor entity a resource allocation and scheduling profile for said plurality of base transceiver stations, the method being characterized by: creating, by said network anchor entity, a segmentation and reassembly profile and sending said segmentation and reassembly profile to said plurality of base transceiver stations; and sending, by said network anchor entity, said resource allocation and scheduling profile to said plurality of base transceiver stations. creating, by said network anchor entity, a segmentation and reassembly profile and sending said segmentation and reassembly profile to said plurality of base transceiver stations; and sending, by said network anchor entity, said resource allocation and scheduling profile to said plurality of base transceiver stations.
A delivery apparatus (500; 600) for implanting a prosthetic valve, comprising: a first elongated shaft (502; 606) having a proximal end portion and a distal end portion; a second elongated shaft extending through the first shaft (502; 606) and having a proximal end portion and a distal end portion, the second shaft being rotatable relative to the first shaft (502; 606) but fixed against axial movement relative to the first shaft (502; 606); and a delivery sheath (504; 612) having a distal end portion configured to receive and retain a prosthetic valve in a compressed delivery state, and a proximal end portion coupled to the distal end portion of the second elongated shaft; wherein the second shaft is configured to be rotatable relative to the first shaft (502; 606) such that rotation of the second shaft causes the delivery sheath (504; 612) to move axially relative to the first and second shafts (502; 606, 614), characterized in that the proximal end portion of the delivery sheath is more flexible than the distal end portion of the delivery sheath, wherein the delivery sheath is at least about 5 cm in length and no greater than about 40 cm in length. a first elongated shaft (502; 606) having a proximal end portion and a distal end portion; a second elongated shaft extending through the first shaft (502; 606) and having a proximal end portion and a distal end portion, the second shaft being rotatable relative to the first shaft (502; 606) but fixed against axial movement relative to the first shaft (502; 606); and a delivery sheath (504; 612) having a distal end portion configured to receive and retain a prosthetic valve in a compressed delivery state, and a proximal end portion coupled to the distal end portion of the second elongated shaft; wherein the second shaft is configured to be rotatable relative to the first shaft (502; 606) such that rotation of the second shaft causes the delivery sheath (504; 612) to move axially relative to the first and second shafts (502; 606, 614), characterized in that the proximal end portion of the delivery sheath is more flexible than the distal end portion of the delivery sheath, wherein the delivery sheath is at least about 5 cm in length and no greater than about 40 cm in length.
A method of processing, analyzing and managing data in an open platform data system through a computer user interface that accesses one or more data sources, the method comprising: providing a data process engine through the computer user interface that enables users to access and perform data processes and analyses with the one or more data sources, wherein there are specific limits to the processes the user is permitted in order to maintain data quality integrity and consistency; providing a point and click process for selecting processes (605, 606, 607) by users through the computer user interface, within said specific limits, to obtain a selected data liquidity process; wherein the selected data liquidity process is obtained without programming by users; and providing the selected data liquidity process to the data process engine to cause transforming of the data sources between a plurality of database and file formats and a working table. providing a data process engine through the computer user interface that enables users to access and perform data processes and analyses with the one or more data sources, wherein there are specific limits to the processes the user is permitted in order to maintain data quality integrity and consistency; providing a point and click process for selecting processes (605, 606, 607) by users through the computer user interface, within said specific limits, to obtain a selected data liquidity process; wherein the selected data liquidity process is obtained without programming by users; and providing the selected data liquidity process to the data process engine to cause transforming of the data sources between a plurality of database and file formats and a working table.
Composition for topical application on skin for photoepilation comprising nanocomplexes which comprise a nanoparticle of a material selected from the group consisting of metals, semiconductors and their mixtures supporting a Localized Surface Plasmon resonance which is coated by forming at least a bond, coordinative or covalent, with at least a polycationic polymer selected from the group consisting of: polyamine containing polymer, quaternary ammonium polymers, polyallyl amine polymers and copolymers thereof with polyamines and polyglucosamines or a heterobifunctional compound of the surface assembled monolayer type presenting the following general formula: • HS-(CH 2)n-X wherein X represents a -N(CH 3) 3 + Cl and n is comprised between 2-22, preferably between 10-18 or the following formula: • HS-(CH 2) n -(CH 2 -CH 2 -O) m -X wherein X represents a -N(CH 3) 3 + Cl and n is comprised between 2-22, preferably 10-18 and m is between 3-200. • HS-(CH 2)n-X wherein X represents a -N(CH 3) 3 + Cl and n is comprised between 2-22, preferably between 10-18 or the following formula: wherein X represents a -N(CH 3) 3 + Cl and n is comprised between 2-22, preferably between 10-18 or the following formula: • HS-(CH 2) n -(CH 2 -CH 2 -O) m -X wherein X represents a -N(CH 3) 3 + Cl and n is comprised between 2-22, preferably 10-18 and m is between 3-200. wherein X represents a -N(CH 3) 3 + Cl and n is comprised between 2-22, preferably 10-18 and m is between 3-200.
A computer-implemented method for generating a composite image, the method comprising: receiving a first image from a camera (101, 102, 103, 104, 105, 106, 107, 108, 109); determining that a first region is unblocked in the first image; determining that a second region is blocked in the first image; in response to determining that the second region is blocked in the first image, requesting a second image from the camera (101, 102, 103, 104, 105, 106, 107, 108, 109); receiving the second image; determining whether the second region is unblocked in the second image; and in response to determining that the second region is unblocked in the second image, generating a composite image including image data of the second region from the second image and image data of the first region from the first image, wherein the received images and the composite image are broken into a plurality of regions; wherein the composite image starts off blank, to which unblocked image regions are transferred. receiving a first image from a camera (101, 102, 103, 104, 105, 106, 107, 108, 109); determining that a first region is unblocked in the first image; determining that a second region is blocked in the first image; in response to determining that the second region is blocked in the first image, requesting a second image from the camera (101, 102, 103, 104, 105, 106, 107, 108, 109); receiving the second image; determining whether the second region is unblocked in the second image; and in response to determining that the second region is unblocked in the second image, generating a composite image including image data of the second region from the second image and image data of the first region from the first image, wherein the received images and the composite image are broken into a plurality of regions; wherein the composite image starts off blank, to which unblocked image regions are transferred.
Method for integrating an identifier circuit in a data medium formed by at least one dielectric substrate covered by a conductive layer, the conductive layer comprising a part receiving data and a part without data characterized in that it comprises: - etching in the part without data of the conductive layer, at least one radiating slot forming an antenna, the slot being etched over a length L such that L=λg/2 where λg is equal to the wavelength in the slot at the resonant frequency and a width such that the resonant frequency corresponds to the working frequency of the identifier circuit, and - coupling an integrated circuit to the slot. - etching in the part without data of the conductive layer, at least one radiating slot forming an antenna, the slot being etched over a length L such that L=λg/2 where λg is equal to the wavelength in the slot at the resonant frequency and a width such that the resonant frequency corresponds to the working frequency of the identifier circuit, and - coupling an integrated circuit to the slot.
An electronic entity, including: - a first non-volatile memory including at least one sensitive datum; - an indicator representative of the fact that said sensitive datum can be modified only if said indicator has a determined value (TEST), said indicator being initialized at said value; said entity being characterized in that it includes: - means for providing said sensitive datum to an outside device, in response to a request, if and only if said indicator has a value (EXPL) different from said determined value. - a first non-volatile memory including at least one sensitive datum; - an indicator representative of the fact that said sensitive datum can be modified only if said indicator has a determined value (TEST), said indicator being initialized at said value; - means for providing said sensitive datum to an outside device, in response to a request, if and only if said indicator has a value (EXPL) different from said determined value.
A solid state lighting system comprising: an electronic driver having a power input configured to receive power from a power source and the electronic driver having a power output, the electronic driver controlling the power supply to the power output according to a control protocol; and a light emitting diode subassembly comprising an LED board having at least one LED, the LED subassembly receiving power from the power output of the electronic driver to power the LED; wherein the electronic driver has at least one expansion port (40, 42) having a separable interface, and in that the system further comprises: a first expansion module configured to be coupled to the at least one expansion port (40,42) of the electronic driver, the first expansion module having a first functionality affecting the control protocol; and a second expansion module configured to be coupled to the at least one expansion port (40, 42) of the electronic driver, the second expansion module having a second functionality affecting the control protocol; characterized in that the first and second expansion modules (50, 52) are selectively coupled to the at least one expansion port (40, 42) to change the functionality and the control protocol of the electronic driver, and wherein the first and second expansion modules (50, 52) are swappable such that either the first expansion module or the second expansion module are configured to be coupled to any of the at least one expansion port (40, 42) to change the functionality and the control protocol of the electronic driver. an electronic driver having a power input configured to receive power from a power source and the electronic driver having a power output, the electronic driver controlling the power supply to the power output according to a control protocol; and a light emitting diode subassembly comprising an LED board having at least one LED, the LED subassembly receiving power from the power output of the electronic driver to power the LED; wherein the electronic driver has at least one expansion port (40, 42) having a separable interface, and in that the system further comprises: a first expansion module configured to be coupled to the at least one expansion port (40,42) of the electronic driver, the first expansion module having a first functionality affecting the control protocol; and a second expansion module configured to be coupled to the at least one expansion port (40, 42) of the electronic driver, the second expansion module having a second functionality affecting the control protocol; characterized in that the first and second expansion modules (50, 52) are selectively coupled to the at least one expansion port (40, 42) to change the functionality and the control protocol of the electronic driver, and wherein the first and second expansion modules (50, 52) are swappable such that either the first expansion module or the second expansion module are configured to be coupled to any of the at least one expansion port (40, 42) to change the functionality and the control protocol of the electronic driver.
Baling press for agricultural crops, comprising a pressing channel and comprising at least one binding device for a tape-like binding material, preferably made of weldable or gluable plastics material, for covering the bale to be pressed, the binding device having an integral bond maker which integrally bonds the binding material, characterised in that the at least one binding device comprises an unrolling device, which is rotatably mounted with respect to the pressing channel, receives a rolled-up part of the binding material and has at least one brake contact surface, and a control device, the control device having at least one control element which is movably mounted with respect to the pressing channel and can be actuated by an unrolled part of the binding material, at least one braking element which can be separated from the brake contact surface by actuating the control element and at least one brake restoring element which resets the control device into a braking position which brakes a rotation of the unrolling device, the brake contact surface abutting the braking element in the braking position and the control element comprising a guide element which at least partly surrounds an unrolled part of the binding material and is designed as an eyelet.
A thermoplastic resin composition, comprising: • from 10 to 80 weight percent of a partially crystalline polyester component selected from the group consisting of terephthalate-derived polyesters, naphthalate derived polyesters, succinate-derived polyesters, and furanoate-derived polyesters; or combinations thereof; • from 1.5 to 40 weight percent of an amorphous high heat copolyester resin that is produced by polymerizing a monomer mixture comprising a mixture of spiroglycol, ethylene glycol and terephthalic acid and or an ester thereof (SPG PET) and having a glass transition temperature (T g) of 85 to 130°C measured according to the method detailed in the description; and • from 0.01 to 5 weight percent of an antioxidant, mold release agent, stabilizer, or a combination thereof. • from 10 to 80 weight percent of a partially crystalline polyester component selected from the group consisting of terephthalate-derived polyesters, naphthalate derived polyesters, succinate-derived polyesters, and furanoate-derived polyesters; or combinations thereof; • from 1.5 to 40 weight percent of an amorphous high heat copolyester resin that is produced by polymerizing a monomer mixture comprising a mixture of spiroglycol, ethylene glycol and terephthalic acid and or an ester thereof (SPG PET) and having a glass transition temperature (T g) of 85 to 130°C measured according to the method detailed in the description; and • from 0.01 to 5 weight percent of an antioxidant, mold release agent, stabilizer, or a combination thereof.
A gas turbine engine frame, comprising: a generally annular outer casing disposed substantially coaxially about a centerline axis, the outer casing comprising an outer surface facing radially outward away from the centerline axis and an inner surface facing radially inward toward the centerline axis; a hub disposed within the outer casing and spaced radially inward from the inner surface of the outer casing, the hub being arranged substantially coaxially about the centerline axis; a plurality of circumferentially spaced apart struts (106,108...120) fixedly joined to the hub and the outer casing, individual struts extending generally radially outwardly from the hub to the outer casing; and a stiffening rail (134,136) monolithically formed with the outer casing circumferentially between two of the struts, the stiffening rail having a height radially outward beyond the outer surface of the outer casing; and a depth radially inward beyond the inner surface of the outer casing between the first strut and the second strut; characterised in that the depth of the stiffening rail (134,136) increases from a minimum approximate the first strut to a maximum substantially midway between the first strut and the second strut, and wherein the height of the stiffening rail (134,136) decreases from a maximum approximate the first strut to a minimum substantially midway between the first strut and the second strut. a generally annular outer casing disposed substantially coaxially about a centerline axis, the outer casing comprising an outer surface facing radially outward away from the centerline axis and an inner surface facing radially inward toward the centerline axis; a hub disposed within the outer casing and spaced radially inward from the inner surface of the outer casing, the hub being arranged substantially coaxially about the centerline axis; a plurality of circumferentially spaced apart struts (106,108...120) fixedly joined to the hub and the outer casing, individual struts extending generally radially outwardly from the hub to the outer casing; and a stiffening rail (134,136) monolithically formed with the outer casing circumferentially between two of the struts, the stiffening rail having a height radially outward beyond the outer surface of the outer casing; and a depth radially inward beyond the inner surface of the outer casing between the first strut and the second strut; characterised in that the depth of the stiffening rail (134,136) increases from a minimum approximate the first strut to a maximum substantially midway between the first strut and the second strut, and wherein the height of the stiffening rail (134,136) decreases from a maximum approximate the first strut to a minimum substantially midway between the first strut and the second strut.