mhurhangee/ep-ind-claims huggingface dataset:
A supply system for supplying a turbomachine with fluid, the supply system comprising at least three centrifugal pumps (101a, 111a, 111b, 51) in series, and a displacement pump located downstream of at least one of the centrifugal pumps (101a, 111a, 111b) and configured to supply an injection system with fluid, the supply system comprising a low pressure pump unit comprising at least two of said centrifugal pumps in series (101a, 111a, 111b), the low pressure pump unit being located upstream of the displacement pump so as to supply the displacement pump with fluid, the supply system being subdivided at an inlet node, located downstream of the low pressure pump unit, into an injection system supply circuit and a variable geometry supply circuit, the injection system supply circuit comprising the displacement pump and being configured to supply the injection system with fluid, characterised in that the variable geometry supply circuit comprises a complementary pump unit comprising at least one centrifugal pump among said at least three centrifugal pumps, called a first centrifugal pump, and variable geometries downstream of the first centrifugal pump, and the supply system comprises a fluid recirculation branch (71, 73) which includes: an inlet located between the first centrifugal pump and the variable geometries, an outlet located upstream of the first centrifugal pump, or downstream of the variable geometries and in fluid communication with an outlet node of the variable geometry supply circuit, the outlet node being located upstream of the first centrifugal pump, such that at least one part of the fluid passing through the recirculation branch (71, 73) recirculates in the first centrifugal pump, and a vane (72, 74) located between the inlet and the outlet of the fluid recirculation branch, the vane (72, 74) comprising a obturator configured to open/close as a function of the fluid temperature.
High-pressure cleaning system, comprising a high-pressure cleaning apparatus having a high-pressure pump for increasing the pressure of a cleaning liquid, and comprising two or more discharge units (48, 52, 56, 60, 64, 70), for discharging the cleaning liquid, which are different from each other and which can be selectively brought into fluid communication with a pump outlet of the high-pressure pump, wherein the discharge units (48, 52, 56, 60, 64, 70) are connectable to an operating unit of the high-pressure cleaning system or wherein an operating unit is arranged on at least one discharge unit (48, 52, 56, 60, 64, 70), wherein the high-pressure cleaning system comprises an input unit via which at least one output parameter is predeterminable by a user, wherein the at least one output parameter is adjusted, in accordance with the predetermination, by way of a control unit (82, 98), coupled to the input unit, of the high-pressure cleaning system, and wherein the high-pressure cleaning system comprises an output unit coupled to the control unit (82, 98), characterized in that on the output unit an indication is provided depending on the predetermination made by the user, said indication comprising a recommendation (118, 120, 122) of at least one discharge unit (48, 52, 56, 60, 64, 70).
A system configured to automatically evaluate cardiovascular treatment options for a patient, the system comprising: at least one computer system configured to: create a three-dimensional model representing at least a portion of the patient's heart or vasculature based on patient-specific data regarding a geometry of the patient's heart or vasculature; create a reduced order model relating to a blood flow characteristic of the patient's heart or vasculature, based on the three-dimensional model; modify the reduced order model automatically for each of a plurality of stent or bypass treatment options for treating at least a portion of the patient's heart, using respective resistance values estimated to be associated with a type and location of the treatment option; determine resistance values associated with said plurality of stent or bypass treatment options, for use in modifying the reduced order model, from historical data of known resistance values associated with a known dimension and geometry of previously implemented stents or bypass grafts; determine, for each of the plurality of stent or bypass treatment options, a respective value of a blood flow characteristic, by solving the reduced order model modified using the respective determined resistance value estimated for said treatment option; and automatically identify one of the plurality of stent or bypass treatment options that optimizes an objective function of said determined blood flow characteristic of the patient's heart or vasculature. create a three-dimensional model representing at least a portion of the patient's heart or vasculature based on patient-specific data regarding a geometry of the patient's heart or vasculature; create a reduced order model relating to a blood flow characteristic of the patient's heart or vasculature, based on the three-dimensional model; modify the reduced order model automatically for each of a plurality of stent or bypass treatment options for treating at least a portion of the patient's heart, using respective resistance values estimated to be associated with a type and location of the treatment option; determine resistance values associated with said plurality of stent or bypass treatment options, for use in modifying the reduced order model, from historical data of known resistance values associated with a known dimension and geometry of previously implemented stents or bypass grafts; determine, for each of the plurality of stent or bypass treatment options, a respective value of a blood flow characteristic, by solving the reduced order model modified using the respective determined resistance value estimated for said treatment option; and automatically identify one of the plurality of stent or bypass treatment options that optimizes an objective function of said determined blood flow characteristic of the patient's heart or vasculature.
A medical apparatus comprising a computer system equipped with a boot-loader to operate the medical apparatus using at least one loadable software, the boot-loader comprising at least one not-readable decryption algorithm for the software, characterized in that the boot-loader furthermore comprises at least one not-readable decoding key.
A device for surface treatment of workpieces, comprising at least one treatment tank to contain an abrasive mixture, and at least one manipulation assembly with workpiece holders for holding the workpieces, in which the workpiece holders can be set in motion with respect to the treatment tank in such a way as to put the workpieces in contact with the abrasive mixture, characterized in that the workpiece holders can be set in motion according to four degrees of freedom of movement, wherein each of the four degrees of freedom of movement of the workpiece holders with respect to the treatment tank is independent and simultaneous with respect to the other degrees of freedom of movement, and wherein the direction and the speed of each individual movement of the workpiece holders can be controlled and configured in an independent way by a control means as a function of a chosen treatment program. the workpiece holders can be set in motion according to four degrees of freedom of movement, wherein each of the four degrees of freedom of movement of the workpiece holders with respect to the treatment tank is independent and simultaneous with respect to the other degrees of freedom of movement, and wherein the direction and the speed of each individual movement of the workpiece holders can be controlled and configured in an independent way by a control means as a function of a chosen treatment program.
Electric motorcycle which, being of the type which comprises a frame on which are assembled, at least: a steering front wheel, a matrix rear wheel started up by an electric motor, a seat and a battery or electric batteries for the charging of the motor through regulation and control mechanisms managed by the user, wherein the battery or batteries are associated with a removable battery carrier wherein the removable battery carrier comprises a front end; a rear end, a lower surface, an upper surface and two lateral surfaces; and a corresponding unfolding handle located at the rear end of said removable battery carrier, as well as a set of lower supporting wheels, and lateral rails in a elevated plane from the supporting wheels as well as connecting plugs facing towards the front end of the battery carrier, wherein the electric motorcycle is provided with a cavity for the assembly the battery carrier in the operate position, said cavity comprises transversal rails (17,18) for the displacement of the lateral rails disposed on the battery carrier during assembly and disassembly of the battery carrier in the motorcycle, said cavity having an outlet to connect the connection plugs of the battery carrier in an operating assembly position and a fastening mechanism of the battery carrier in an operating assembly position, characterized in that the transversal rails comprise upper rails and lower rails for supporting and displacing the lateral rails of the battery carrier during assembly and disassembly, having envisaged that said upper transversal rails of the cavity of the motorcycle will present at least one descendant section towards its front end.
Assembly for compensating reactive power and active power in a high-voltage network, wherein the assembly comprises a first converter CW, which is designed for the compensation of active power, and a second series-connected converter CVAR, which is designed for the compensation of reactive power, whereby the voltage supply or output from the assembly corresponds to the sum of the voltages of the first converter CW and the second converter CVAR, wherein the converters CW and CVAR each comprise H-bridges, characterized in that antiparallel-connected thyristors are connected in parallel to the individual H-bridges of the converter CW.
Sensor for position measurement of a device movable relative to the sensor, the sensor having a printed circuit board (1; 1') and a metal body (2; 2'), wherein the printed circuit board (1; 1') has a first region (1.1), in which a detector (1.12) is arranged, and a second region (1.2), in which there are arranged electronic components (1.21), which are connected electrically to the detector (1.12), the metal body (2; 2') has a first layer (2.1) with a first surface and a second layer (2.2, 2.2') with a second surface, wherein the first region (1.1) of the printed circuit board (1; 1') is fixed to the first surface and the second region (1.2) of the printed circuit board (1; 1') is fixed to the second surface, wherein the first layer (2.1) and the second layer (2.2, 2.2') of the metal body (2; 2') are arranged between the first region (1.1) and the second region (1.2) of the printed circuit board (1; 1'), so that the first region (1.1) is arranged in a first plane and the second region (1.2) is arranged in a second plane, wherein the metal body (2; 2') is configured in one piece and has a flexible web (2.3), which runs in a curve and connects the first layer (2.1) to the second layer (2.2, 2.2'). has a first region (1.1), in which a detector (1.12) is arranged, and a second region (1.2), in which there are arranged electronic components (1.21), which are connected electrically to the detector (1.12), has a first layer (2.1) with a first surface and a second layer (2.2, 2.2') with a second surface, wherein
A luminance processor arranged to calculate an output luminance of a pixel of an output image (Im_LDR; Im3000nit) having a second luminance dynamic range characterized by a second peak brightness (PB_LDR; PB_MDR) from an input luminance of an input color of a spatially collocated pixel of an input image (MAST _HDR) having a first luminance dynamic range characterized by a first peak brightness (PB HDR), characterized in that the luminance processor comprises: - a gain calculation unit arranged to calculate a multiplication factor (gL) which multiplication factor is defined for the input luminance of any input color of an image pixel of the input image based on a luminance mapping function indicating how to adjust the input luminance to become a corresponding intermediate output luminance, by calculating the multiplication factor as the division of an output of the luminance mapping function for the input luminance divided by that input luminance: gL=FLM /L; - a gamut overflow calculator arranged to calculate an overflow measure being a multiplication of a maximum of a linear red, green and blue color component of the input color by the multiplication factor (gL); - a gain factor modification unit arranged to determine a lower alternative gain factor (F1(gL)) in case the overflow measure is larger than a threshold, and arranged to keep the multiplication factor (gL) otherwise, and arranged to output as a final gain factor (gF) the lower alternative gain factor (F1(gL)) in case the overflow measure is larger than the threshold or the multiplication factor (gL) otherwise; and - a multiplier to multiply the respective components of the input color (R'G'B'_nrm) by the final gain factor (gF) to obtain the respective components of the output color (R'G'B'_HDR) which has the output luminance. - a gain calculation unit arranged to calculate a multiplication factor (gL) which multiplication factor is defined for the input luminance of any input color of an image pixel of the input image based on a luminance mapping function indicating how to adjust the input luminance to become a corresponding intermediate output luminance, by calculating the multiplication factor as the division of an output of the luminance mapping function for the input luminance divided by that input luminance: gL=FLM /L; - a gamut overflow calculator arranged to calculate an overflow measure being a multiplication of a maximum of a linear red, green and blue color component of the input color by the multiplication factor (gL); - a gain factor modification unit arranged to determine a lower alternative gain factor (F1(gL)) in case the overflow measure is larger than a threshold, and arranged to keep the multiplication factor (gL) otherwise, and arranged to output as a final gain factor (gF) the lower alternative gain factor (F1(gL)) in case the overflow measure is larger than the threshold or the multiplication factor (gL) otherwise; and - a multiplier to multiply the respective components of the input color (R'G'B'_nrm) by the final gain factor (gF) to obtain the respective components of the output color (R'G'B'_HDR) which has the output luminance.
An apparatus for use in a Call Session Control Function, CSCF in an IP Multimedia Subsystem, IMS, the apparatus comprising: processor circuitry; a storage unit storing instructions executable by said processor circuitry, a transmitter and a receiver, whereby the apparatus is characterized in being operative to: prior to the set-up of a communications session involving a User Equipment: indicate to a Policy Charging and Rules Function, PCRF, that the CSCF requires RAT change notifications for the User Equipment; upon receipt of a SIP REGISTER message from the User Equipment, include a capability indication that the CSCF supports RAT change notifications in the SIP REGISTER message and forward the message to one or more network nodes; and receive from the one or more network nodes a SIP SUBSCRIBE message containing a requirement indication, which indicates that the network node requires RAT change notifications in respect of said User Equipment; and on receipt of a RAT change notification for the User Equipment by the CSCF from the PCRF: propagate the RAT change notification to each of the one or more network nodes from which a requirement indication has been received by means of a SIP NOTIFY message or messages. prior to the set-up of a communications session involving a User Equipment: indicate to a Policy Charging and Rules Function, PCRF, that the CSCF requires RAT change notifications for the User Equipment; upon receipt of a SIP REGISTER message from the User Equipment, include a capability indication that the CSCF supports RAT change notifications in the SIP REGISTER message and forward the message to one or more network nodes; and receive from the one or more network nodes a SIP SUBSCRIBE message containing a requirement indication, which indicates that the network node requires RAT change notifications in respect of said User Equipment; and indicate to a Policy Charging and Rules Function, PCRF, that the CSCF requires RAT change notifications for the User Equipment; upon receipt of a SIP REGISTER message from the User Equipment, include a capability indication that the CSCF supports RAT change notifications in the SIP REGISTER message and forward the message to one or more network nodes; and receive from the one or more network nodes a SIP SUBSCRIBE message containing a requirement indication, which indicates that the network node requires RAT change notifications in respect of said User Equipment; and on receipt of a RAT change notification for the User Equipment by the CSCF from the PCRF: propagate the RAT change notification to each of the one or more network nodes from which a requirement indication has been received by means of a SIP NOTIFY message or messages.
Production method for producing an electromechanical actuator, comprising the steps of: a) providing an electrical component formed as a stack, formed by a plurality of material layers that react to application of an electrical field and a plurality of electrode layers, each electrode layer being arranged between two material layers; b) applying an insulating layer to at least one peripheral region of the stack in such a way that at the peripheral region the electrode layers and the material layers are covered by the insulating layer; c) exposing at least one of the electrode layers at the peripheral region of the stack by locally removing an insulating layer region adjacent to the electrode layer and material layer regions adjacent to the electrode layer along a longitudinal axis of the stack, characterized in that an insulating layer material, a material layer material and an electrode layer material are so selected, and wherein removal parameters of a removing device for removing the insulating layer region and the material layer regions are so set that a first removal rate (R I) of the insulating layer material is much greater than a second removal rate (R W) of the material layer material, and that the second removal rate (R W) of the material layer material is much greater than a third removal rate (R E) of the electrode layer material. a) providing an electrical component formed as a stack, formed by a plurality of material layers that react to application of an electrical field and a plurality of electrode layers, each electrode layer being arranged between two material layers; b) applying an insulating layer to at least one peripheral region of the stack in such a way that at the peripheral region the electrode layers and the material layers are covered by the insulating layer; c) exposing at least one of the electrode layers at the peripheral region of the stack by locally removing an insulating layer region adjacent to the electrode layer and material layer regions adjacent to the electrode layer along a longitudinal axis of the stack,
A bearing, comprising: a substratum; and a self-lubricating surface coating composition comprising a layered structure containing a cured thermosetting acrylate adhered to the top of a phenolic resin and the phenolic resin is adhered to said substratum. a substratum; and a self-lubricating surface coating composition comprising a layered structure containing a cured thermosetting acrylate adhered to the top of a phenolic resin and the phenolic resin is adhered to said substratum.
A lithium secondary battery, comprising: a cathode; a separator; and an anode including an anode current collector and an anode active material layer formed on the anode current collector and facing the cathode with the separator interposed therebetween, wherein the anode active material layer including, a first anode active material layer formed on the anode current collector and including a first anode active material and a first anode binder containing a styrene-butadiene-based rubber binder; and a second anode active material layer formed on the first anode active material layer and including a second anode active material and a second anode binder containing a acryl-based binder, and each of the first anode active material and the second anode active material includes a silicon-based active material and a graphite-based material and contains 2 to 9.5 parts by weight of silicon with respect to the 100 part by weight of the graphite-based active material. a cathode; a separator; and an anode including an anode current collector and an anode active material layer formed on the anode current collector and facing the cathode with the separator interposed therebetween, wherein the anode active material layer including, a first anode active material layer formed on the anode current collector and including a first anode active material and a first anode binder containing a styrene-butadiene-based rubber binder; and a second anode active material layer formed on the first anode active material layer and including a second anode active material and a second anode binder containing a acryl-based binder, and a first anode active material layer formed on the anode current collector and including a first anode active material and a first anode binder containing a styrene-butadiene-based rubber binder; and a second anode active material layer formed on the first anode active material layer and including a second anode active material and a second anode binder containing a acryl-based binder, and each of the first anode active material and the second anode active material includes a silicon-based active material and a graphite-based material and contains 2 to 9.5 parts by weight of silicon with respect to the 100 part by weight of the graphite-based active material.
Electrode body of an electrode arrangement for the electrical stimulation of tissue of a living being, in particular for neurostimulation, wherein the electrode body is configured to be arranged at a location between the skull and the head ridge of a living being, and wherein the electrode body has a stimulation surface which is adapted to be brought into contact with the tissue of the living being in order to generate electrical stimulation of the tissue by alternating current and/or direct current pulses, characterized in that the electrode body has recesses arranged distributed over the circumference for fixing the electrode body in a carrier material.