mhurhangee/ep-ind-claims huggingface dataset:
A controller for a temperature management system (4, 6) for heating and/or cooling a room (2, 20) in accordance with a schedule of set point temperatures over a control period, the controller comprising a data processor arrangement; a temperature input for receiving a signal indicative of the current temperature in the room (2, 20); a control output for supplying control signals to the system; and at least one electronic memory for storing said schedule of set point temperatures and a relationship, based on known heating or cooling characteristics of the room (2, 20), between the energy supplied to the system in a portion of the control period and the predicted temperature of the room (2, 20) during that portion and subsequent portions of the control period, characterised in that the electronic memory is also for storing a first parameter value representative of the cost of supplying said energy and a second parameter value representative of a predetermined acceptability of variations of the actual or predicted temperature of the room from the set point schedule, in that the data processor arrangement is operable to calculate, for each said portion, the energy to be supplied to the system in order for a plurality of parameter values to satisfy a predetermined criterion, said plurality of parameter values comprising said first parameter value and said second parameter value, and to cause the system to supply the calculated amount of energy to the room in each said portion, in that the second parameter value comprises a non-linear function of the difference between the set point temperature for a portion of the control period and the actual or predicted temperature in that portion, and in that said non-linear function gives a linear relationship between the second parameter and said difference for actual or predicted temperatures below the corresponding set points and a value of zero for actual or predicted temperatures above the corresponding set points, the sum of the first and second parameters, cost Q, being given by: Cost Q = ∑ k Q k E E k + Q k T f T sp, k − T R where the function f (Δ T) specifies the cost of an individual temperature's variation from set point, and f ( x) = 0 ( x < 0); f ( x) = x ( x > 0), Q k E is an energy cost multiplier and Q k T is a comfort cost multiplier. wherein the controller is for use in a temperature management system having a heat pump having a co-efficient of performance, and wherein the energy cost multiplier is variable to take into account variations in the thermal efficiency of the temperature management system, and comprises the cost per unit energy supplied to the system divided by the co-efficient of performance of the heat pump.
A carrier (200, 400) for storing and transporting cryogenic liquids, comprising: a tank (202, 402) configured to store and transport a cryogenic liquid having a liquefaction temperature; a first pump (314, 414) configured to fill the tank with the cryogenic liquid, and empty the tank of a first portion of the cryogenic liquid, thereby leaving a second portion of the cryogenic liquid in the tank; a tank structure (310, 322, 330, 332) that focuses the second portion of the cryogenic liquid at a location on a bottom of the tank;and a second pump (312, 412) located at the location and configured to empty the tank of the second portion of the cryogenic liquid, whereby a residual portion of the cryogenic liquid is left therein; characterized by further comprising a focused heating structure (350, 360) configured to deliver heat to the location, wherein the heat is configured to raise a temperature of the residual portion above the liquefaction temperature, thereby vaporizing all of the residual portion.. a tank (202, 402) configured to store and transport a cryogenic liquid having a liquefaction temperature; a first pump (314, 414) configured to fill the tank with the cryogenic liquid, and empty the tank of a first portion of the cryogenic liquid, thereby leaving a second portion of the cryogenic liquid in the tank; a tank structure (310, 322, 330, 332) that focuses the second portion of the cryogenic liquid at a location on a bottom of the tank;and a second pump (312, 412) located at the location and configured to empty the tank of the second portion of the cryogenic liquid, whereby a residual portion of the cryogenic liquid is left therein; characterized by further comprising a focused heating structure (350, 360) configured to deliver heat to the location, wherein the heat is configured to raise a temperature of the residual portion above the liquefaction temperature, thereby vaporizing all of the residual portion..
An application server for managing applications for a mobile communication device (101a, b) in a communication network, wherein the mobile communication device (101a, b) is configured to communicate with the application server via a wireless base station, wherein the application server is part of a logic subnetwork of the communication network, wherein the application server comprises: a communication interface which is configured to receive a position information signal from the wireless base station, wherein the position information signal comprises information concerning a position of the mobile communication device (101a, b); and a processor which is configured to enable an application for the mobile communication device (101a, b) via the communication interface on the basis of the position information signal, wherein the processor is further configured to induce inclusion of the mobile communication device (101a, b) into the logic subnetwork and to induce provisioning of the application, enabled for the mobile communication device (101a, b), as a resource to the logic subnetwork, on the basis of the position information signal. a communication interface which is configured to receive a position information signal from the wireless base station, wherein the position information signal comprises information concerning a position of the mobile communication device (101a, b); and a processor which is configured to enable an application for the mobile communication device (101a, b) via the communication interface on the basis of the position information signal, wherein the processor is further configured to induce inclusion of the mobile communication device (101a, b) into the logic subnetwork and to induce provisioning of the application, enabled for the mobile communication device (101a, b), as a resource to the logic subnetwork, on the basis of the position information signal.
A chimeric poliovirus construct comprising a Sabin type I strain of poliovirus with a human rhinovirus 2 internal ribosome entry site (IRES) in said poliovirus' 5' untranslated region between said poliovirus' cloverleaf and said poliovirus' open reading frame, and a lymphodepleting chemotherapeutic agent for use in treating a tumor in a patient, wherein the lymphodepleting chemotherapeutic agent is administered to the patient when growth of the tumor progresses after the chimeric poliovirus construct is administered.
Hearing system comprising a hearing device (10, 20) having - a signal processing device for processing an input sound to produce an output sound (A1, A2) and - an analysis device in order to analyse a current hearing situation, and a remote control having a visualization device, - wherein the signal processing device or a processing device of the remote control with a data connection to said signal processing device has a perceptive model implemented in it by means of which a psychoacoustic variable is providable for the output sound (A1, A2), and - wherein the visualization device is connected to the signal processing device or the processing device in order to visualize a value of the psychoacoustic variable, characterized in that - at least one psychoacoustic reference value is generable from applicable analysis values of the analysis device by means of the perceptive model of the signal processing device or processing device regardless of a setting of the signal processing device, said reference value being visually presented by the visualization device together with a psychoacoustic value relating to a current setting of the signal processing device. - a signal processing device for processing an input sound to produce an output sound (A1, A2) and - an analysis device in order to analyse a current hearing situation, and a remote control having a visualization device, - wherein the signal processing device or a processing device of the remote control with a data connection to said signal processing device has a perceptive model implemented in it by means of which a psychoacoustic variable is providable for the output sound (A1, A2), and - wherein the visualization device is connected to the signal processing device or the processing device in order to visualize a value of the psychoacoustic variable, characterized in that - at least one psychoacoustic reference value is generable from applicable analysis values of the analysis device by means of the perceptive model of the signal processing device or processing device regardless of a setting of the signal processing device, said reference value being visually presented by the visualization device together with a psychoacoustic value relating to a current setting of the signal processing device.
An organic electroluminescent device containing a cathode, an anode, and one or more organic layers containing plural light emitting materials between the cathode and the anode, wherein the organic electroluminescent device is a multiple wavelength light emitting organic electroluminescent device emitting light from the plural light emitting materials, which satisfies the following A, B and C: A. All of the plural light emitting materials are fluorescent materials, B. in the light thus emitted from the light emitting materials, light that has the shortest wavelength contains delayed fluorescent light, and C. the light emitting material that emits light having the shortest wavelength also functions as a host material of another light emitting material; or the light emitting material that emits light having the shortest wavelength forms one of the organic layers alone. A. All of the plural light emitting materials are fluorescent materials, B. in the light thus emitted from the light emitting materials, light that has the shortest wavelength contains delayed fluorescent light, and C. the light emitting material that emits light having the shortest wavelength also functions as a host material of another light emitting material; or the light emitting material that emits light having the shortest wavelength forms one of the organic layers alone.
A method for producing a forged crankshaft, the crankshaft including: journals (J, J1 to J5) that define a center of rotation; crank pins (P, P1 to P4) that are eccentric with respect to the journals (J, J1 to J5); and crank arms (A, A1 to A8), each of the crank arms (A, A1 to A8) connecting a corresponding one of the journals (J, J1 to J5) to a corresponding one of the crank pins (P, P1 to P4), the method comprising: a die forging step, including forming a finish forged blank with flash, the finish forged blank including a shape of the crankshaft, wherein the crank arm (A, A1 to A8) has an excess projecting portion (Aaa, Aba) at an outer periphery of each of side portions (Aa, Ab) near the crank pin (P, P1 to P4), the excess projecting portion (Aaa, Aba) projecting from the outer periphery; a trimming step, including removing the flash from the finish forged blank formed in the die forging step; and an excess projecting portion crushing step, including crushing the excess projecting portion (Aaa, Aba) of the crank arm (A, A1 to A8) by pressing the crankshaft using a pair of first dies (10A, 10B), the crankshaft being obtained by removing the flash in the trimming step. a die forging step, including forming a finish forged blank with flash, the finish forged blank including a shape of the crankshaft, wherein the crank arm (A, A1 to A8) has an excess projecting portion (Aaa, Aba) at an outer periphery of each of side portions (Aa, Ab) near the crank pin (P, P1 to P4), the excess projecting portion (Aaa, Aba) projecting from the outer periphery; a trimming step, including removing the flash from the finish forged blank formed in the die forging step; and an excess projecting portion crushing step, including crushing the excess projecting portion (Aaa, Aba) of the crank arm (A, A1 to A8) by pressing the crankshaft using a pair of first dies (10A, 10B), the crankshaft being obtained by removing the flash in the trimming step.
Method carried out by a computer terminal for assisting a user in setting a mechanism of a mechanical timepiece comprising at least one function and a display of a value related to this function, the method comprising the following steps: - capturing an image or a sequence of images of the mechanical timepiece by means of the computer terminal comprising an image acquisition device and a display area; - determining the setting to be made to the mechanism of this function according to said image or sequence of images, and - displaying on the display area of the computer terminal a sequence of instructions to be performed by the user on the timepiece for said setting of said mechanism. - capturing an image or a sequence of images of the mechanical timepiece by means of the computer terminal comprising an image acquisition device and a display area; - determining the setting to be made to the mechanism of this function according to said image or sequence of images, and - displaying on the display area of the computer terminal a sequence of instructions to be performed by the user on the timepiece for said setting of said mechanism.
A method for applying an aerodynamically functional coating to an exterior surface, the method comprising the steps of: preparing an uncoated substrate surface to obtain a prepared substrate surface configured to receive an aerodynamically functional coating; applying a primer on the prepared substrate surface to obtain a primed substrate surface with a primer layer; applying and curing a basecoat field color on the primer layer to obtain a basecoat field color layer; masking for a basecoat design color on the basecoat field color layer; applying and curing the basecoat design color on the basecoat field color layer to obtain a first basecoat design color layer; masking for, applying, and curing any subsequent basecoat design color layers on the basecoat field color layer; applying and curing a clearcoat on any visible basecoat field color and any visible basecoat design color to obtain a first clearcoat layer; mechanically aero-contouring a plurality of coating edges to reduce one or more coating edge peaks and coating edge angles of abutting coating edges between the basecoat design color layers, obtain an aero-contoured surface that retains desired flow characteristics and ensures aerodynamic performance; applying to the aero-contoured surface additional clearcoat which is cured, to obtain one or more additional clearcoat layers; and, obtaining a coated substrate surface coated with the aerodynamically functional coating formed by the basecoat field color layer, the first basecoat design color layer, any subsequent basecoat design color layers, the first clearcoat layer, and the one or more additional clearcoat layers. preparing an uncoated substrate surface to obtain a prepared substrate surface configured to receive an aerodynamically functional coating; applying a primer on the prepared substrate surface to obtain a primed substrate surface with a primer layer; applying and curing a basecoat field color on the primer layer to obtain a basecoat field color layer; masking for a basecoat design color on the basecoat field color layer; applying and curing the basecoat design color on the basecoat field color layer to obtain a first basecoat design color layer; masking for, applying, and curing any subsequent basecoat design color layers on the basecoat field color layer; applying and curing a clearcoat on any visible basecoat field color and any visible basecoat design color to obtain a first clearcoat layer; mechanically aero-contouring a plurality of coating edges to reduce one or more coating edge peaks and coating edge angles of abutting coating edges between the basecoat design color layers, obtain an aero-contoured surface that retains desired flow characteristics and ensures aerodynamic performance; applying to the aero-contoured surface additional clearcoat which is cured, to obtain one or more additional clearcoat layers; and, obtaining a coated substrate surface coated with the aerodynamically functional coating formed by the basecoat field color layer, the first basecoat design color layer, any subsequent basecoat design color layers, the first clearcoat layer, and the one or more additional clearcoat layers.
A tongue blank consisting of at least two flexible tongues, which tongues are each designed to connect and lock floor panels, wherein the tongues are of an elongated shape and are made of polymer material and designed to be fixed into a groove such that a part of the tongue is to be displaced during locking and wherein the tongues comprise a extruded V- or U-shaped sections, where an outer or inner part thereof is flexible and configured to cause at least a part of the section to move essentially horizontally during vertical folding to lock the floor panels in a vertical direction, and wherein the tongues are adapted to be fixed into a sidewardly open groove of an edge portion of the floor panel, wherein the shape and flexibility of the tongues allows that a part of the tongue can bend in length direction and spring back in such a way that a projecting portion of said part of the section is displaced in the range of 0.1 mm to 3 mm.
A fluorogenic compound comprising at least two acceptor-containing moieties and a donor-containing moiety arranged such that: (i) said at least two acceptor-containing moieties and said donor-containing moiety form a conjugated π-electron system devoid of resonating electrons, such that the compound is incapable of emitting NIR infrared light; and (ii) upon a chemical event, said donor-containing moiety rearranges so as to transfer π-electrons to one of said acceptor-containing moieties and, as a result, said acceptor-containing moiety becomes a donor-containing moiety to at least one another acceptor-containing moiety, to thereby enable emission of near infrared light, the fluorogenic compound having the general Formula I: wherein: Q 1 and Q 2 are each independently an acceptor-containing moiety; A 1 and A 2 are each an acceptor group in said acceptor-containing moieties; Z and Y form said donor-containing moiety; L 1 and L 2 are each independently a linking moiety or absent, and each is such that said Q 1 and Q 2 acceptor-containing moieties and said Z-Y donor-containing moiety form said conjugated π-electron system; and said donor-containing moiety comprises an electron donating group that contains an oxygen, nitrogen or sulfur atom. (i) said at least two acceptor-containing moieties and said donor-containing moiety form a conjugated π-electron system devoid of resonating electrons, such that the compound is incapable of emitting NIR infrared light; and (ii) upon a chemical event, said donor-containing moiety rearranges so as to transfer π-electrons to one of said acceptor-containing moieties and, as a result, said acceptor-containing moiety becomes a donor-containing moiety to at least one another acceptor-containing moiety, to thereby enable emission of near infrared light, Q 1 and Q 2 are each independently an acceptor-containing moiety; A 1 and A 2 are each an acceptor group in said acceptor-containing moieties; Z and Y form said donor-containing moiety; L 1 and L 2 are each independently a linking moiety or absent, and each is such that said Q 1 and Q 2 acceptor-containing moieties and said Z-Y donor-containing moiety form said conjugated π-electron system; and said donor-containing moiety comprises an electron donating group that contains an oxygen, nitrogen or sulfur atom.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, reconfiguration message including a physical downlink control channel, PDCCH, configuration for a downlink bandwidth part, BWP, of a special cell, SpCell, wherein the RRC reconfiguration message includes one or more search space configurations, one or more control resource set, CORESET, configurations, information on a power saving network temporary identifier, PS-RNTI, and information on a PS offset, wherein a search space configuration among the one or more search space configurations is associated with a wakeup signal, WUS, and the search space configuration is associated with a CORESET configuration among the one or more CORESET configurations; identifying a PDCCH monitoring occasion for the WUS based on the search space configuration and the CORESET configuration; and receiving, from the base station on the SpCell, downlink control information including the WUS by monitoring the PDCCH monitoring occasion based on the PS-RNTI and the PS offset, wherein the search space configuration and the CORESET configuration are BWP specific for the downlink BWP, and wherein the PS-RNTI and the PS offset are cell specific for the SpCell. receiving, from a base station, a radio resource control, RRC, reconfiguration message including a physical downlink control channel, PDCCH, configuration for a downlink bandwidth part, BWP, of a special cell, SpCell, wherein the RRC reconfiguration message includes one or more search space configurations, one or more control resource set, CORESET, configurations, information on a power saving network temporary identifier, PS-RNTI, and information on a PS offset, wherein a search space configuration among the one or more search space configurations is associated with a wakeup signal, WUS, and the search space configuration is associated with a CORESET configuration among the one or more CORESET configurations; identifying a PDCCH monitoring occasion for the WUS based on the search space configuration and the CORESET configuration; and receiving, from the base station on the SpCell, downlink control information including the WUS by monitoring the PDCCH monitoring occasion based on the PS-RNTI and the PS offset, wherein the search space configuration and the CORESET configuration are BWP specific for the downlink BWP, and wherein the PS-RNTI and the PS offset are cell specific for the SpCell.
The compound of formula, which compound is (5 R)- N 5 -(1-( p -tolyl)cyclopropyl)-(6 R)- N 6 -(2-(4-methylpiperazin-1-yl)ethyl)-(4 S,7 R)-[4,7-ethylene-spiro[2.4]heptane]-5,6-dicarboxamide; or a salt of the compound.