mhurhangee/ep-ind-claims huggingface dataset:
A sampling analog-to-digital converter, ADC, that includes sample-and-hold, S/H, circuitry operating in acquisition and conversion phases, and comprising: a first S/H circuit comprising a plurality of capacitors across which a first average voltage value is maintained in the conversion phase, an array of switches controllable to couple each of the plurality of capacitors to one of at least two different voltages during the conversion phase based on respective first control signal values applied to the array of switches, and a dielectric absorption- suppressing circuit being configured to, in an additional phase after completing the conversion phase and before entering the acquisition phase, invert at least one of the control signal values to couple at least one capacitor of the plurality of capacitors to a different one of the at least two different voltages to counteract a dielectric absorption response of the plurality of capacitors when maintaining the first average voltage value during a subsequent conversion phase, and such that a second average voltage value being negatively correlated with the first average voltage value is maintained across the plurality of capacitors. a first S/H circuit comprising a plurality of capacitors across which a first average voltage value is maintained in the conversion phase, an array of switches controllable to couple each of the plurality of capacitors to one of at least two different voltages during the conversion phase based on respective first control signal values applied to the array of switches, and a dielectric absorption- suppressing circuit being configured to, in an additional phase after completing the conversion phase and before entering the acquisition phase, invert at least one of the control signal values to couple at least one capacitor of the plurality of capacitors to a different one of the at least two different voltages to counteract a dielectric absorption response of the plurality of capacitors when maintaining the first average voltage value during a subsequent conversion phase, and such that a second average voltage value being negatively correlated with the first average voltage value is maintained across the plurality of capacitors.
A compound of Formula IIIa: or a pharmaceutically acceptable salt thereof, wherein, R 1 is selected from the group consisting of H and C 1 -C 6 -alkyl; R 2 is selected from the group consisting of H, C 1 -C 6 -alkyl, and C 6 -aryl; R 3 is selected from the group consisting of H, C 1 -C 6 -alkyl, and C 6 -aryl; or R 2 and R 3 together form a C 2 -C 6 -heterocyclyl; and R 4 and R 5 together form a heterocyclyl selected from the group consisting of morpholinyl, piperidinyl, piperazinyl, and pyrrolidinyl, wherein the morpholinyl, piperidinyl, piperazinyl, and pyrrolidinyl is optionally substituted by 1 or 2 of C 1 -C 6 -alkyl, halo, or hydroxy. R 1 is selected from the group consisting of H and C 1 -C 6 -alkyl; R 2 is selected from the group consisting of H, C 1 -C 6 -alkyl, and C 6 -aryl; R 3 is selected from the group consisting of H, C 1 -C 6 -alkyl, and C 6 -aryl; or R 2 and R 3 together form a C 2 -C 6 -heterocyclyl; and R 4 and R 5 together form a heterocyclyl selected from the group consisting of morpholinyl, piperidinyl, piperazinyl, and pyrrolidinyl, wherein the morpholinyl, piperidinyl, piperazinyl, and pyrrolidinyl is optionally substituted by 1 or 2 of C 1 -C 6 -alkyl, halo, or hydroxy.
Machine for preparing beverages from at least one edible aromatic substance, including coffee of the espresso type and similar, presenting: - a plurality of electrical energy consumers, including fluid compression means and fluid heating means, - at least one internal energy source, - means for connecting to at least one external energy source, and - an energy management device adapted so it can regulate the operation at least of said fluid compression means and fluid heating means, characterized in that said internal energy source presents a maximum nominal storage capacity of 120 Wh, preferentially of 80 Wh and a discharge capacity of at least 5 C, preferentially at least 10 C, and in that said energy management device is provided so that it regulates the operation of said energy consumers, including at least one of said fluid compression means and fluid heating means, by means of a control routine of the objective function type presenting at least one objective including minimization of total energy supplied to said energy consumers in each beverage extraction cycle, whereby the measurement of the energy consumption is based upon the measurement of the tension and intensity of current and of the heating temperature in the fluid heating means, and whereby the energy management device is provided so that actuates a variation of the frequency and/or of the velocity of the fluid compression means. - a plurality of electrical energy consumers, including fluid compression means and fluid heating means, - at least one internal energy source, - means for connecting to at least one external energy source, and - an energy management device adapted so it can regulate the operation at least of said fluid compression means and fluid heating means,
A method of imparting pearlescence to a food product, the method comprising: applying a ready-to-use dispersion to a food product using confectionary panning, wherein the ready-to-use dispersion comprises a pearlescent pigment, a cellulose derivative in an amount sufficient to enhance viscosity of the dispersion and impart a barrier coat to the food product, and a wax in an amount sufficient to impart a gloss to the food product, wherein the dispersion does not contain a shellac, wherein the cellulose derivative comprises hydroxypropyl cellulose and wherein the wax comprises at least one of carnauba wax, beeswax, candelilla wax, and combinations thereof. applying a ready-to-use dispersion to a food product using confectionary panning, wherein the ready-to-use dispersion comprises a pearlescent pigment, a cellulose derivative in an amount sufficient to enhance viscosity of the dispersion and impart a barrier coat to the food product, and a wax in an amount sufficient to impart a gloss to the food product, wherein the dispersion does not contain a shellac, wherein the cellulose derivative comprises hydroxypropyl cellulose and wherein the wax comprises at least one of carnauba wax, beeswax, candelilla wax, and combinations thereof.
A method of transmitting channel quality data for channels in a wireless communication system comprising: determining a plurality of channel quality indicators for a corresponding plurality of frequency intervals (f 1...f N) of a frequency band for transmitting over one of said channels; selecting, from said channel quality indicators, a plurality M of best channel quality indicators and their corresponding respective frequency intervals; and transmitting said plurality M of best channel quality indicators and an identifier of their respective frequency intervals; characterised in that the method comprises: generating slope data comprising a respective difference between each best channel quality indicator of the plurality M of best channel quality indicators and the channel quality indicator of at least one respective adjacent frequency interval; and transmitting said slope data. determining a plurality of channel quality indicators for a corresponding plurality of frequency intervals (f 1...f N) of a frequency band for transmitting over one of said channels; selecting, from said channel quality indicators, a plurality M of best channel quality indicators and their corresponding respective frequency intervals; and transmitting said plurality M of best channel quality indicators and an identifier of their respective frequency intervals; characterised in that the method comprises: generating slope data comprising a respective difference between each best channel quality indicator of the plurality M of best channel quality indicators and the channel quality indicator of at least one respective adjacent frequency interval; and transmitting said slope data. generating slope data comprising a respective difference between each best channel quality indicator of the plurality M of best channel quality indicators and the channel quality indicator of at least one respective adjacent frequency interval; and transmitting said slope data.
A method, comprising the steps of: monitoring power consumption of a first mobile device of a first user during user navigation along geographical routes using a map application; sending location updates from the first mobile device to a network as metadata that includes location data and speed information and location vector information, based on location update criteria, the location updates for access by other users; accessing, via the first mobile device of the first user, metadata of a second user periodically stored on the network as location updates of the second user, the metadata comprising location data and speed information and location vector information and stored on the network as the second user navigates using a map application; at a later time estimating, by the first mobile device of the first user, a realtime geographical location of the second user based on the accessed metadata at the first mobile device rather than expending power accessing the network for additional location updates of the second user to conserve power in the first mobile device and entering, by the first mobile device, a power conservation mode for a predetermined amount of time before again accessing metadata of the second user. monitoring power consumption of a first mobile device of a first user during user navigation along geographical routes using a map application; sending location updates from the first mobile device to a network as metadata that includes location data and speed information and location vector information, based on location update criteria, the location updates for access by other users; accessing, via the first mobile device of the first user, metadata of a second user periodically stored on the network as location updates of the second user, the metadata comprising location data and speed information and location vector information and stored on the network as the second user navigates using a map application; at a later time estimating, by the first mobile device of the first user, a realtime geographical location of the second user based on the accessed metadata at the first mobile device rather than expending power accessing the network for additional location updates of the second user to conserve power in the first mobile device and entering, by the first mobile device, a power conservation mode for a predetermined amount of time before again accessing metadata of the second user.
A method for controlling a setting of a camera (12, 112), comprising: a) capturing, by means of a visibility independent sensing device (114, 14) mounted on a subject to be captured by the camera, three-dimensional position data and orientation data at the sensing device; b) determining, by means of a processor, position information of a region of interest on the subject to be treated by the camera, from the position data and orientation data having been captured, the region of interest and the sensing device being located at different locations; and c) outputting, via an output port of the processor, a control signal directed to the camera, in order to control in real-time the focus setting of a lens of the camera based on said position information of the region of interest. a) capturing, by means of a visibility independent sensing device (114, 14) mounted on a subject to be captured by the camera, three-dimensional position data and orientation data at the sensing device; b) determining, by means of a processor, position information of a region of interest on the subject to be treated by the camera, from the position data and orientation data having been captured, the region of interest and the sensing device being located at different locations; and c) outputting, via an output port of the processor, a control signal directed to the camera, in order to control in real-time the focus setting of a lens of the camera based on said position information of the region of interest.
Conveyor system with at least one conveyor frame, wherein the conveyor frame can be conveyed through the conveyor system wherein the conveyor system is a push-skid conveyor system wherein the conveyor frame has a lifting table, more particularly a scissor lift table, wherein the conveyor system has a conveying device for conveying the conveyor frames through the conveyor system, characterised in that the conveyor frame has a storage device for electrical energy for supplying electrical lifting table drives for lifting and/or lowering the lifting table, wherein the maximum electrical power consumption of the lifting table drive is greater than the maximum electrical power consumption of all the other electrical devices of the conveyor frame supplied by the storage device, wherein the conveyor frame has an energy recovery device for charging the storage device when lowering the table.
A method of feeding back channel information by a terminal in a multiple input multiple output, MIMO, communication system comprising a base station and a plurality of terminals, the method comprising: feeding back channel information to the base station; receiving a feedback stop signal from the base station which comprises information about a section N of a number of subframes for which feedback of the channel information is to be stopped; determining a section of a number of subframes for which feedback of the channel information is to be stopped, based on the feedback stop signal; stopping feedback of the channel information for the determined section; and feeding back the channel information to the base station at a feedback resume point in time corresponding to the determined section wherein the section N is proportional to the number of the terminals communicating with the base station and inversely proportional to a number of the transmission ranks of the base station. feeding back channel information to the base station; receiving a feedback stop signal from the base station which comprises information about a section N of a number of subframes for which feedback of the channel information is to be stopped; determining a section of a number of subframes for which feedback of the channel information is to be stopped, based on the feedback stop signal; stopping feedback of the channel information for the determined section; and feeding back the channel information to the base station at a feedback resume point in time corresponding to the determined section wherein the section N is proportional to the number of the terminals communicating with the base station and inversely proportional to a number of the transmission ranks of the base station.
Device for defogging and/or defrosting a motor vehicle with a partially or totally electric propulsion system, said device comprising means for cooling a coolant fluid using at least one electric current source, and a thermal battery, said device being configured to allow, in certain phases, the cooling of said coolant fluid by said cooling means and the storage of cold from said coolant fluid in said battery, and, in other phases, the release of cold from said battery into said coolant fluid, said device according to further comprising a defrosting radiator through which said coolant fluid and the defrosting air can pass, said radiator enabling a heat exchange to be provided between said defrosting air and said coolant fluid, the device comprising a first branch, called the thermal source branch, comprising the cooling means and the thermal battery in series, a second branch, called the defrosting branch, comprising said defrosting radiator, characterized in that said device comprises a third branch, called the charging branch, for said coolant fluid, and in that said device is configured to provide serial fluid circulation in the thermal source branch and in the defrosting branch.
A network device (319, 402) to achieve a converged fabric for FCoE, the network device (319,402) comprising: a processor; and a memory, the memory having program instructions which when executed by the processor, cause said processor of the network device (319,402) to: terminate Fiber channel Initialization Protocol, FIP, frames, generated to and by initiator (112, 312) and target devices, outside of a lossless Ethernet network; and assign a Destination ID, DID, associated with a storage area network, SAN, fabric, to a host VN_Port upon completion of an FC Login, FLOGI, procedure; characterized in that the program instructions, when executed by said processor, cause said processor of the network device (319,402) to: trigger, through a management plane, implementation of hard zoning on an edge switch using access control lists, ACLs; and allow a switch to forward frames over a lossless Ethernet fabric between two VN_Ports without the use of: a full FC software stack in the switch; and any L3 lookups. a processor; and a memory, the memory having program instructions which when executed by the processor, cause said processor of the network device (319,402) to: terminate Fiber channel Initialization Protocol, FIP, frames, generated to and by initiator (112, 312) and target devices, outside of a lossless Ethernet network; and assign a Destination ID, DID, associated with a storage area network, SAN, fabric, to a host VN_Port upon completion of an FC Login, FLOGI, procedure; terminate Fiber channel Initialization Protocol, FIP, frames, generated to and by initiator (112, 312) and target devices, outside of a lossless Ethernet network; and assign a Destination ID, DID, associated with a storage area network, SAN, fabric, to a host VN_Port upon completion of an FC Login, FLOGI, procedure; characterized in that the program instructions, when executed by said processor, cause said processor of the network device (319,402) to: trigger, through a management plane, implementation of hard zoning on an edge switch using access control lists, ACLs; and allow a switch to forward frames over a lossless Ethernet fabric between two VN_Ports without the use of: a full FC software stack in the switch; and any L3 lookups. trigger, through a management plane, implementation of hard zoning on an edge switch using access control lists, ACLs; and allow a switch to forward frames over a lossless Ethernet fabric between two VN_Ports without the use of: a full FC software stack in the switch; and any L3 lookups. a full FC software stack in the switch; and any L3 lookups.
Method for identifying a receiver of a hearing system, said hearing system comprising a hearing aid and the receiver, wherein the receiver belongs to one of a plurality of receiver types, wherein the receiver comprises two signal contacts (20, 22), wherein the hearing aid comprises two poles (24, 26) that can be connected to the signal contacts (20, 22) of the receiver, wherein the receiver can be connected to the poles (24, 26) of the hearing aid of the hearing system by means of the signal contacts (20, 22) in a manner protected against reverse polarity, wherein an electrical input signal is supplied to the receiver for sound output, wherein the input signal is a primary signal and a secondary signal is generated on the basis of the sound output, said secondary signal being dependent on the input signal, wherein the secondary signal is captured by a sensor, which generates an electrical sensor signal in dependence on the secondary signal, wherein a phase measurement is carried out by determining a phase difference between the input signal and the sensor signal, wherein the receiver is identified by assigning the receiver to one of the plurality of receiver types based on the phase difference, wherein a first receiver type and a second receiver type of the plurality of receiver types differ from each other in such that they are designed to be protected against reverse polarity in the opposite direction to each other, so that the two phase differences generated by a receiver of the first receiver type and by a receiver of the second receiver type differ by 180°.
A semi-retro reflective display comprising: an optically transparent reflective sheet having a hemispherical beaded inward surface and an opposed flat outward surface, the hemispherical beaded inward surface having a plurality of hemispherical beads; a first fluid to contact the beaded surface; a rear support disposed on an opposite side of the first fluid; a plurality of charged electrophoretically mobile particles suspended in the first fluid; and means for applying a voltage across the first fluid to selectively move the particles closely adjacent the beaded surface to frustrate total internal reflection at the beaded surface of light rays passing through the reflective sheet; the first fluid having an index of refraction smaller than the index of refraction of the reflective sheet such that the light passing through the reflective sheet substantially undergoes total internal reflection at the beaded surface when the particles are not closely adjacent the beaded surface; wherein the means for applying a voltage comprises a first electrode and second electrode; and characterised by further comprising a plurality of cross walls extending from the reflective sheet toward the rear support and separating the first fluid into a plurality of micro-cells isolated from one another by the cross walls and wherein each micro-cell includes multiple hemispherical beads. an optically transparent reflective sheet having a hemispherical beaded inward surface and an opposed flat outward surface, the hemispherical beaded inward surface having a plurality of hemispherical beads; a first fluid to contact the beaded surface; a rear support disposed on an opposite side of the first fluid; a plurality of charged electrophoretically mobile particles suspended in the first fluid; and means for applying a voltage across the first fluid to selectively move the particles closely adjacent the beaded surface to frustrate total internal reflection at the beaded surface of light rays passing through the reflective sheet; the first fluid having an index of refraction smaller than the index of refraction of the reflective sheet such that the light passing through the reflective sheet substantially undergoes total internal reflection at the beaded surface when the particles are not closely adjacent the beaded surface; wherein the means for applying a voltage comprises a first electrode and second electrode; and characterised by further comprising a plurality of cross walls extending from the reflective sheet toward the rear support and separating the first fluid into a plurality of micro-cells isolated from one another by the cross walls and wherein each micro-cell includes multiple hemispherical beads.