mhurhangee/patent-ind-claim-en huggingface dataset:
A computing device comprising: at least one processor: a memory connected to the at least one processor; and at least one program module that when loaded into the memory causes the at least one processor to: execute a single instance of universally shared generic code that works for all instantiations of corresponding generic source code to: allocate space on a stack for local data, wherein the allocated space is a stack frame , wherein the size of the stack frame is dynamically determined based on a generic context parameter received at runtime ; store local data on the stack , wherein the local data is variably sized; store a description of the stored local data on the stack ; and provide the stored description to a subsequent precise garbage collecting, GC, reporting process. a memory connected to the at least one processor; and at least one program module that when loaded into the memory causes the at least one processor to: execute a single instance of universally shared generic code that works for all instantiations of corresponding generic source code to: allocate space on a stack for local data, wherein the allocated space is a stack frame , wherein the size of the stack frame is dynamically determined based on a generic context parameter received at runtime ; store local data on the stack , wherein the local data is variably sized; store a description of the stored local data on the stack ; and provide the stored description to a subsequent precise garbage collecting, GC, reporting process. allocate space on a stack for local data, wherein the allocated space is a stack frame , wherein the size of the stack frame is dynamically determined based on a generic context parameter received at runtime ; store local data on the stack , wherein the local data is variably sized; store a description of the stored local data on the stack ; and provide the stored description to a subsequent precise garbage collecting, GC, reporting process.
A wedge drive designed to redirect a vertical pressing force into a horizontal, linear working motion, comprising a sliding element and a sliding element holder which are two guide elements on which a guide device with a sliding plate assembly with two side sliding plates and a central guide is arranged, wherein the side sliding plates are at a distance from one another in the transverse direction (Y) which is perpendicular to the sliding direction (X), wherein the center guide is arranged between the two side sliding plates and is fastened on the sliding element , wherein the two side sliding plates are constructed with at least one shoulder which rest(s) with an interlocking connection on a corresponding step formed on the guide element , wherein the interlocking connection acts in or against the defined transverse direction (Y) so that transverse forces are caught and each side sliding plate rests with at least the following contact surfaces (12, 13, 14 and 32, 33, 34, respectively) on the sliding element holder : a. One contact surface of each lies on a first plane (E1) at a distance from the sliding element and runs in the transverse direction (Y), and b. A second contact surface lies on a second plane (E2) at a distance from the first plane (E1) and the sliding element further than the first plane (E1) and also runs in the transverse direction (Y), and c. A third contact surface (13 and 33, respectively) runs perpendicularly to the latter, wherein the particular side sliding plates are fastened by fastening means to the sliding element holder , characterized in that the fastening means are arranged in the area inside the particular first contact surface . a. One contact surface of each lies on a first plane (E1) at a distance from the sliding element and runs in the transverse direction (Y), and b. A second contact surface lies on a second plane (E2) at a distance from the first plane (E1) and the sliding element further than the first plane (E1) and also runs in the transverse direction (Y), and c. A third contact surface (13 and 33, respectively) runs perpendicularly to the latter, wherein
A method for a first device to transmit files stored in a predetermined directory structure to a second device , the method comprising: identifying a plurality of files to be transmitted among the stored files; generating a metadata file comprising a first uniform resource locator, URL, indicating information about a location in which a list of the plurality of files to be transmitted can be acquired, said list including, for each file of said plurality of files to be transmitted, a resource URL where each file may be acquired; transmitting the generated metadata file to the second device ; receiving, from the second device , a request message including one of the plurality of resource URLs; generating a response message including a header of a target file and the target file, wherein the target file is one of the plurality of identified files and corresponds to said one of the plurality of resource URLs and the header comprises individual information related to the location of the directory in which the target file is to be stored in response to the request message; and transmitting the response message to the second device . identifying a plurality of files to be transmitted among the stored files; generating a metadata file comprising a first uniform resource locator, URL, indicating information about a location in which a list of the plurality of files to be transmitted can be acquired, said list including, for each file of said plurality of files to be transmitted, a resource URL where each file may be acquired; transmitting the generated metadata file to the second device ; receiving, from the second device , a request message including one of the plurality of resource URLs; generating a response message including a header of a target file and the target file, wherein the target file is one of the plurality of identified files and corresponds to said one of the plurality of resource URLs and the header comprises individual information related to the location of the directory in which the target file is to be stored in response to the request message; and transmitting the response message to the second device .
Method for manufacturing a photovoltaic module successively comprising the following steps of: - providing photovoltaic cells comprising collecting fingers ; - cutting (F1) the photovoltaic cells along a first direction perpendicular to the collecting fingers to form a plurality of sub-cells ; - aligning (F2) sub-cells in a second direction perpendicular to the first direction , so as to constitute groups of electrically insulated sub-cells, each group of sub-cells having a dimension (L') in the second direction substantially identical to the dimension (L) of the photovoltaic cells in the second direction; - simultaneously forming (F3) a plurality of strings of series-connected sub-cells, by successively aligning the groups of sub-cells in the first direction and interconnecting the aligned groups of sub-cells , the sub-cells of each group being simultaneously gripped and belonging to different strings of sub-cells; and - electrically connecting (F4-F5) in series the strings of sub-cells . - providing photovoltaic cells comprising collecting fingers ; - cutting (F1) the photovoltaic cells along a first direction perpendicular to the collecting fingers to form a plurality of sub-cells ; - aligning (F2) sub-cells in a second direction perpendicular to the first direction , so as to constitute groups of electrically insulated sub-cells, each group of sub-cells having a dimension (L') in the second direction substantially identical to the dimension (L) of the photovoltaic cells in the second direction; - simultaneously forming (F3) a plurality of strings of series-connected sub-cells, by successively aligning the groups of sub-cells in the first direction and interconnecting the aligned groups of sub-cells , the sub-cells of each group being simultaneously gripped and belonging to different strings of sub-cells; and - electrically connecting (F4-F5) in series the strings of sub-cells .
Satellite for obtaining information about electromagnetic energy emitted from a source on the earth, or from sources on the earth, the satellite orbiting the earth in an orbit having an inclination larger than 90° and smaller than 270°; and the satellite comprising: at least two receiving antennas , each of the at least two receiving antennas having a receiving pattern directed towards the earth, and suitable for receiving electromagnetic energy in a radio frequency range as the satellite is orbiting relative to the surface of the earth, and the at least two receiving antennas forming overlapping but not identical receiving patterns; and a transmitter configured for at least one of the three following operations: retransmitting at least part of the received electromagnetic energy; transmitting information representing at least part of the received electromagnetic energy; and transmitting information derived from at least part of the received electromagnetic energy. at least two receiving antennas , each of the at least two receiving antennas having a receiving pattern directed towards the earth, and suitable for receiving electromagnetic energy in a radio frequency range as the satellite is orbiting relative to the surface of the earth, and having a receiving pattern directed towards the earth, and suitable for receiving electromagnetic energy in a radio frequency range as the satellite is orbiting relative to the surface of the earth, and the at least two receiving antennas forming overlapping but not identical receiving patterns; and a transmitter configured for at least one of the three following operations: retransmitting at least part of the received electromagnetic energy; transmitting information representing at least part of the received electromagnetic energy; and transmitting information derived from at least part of the received electromagnetic energy. retransmitting at least part of the received electromagnetic energy; transmitting information representing at least part of the received electromagnetic energy; and transmitting information derived from at least part of the received electromagnetic energy.
Container comprising a container body , which comprises a container opening, and a container closure for the container opening , wherein the container body and the container closure are embodied as a one-piece injection-moulded part comprising a hinge which movably connects the container closure to the container body , wherein the container body comprises a container wall which forms a container space , wherein the container opening is surrounded by a rim , wherein the container closure is designed as a snap-on closure and can be moved between an open position and a closed position, wherein the container closure comprises a base at which a skirt is arranged, wherein the container closure comprises a first sealing segment and a second sealing segment , wherein the first sealing segment is arranged on an inner side of the skirt and the second sealing segment is arranged on the base , wherein, in the closed position, the first sealing segment rests against an outer side of the rim so as to form a first seal, wherein, in the closed position, the second sealing segment rests against a front surface of the rim as to form a second seal, characterised in that the first sealing segment rests against the rim under pretension, due to the skirt being deformed elastically outwards in a radial direction by resting against the rim in the closed position, and in that the skirt and the base are shaped such that the second sealing segment is pretensioned against the front surface by means of the deformation of the skirt in the closed position.
A communication method for a communication system for a cleaning robot, comprising: receiving (S1) an IP address of the cleaning robot broadcasted outwards from the cleaning robot, and determining whether a mobile terminal and the cleaning robot are connected to the same local area network according to the IP address of the cleaning robot, if yes, establishing (S2) a communication connection between the mobile terminal and the cleaning robot in the local area network according to the IP address of the cleaning robot, if no, controlling (S4) the mobile terminal to activate a Bluetooth device to perform a Bluetooth pairing with the cleaning robot, if the pairing is successful, establishing (S5) the communication connection between the mobile terminal and the cleaning robot via Bluetooth, if the pairing is not successful, establishing (S6) the communication connection between the mobile terminal and the cleaning robot via the wide area network server. receiving (S1) an IP address of the cleaning robot broadcasted outwards from the cleaning robot, and determining whether a mobile terminal and the cleaning robot are connected to the same local area network according to the IP address of the cleaning robot, if yes, establishing (S2) a communication connection between the mobile terminal and the cleaning robot in the local area network according to the IP address of the cleaning robot, if no, controlling (S4) the mobile terminal to activate a Bluetooth device to perform a Bluetooth pairing with the cleaning robot, if the pairing is successful, establishing (S5) the communication connection between the mobile terminal and the cleaning robot via Bluetooth, if the pairing is not successful, establishing (S6) the communication connection between the mobile terminal and the cleaning robot via the wide area network server.
A waveform shaping circuit comprising: a capacitor with one end connected to an input where an input pulse signal is inputted and another end connected to an output; a first impedance element that has one end, which is connected to the other end of the capacitor, and another end, to which a target constant voltage is applied, and supplies the target constant voltage to the other end of the capacitor; a switch circuit (SC) that includes a switch without including a diode, has one end connected to the output and has another end to which the target constant voltage is applied, applies, in a state where the switch is on, the target constant voltage to the output and stops, in a state where the switch is off, application of the target constant voltage to the output; and a switch control circuit (SWC) constructed without using a diode that generates and outputs, based on the input pulse signal, a control pulse signal that shifts the switch into the on state during a low voltage period in an AC component of the input pulse signal and shifts the switch to the off state during a high voltage period of the AC component, wherein the waveform shaping circuit shapes the input pulse signal into an output pulse signal whose peak-to-peak voltage is equivalent to a peak-to-peak voltage of the AC component and whose voltage during the low voltage period is set at the target constant voltage, and outputs the output pulse signal from the output. a capacitor with one end connected to an input where an input pulse signal is inputted and another end connected to an output; a first impedance element that has one end, which is connected to the other end of the capacitor, and another end, to which a target constant voltage is applied, and supplies the target constant voltage to the other end of the capacitor; a switch circuit (SC) that includes a switch without including a diode, has one end connected to the output and has another end to which the target constant voltage is applied, applies, in a state where the switch is on, the target constant voltage to the output and stops, in a state where the switch is off, application of the target constant voltage to the output; and a switch control circuit (SWC) constructed without using a diode that generates and outputs, based on the input pulse signal, a control pulse signal that shifts the switch into the on state during a low voltage period in an AC component of the input pulse signal and shifts the switch to the off state during a high voltage period of the AC component, wherein the waveform shaping circuit shapes the input pulse signal into an output pulse signal whose peak-to-peak voltage is equivalent to a peak-to-peak voltage of the AC component and whose voltage during the low voltage period is set at the target constant voltage, and outputs the output pulse signal from the output.
A method for making a bimetallic composite of copper and aluminum comprising an interface of a binary alloy of Cu/14%Al (by weight), wherein the copper and aluminum are melted in a liquid state at 1100°C under electromagnetic induction with a frequency of 300 kHz and then solidified at room temperature, allowing the copper and aluminum elements to separate while maintaining said interface of a binary alloy.
A method for preparing a coated article, the method comprising: (a) providing a substrate; (b) applying a photo-polymerizable coating composition to at least a portion of the substrate, the photo-polymerizable coating composition comprising: a photo-polymerizable anisotropic material, and a photoinitiator; (c) ordering the anisotropic material present in the photo-polymerizable coating composition; and (d) exposing the ordered photo-polymerizable coating composition of (c) to a light emitting diode light source having a peak emission wavelength ranging from 385 to 460 nanometers to cure the photo-polymerizable coating composition, wherein the photoinitiator is capable of activation at the peak emission wavelength of the light emitting diode light source and is selected from the group consisting of phosphine based photoinitiators, dibenzoyl diethylgermane and mixtures thereof. (a) providing a substrate; (b) applying a photo-polymerizable coating composition to at least a portion of the substrate, the photo-polymerizable coating composition comprising: a photo-polymerizable anisotropic material, and a photoinitiator; a photo-polymerizable anisotropic material, and a photoinitiator; (c) ordering the anisotropic material present in the photo-polymerizable coating composition; and (d) exposing the ordered photo-polymerizable coating composition of (c) to a light emitting diode light source having a peak emission wavelength ranging from 385 to 460 nanometers to cure the photo-polymerizable coating composition,
Process for the continuous and solvent-free production of a pressure-sensitive adhesive based on solid EPDM rubber in a continuously operating assembly in the form of a planetary roller extruder having a filling section and a compounding section, the compounding section consisting of at least two coupled roller cylinders, by a) feeding the solid EPDM rubber and any further components into the filling section of the planetary roller extruder, b) transferring the components from the filling section into the compounding section, c) adding liquid EPDM rubber, plasticizer, tackifier resin, and any further components to the compounding section, and d) discharging the resultant pressure-sensitive adhesive, characterized in that the solid EPDM rubber is fed as a melt into the filling section. a) feeding the solid EPDM rubber and any further components into the filling section of the planetary roller extruder, b) transferring the components from the filling section into the compounding section, c) adding liquid EPDM rubber, plasticizer, tackifier resin, and any further components to the compounding section, and d) discharging the resultant pressure-sensitive adhesive,
Electronic device for processing radiofrequency waves, comprising a line , the line having a second geometry (G2) and being made of a second superconducting material (M2), the line having a normal phase, a superconducting phase and a transition temperature between the superconducting phase and the normal phase, referred to as the second transition temperature (T 2 ), the line comprising a radiofrequency power limiter , the limiter having a first operating mode and a second operating mode, the limiter being in the form of a portion of the line that has a first geometry (G1) and that is made of a first superconducting material (M1), the portion having a superconducting phase and a normal phase, a transition temperature to the superconducting phase, referred to as the first transition temperature (T 1 ), the limiter being in the first operating mode when the portion is in the superconducting phase and the limiter being in the second operating mode when the portion is in the normal phase, at least one of the first geometry (G1) and the first superconducting material (M1) being different from the second geometry (G2) and the second superconducting material (M2) in order that the first transition temperature (T 1 ) is strictly below the second transition temperature (T 2 ), characterised in that the first superconducting material (M1) comprises at least one first zone (Z1) made of a third superconducting material (M3) and at least one second zone (Z2) made of second superconducting material (M2), the third superconducting material (M3) being different from the first superconducting material (M1) and the second superconducting material (M2).
Protective covering suitable for covering power, filtering and control blocks of an electronic assembly for a rotary electric machine for a motor vehicle, wherein said protective cover comprises: - openings suitable for generating different flows of cooling air (F1, F2, F3, F4) for thermal dissipation needs of each of the power , control and filtering blocks; - the openings of the protective cover being divided into: - a first set of openings suitable for being positioned facing the fins of a first dissipator coupled to the power block ; - a second set of openings suitable for being positioned facing the control block ; the two sets of openings being separated by a separating low wall so as to create a first radial flow of cooling air (F1) for said power block and a second radial flow of cooling air (F2) for said control block ; and - a third set of openings that can be positioned facing the fins of a second dissipator coupled to capacitors of the filtering block so as to create a third radial flow of cooling air (F3) for said filtering block . - openings suitable for generating different flows of cooling air (F1, F2, F3, F4) for thermal dissipation needs of each of the power , control and filtering blocks; - the openings of the protective cover being divided into: - a first set of openings suitable for being positioned facing the fins of a first dissipator coupled to the power block ; - a second set of openings suitable for being positioned facing the control block ; the two sets of openings being separated by a separating low wall so as to create a first radial flow of cooling air (F1) for said power block and a second radial flow of cooling air (F2) for said control block ; and - a third set of openings that can be positioned facing the fins of a second dissipator coupled to capacitors of the filtering block so as to create a third radial flow of cooling air (F3) for said filtering block . - a first set of openings suitable for being positioned facing the fins of a first dissipator coupled to the power block ; - a second set of openings suitable for being positioned facing the control block ; the two sets of openings being separated by a separating low wall so as to create a first radial flow of cooling air (F1) for said power block and a second radial flow of cooling air (F2) for said control block ; and - a third set of openings that can be positioned facing the fins of a second dissipator coupled to capacitors of the filtering block so as to create a third radial flow of cooling air (F3) for said filtering block .