mhurhangee/ep-ind-claims huggingface dataset:
A method for accessing data in a memory (200, 505) coupled to a processor (510, 515), comprising: receiving a memory reference instruction for accessing data of a first size at an address in the memory, the memory reference instruction specifying the first size; determining, by the processor, a memory address alignment size of the address in the memory; determining if the memory address alignment size is greater than or equal to a maximum block concurrent memory reference size of the received memory reference instruction; in response to the alignment size being greater than or equal to the maximum block concurrent memory reference size, accessing the data of the first size in one or more groups of data, each group of data having a size equal to the maximum block concurrent memory reference size; and in response to the alignment size not being greater than or equal to the maximum block concurrent memory reference size: determining (420, 425, 435, 440, 450, 455) a greatest common divisor of the first size and the memory address alignment size; and accessing (430, 445, 460, 465) the data of the first size in one or more groups of data, each group of data having a size equal to the size of the greatest common divisor. receiving a memory reference instruction for accessing data of a first size at an address in the memory, the memory reference instruction specifying the first size; determining, by the processor, a memory address alignment size of the address in the memory; determining if the memory address alignment size is greater than or equal to a maximum block concurrent memory reference size of the received memory reference instruction; in response to the alignment size being greater than or equal to the maximum block concurrent memory reference size, accessing the data of the first size in one or more groups of data, each group of data having a size equal to the maximum block concurrent memory reference size; and in response to the alignment size not being greater than or equal to the maximum block concurrent memory reference size: determining (420, 425, 435, 440, 450, 455) a greatest common divisor of the first size and the memory address alignment size; and accessing (430, 445, 460, 465) the data of the first size in one or more groups of data, each group of data having a size equal to the size of the greatest common divisor. determining (420, 425, 435, 440, 450, 455) a greatest common divisor of the first size and the memory address alignment size; and accessing (430, 445, 460, 465) the data of the first size in one or more groups of data, each group of data having a size equal to the size of the greatest common divisor.
A ceiling-suspended indoor unit of an air conditioner, the indoor unit comprising: a casing including a plurality of side plates, one of the side plates having an air outlet; a heat exchanger disposed in the casing; a fan configured to blow air that has been passed through the heat exchanger out of the air outlet to an associated side of the casing; an airflow direction adjusting flap provided at the air outlet; and a blow-out passage extending from the heat exchanger toward the air outlet, the blow-out passage having: a first lower end that represents a lower end of one of end portions of the blow-out passage near the heat exchanger into which air flows, a second lower end that represents a lower end of the other end portion of the blow-out passage near the air outlet out of which air flows, the second lower end being located below the first lower end in a height direction, and a bottom surface located at a bottom of the blow-out passage, characterized in that the bottom surface of the blow-out passage includes: an inclined portion formed on an end portion near the air outlet and inclined in a direction that allows an area of an opening of the air outlet to increase, and a horizontal blow-out surface located more upstream in an airflow direction than the inclined portion and adjacent to the inclined portion, the airflow direction adjusting flap being capable of directing air flowing out of the blow-out passage upward relative to a horizontal plane. a casing including a plurality of side plates, one of the side plates having an air outlet; a heat exchanger disposed in the casing; a fan configured to blow air that has been passed through the heat exchanger out of the air outlet to an associated side of the casing; an airflow direction adjusting flap provided at the air outlet; and a blow-out passage extending from the heat exchanger toward the air outlet, a first lower end that represents a lower end of one of end portions of the blow-out passage near the heat exchanger into which air flows, a second lower end that represents a lower end of the other end portion of the blow-out passage near the air outlet out of which air flows, the second lower end being located below the first lower end in a height direction, and a bottom surface located at a bottom of the blow-out passage, an inclined portion formed on an end portion near the air outlet and inclined in a direction that allows an area of an opening of the air outlet to increase, and a horizontal blow-out surface located more upstream in an airflow direction than the inclined portion and adjacent to the inclined portion, the airflow direction adjusting flap being capable of directing air flowing out of the blow-out passage upward relative to a horizontal plane.
A wearable, wireless-communication device, the device comprising: a transceiver comprising: at least one first antenna configured to receive radio frequency, RF, signals transmitted from a first direction, wherein the device is wearable about an object which attenuates reception, by the at least one first antenna, of RF signals transmitted from a second direction; a waveguide electromagnetically coupled to the transceiver; and at least one second antenna configured to receive the RF signals from the second direction, wherein the waveguide comprises or terminates in the at least one second antenna,, wherein the waveguide is shaped to direct the RF signals received by the at least one second antenna to the transceiver, wherein the at least one second antenna is a dielectric rod antenna, or any discontinuity or alteration of the dielectric waveguide acts as a radiator and therefore the second antenna, and wherein the waveguide is formed of solid dielectric material. a transceiver comprising: at least one first antenna configured to receive radio frequency, RF, signals transmitted from a first direction, wherein the device is wearable about an object which attenuates reception, by the at least one first antenna, of RF signals transmitted from a second direction; a waveguide electromagnetically coupled to the transceiver; and at least one second antenna configured to receive the RF signals from the second direction, wherein the waveguide comprises or terminates in the at least one second antenna,, wherein the waveguide is shaped to direct the RF signals received by the at least one second antenna to the transceiver, wherein the at least one second antenna is a dielectric rod antenna, or any discontinuity or alteration of the dielectric waveguide acts as a radiator and therefore the second antenna, and wherein the waveguide is formed of solid dielectric material.
A spectroscopic analysis apparatus comprising: a probe configured to be disposed in a flow passage of a measurement target fluid; a reflector disposed in a distal end of the probe; an analyzer mounted at an end portion of the probe on a side opposite to the distal end of the probe; a laser light source, included in the analyzer, configured to emit laser light, the wavelength of which can be scanned, towards the reflector; a light receiver, included in the analyzer, configured to receive the laser light reflected by the reflector; a controller, included in the analyzer, configured to analyze the measurement target fluid using the laser light received by the light receiver, and to control the laser light source; and an acceleration sensor, mounted on the probe and configured to detect an acceleration of the probe due to a vibration, and to output information on the acquired acceleration to the controller, wherein the controller is configured to calculate the light-receivable time of the laser, the light-receivable time being a time in which the laser light reflected by the reflector can be received by the light receiver, the calculation being made by using the acceleration detected by the acceleration sensor, and wherein the controller is further configured to control a laser light output of the laser light source such that a scanning time is equal to or shorter than half the light-receivable time, the scanning time being a time to scan the laser light emitted from the laser light source in a certain wavelength range. a probe configured to be disposed in a flow passage of a measurement target fluid; a reflector disposed in a distal end of the probe; an analyzer mounted at an end portion of the probe on a side opposite to the distal end of the probe; a laser light source, included in the analyzer, configured to emit laser light, the wavelength of which can be scanned, towards the reflector; a light receiver, included in the analyzer, configured to receive the laser light reflected by the reflector; a controller, included in the analyzer, configured to analyze the measurement target fluid using the laser light received by the light receiver, and to control the laser light source; and an acceleration sensor, mounted on the probe and configured to detect an acceleration of the probe due to a vibration, and to output information on the acquired acceleration to the controller, wherein the controller is configured to calculate the light-receivable time of the laser, the light-receivable time being a time in which the laser light reflected by the reflector can be received by the light receiver, the calculation being made by using the acceleration detected by the acceleration sensor, and wherein the controller is further configured to control a laser light output of the laser light source such that a scanning time is equal to or shorter than half the light-receivable time, the scanning time being a time to scan the laser light emitted from the laser light source in a certain wavelength range.
Coaxial connector (1, 2) comprising a shunt, said coaxial connector (1, 2) comprising: - a conductive core, - a metal shielding surrounding the core, - a dielectric arranged between the core and the shielding in order to insulate them electrically with respect to one another, and - a shunt in order to supply a resistive bridge between the core and the shielding, wherein the shunt comprises: - a graphite element positioned between the core and the shielding, and - a first and a second metal deposit (51, 52) in order to supply an electrical and mechanical connection between the graphite element and respectively the core and the shielding, each one of the first and second metal deposits (51, 52) being an electrolytic deposit. - a conductive core, - a metal shielding surrounding the core, - a dielectric arranged between the core and the shielding in order to insulate them electrically with respect to one another, and - a shunt in order to supply a resistive bridge between the core and the shielding, - a graphite element positioned between the core and the shielding, and - a first and a second metal deposit (51, 52) in order to supply an electrical and mechanical connection between the graphite element and respectively the core and the shielding, each one of the first and second metal deposits (51, 52) being an electrolytic deposit.
A heat exchanger assembly for an aircraft control, comprising: an aircraft control for controlling an operation of an aircraft; said aircraft control being in thermal communication with a first fluid; a first thermoelectric device configured to transfer heat between said first fluid and a closed loop containing a second fluid; a temperature sensor for sensing a temperature of said first fluid; and a temperature control configured to control said first thermoelectric device based on an input from said temperature sensor, wherein heat is transferred against a temperature gradient of said first fluid and said second fluid, so as to cool said first fluid when said second fluid has a higher temperature than said first fluid, and said second fluid is an aircraft engine fuel. an aircraft control for controlling an operation of an aircraft; said aircraft control being in thermal communication with a first fluid; a first thermoelectric device configured to transfer heat between said first fluid and a closed loop containing a second fluid; a temperature sensor for sensing a temperature of said first fluid; and a temperature control configured to control said first thermoelectric device based on an input from said temperature sensor, wherein heat is transferred against a temperature gradient of said first fluid and said second fluid, so as to cool said first fluid when said second fluid has a higher temperature than said first fluid, and said second fluid is an aircraft engine fuel.
A process for direct synthesis of (meth)acrolein comprising i) reacting a reactive mixture comprising at least one reactive compound, oxygen and a non-reactive diluent gas, in a reaction assembly operated in the gas phase at a temperature of between 200°C and 400°C and at a pressure of between 1 and 10 bar, in the presence of a solid oxidation catalyst chosen from molybdenum-based catalysts and optionally of an aldol condensation catalyst, then ii) recovering the gas effluent comprising the (meth)acrolein formed in the presence of water coproduced by the reaction, said process being characterized - in that the reaction compound(s) is (are) chosen from the compounds of formula R 1 -O-R 2 in which, R 1 is H or a methyl, ethyl or propyl radical, R 2 is a methyl, ethyl or propyl radical or a radical of formula CH 2 -O-R 3, CH(CH 3)-O-R 3 or CH(CH 2 -CH 3)-O-R 3, with R 3 being a methyl, ethyl or propyl radical, with R 1 and R 2 identical or different, or R 1 and R 3 identical or different, it being understood that, when R 1 is H, R 2 is other than a methyl, ethyl or propyl radical, failing which the reactive mixture comprises at least one other compound of formula with R 1 other than H, - and in that the reactive compound(s) is (are) chosen such that the R 1, R 2 and R 3 radicals present in their structure are capable of forming (meth)acrolein by means of an oxidation reaction coupled to an aldol condensation reaction. - in that the reaction compound(s) is (are) chosen from the compounds of formula R 1 -O-R 2 in which, R 1 is H or a methyl, ethyl or propyl radical, R 2 is a methyl, ethyl or propyl radical or a radical of formula CH 2 -O-R 3, CH(CH 3)-O-R 3 or CH(CH 2 -CH 3)-O-R 3, with R 3 being a methyl, ethyl or propyl radical, with R 1 and R 2 identical or different, or R 1 and R 3 identical or different, it being understood that, when R 1 is H, R 2 is other than a methyl, ethyl or propyl radical, failing which the reactive mixture comprises at least one other compound of formula with R 1 other than H, - and in that the reactive compound(s) is (are) chosen such that the R 1, R 2 and R 3 radicals present in their structure are capable of forming (meth)acrolein by means of an oxidation reaction coupled to an aldol condensation reaction.
Method of making a mixed oxide comprising at least Li and M, and optionally one or more of Al, Si, Mg, and B, wherein M is at least one transition metal, preferably selected from Ni, Mn, or Co, or a mixture of two or more thereof, the method comprising steps to, optionally step, and steps and: mixing a composition comprising water and at least one cation of at least one M with a composition comprising water and at least one anion selected from the group consisting of hydroxide, hydrogen carbonate, and carbonate, or a mixture of two or more thereof, in a colloid mill; precipitating an oxide or hydroxide or hydrogen carbonate or carbonate, or a mixture of two or more thereof, of M from the milled mixture obtained in step; isolating said oxide or hydroxide or hydrogen carbonate or carbonate, or a mixture of two or more thereof, of M precipitated in step; sintering the compound isolated in step; mixing a lithium oxide, lithium hydroxide, lithium carbonate or lithium hydrogen carbonate, or a mixture of two or more thereof, with a product obtained according to step or; sintering the mixture obtained in step. mixing a composition comprising water and at least one cation of at least one M with a composition comprising water and at least one anion selected from the group consisting of hydroxide, hydrogen carbonate, and carbonate, or a mixture of two or more thereof, in a colloid mill; precipitating an oxide or hydroxide or hydrogen carbonate or carbonate, or a mixture of two or more thereof, of M from the milled mixture obtained in step; isolating said oxide or hydroxide or hydrogen carbonate or carbonate, or a mixture of two or more thereof, of M precipitated in step; sintering the compound isolated in step; mixing a lithium oxide, lithium hydroxide, lithium carbonate or lithium hydrogen carbonate, or a mixture of two or more thereof, with a product obtained according to step or; sintering the mixture obtained in step.
A method for controlling a network-supported service in a communication arrangement, wherein the control is performed by at least one input of a user on a communication terminal, and wherein - in a first step, on the network-supported service side, a user surface is created for the service, wherein the user surface is created as an information page, and wherein the commands to be used for the control are each shown as a control element (HL1, HL2, HL3), - in a second step this information page is transmitted to the communication terminal and is shown there, - in a third step, for control of the service by the user, at least one of the control elements (HL1, HL2, HL3) linked to a command is actuated, wherein a corresponding control message is transmitted to the network-supported service, and - in a fourth step the control message is received and evaluated on the network-supported service side and the command linked to the control element (HL1, HL2, HL3) is executed, characterised in that the communication terminal and the network-supported service communicate by means of an SIP protocol or another standardised VoIP communication protocol, which comprises the protocol elements of the SIP protocol or of the other standardised VoIP communication protocol and a description language for text-based and/or graphical pages, in order to display the user surface on a display device of the communication terminal. - in a first step, on the network-supported service side, a user surface is created for the service, wherein the user surface is created as an information page, and wherein the commands to be used for the control are each shown as a control element (HL1, HL2, HL3), - in a second step this information page is transmitted to the communication terminal and is shown there, - in a third step, for control of the service by the user, at least one of the control elements (HL1, HL2, HL3) linked to a command is actuated, wherein a corresponding control message is transmitted to the network-supported service, and - in a fourth step the control message is received and evaluated on the network-supported service side and the command linked to the control element (HL1, HL2, HL3) is executed,
A method comprising: evaluating environment information of an underground region that affects the transmission qualities of magnetic induction communications; identifying a protocol stack including a plurality of layers for magnetic induction communications among a plurality of sensors in a wireless underground sensor network in the underground region; and building a cross-layer framework to jointly optimize communication functionalities of the plurality of layers included in the protocol stack based on the evaluation of the environment information that affects the transmission qualities of the magnetic induction communications. evaluating environment information of an underground region that affects the transmission qualities of magnetic induction communications; identifying a protocol stack including a plurality of layers for magnetic induction communications among a plurality of sensors in a wireless underground sensor network in the underground region; and building a cross-layer framework to jointly optimize communication functionalities of the plurality of layers included in the protocol stack based on the evaluation of the environment information that affects the transmission qualities of the magnetic induction communications.
A reversible safety and arming device for an explosive device intended to be planted manually, the device comprising an explosive train-interrupting flap that is mounted rotatably relative to an axis and that can be rotationally driven by a motor means between a safety position and at least one armed position, the device being characterised in that the flap is coupled by at least one pinion to a mechanical timing module, the transition of the flap from its safety position to its armed position thus causing, by the pinion acting on a winding pinion of the timing module, the winding of the latter by loading a spring of this timing module, a means for disengaging the motor means being provided and making it possible for the flap, after the transition of the flap to the armed position, to return to the safety position and in a delayed manner by the single action of the timing module acting on the pinion and leading to a rotation of the flap in a direction opposed to that having led to the arming.
Device for reversing a blade of a runner unit, the device comprising: - an annular lever fixed to a trunnion portion of the blade and rotatably mounted on the runner unit; - a main servomotor comprising a piston adapted to reciprocate along a shaft of the runner unit and coupled to said annular lever such to cause a first rotation of the blade until said piston reaches a dead zone position; - an auxiliary servomotor arranged to cause a further rotation of the blade; the device being characterised in that said auxiliary servomotor comprises a reciprocating linear rack configured to cooperate with a toothed sector provided on said annular lever when said piston is at or in proximity of said dead zone position. - an annular lever fixed to a trunnion portion of the blade and rotatably mounted on the runner unit; - a main servomotor comprising a piston adapted to reciprocate along a shaft of the runner unit and coupled to said annular lever such to cause a first rotation of the blade until said piston reaches a dead zone position; - an auxiliary servomotor arranged to cause a further rotation of the blade;