mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a housing ; a plurality of batteries arranged in the housing ; a power management module configured to control the plurality of batteries ; a plurality of current limiting integrated circuits (ICs) configured to limit a maximum intensity of a current flowing into each of the plurality of batteries ; and at least one processor operationally connected to the plurality of batteries , the power management module and the plurality of current limiting ICs , wherein the at least one processor is configured to: set a total charging current output from the power management module , set an individual charging current flowing into each of the plurality of batteries in proportion to a total capacity of each of the plurality of batteries regardless of current remaining capacities of the plurality of batteries , and recalculate the individual charging currents for each of the plurality of batteries in real-time whenever the total charging current changes with an event during charging the plurality of batteries . a housing ; a plurality of batteries arranged in the housing ; a power management module configured to control the plurality of batteries ; a plurality of current limiting integrated circuits (ICs) configured to limit a maximum intensity of a current flowing into each of the plurality of batteries ; and at least one processor operationally connected to the plurality of batteries , the power management module and the plurality of current limiting ICs , wherein the at least one processor is configured to: set a total charging current output from the power management module , set an individual charging current flowing into each of the plurality of batteries in proportion to a total capacity of each of the plurality of batteries regardless of current remaining capacities of the plurality of batteries , and recalculate the individual charging currents for each of the plurality of batteries in real-time whenever the total charging current changes with an event during charging the plurality of batteries . set a total charging current output from the power management module , set an individual charging current flowing into each of the plurality of batteries in proportion to a total capacity of each of the plurality of batteries regardless of current remaining capacities of the plurality of batteries , and recalculate the individual charging currents for each of the plurality of batteries in real-time whenever the total charging current changes with an event during charging the plurality of batteries .
An air-conditioning apparatus , comprising: a heat source side unit configured to heat or cool a heat medium used as a heat-conveying medium; an air handling side heat exchanger that exchanges heat between outside air that is sent into a building and the heat medium; and an indoor side heat exchanger that exchanges heat between indoor air and the heat medium, the heat source side unit , the air handling side heat exchanger , and the indoor side heat exchanger being connected by piping to each other to form a heat medium cycle circuit (B) through which the heat medium circulates, in the heat medium cycle circuit (B), a portion of the heat medium heated or cooled by the heat source side unit flowing into the indoor side heat exchanger after having passed through the air handling side heat exchanger , the heat medium cycle circuit (B) being provided with an air handling side flow rate control device configured to adjust a flow rate of the heat medium that passes through the air handling side heat exchanger ; characterized by the air-conditioning apparatus further comprising: an air handling unit housing that houses the air handling side flow rate control device , the air handling side heat exchanger , and an air handling unit control device configured to control the air handling side flow rate control device ; and a heat source side unit control device configured to control an amount of heating or an amount of cooling that the heat source side unit supplies to the heat medium, wherein the air handling unit control device and the heat source side unit control device have a communication connection with each other. a heat source side unit configured to heat or cool a heat medium used as a heat-conveying medium; an air handling side heat exchanger that exchanges heat between outside air that is sent into a building and the heat medium; and an indoor side heat exchanger that exchanges heat between indoor air and the heat medium, the heat source side unit , the air handling side heat exchanger , and the indoor side heat exchanger being connected by piping to each other to form a heat medium cycle circuit (B) through which the heat medium circulates, in the heat medium cycle circuit (B), a portion of the heat medium heated or cooled by the heat source side unit flowing into the indoor side heat exchanger after having passed through the air handling side heat exchanger , the heat medium cycle circuit (B) being provided with an air handling side flow rate control device configured to adjust a flow rate of the heat medium that passes through the air handling side heat exchanger ; an air handling unit housing that houses the air handling side flow rate control device , the air handling side heat exchanger , and an air handling unit control device configured to control the air handling side flow rate control device ; and a heat source side unit control device configured to control an amount of heating or an amount of cooling that the heat source side unit supplies to the heat medium, wherein the air handling unit control device and the heat source side unit control device have a communication connection with each other.
High-security lock for a secure storage unit , comprising at least one mechanically functioning lock module and a control module equipped with a data receiving interface, wherein the lock module and the control module are designed and provided to be electronically and mechanically separated from one another and/or connected to one another according to the plug-and-play principle, wherein the lock module and the control module each comprise their own program memory (36; 46) having preinstalled subprograms (36a, 36b, 36c; 46a, 46b, 46c) which encode functions of the lock module and/or the control module , wherein the subprograms preinstalled in the program memory of the control module only encode the functions of the control module and the subprograms preinstalled in the program memory of the lock module only encode the functions of the lock module , wherein the data receiving interface is designed and provided to transmit a functionality code and, separately from that, a licence key to the control module and the lock module , wherein the lock module and the control module each comprise an evaluation unit (18a; 18b), and wherein the two evaluation units (18a; 18b) are designed and provided to compare a comparison licence key (38a; 38b) which can be generated by a licence algorithm with the licence key and evaluate the functionality code , and to transfer at least one confirmation data record to the program memory of the lock module in order to unlock or lock at least one subprogram of the lock module , and to the program memory of the control module in order to unlock or lock at least one subprogram of the control module , wherein the licence key is a data record which is generated from at least three further data records , wherein the further data records include a serial number of the control module , a serial number of the lock module and the functionality code , wherein the functionality code is dependent on the subprograms (36a, 36b, 36c; 46a, 46b, 46c) to be unlocked or locked in the program memories (36; 46).
A method for connecting an external device to an Access Point, AP, via a Wireless-Fidelity, Wi-Fi, network, the method comprising: receiving, by a device , device information of the external device from the external device that operates in an AP mode; receiving, by the device, password information from the external device; accessing, by the device, the external device that operates in the AP mode, by using the device information after discontinuing accessing the AP; receiving, by the device, a password input to the device by a user; and providing, by the device, connection information relating to the AP to the external device when the password input to the device by the user corresponds to a password for accessing the external device comprised in the password information, wherein the connection information comprises a password for accessing the AP and, after the connection information is provided to the external device, the AP mode of the external device is terminated, and the connection information is used by the external device for accessing the AP. receiving, by a device , device information of the external device from the external device that operates in an AP mode; receiving, by the device, password information from the external device; accessing, by the device, the external device that operates in the AP mode, by using the device information after discontinuing accessing the AP; receiving, by the device, a password input to the device by a user; and providing, by the device, connection information relating to the AP to the external device when the password input to the device by the user corresponds to a password for accessing the external device comprised in the password information, wherein the connection information comprises a password for accessing the AP and, after the connection information is provided to the external device, the AP mode of the external device is terminated, and the connection information is used by the external device for accessing the AP.
A channel measurement method , comprising: generating first indication information, wherein the first indication information is used to indicate one or more component characteristics of a complete time-varying characteristic of a channel and a weighting coefficient of each component characteristic, wherein the complete time-varying characteristic is the time-varying characteristic of at least one complete period, the one or more component characteristics and the weighting coefficient of each component characteristic are used to determine the complete time-varying characteristic, and the complete time-varying characteristic of the channel corresponds to a local time-varying characteristic of the channel, wherein the local time-varying characteristic is a time-varying characteristic in some time segment of the at least one complete period but not the complete period or an integer multiple of the complete period, and the complete time-varying characteristic of the channel is determined based on the local time-varying characteristic of the channel; and sending the first indication information. generating first indication information, wherein the first indication information is used to indicate one or more component characteristics of a complete time-varying characteristic of a channel and a weighting coefficient of each component characteristic, wherein the complete time-varying characteristic is the time-varying characteristic of at least one complete period, the one or more component characteristics and the weighting coefficient of each component characteristic are used to determine the complete time-varying characteristic, and the complete time-varying characteristic of the channel corresponds to a local time-varying characteristic of the channel, wherein the local time-varying characteristic is a time-varying characteristic in some time segment of the at least one complete period but not the complete period or an integer multiple of the complete period, and the complete time-varying characteristic of the channel is determined based on the local time-varying characteristic of the channel; and sending the first indication information.
Device comprising: - at least one housing having at least one heat source , and - at least one strand forming a more flexible part than the housing , characterized in that the strand comprises two layers of heat-conducting material and a layer of phase change material situated between the two layers of heat-conducting material. - at least one housing having at least one heat source , and - at least one strand forming a more flexible part than the housing ,
A method for communication between a master device (MT) and N slave devices (ES1-ESN) on a synchronous data bus (SPI+) including a selection channel (MOSIs, MISOs) on which the master device (MT) and the N slave devices (ES1-ESN) are connected in series, and a transmission channel (MOSIp, MISOp) on which the master device and the N slave devices are connected in parallel, the master device (MT) and the N slave devices (ES1-ESN) forming a chain, the method comprising: - a selection step implemented by the master device (MT) and the N slave devices (ES1-ESN) on the selection channel (MOSIs, MISOs), comprising a selection of a slave device which is selected from the N slave devices (ES1-ESN); and - a transmission step (620, 622; 714, 716) implemented on the transmission channel (MOSIp, MISOp), comprising a data transmission between the master device (MT) and the selected slave device; characterised in that an end of chain detection phase (608; 702, 718) is implemented during the transmission step and before the selection step by each of the slave devices (ES1-ESN) and is implemented before the selection step by the master device (MT), said end of chain detection phase comprising a detection of a presence signal on the selection channel, representative of a position at the end of chain of said device. - a selection step implemented by the master device (MT) and the N slave devices (ES1-ESN) on the selection channel (MOSIs, MISOs), comprising a selection of a slave device which is selected from the N slave devices (ES1-ESN); and - a transmission step (620, 622; 714, 716) implemented on the transmission channel (MOSIp, MISOp), comprising a data transmission between the master device (MT) and the selected slave device;
An electrically heated aerosol-generating device for use with an aerosol-generating article , the device comprising: - a device housing including a receiving cavity within a proximal portion of the device for receiving at least a portion of the aerosol-generating article ; - at least one electrical heating device for heating an aerosol-forming substrate within the article when the article is received in the receiving cavity ; and - a sensing circuitry comprising a field generator , wherein the sensing circuitry is configured to measure a change of at least one property of the field generator caused by the presence of an indicator arranged within the article when the article is received in the receiving cavity , characterized in that the device comprises a separating wall arranged adjacent to a distal end of the receiving cavity separating the receiving cavity within the proximal portion of the device from a distal portion of the device , wherein the field generator is arranged within the distal portion of the device adjacent to the separating wall . - a device housing including a receiving cavity within a proximal portion of the device for receiving at least a portion of the aerosol-generating article ; - at least one electrical heating device for heating an aerosol-forming substrate within the article when the article is received in the receiving cavity ; and - a sensing circuitry comprising a field generator , wherein the sensing circuitry is configured to measure a change of at least one property of the field generator caused by the presence of an indicator arranged within the article when the article is received in the receiving cavity ,
Method for securing packing units on a transport vehicle , the packing units comprise a base and at least two upright, substantially round, containers , on the top side and at the bottom side the containers are provided with upright circumferential edges including flange edges and ring edges, wherein the containers and their upright circumferential edges are positioned against one another on the base, and the containers are held together by a cord strap or by otherwise enclosing or girdling the containers, including a (shrink) foil , comprising the steps of: - providing a first fixing holder upon the upright circumferential edges of two upright joined containers of a first packing unit , the fixing holder being provided with two inner fixing edges to abut against the outer sides of the upright circumferential edges and against the outer walls of the two upright containers held together, - providing a second fixing holder (1") upon two upright circumferential edges of two upright joined containers of the first packing unit or of a second packing unit (20"), - arranging a tying strap or tensioning cable over the fixing holders (1', 1"), - securing the first packing unit (and optionally a second packing unit (20")) with the tying strap or tensioning cable on the transport vehicle . - providing a first fixing holder upon the upright circumferential edges of two upright joined containers of a first packing unit , the fixing holder being provided with two inner fixing edges to abut against the outer sides of the upright circumferential edges and against the outer walls of the two upright containers held together, - providing a second fixing holder (1") upon two upright circumferential edges of two upright joined containers of the first packing unit or of a second packing unit (20"), - arranging a tying strap or tensioning cable over the fixing holders (1', 1"), - securing the first packing unit (and optionally a second packing unit (20")) with the tying strap or tensioning cable on the transport vehicle .
Radiator with optimized convection capacity for cooling a headlight (P) of a motor vehicle comprising at least two electronic components (C1, C2) supported and fixed, respectively, on a lower bearing and a upper bearing of the radiator , each having a heat dissipation surface , said radiator comprising lower openings and upper openings passing through said bearings and opening onto each bearing at the level of its heat dissipation surface , said radiator comprising lateral fins and underlying fins extending perpendicularly and under the lower bearing , the lower openings being formed of parallel slots opening, on the one hand, between the underlying fins and on the other hand, on a projecting part of the lower bearing , characterized in that the lower bearing is spaced from its dissipation surface and is delimited by beveled notches carried by the interior side wall of the radiator and whose enlarged end ends above the dissipation surface in order to support and wedge one of the two electronic components (C1) above the dissipation surface .
Arrangement of a vehicle bodyshell having at least one wheel arch , in particular a rear wheel arch, realized by the assembly of at least one bodyshell side lining with an internal part , the bodyshell side lining being in particular a rear quarter panel lining delimiting an external section of the wheel arch , in particular an outer wheel arch, the internal part being a part for connecting the side lining to a floor, in particular a boot floor, the internal part delimiting an interior section of the wheel arch , in particular an inner wheel arch, the internal part comprising an opening passing through an upper portion of the internal part protruding substantially vertically out of a curved portion , the arrangement being characterized in that the opening is intended to create a communication route between a hollow body of the bodyshell communicating with the outside of the vehicle and a loudspeaker module , the upper portion of the internal part being spaced apart transversely from the side lining and from a bodyshell side such that the assembly thus formed by the internal part with the side lining and/or a bodyshell side delimits the hollow body having acoustic properties substantially equivalent to those of a subwoofer.
A production process of alcohol having a perfluoroalkyl group represented by General Formula : wherein, R F is a perfluoroalkyl group which is an alkyl group that may have a straight chain of 1 to 2 carbons, or a straight chain, branched chain or ring structure of 3 to 10 carbons, and which has all hydrogens on carbon substituted with fluorine; and R 1 and R 2 are each independently a hydrogen atom or an alkyl group, aryl group, heteroaryl group, aralkyl group, alkenyl group, or alkynyl group that may have a straight chain of 1 to 2 carbons, or a straight chain, branched chain or ring structure of 3 to 10 carbons, and that may have a substituent; and R 1 and R 2 may be merged to form a ring; the production process comprising: reacting in an organic solvent a carbonyl compound represented by General Formula : wherein, R 1 and R 2 are each independently a hydrogen atom or an alkyl group, aryl group, heteroaryl group, aralkyl group, alkenyl group, or alkynyl group that may have a straight chain of 1 to 2 carbons, or a straight chain, branched chain or ring structure of 3 to 10 carbons, and that may have a substituent; and R 1 and R 2 may be merged to form a ring; a hydroxide represented by General Formula : M(OH) x wherein, M is a metal of lithium, sodium, potassium, rubidium, or caesium, or ammonium that may be unsubstituted or that may be tetramethylammonium, tetra-ethylammonium, or tetrapropylammonium, which may be used alone or in a mixture of multiple substances, and x is equal to an oxidation number of a substance represented by M; and monohydroperfluoroalkane represented by General Formula : R F H wherein, R F is a perfluoroalkyl group which is an alkyl group that may have a straight chain of 1 to 2 carbons, or a straight chain, branched chain or ring structure of 3 to 10 carbons, and which has all hydrogens on carbon substituted with fluorine, wherein the organic solvent is dimethyl sulfoxide, dimethyl formamide, N-methylpyrrolidone, tetrahydrofuran, diglyme, acetonitrile, or a combination thereof.