mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the preparation of cariprazine or a salt thereof wherein a) (trans-4-amino-cyclohexyl)-acetic acid ethyl ester hydrochloride is converted to trans-4-aminocyclohexyl) acetic acid or its hydrochloride by hydrolysis, b) from the obtained product with addition of a dicarbamoyl derivative selected from a halide, imidazolide, anhydride or active ester as a suitable reagent in presence of alkaline reagent (trans-4-{[(dimethylamino)carbonyl]amino} cyclohexyl) acetic acid is formed, c) then the obtained compound is linked to 1-(2,3-dichlorophenyl)-piperazine in the presence of carboxylic acid activating coupling reagent, and so 1,1-dimethyl-3-[trans-4-(2-oxo-2-(4-(2,3-dichlorophenyl)piperazin-1-yl-ethyl)cyclohexyl] urea is formed, d) which is converted to cariprazine borane adduct of formula , in the presence of a borohydride compound, borane or a borane complex as a reducing agent, e) and the final product itself is eliminated directly or is obtained from its salt. a) (trans-4-amino-cyclohexyl)-acetic acid ethyl ester hydrochloride is converted to trans-4-aminocyclohexyl) acetic acid or its hydrochloride by hydrolysis, b) from the obtained product with addition of a dicarbamoyl derivative selected from a halide, imidazolide, anhydride or active ester as a suitable reagent in presence of alkaline reagent (trans-4-{[(dimethylamino)carbonyl]amino} cyclohexyl) acetic acid is formed, c) then the obtained compound is linked to 1-(2,3-dichlorophenyl)-piperazine in the presence of carboxylic acid activating coupling reagent, and so 1,1-dimethyl-3-[trans-4-(2-oxo-2-(4-(2,3-dichlorophenyl)piperazin-1-yl-ethyl)cyclohexyl] urea is formed, d) which is converted to cariprazine borane adduct of formula , in the presence of a borohydride compound, borane or a borane complex as a reducing agent, e) and the final product itself is eliminated directly or is obtained from its salt.
An air drying device for controlling air amount and water content of a compressed air reservoir of a vehicle, said device comprising: - a body unit ; - an interface adapted to provide a connection for at least two of a valve-based pressure control and regeneration module , a pneumatic pressure control and regeneration module , and an electronically controlled pressure control and regeneration module ; and - an input port for inputting at least one pressure signal; - wherein said air drying device is adapted to receive said at least one pressure signal via said input port before said at least one pressure signal is used for controlling said air drying device. - a body unit ; - an interface adapted to provide a connection for at least two of a valve-based pressure control and regeneration module , a pneumatic pressure control and regeneration module , and an electronically controlled pressure control and regeneration module ; and - an input port for inputting at least one pressure signal; - wherein said air drying device is adapted to receive said at least one pressure signal via said input port before said at least one pressure signal is used for controlling said air drying device.
A vehicle control system comprising a plurality of speed control systems each operable to cause the vehicle to operate in accordance with a respective target speed, wherein, when a user request is received (S105) to transfer responsibility for speed control from a first one of the plurality of speed control systems to a second one of the speed control systems, the vehicle control system determines (S107) whether a current value of the vehicle speed is within an allowable range for operation of the second speed control, and when it is determined that the current value of the vehicle speed is within the allowable range, a value of target speed of the second speed control system is set to a value dependent on the target speed of the first speed control system, the vehicle control system being further operable to determine (S109) whether the instant value of the target speed of the first one of the speed control systems is within a range of allowable target speed values of the second one of the speed control systems, and to set (S111) the target speed of the second one of the speed control systems to the instant value of the target speed of the first one of the speed control systems when the instant value of the target speed is within the range of allowable target speed values, and to set (S113) the target speed of the second one of the speed control systems to a value that is the closest allowable value to the instant target speed of the first one of the speed control systems when the instant value of the target speed is not within the range of allowable target speed values.
A method for encoding a secret S, the method comprising performing on an encoding computer: retrieving one or more public parameters generated based on a specified memory-hard function MHF and a security parameter λ, wherein the security parameter λ is specified according to a desired security level for encoding the secret S; applying the specified memory-hard function MHF to the secret S or to a function of the secret S to obtain a result Y, wherein the applying of the specified memory-hard function MHF to the secret S requires at least N bytes of memory on the encoding computer, N being at least one gigabyte; determining , using a prove function, a proof value π using the secret S, the result Y, and the one or more public parameters; assembling a codeword C comprising the proof value π, the secret S, and the result Y; and sending the codeword C to a device that is configured to store and later decode the codeword C, wherein the proof value π is configured to be used by a decoding function of the device to verify a correctness of the result Y as being obtained by applying the specified memory-hard function MHF to the secret S, wherein the decoding function is operable to use K bytes of memory, K being less than N. retrieving one or more public parameters generated based on a specified memory-hard function MHF and a security parameter λ, wherein the security parameter λ is specified according to a desired security level for encoding the secret S; applying the specified memory-hard function MHF to the secret S or to a function of the secret S to obtain a result Y, wherein the applying of the specified memory-hard function MHF to the secret S requires at least N bytes of memory on the encoding computer, N being at least one gigabyte; determining , using a prove function, a proof value π using the secret S, the result Y, and the one or more public parameters; assembling a codeword C comprising the proof value π, the secret S, and the result Y; and sending the codeword C to a device that is configured to store and later decode the codeword C, wherein the proof value π is configured to be used by a decoding function of the device to verify a correctness of the result Y as being obtained by applying the specified memory-hard function MHF to the secret S, wherein the decoding function is operable to use K bytes of memory, K being less than N.
A stent graft delivery system comprising: a stent graft cover configured to maintain a stent graft in a constricted configuration, and configured to slide relative to the stent graft to enable the stent graft to expand radially outwardly, wherein the stent graft cover extends along a first central axis; and a tapered tip defining an opening therethrough that is configured to track along a guidewire, wherein the opening extends along a second central axis that is offset from the first central axis, wherein the tapered tip defines a second opening therethrough that is configured to track along a second guidewire. a stent graft cover configured to maintain a stent graft in a constricted configuration, and configured to slide relative to the stent graft to enable the stent graft to expand radially outwardly, wherein the stent graft cover extends along a first central axis; and a tapered tip defining an opening therethrough that is configured to track along a guidewire, wherein the opening extends along a second central axis that is offset from the first central axis, wherein the tapered tip defines a second opening therethrough that is configured to track along a second guidewire.
A memory device comprising: a memory cell array including a plurality of memory cells (MC1-MC4); a plurality of data latches (LAT_1-LAT_3) connected with a sensing node (n_SO), and configured to store data that is to be stored in a first memory cell of the plurality of memory cells (MC1-MC4); a sensing latch (LAT_S) connected with the sensing node (n_SO); a temporary storage node (n_TS); a switch (SW) connected between the sensing latch (LAT_S) and the temporary storage node (n_TS), and configured to operate in response to a temporary storage node setup signal; a first precharge circuit (PRE1) configured to selectively precharge a first bit line (BL1) corresponding to the first memory cell, the selectively precharging the first bit line (BL1) depending on a level of the temporary storage node (n_TS); and a control logic circuit configured to control a dump operation between the plurality of data latches (LAT_1-LAT_3), the sensing latch (LAT_S), and the temporary storage node (n_TS), wherein the control logic circuit is configured to perform the dump operation from the plurality of data latches (LAT_1-LAT_3) to the sensing latch (LAT_S) while the first precharge circuit selectively (PRE1) precharges the first bit line (BL1). a memory cell array including a plurality of memory cells (MC1-MC4); a plurality of data latches (LAT_1-LAT_3) connected with a sensing node (n_SO), and configured to store data that is to be stored in a first memory cell of the plurality of memory cells (MC1-MC4); a sensing latch (LAT_S) connected with the sensing node (n_SO); a temporary storage node (n_TS); a switch (SW) connected between the sensing latch (LAT_S) and the temporary storage node (n_TS), and configured to operate in response to a temporary storage node setup signal; a first precharge circuit (PRE1) configured to selectively precharge a first bit line (BL1) corresponding to the first memory cell, the selectively precharging the first bit line (BL1) depending on a level of the temporary storage node (n_TS); and a control logic circuit configured to control a dump operation between the plurality of data latches (LAT_1-LAT_3), the sensing latch (LAT_S), and the temporary storage node (n_TS), wherein the control logic circuit is configured to perform the dump operation from the plurality of data latches (LAT_1-LAT_3) to the sensing latch (LAT_S) while the first precharge circuit selectively (PRE1) precharges the first bit line (BL1).
Load management device for a charging arrangement having a plurality of charging stations for charging electric vehicles , comprising: - at least one load management module configured to set a power distribution at the plurality of charging stations at least based on at least one distribution rule and a maximum available power, characterized in that - the load management device comprises at least one activatable reactive power compensation module configured to reduce a reactive power caused by the charging arrangement , - wherein the load management module is configured to activate the reactive power compensation module based on at least one provided reactive power parameter and the set power distribution such that the reactive power caused by the charging arrangement is reduced. - at least one load management module configured to set a power distribution at the plurality of charging stations at least based on at least one distribution rule and a maximum available power, characterized in that - the load management device comprises at least one activatable reactive power compensation module configured to reduce a reactive power caused by the charging arrangement , - wherein the load management module is configured to activate the reactive power compensation module based on at least one provided reactive power parameter and the set power distribution such that the reactive power caused by the charging arrangement is reduced.
A method for controlling a train suspension with multiple air springs, wherein the method comprises: receiving a train load pressure; and adjusting a pressure of a first air spring group, a pressure of a second air spring group and/or a pressure a third air spring group by controlling a height adjusting valve according to the train load pressure; wherein three height adjusting valves are provided, and the three height adjusting valves are distributed at three vertexes of a triangle respectively; the first air spring group, the second air spring group and the third air spring group comprise a plurality of individual air springs , and all the individual air springs in each air spring group are correspondingly connected to a same height adjusting valve, wherein the train is composed of a plurality of carriages, and all of the individual air springs in bogies of the carriages are divided into the first air spring group, the second air spring group, and the third air spring group, the number of individual air springs in the first air spring group is the same as the number of individual air springs in the second air spring group, and the first air spring group and the second air spring group are located on both sides of the train along a running direction of the train respectively, and a center of gravity of the triangle coincides with a center of gravity of a baseplate of the train. receiving a train load pressure; and adjusting a pressure of a first air spring group, a pressure of a second air spring group and/or a pressure a third air spring group by controlling a height adjusting valve according to the train load pressure; wherein three height adjusting valves are provided, and the three height adjusting valves are distributed at three vertexes of a triangle respectively; the first air spring group, the second air spring group and the third air spring group comprise a plurality of individual air springs , and all the individual air springs in each air spring group are correspondingly connected to a same height adjusting valve, wherein the train is composed of a plurality of carriages, and all of the individual air springs in bogies of the carriages are divided into the first air spring group, the second air spring group, and the third air spring group, the number of individual air springs in the first air spring group is the same as the number of individual air springs in the second air spring group, and the first air spring group and the second air spring group are located on both sides of the train along a running direction of the train respectively, and a center of gravity of the triangle coincides with a center of gravity of a baseplate of the train.
A method for network management, the method comprising: generating a map displaying network devices ; calculating paths between the network devices, including both an underlay path (L2) and an overlay path (L3); providing a graphical user interface for selecting path types between each of the network devices, wherein the graphical user interface includes an application manager; displaying, on the graphical user interface, one of the paths based on a selection of the path types between each of the network devices, defining, by the application manager, one or more applications ; associating at least some of the paths with the defined one or more applications; receiving a selection of one of the one or more applications; and displaying the path associated with the selected application, wherein calculating paths comprises automatically selecting path types to calculate based on a topology dependency type of an outbound interface at each hop. generating a map displaying network devices ; calculating paths between the network devices, including both an underlay path (L2) and an overlay path (L3); providing a graphical user interface for selecting path types between each of the network devices, wherein the graphical user interface includes an application manager; displaying, on the graphical user interface, one of the paths based on a selection of the path types between each of the network devices, defining, by the application manager, one or more applications ; associating at least some of the paths with the defined one or more applications; receiving a selection of one of the one or more applications; and displaying the path associated with the selected application, wherein calculating paths comprises automatically selecting path types to calculate based on a topology dependency type of an outbound interface at each hop.
An epoxy resin composition comprising: an epoxy resin [A] that is a compound represented by Chemical formula shown below: wherein R 1 to R 4 each independently represent one selected from the group consisting of a hydrogen atom, an aliphatic hydrocarbon group, an alicyclic hydrocarbon group, and a halogen atom, and X is -O-; a bifunctional epoxy resin [B] having an amine type glycidyl group; a curing agent [C] containing an aromatic polyamine, and having at least one substituent selected from an aliphatic substituent, an aromatic substituent, and a halogen atom at an ortho position with respect to an amino group; and a particulate rubber component [D]. an epoxy resin [A] that is a compound represented by Chemical formula shown below: wherein R 1 to R 4 each independently represent one selected from the group consisting of a hydrogen atom, an aliphatic hydrocarbon group, an alicyclic hydrocarbon group, and a halogen atom, and X is -O-; a bifunctional epoxy resin [B] having an amine type glycidyl group; a curing agent [C] containing an aromatic polyamine, and having at least one substituent selected from an aliphatic substituent, an aromatic substituent, and a halogen atom at an ortho position with respect to an amino group; and a particulate rubber component [D].
A tarpaulin structure for an understructure, such as a truck, a trailer, a semi-trailer, railway car, dump truck or container, comprising a folding top-frame , and a tarpaulin made of weather-resistant material, wherein the folding-top frame has a plurality of struts which have, on the ends, in each case a carriage which is displaceable along a guide , wherein at least one bow is pivotally connected to either a pair of opposite carriages (32; 32') of the strut or to the strut , wherein the bow forms a tarpaulin folding aid along with a bow (26; 36) of an adjacent strut or of a pair of opposite carriages (32; 32') or of a stationary part of the folding-top frame , wherein a covering bow (46; 1046) is pivotally connected on the frontmost pair of carriages , characterized in that an auxiliary bow (36'; 1036) is articulated on the frontmost carriage between the covering bow (46; 1046) and the strut connected to the frontmost carriage , and that a distance is provided between an articulation of the auxiliary bow (36'; 1036) and the strut , such that, when the folding-top frame is at least partially opened, the auxiliary bow (36'; 1036) can be transferred to an overturned position toward the strut of the frontmost pair of carriages . a folding top-frame , and a tarpaulin made of weather-resistant material, wherein the folding-top frame has a plurality of struts which have, on the ends, in each case a carriage which is displaceable along a guide , wherein at least one bow is pivotally connected to either a pair of opposite carriages (32; 32') of the strut or to the strut , wherein the bow forms a tarpaulin folding aid along with a bow (26; 36) of an adjacent strut or of a pair of opposite carriages (32; 32') or of a stationary part of the folding-top frame , wherein a covering bow (46; 1046) is pivotally connected on the frontmost pair of carriages , characterized in that an auxiliary bow (36'; 1036) is articulated on the frontmost carriage between the covering bow (46; 1046) and the strut connected to the frontmost carriage , and that a distance is provided between an articulation of the auxiliary bow (36'; 1036) and the strut , such that, when the folding-top frame is at least partially opened, the auxiliary bow (36'; 1036) can be transferred to an overturned position toward the strut of the frontmost pair of carriages .
A negative active material for a rechargeable lithium battery, comprising a silicon-based active material including a core; and a coating layer surrounding the core, wherein the core comprises crystalline carbon and amorphous SiO x particles (0.5≤ x ≤1.5) where the SiO x particles have an average particle diameter of about 0.3 μm to about 5 μm, and wherein the coating layer comprises amorphous carbon; wherein the crystalline carbon of the core comprises pores, and wherein the core is formed from crystalline carbon and amorphous SiO x particles. a silicon-based active material including a core; and a coating layer surrounding the core, wherein the core comprises crystalline carbon and amorphous SiO x particles (0.5≤ x ≤1.5) where the SiO x particles have an average particle diameter of about 0.3 μm to about 5 μm, and wherein the coating layer comprises amorphous carbon; wherein the crystalline carbon of the core comprises pores, and wherein the core is formed from crystalline carbon and amorphous SiO x particles.
A fluid heater having a housing through which a fluid can flow and in which at least one heating element for heating the fluid is accommodated, characterized in that at least two housing-side and heating-element-side components spaced apart from each other form an electrode or a counter electrode of a capacitor whose dielectric is formed by the fluid and which is connected to power electronics in such a way that the fill level of the fluid heater can be determined from a change in capacitance of the capacitor .