mhurhangee/patent-ind-claim-en huggingface dataset:
A control device for an AC rotating machine comprising: a voltage command calculation means that calculates a first-axis voltage command and a second-axis voltage command for two rotating axes, each rotating in synchronization with the rotation of the AC rotating machine, the first axis of the two rotating axes being set to a direction having the same phase as the rotor magnetic flux of the AC rotating machine, and the second axis of the two rotating axes being set to a direction that is perpendicular to the first axis of the two rotating axes; and a voltage applying means that applies a voltage to an AC rotating machine , based on voltage commands outputted by the voltage command calculation means , characterized in that the voltage command calculation means calculates a limit value of the voltage command on the second axis by subtracting a value proportional to the square of the voltage command on the first axis from a predetermined value. a voltage command calculation means that calculates a first-axis voltage command and a second-axis voltage command for two rotating axes, each rotating in synchronization with the rotation of the AC rotating machine, the first axis of the two rotating axes being set to a direction having the same phase as the rotor magnetic flux of the AC rotating machine, and the second axis of the two rotating axes being set to a direction that is perpendicular to the first axis of the two rotating axes; and a voltage applying means that applies a voltage to an AC rotating machine , based on voltage commands outputted by the voltage command calculation means , characterized in that the voltage command calculation means calculates a limit value of the voltage command on the second axis by subtracting a value proportional to the square of the voltage command on the first axis from a predetermined value.
A method of transmitting channel status information, CSI, by a first user equipment, UE, in a wireless communication system, the method comprising: receiving a modulation coding scheme, MCS, table configuration for a resource pool; transmitting, by the first UE to a second UE, sidelink UE capability information including first MCS table information supported by the first UE; receiving (S1101), through physical sidelink control channel, PSCCH, second MCS table information from the second UE by the first UE; receiving (S1102), from the second UE by the first UE, a channel status information-reference signal, CSI-RS, and a physical sidelink shared channel, PSSCH, related to the received PSCCH; deriving (S1103) CSI information based on the CSI-RS; and transmitting (S1104) a CSI report including the CSI information to the second UE by the first UE, wherein a MCS table for the CSI information is determined based on the second MCS table information received from the second UE. receiving a modulation coding scheme, MCS, table configuration for a resource pool; transmitting, by the first UE to a second UE, sidelink UE capability information including first MCS table information supported by the first UE; receiving (S1101), through physical sidelink control channel, PSCCH, second MCS table information from the second UE by the first UE; receiving (S1102), from the second UE by the first UE, a channel status information-reference signal, CSI-RS, and a physical sidelink shared channel, PSSCH, related to the received PSCCH; deriving (S1103) CSI information based on the CSI-RS; and transmitting (S1104) a CSI report including the CSI information to the second UE by the first UE, wherein a MCS table for the CSI information is determined based on the second MCS table information received from the second UE.
A method for use in a distributed computing environment comprising a cluster , the cluster comprising a plurality of nodes (104-1, 104-2, 104-n), the method adapted to place an application on a node in the cluster, the method comprising: determining that a first application cannot be placed on a first node of the plurality of nodes in the first node's current running state; determining that the first application may be able to be placed on the first node by shutting down or moving one or more other applications running on the first node; and attempting to shut down or move the one or more other applications on the first node to place the first application, wherein the one or more other application are selected to be shut down or moved based on a determination of a fewest applications affected so as to minimize the number of applications that are shut down to free up resources for the first application; the method further comprising: delaying a restart of the one or more other applications that were shut down for a predetermined period of time to prevent a cascade of preemptions and restarts. determining that a first application cannot be placed on a first node of the plurality of nodes in the first node's current running state; determining that the first application may be able to be placed on the first node by shutting down or moving one or more other applications running on the first node; and attempting to shut down or move the one or more other applications on the first node to place the first application, wherein the one or more other application are selected to be shut down or moved based on a determination of a fewest applications affected so as to minimize the number of applications that are shut down to free up resources for the first application; the method further comprising: delaying a restart of the one or more other applications that were shut down for a predetermined period of time to prevent a cascade of preemptions and restarts.
A biopolymer that is functionalized with a growth factor-binding peptide, wherein said peptide comprises an amino acid sequence selected from: LPLGNSH, GLPLGNSH, KGLPLGNSH, SWWAPFH, GSWWAPFH, KGSWWAPFH, YPVHPST, GYPVHPST or KGYPVHPST, wherein the peptide is coupled to a carbonyl group of the non-functionalized biopolymer through binding of an N-terminal amine group, wherein the non-functionalized biopolymer is a polyester.
A display system for generating a virtual display, the display system comprising: a physical display ; and a computing device comprising: a graphics processing unit including a first frame buffer storing first frames and a second frame buffer storing second frames ; a processor operationally connected to the graphics processing unit, the processor is configured to: retrieve the content of the first frames and the content of the second frames from the graphics processing unit; combine the content of the first frames and the content of the second frames into third frames, wherein the third frames include the content of the first frames at least partially overlapped and obscured by the content of the second frames ; and provide the third frames to the graphics processing unit; wherein the graphics processing unit is configured to provide the third frames to the physical display ; wherein a user controllable pointer is displayed in an display image of the physical display , the display image having the content of the first frame , and characterised in that the system is configured so that the content of the second frame is only transferred to the physical display and simultaneously displayed with the content of the first frames if the user controllable pointer moves from being displayed in the display image on the physical display and enters a predefined area outside the physical display . a physical display ; and a computing device comprising: a graphics processing unit including a first frame buffer storing first frames and a second frame buffer storing second frames ; a processor operationally connected to the graphics processing unit, the processor is configured to: retrieve the content of the first frames and the content of the second frames from the graphics processing unit; combine the content of the first frames and the content of the second frames into third frames, wherein the third frames include the content of the first frames at least partially overlapped and obscured by the content of the second frames ; and provide the third frames to the graphics processing unit; a graphics processing unit including a first frame buffer storing first frames and a second frame buffer storing second frames ; a processor operationally connected to the graphics processing unit, the processor is configured to: retrieve the content of the first frames and the content of the second frames from the graphics processing unit; combine the content of the first frames and the content of the second frames into third frames, wherein the third frames include the content of the first frames at least partially overlapped and obscured by the content of the second frames ; and provide the third frames to the graphics processing unit; retrieve the content of the first frames and the content of the second frames from the graphics processing unit; combine the content of the first frames and the content of the second frames into third frames, wherein the third frames include the content of the first frames at least partially overlapped and obscured by the content of the second frames ; and provide the third frames to the graphics processing unit;
A method for estimating a SOC of a battery pack , wherein the battery pack comprises a first cell without a plateau and a second cell with a plateau, and at least one first cell is serially connected to the second cell , and the method comprises: determining (S101) a capacity variation of the battery pack based on a SOC variation of the first cell in comparison with an initial SOC of the first cell , and based on a nominal capacity of the first cell ; obtaining (S102) an equalization capacity of the first cell and an equalization capacity of the second cell , each equalization capacity being obtained by calculating the integral of an equalization current with respect to an equalization time; and estimating (S103) a SOC of the second cell based on the capacity variation of the battery pack , the nominal capacity of the first cell , the equalization capacity of the first cell , the equalization capacity of the second cell , and an initial SOC of the second cell , and determining the SOC of the battery pack based on the SOC of the second cell . determining (S101) a capacity variation of the battery pack based on a SOC variation of the first cell in comparison with an initial SOC of the first cell , and based on a nominal capacity of the first cell ; obtaining (S102) an equalization capacity of the first cell and an equalization capacity of the second cell , each equalization capacity being obtained by calculating the integral of an equalization current with respect to an equalization time; and estimating (S103) a SOC of the second cell based on the capacity variation of the battery pack , the nominal capacity of the first cell , the equalization capacity of the first cell , the equalization capacity of the second cell , and an initial SOC of the second cell , and determining the SOC of the battery pack based on the SOC of the second cell .
A process for producing acetic acid, comprising the steps of: reacting carbon monoxide with at least one reactant in a reactor containing a reaction medium to produce a reaction product comprising acetic acid, wherein the reaction medium comprises water, acetic acid, methyl acetate, a halogen promoter, and a catalyst; withdrawing a portion of the reaction product to a pump-around loop; and feeding a portion of the at least one reactant to the pump-around loop, wherein the at least one reactant is selected from the group consisting of methanol, methyl acetate, methyl formate, dimethyl ether, and mixtures thereof. reacting carbon monoxide with at least one reactant in a reactor containing a reaction medium to produce a reaction product comprising acetic acid, wherein the reaction medium comprises water, acetic acid, methyl acetate, a halogen promoter, and a catalyst; withdrawing a portion of the reaction product to a pump-around loop; and feeding a portion of the at least one reactant to the pump-around loop, wherein the at least one reactant is selected from the group consisting of methanol, methyl acetate, methyl formate, dimethyl ether, and mixtures thereof.
A line-scan sensor for combined imaging and spectral measurements, integrated on a single semiconductor substrate, said sensor including: a plurality of pixel lines, each pixel line including a plurality of pixels, at least one of said pixel lines being an imaging line (232, 234, 236 1 , 236 2 ) designated for acquiring at least one image of an object and at least one of said pixel lines, different from said at least one imaging line, being a spectral measurement line (238 1 , 238 2 ), designated for acquiring a spectral measurement of light received from said object, each imaging line (232, 234, 236 1 , 236 2 ) being associated with a single respective spectral response within a spectral range, each pixel in each spectral measurement line (238 1 , 238 2 ) being associated with a respective pixel spectral band, each of at least three pixels in each of said spectral measurement lines (238 1 , 238 2 ) being respectively associated with different respective pixel spectral bands, said different respective pixel spectral bands being non-identical to any one of said single spectral responses associated with each said imaging lines, wherein said at least one of pixel lines being said spectral measurement line (238 1 , 238 2 ) includes two spectral measurement lines, and wherein each two horizontally adjacent groups of four pixels (244 1 -244 n ) in the two spectral measurement lines are separated by two vertically adjacent pixels (246 1- 246 n-1 ), said two vertically adjacent pixels (246 1- 246 n-1 ) are covered with an opaque material. a plurality of pixel lines, each pixel line including a plurality of pixels, at least one of said pixel lines being an imaging line (232, 234, 236 1 , 236 2 ) designated for acquiring at least one image of an object and at least one of said pixel lines, different from said at least one imaging line, being a spectral measurement line (238 1 , 238 2 ), designated for acquiring a spectral measurement of light received from said object, each imaging line (232, 234, 236 1 , 236 2 ) being associated with a single respective spectral response within a spectral range, each pixel in each spectral measurement line (238 1 , 238 2 ) being associated with a respective pixel spectral band, each of at least three pixels in each of said spectral measurement lines (238 1 , 238 2 ) being respectively associated with different respective pixel spectral bands, said different respective pixel spectral bands being non-identical to any one of said single spectral responses associated with each said imaging lines, wherein said at least one of pixel lines being said spectral measurement line (238 1 , 238 2 ) includes two spectral measurement lines, and wherein each two horizontally adjacent groups of four pixels (244 1 -244 n ) in the two spectral measurement lines are separated by two vertically adjacent pixels (246 1- 246 n-1 ), said two vertically adjacent pixels (246 1- 246 n-1 ) are covered with an opaque material.
Rectangular baler having a wall positioning system, the baler comprising a bale chamber which comprises a plurality of walls including a movable wall section , wherein the wall positioning system comprises: - positioning means for moving the movable wall section from a first position to a second position; wherein the positioning means are configured for applying pressure to a first pressure point and to a second pressure point on the movable wall section such that the second position of the movable wall section is substantially parallel to the first position of the movable wall section , and wherein the first pressure point and the second pressure point are spaced apart along a longitudinal direction of the bale chamber; and wherein the positioning means comprise: - actuator means for applying pressure to the first pressure point ; - coupling means for providing a coupling between the first pressure point and the second pressure point , which are configured for transferring pressure, which is applied to the first pressure point , to the second pressure point ; characterized in that the coupling means comprise a rod which is arranged substantially parallel to the movable wall section , and which is at a first end , hingedly connected to a frame of the baler and to a point on the movable wall section nearby the first pressure point , and at a second end , hingedly connected to the frame of the baler and to the second pressure point . - positioning means for moving the movable wall section from a first position to a second position; wherein the positioning means are configured for applying pressure to a first pressure point and to a second pressure point on the movable wall section such that the second position of the movable wall section is substantially parallel to the first position of the movable wall section , and wherein the first pressure point and the second pressure point are spaced apart along a longitudinal direction of the bale chamber; and wherein the positioning means comprise: - actuator means for applying pressure to the first pressure point ; - coupling means for providing a coupling between the first pressure point and the second pressure point , which are configured for transferring pressure, which is applied to the first pressure point , to the second pressure point ;
A dental round blank holding ring, wherein the holding ring consists of at least two components , characterized in that the harder one of which overlaps the softer one and in that the holding ring comprises a horizontally extending separation plane at which an upper part of the holding ring can be separated from a lower part of the holding ring , wherein the softer component consists of a thermoplastic elastomer or another plastic material with a Shore A hardness of less than 80, and that the holding ring comprises a vertically extending parting line which interrupts the holding ring at that point or a slit at which the holding ring can be spread open.
A method of manufacturing conductive wiring, the method comprising: printing on an insulated substrate with ink to form a predetermined pattern; placing conductive powder on the ink before the ink dries; pressing the placed conductive powder against the insulated substrate to compress the conductive powder ; and heating the compressed conductive powder to sinter the conductive powder and to reduce a spacing between the particles of the conductive powder , characterized in that the insulated substrate is transparent or white, and the heating includes irradiating the compressed conductive powder with YAG laser light. printing on an insulated substrate with ink to form a predetermined pattern; placing conductive powder on the ink before the ink dries; pressing the placed conductive powder against the insulated substrate to compress the conductive powder ; and heating the compressed conductive powder to sinter the conductive powder and to reduce a spacing between the particles of the conductive powder , characterized in that the insulated substrate is transparent or white, and the heating includes irradiating the compressed conductive powder with YAG laser light.
A composition, comprising: a) a compound that is selected from the group consisting of maltose, glycerol, an amino acid, an oligopeptide, or a mixture of one or more thereof, in a content of 5 to 75 wt-% of the total weight of a)-d), b) glucose in a content of less than 1/2 the content of a), and in a total content of less than 5 wt-% of the total weight of a)-d), c) glucan molecules of DP 3 and DP 4, taken together, in a content of less than 1/2 of the content of a), d) glucan molecules of DP>4 in a content to give 100 wt-% together with a), b) and c), wherein - glucan molecules of DP>10 are present in an amount of 15-80 wt-% of the total weight of a)-d), - glucan molecules of DP>24 are present in an amount of 2-60 wt-% of the total weight of a)-d), - glucan molecules of DP>55 are present in an amount of less than 15 wt-% of the total weight of a)-d). a) a compound that is selected from the group consisting of maltose, glycerol, an amino acid, an oligopeptide, or a mixture of one or more thereof, in a content of 5 to 75 wt-% of the total weight of a)-d), b) glucose in a content of less than 1/2 the content of a), and in a total content of less than 5 wt-% of the total weight of a)-d), c) glucan molecules of DP 3 and DP 4, taken together, in a content of less than 1/2 of the content of a), d) glucan molecules of DP>4 in a content to give 100 wt-% together with a), b) and c), wherein - glucan molecules of DP>10 are present in an amount of 15-80 wt-% of the total weight of a)-d), - glucan molecules of DP>24 are present in an amount of 2-60 wt-% of the total weight of a)-d), - glucan molecules of DP>55 are present in an amount of less than 15 wt-% of the total weight of a)-d). - glucan molecules of DP>10 are present in an amount of 15-80 wt-% of the total weight of a)-d), - glucan molecules of DP>24 are present in an amount of 2-60 wt-% of the total weight of a)-d), - glucan molecules of DP>55 are present in an amount of less than 15 wt-% of the total weight of a)-d).
Method for protecting a charging station (LS) against improper use, in which a first device - checks a first identification feature (ID1) and - authorizes an electrical charging procedure if the inspection was successful, characterized in that - the first device or a second device checks a second identification feature (ID2) before and during or only during the electrical charging procedure, and - the electrical charging procedure is continued only if the inspection of the second identification feature (ID2) was successful. - checks a first identification feature (ID1) and - authorizes an electrical charging procedure if the inspection was successful, - the first device or a second device checks a second identification feature (ID2) before and during or only during the electrical charging procedure, and - the electrical charging procedure is continued only if the inspection of the second identification feature (ID2) was successful.
A stator assembly comprising: a stator core (501; 601) having a plurality of slots (503; 603); at least two coils of different phases wound on the stator core (501; 601) through the slots (503; 603) and having an end turn (502; 602) that extends from the stator core (501; 601); and one or more separator members (100; 900) positioned between adjacent end turns (502; 602) of the coils and maintaining space between the adjacent end turns (502; 602), the separator members (100; 900) constructed of a rigid dielectric material; characterized by : one or more electrically insulating sheets (200; 800) constructed of a flexible dielectric material comprising a plurality of through holes (121; 805), the sheets (200; 800) positioned between end turns (502; 602) of adjacent coils of different phases so that the through holes (121; 805) of the sheets (200; 800) form passageways between the adjacent end turns (502; 602). a stator core (501; 601) having a plurality of slots (503; 603); at least two coils of different phases wound on the stator core (501; 601) through the slots (503; 603) and having an end turn (502; 602) that extends from the stator core (501; 601); and one or more separator members (100; 900) positioned between adjacent end turns (502; 602) of the coils and maintaining space between the adjacent end turns (502; 602), the separator members (100; 900) constructed of a rigid dielectric material; characterized by : one or more electrically insulating sheets (200; 800) constructed of a flexible dielectric material comprising a plurality of through holes (121; 805), the sheets (200; 800) positioned between end turns (502; 602) of adjacent coils of different phases so that the through holes (121; 805) of the sheets (200; 800) form passageways between the adjacent end turns (502; 602).