mhurhangee/ep-ind-claims huggingface dataset:
A coaxial rotorcraft system comprising: first and second counter-rotating rotors (118 and 120), each having a plurality of blades for generating lift when rotating; one or more electronically controlled electric motors operatively coupled to the first and second counter-rotating rotors (118 and 120); a plurality of electronically controlled actuators (130, 132), each actuator operatively coupled to one or more of the plurality of blades and arranged to control an angle of attack of the one or more of the plurality of blades; a control module (134, 202) arranged to: receive rotorcraft air velocity data, first and second counter-rotating rotors angular velocity data, external air temperature data and rotorcraft altitude data; calculate air velocity over the plurality of blades; continuously analyse the received data; and generate, based on the analysed data, one or more actuation signals to control the one or more electric motors and/or the actuators (130, 132) in a manner such that a pre-determined lift is maintained when the plurality of blades are rotating; and one or more rotor hubs (122, 124), directly coupled to the one or more electronically controlled electric motors and the first and second counter-rotating rotors (118 and 120), wherein the one or more electronically controlled electric motors are axial flux electric motors. first and second counter-rotating rotors (118 and 120), each having a plurality of blades for generating lift when rotating; one or more electronically controlled electric motors operatively coupled to the first and second counter-rotating rotors (118 and 120); a plurality of electronically controlled actuators (130, 132), each actuator operatively coupled to one or more of the plurality of blades and arranged to control an angle of attack of the one or more of the plurality of blades; a control module (134, 202) arranged to: receive rotorcraft air velocity data, first and second counter-rotating rotors angular velocity data, external air temperature data and rotorcraft altitude data; calculate air velocity over the plurality of blades; continuously analyse the received data; and generate, based on the analysed data, one or more actuation signals to control the one or more electric motors and/or the actuators (130, 132) in a manner such that a pre-determined lift is maintained when the plurality of blades are rotating; and receive rotorcraft air velocity data, first and second counter-rotating rotors angular velocity data, external air temperature data and rotorcraft altitude data; calculate air velocity over the plurality of blades; continuously analyse the received data; and generate, based on the analysed data, one or more actuation signals to control the one or more electric motors and/or the actuators (130, 132) in a manner such that a pre-determined lift is maintained when the plurality of blades are rotating; and one or more rotor hubs (122, 124), directly coupled to the one or more electronically controlled electric motors and the first and second counter-rotating rotors (118 and 120), wherein the one or more electronically controlled electric motors are axial flux electric motors.
A method for application layer link control, comprising the following steps: judging whether the number "a" of links which have been established between an exterior internet protocol, IP, entity and a multimedia messaging service gateway, MMSG, in current granularity is less than a threshold number "A" of links for establishing a connection with the MMSG in the current granularity; if it is determined to be "yes", subtracting the "a" from the "A" to obtain a threshold number "B" of links for establishing a connection with the MMSG in a next granularity, wherein B=A-a; and otherwise, obtaining that the threshold number "B" of links for establishing a connection with the MMSG in the next granularity equals 0, and rejecting a request that the exterior IP entity initiates to establish a connection with the MMSG in the next granularity, wherein the "a" is the sum of the numbers of links which have been established between the exterior IP entity and each service processor forming the MMSG respectively. judging whether the number "a" of links which have been established between an exterior internet protocol, IP, entity and a multimedia messaging service gateway, MMSG, in current granularity is less than a threshold number "A" of links for establishing a connection with the MMSG in the current granularity; if it is determined to be "yes", subtracting the "a" from the "A" to obtain a threshold number "B" of links for establishing a connection with the MMSG in a next granularity, wherein B=A-a; and otherwise, obtaining that the threshold number "B" of links for establishing a connection with the MMSG in the next granularity equals 0, and rejecting a request that the exterior IP entity initiates to establish a connection with the MMSG in the next granularity, wherein the "a" is the sum of the numbers of links which have been established between the exterior IP entity and each service processor forming the MMSG respectively.
Wedge profile part for use in a glass railing holder assembly comprising a carrier profile for a glass pane to be used as a railing, the carrier profile being provided - preferably on the inside - with two lateral cheeks (8, 10) forming parallel and plane flanks, the wedge profile part comprising - a wedge fixing assembly comprising, on the one hand, attachment legs (11, 12) with attachment surfaces (13, 14) opening upwardly in the shape of a wedge, the attachment legs (11, 12) being associated to the carrier profile and configured to be arranged on the respective inner and outer sides of the glass pane and, on the other hand, fixing wedges (15, 16) to be clamped between the inner or outer edge zone (5, 6), respectively, of the glass pane and the corresponding attachment surface (13, 14) of the attachment legs (11, 12), and - a bottom fixation for the inner and outer edge zones (5, 6) in front of the lower edge of the glass pane, - the bottom fixation being formed by a wedging configuration provided on the wedge profile part (29', 29"), the wedging configuration comprising a wedge block (34, 34') guided for displacement along the wedge profile part (29, 29") in such a way that by displacing the wedge profile part (29', 29") in relation to the wedge block (34, 34'), the glass pane can be clamped towards the respective inner or outer lateral cheek (8, 10) of the carrier profile. - a wedge fixing assembly comprising, on the one hand, attachment legs (11, 12) with attachment surfaces (13, 14) opening upwardly in the shape of a wedge, the attachment legs (11, 12) being associated to the carrier profile and configured to be arranged on the respective inner and outer sides of the glass pane and, on the other hand, fixing wedges (15, 16) to be clamped between the inner or outer edge zone (5, 6), respectively, of the glass pane and the corresponding attachment surface (13, 14) of the attachment legs (11, 12), and - a bottom fixation for the inner and outer edge zones (5, 6) in front of the lower edge of the glass pane, - the bottom fixation being formed by a wedging configuration provided on the wedge profile part (29', 29"), the wedging configuration comprising a wedge block (34, 34') guided for displacement along the wedge profile part (29, 29") in such a way that by displacing the wedge profile part (29', 29") in relation to the wedge block (34, 34'), the glass pane can be clamped towards the respective inner or outer lateral cheek (8, 10) of the carrier profile.
A measurement device (100; 200) comprising: a group of logic blocks (120; 220), which includes at least one combination of a logic block (122; 222) having at least one logic device, a sequential circuit for receiving, as an input, an output of the logic block (122; 222), a bypass for bypassing the logic block (122; 222), and a switch for switching between a path inputting to the logic block (122; 222) and the bypass; and a control part (101; 201), which is adapted to: obtain a count of errors in the logic block (122; 222) by turning the switch to the path inputting to the logic block (122; 222) and by irradiating high-energy particles to the group of logic blocks (120; 220); obtain a count of errors in the logic block (122; 222) by turning the switch to the bypass and by irradiating high-energy particles to the group of logic blocks (120; 220); and subtract the latter count of errors from the former count of errors, to calculate an error rate of the logic device on a basis of a count of errors obtained by the subtraction. a group of logic blocks (120; 220), which includes at least one combination of a logic block (122; 222) having at least one logic device, a sequential circuit for receiving, as an input, an output of the logic block (122; 222), a bypass for bypassing the logic block (122; 222), and a switch for switching between a path inputting to the logic block (122; 222) and the bypass; and a control part (101; 201), which is adapted to: obtain a count of errors in the logic block (122; 222) by turning the switch to the path inputting to the logic block (122; 222) and by irradiating high-energy particles to the group of logic blocks (120; 220); obtain a count of errors in the logic block (122; 222) by turning the switch to the bypass and by irradiating high-energy particles to the group of logic blocks (120; 220); and subtract the latter count of errors from the former count of errors, to calculate an error rate of the logic device on a basis of a count of errors obtained by the subtraction.
A link actuating device comprising: a proximal end side link hub; a distal end side link hub; and three or more sets of link mechanisms (11, 12, 13) to connect the proximal end side link hub with the distal end side link hub for alteration in posture, wherein each of the link mechanisms (11, 12, 13) includes proximal (11a, 12a, 13a) and distal side end link members (11c, 12c, 13c), which are rotatably connected at one ends thereof with the proximal end side link hub and the distal end side link hub, respectively, and an intermediate link member (11b, 12b, 13b) to rotatably connect the proximal (11a, 12a, 13a) and distal side end members (11c, 12c, 13c) at the other ends thereof, wherein each of the link mechanisms (11, 12, 13) is of such a shape that a geometric model of the link mechanism (11, 12, 13) depicted in a line represents that a distal end side portion and a proximal end side portion relative to a center portion of the corresponding intermediate link member (11b, 12b, 13b) are symmetrical relative to each other, wherein at least two of the three or more sets of the link mechanisms (11, 12, 13) are provided with an actuator to rotate the proximal side end link member (11a, 12a, 13a) to thereby arbitrarily alter the posture of the distal end side link hub relative to the proximal end side link hub, and a reduction gear unit to reduce the speed of and transmit the amount of operation of the actuator to the proximal side end link member (11a, 12a, 13a), wherein the reduction gear unit includes a geared speed reducing section having a combination of a small gear and a large gear, the small gear being rotated by the drive of the actuator, the large gear being provided in the proximal side end link member (11a, 12a, 13a) for rotation about a first revolute pair axis of the proximal end side link hub and the proximal side end link member (11a, 12a, 13a), and wherein the large gear has a radius of pitch circle greater than that of the small gear, and the radius of the pitch circle of the large gear is equal to or greater than 1/2 of an arm length of the proximal side end link member, the arm length being represented by the distance from a first axial center point of the first revolute pair axis to a point at which a second axial center point of a second revolute pair axis of the proximal side end link member (11a, 12a, 13a) and the intermediate link member (11b, 12b, 13b) is projected on a plane passing through the first axial center point and right angles to the first revolute pair axis, and wherein the small gear has a tooth portion engageable with the large gear, characterised in that the small gear comprises a pair of shank portions extending from the tooth portion in a direction axially towards opposite sides, each of the pair of the opposite shank portions being rotatably supported by a bearing.
A process for the preparation of a substituted N-phenylhydroxylamine by reduction of the correspondingly substituted nitrobenzene compound, wherein the reduction is carried out by reacting the substituted nitrobenzene compound with hydrazine in the presence of a ruthenium catalyst and where the phenyl ring of the substituted nitrobenzene carry 1, 2 or 3 substituents, in addition to the nitro group, which is selected from halogen, cyano, alkyl, haloalkyl, alkoxy, haloalkoxy, alkylcarbonyl, carboxyl, aminocarbonyl, alkylaminocarbonyl, dialkylaminocarbonyl, alkylcarbonylamino, alkoxycarbonyl, aryl, aryloxy, arylmethyl, aryloxymethyl, arylmethoxy, arylmethoxycarbonyl, arylvinyl, hetaryl, hetaryloxy, hetarylmethyl, hetaryloxymethyl, hetarylmethoxy, hetarylmethoxycarbonyl, hetarylvinyl, cycloalkyl, cycloalkoxy, cycloalkylmethyl, cycloalkoxymethyl, cycloalkylmethoxy, cycloalkylmethoxycarbonyl and cycloalkyl vinyl, wherein the aryl, hetaryl or cycloalkyl rings of the aforementioned substituents may themselves carry one or more substituents selected from cyano, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy, alkylthio, alkylcarbonyl, alkoxycarbonyl, carboxyl, aminocarbonyl, alkylaminocarbonyl, dialkylaminocarbonyl, alkylcarbonylamino or phenyl which may be unsubstituted or substituted with one or more substituents selected from halogen, alkyl and haloalkyl.
Method for the detection of chromosome or DNA regions and for the detection of chromosome aberrations, in which directly or indirectly labeled nucleic acid fragments (DNA probes) are used for a chromogenic or fluorescence in-situ hybridization (CISH; FISH) of chromosomes with a reduced background, wherein the DNA probes are produced with a method comprising the steps: a) Selecting a number of nucleic acid sequences which occur once in a longer genome section by comparing sequences; b) Synthesizing sense and antisense primers for a polymerase chain reaction on the number of the selected nucleic acid sequences, wherein each primer has a sequence which is complementary to the strand or complementary strand of the selected nucleic acid sequence, and also has at least one uniform oligonucleotide sequence which does not hybridize with a sequence of the genome under stringent conditions; c) Performing polymerase chain reactions with the number of sense and antisense primers on the genome section and obtaining synthesized nucleic acid fragments which contain known genome sequences which occur once; d) Performing a second polymerase chain reaction on the synthesized nucleic acid fragments of step c) using a number of primers which hybridize with the uniform oligonucleotide sequence of the primers and obtaining amplified genomic nucleic acid fragments which occur once and which can be used for the aforementioned chromogenic or fluorescence in-situ hybridization of chromosomes with a reduced background. a) Selecting a number of nucleic acid sequences which occur once in a longer genome section by comparing sequences; b) Synthesizing sense and antisense primers for a polymerase chain reaction on the number of the selected nucleic acid sequences, wherein each primer has a sequence which is complementary to the strand or complementary strand of the selected nucleic acid sequence, and also has at least one uniform oligonucleotide sequence which does not hybridize with a sequence of the genome under stringent conditions; c) Performing polymerase chain reactions with the number of sense and antisense primers on the genome section and obtaining synthesized nucleic acid fragments which contain known genome sequences which occur once; d) Performing a second polymerase chain reaction on the synthesized nucleic acid fragments of step c) using a number of primers which hybridize with the uniform oligonucleotide sequence of the primers and obtaining amplified genomic nucleic acid fragments which occur once and which can be used for the aforementioned chromogenic or fluorescence in-situ hybridization of chromosomes with a reduced background.
Association of tulathromycin and a compound of formula I for the use thereof in the treatment, the metaphylaxis or the prevention of a microbial infection, the compound meets the following formula I: wherein R 1, R 2, R 3 each represent, independently of each other, H, OH, a (C 1 -C 6) alkyl, (C 2 -C 6) alkenyl, (C 1 -C 6) halogenoalkyl, (C 1 -C 6) alkoxy, (C 2 -C 6) alkenoxy, (C 1 -C 6) halogenoalkoxy, -O-CO-(C 1 -C 6) alkyl group; A represents a heteroatom or a -(Het)-R' or R-(Het)-R' group where R, R' each represent, independently of each other, a (C 1 -C 4) alkanediyl group optionally substituted by C 1 -C 4 alkyl radicals and Het represents a heteroatom; in a weight ratio, compound of formula: tulathromycin, varying from 8:1 to 1:10, and in that the microbial infection is induced notably by a strain A pathogen and that on this strain A, the concentration of compound meets the following equation: < / x Where is the concentration according to the invention of compound to use on the strain A is the measured MIC for the compound, alone, on this strain A x is greater than or equal to 100, advantageously 1,000, more advantageously x is comprised between 2,000 and 10,000, or even greater than 50,000. R 1, R 2, R 3 each represent, independently of each other, H, OH, a (C 1 -C 6) alkyl, (C 2 -C 6) alkenyl, (C 1 -C 6) halogenoalkyl, (C 1 -C 6) alkoxy, (C 2 -C 6) alkenoxy, (C 1 -C 6) halogenoalkoxy, -O-CO-(C 1 -C 6) alkyl group; A represents a heteroatom or a -(Het)-R' or R-(Het)-R' group where R, R' each represent, independently of each other, a (C 1 -C 4) alkanediyl group optionally substituted by C 1 -C 4 alkyl radicals and Het represents a heteroatom; in a weight ratio, compound of formula: tulathromycin, varying from 8:1 to 1:10, and in that the microbial infection is induced notably by a strain A pathogen and that on this strain A, the concentration of compound meets the following equation: < / x Where is the concentration according to the invention of compound to use on the strain A is the measured MIC for the compound, alone, on this strain A x is greater than or equal to 100, advantageously 1,000, more advantageously x is comprised between 2,000 and 10,000, or even greater than 50,000. Where is the concentration according to the invention of compound to use on the strain A is the measured MIC for the compound, alone, on this strain A x is greater than or equal to 100, advantageously 1,000, more advantageously x is comprised between 2,000 and 10,000, or even greater than 50,000.
A hand held electronic device (50; 100), comprising: a controller; a first touch screen comprising a first touch sensitive surface (52A; 106) positioned in front of a first display (56A; 104) and located on a front surface of the hand held electronic device (50; 100), wherein the first touch sensitive surface is capable of sensing multiple points of contact on the first touch sensitive surface at the same time and reporting the multiple points of contact to the controller; and a second touch sensitive surface; the hand held electronic device being characterised by a second touch screen comprising the second touch sensitive surface positioned in front of a second display located on a top, bottom, left or right surface of the hand held electronic device, wherein the second touch sensitive surface is capable of sensing at least one point of contact on the second touch sensitive surface at the same time and reporting the at least one point of contact to the controller. a controller; a first touch screen comprising a first touch sensitive surface (52A; 106) positioned in front of a first display (56A; 104) and located on a front surface of the hand held electronic device (50; 100), wherein the first touch sensitive surface is capable of sensing multiple points of contact on the first touch sensitive surface at the same time and reporting the multiple points of contact to the controller; and a second touch sensitive surface; the hand held electronic device being characterised by a second touch screen comprising the second touch sensitive surface positioned in front of a second display located on a top, bottom, left or right surface of the hand held electronic device, wherein the second touch sensitive surface is capable of sensing at least one point of contact on the second touch sensitive surface at the same time and reporting the at least one point of contact to the controller.
Method for evaluating the state of charge of a battery comprising at least one phase of estimating the state of charge of the battery by an algorithm for estimating the state of charge and at least one phase of resetting of the estimation algorithm implemented during the estimation phase, characterized in that the resetting phase comprises the implementation of the following steps: - detection of a real value of a state of charge of the battery at an instant given by the implementation of the following steps: - charging or discharging the battery, between first and second levels of state of charge; - measuring the voltage across the terminals of the battery during this charging or discharging; - evaluating the time derivative of the said voltage; - detecting at least one particular point of this derivative corresponding to a known and predefined real value of state of charge, - resetting of the estimation algorithm knowing the said real value of state of charge at the said given instant. - detection of a real value of a state of charge of the battery at an instant given by the implementation of the following steps: - charging or discharging the battery, between first and second levels of state of charge; - measuring the voltage across the terminals of the battery during this charging or discharging; - evaluating the time derivative of the said voltage; - detecting at least one particular point of this derivative corresponding to a known and predefined real value of state of charge, - charging or discharging the battery, between first and second levels of state of charge; - measuring the voltage across the terminals of the battery during this charging or discharging; - evaluating the time derivative of the said voltage; - detecting at least one particular point of this derivative corresponding to a known and predefined real value of state of charge, - resetting of the estimation algorithm knowing the said real value of state of charge at the said given instant.