mhurhangee/ep-ind-claims huggingface dataset:
A compound, which is selected from the compounds of the formulae and or a pharmaceutically acceptable salt thereof, wherein Abu is L-2-aminobutyric acid, Ac3 is 1-aminocyclopropane-1-carboxylic acid, Ac6 is 1-aminocyclohexane-1-carboxylic acid, Aib is 2-aminoisobutyric acid, Amb is L-2-amino-4-methoxybutyric acid, Amp is L-2-amino-3-methoxypropionic acid, Cha is L-cyclohexylalanine, Chg is L-cyclohexylglycine, Dbu is L-2,4-diaminobutyric acid, Dpr is L-2,3-diaminopropionic acid, Nle is L-norleucine, Npg is L-neopentylglycine, Nva is L-norvaline, Orn is L-Ornithine.
A façade system for cladding a building having a supporting structure formed from a plurality of profiled elements (51, 52) and also plate-shaped façade elements held by the supporting structure, wherein arranged on the side of the supporting structure facing towards the building there are luminous elements, and wherein the luminous elements are arranged on the surface of the profiled elements (51, 52) of the supporting structure, characterised in that means for activating and/or for supplying current to the luminous elements are arranged in the profiled elements (51, 52), wherein the means for supplying current comprise accumulators, wherein arranged on the outside of the supporting structure lying opposite the luminous elements there are solar panels for supplying current to the luminous elements, and wherein leads for connecting the solar panels to the accumulators extend through the supporting structure of the façade system.
An oscillator, comprising: a three terminal device (203;257;403;406); and first circuitry (205;423) coupled across a first terminal (208;283;427;428) and a second terminal (210;285) of the three terminal device (203;257;403;406) and operable to bias the three terminal device (203;257;403;406) and to feedback a select amount of phase noise generated by the three terminal device (203;257;403;406) into the three terminal device (203;257;403;406) so as to reduce a proportional amount of phase noise present at a third terminal (216;255;286;417;421) of the three terminal device (203;257;403;406); a second circuitry (213;411;462) comprising a temperature compensating resistor connected between the third terminal (216;255;286;417;421) and a connection point between a first feedback capacitor (C 1) and a second feedback capacitor (C 2), whereby the other terminal of the first feedback capacitor (C 1) is connected to the second terminal (210;285) of the three terminal device (203;257;403;406) and the other terminal of the second feedback capacitor (C 2) is connected to ground, whereby the the second circuitry (213;411;462) is operable to control the thermal drift of the three terminal device (203;257;403;406) during operation of the oscillator. a three terminal device (203;257;403;406); and first circuitry (205;423) coupled across a first terminal (208;283;427;428) and a second terminal (210;285) of the three terminal device (203;257;403;406) and operable to bias the three terminal device (203;257;403;406) and to feedback a select amount of phase noise generated by the three terminal device (203;257;403;406) into the three terminal device (203;257;403;406) so as to reduce a proportional amount of phase noise present at a third terminal (216;255;286;417;421) of the three terminal device (203;257;403;406); a second circuitry (213;411;462) comprising a temperature compensating resistor connected between the third terminal (216;255;286;417;421) and a connection point between a first feedback capacitor (C 1) and a second feedback capacitor (C 2), whereby the other terminal of the first feedback capacitor (C 1) is connected to the second terminal (210;285) of the three terminal device (203;257;403;406) and the other terminal of the second feedback capacitor (C 2) is connected to ground, whereby the the second circuitry (213;411;462) is operable to control the thermal drift of the three terminal device (203;257;403;406) during operation of the oscillator.
Processing plant, in particular a mobile crushing plant, in particular a rock crusher, with a feed unit which can be filled with a material to be crushed, wherein a screening unit with a pre-screen is arranged downstream of the feed unit or in the feed unit in a conveying direction, wherein the pre-screen can be caused to oscillate by means of an oscillation drive, and wherein a portion of the material supplied is fed via the screening unit to a subsequent processing unit, in particular a crushing unit, via the screening unit, and a further part being screened out in the screening unit, a further screen being arranged upstream of the screening unit in the conveying direction, which screen is driven by an oscillation exciter, characterized in that a control device is provided, by means of which the oscillation drive and the oscillation exciter are controlled separately from one another.
An apparatus, comprising: at least one processor; and at least one memory including a computer program comprising instructions which, when the program is executed by the processor; cause the apparatus at least to: determine a first signal quality estimate for a signal; determine a block error rate estimate based on acknowledgements or decoding results for a plurality of data blocks of the signal; determine a second signal quality estimate for the signal based on the block error rate estimate; determine a signal quality offset based on a difference between the first signal quality estimate and the second signal quality estimate; and determine at least one transmission parameter for at least one subsequent data block based on the first signal quality estimate and the signal quality offset, wherein the instructions further cause the apparatus to: determine the signal quality offset based on a time-average of the difference between the first signal quality estimate and the second signal quality estimate. at least one processor; and at least one memory including a computer program comprising instructions which, when the program is executed by the processor; cause the apparatus at least to: determine a first signal quality estimate for a signal; determine a block error rate estimate based on acknowledgements or decoding results for a plurality of data blocks of the signal; determine a second signal quality estimate for the signal based on the block error rate estimate; determine a signal quality offset based on a difference between the first signal quality estimate and the second signal quality estimate; and determine at least one transmission parameter for at least one subsequent data block based on the first signal quality estimate and the signal quality offset, wherein the instructions further cause the apparatus to: determine the signal quality offset based on a time-average of the difference between the first signal quality estimate and the second signal quality estimate. determine a first signal quality estimate for a signal; determine a block error rate estimate based on acknowledgements or decoding results for a plurality of data blocks of the signal; determine a second signal quality estimate for the signal based on the block error rate estimate; determine a signal quality offset based on a difference between the first signal quality estimate and the second signal quality estimate; and determine at least one transmission parameter for at least one subsequent data block based on the first signal quality estimate and the signal quality offset, wherein the instructions further cause the apparatus to: determine the signal quality offset based on a time-average of the difference between the first signal quality estimate and the second signal quality estimate.
A mill device for processing aggregate material comprising: a housing having an inlet for receiving aggregate material, the housing having a central longitudinal axis and an inner wall; a driving shaft having a rotation axis coinciding with said central longitudinal axis, the driving shaft comprising an eccentric segment, a crushing drum mounted on said eccentric segment within said housing, wherein the drum has a peripheral wall dimensioned to leave a free volume between said peripheral wall and said inner wall of said housing; characterized in a final grinder located downstream said crushing drum, the final grinder comprising a perforated plate having at least one opening and at least one blade or wing rigidly connected to said driving shaft upstream of said perforated plate. a housing having an inlet for receiving aggregate material, the housing having a central longitudinal axis and an inner wall; a driving shaft having a rotation axis coinciding with said central longitudinal axis, the driving shaft comprising an eccentric segment, a crushing drum mounted on said eccentric segment within said housing, wherein the drum has a peripheral wall dimensioned to leave a free volume between said peripheral wall and said inner wall of said housing; characterized in a final grinder located downstream said crushing drum, the final grinder comprising a perforated plate having at least one opening and at least one blade or wing rigidly connected to said driving shaft upstream of said perforated plate.
A method of transmitting protocol data units, PDUs, in a radio communication from a transmitter to a receiver, the method comprising or triggering the steps of: receiving one or more control messages indicative of Quality of Service, QoS, requirements for the radio communication, the QoS requirements including a control command for a reliability of the radio communication and a control command for a latency of the radio communication; and transmitting a batch of redundant PDUs from the transmitter to the receiver, wherein a number of the redundant PDUs per batch depends on the control command for the reliability and a temporal spread of the redundant PDUs per batch depends on the control command for the latency, characterized in that the reliability control command includes a reliability requirement for the reliability of the radio communication, and the number of the redundant PDUs per batch depends on the reliability requirement, and wherein the latency control command includes a latency requirement for the latency of the radio communication, and wherein the temporal spread of the redundant PDUs per batch depends on the latency requirement, and wherein the latency requirement corresponds to a time interval encompassing all the radio resources on which the redundant PDUs of the batch are transmitted. receiving one or more control messages indicative of Quality of Service, QoS, requirements for the radio communication, the QoS requirements including a control command for a reliability of the radio communication and a control command for a latency of the radio communication; and transmitting a batch of redundant PDUs from the transmitter to the receiver, wherein a number of the redundant PDUs per batch depends on the control command for the reliability and a temporal spread of the redundant PDUs per batch depends on the control command for the latency, characterized in that the reliability control command includes a reliability requirement for the reliability of the radio communication, and the number of the redundant PDUs per batch depends on the reliability requirement, and wherein the latency control command includes a latency requirement for the latency of the radio communication, and wherein the temporal spread of the redundant PDUs per batch depends on the latency requirement, and wherein the latency requirement corresponds to a time interval encompassing all the radio resources on which the redundant PDUs of the batch are transmitted.
A vehicle seat comprising: a rectangular-frame-shaped seat back frame including a pair of side frames; upper and lower seat springs (32A, 32B) mounted between the side frames; a single plate-shaped flexible cushion plate mounted on the seat springs (32A, 32B); a seat back cushion provided in front of the cushion plate; and a single plate-shaped flexible auxiliary plate provided between the seat back cushion and the cushion plate and mounted on the cushion plate, wherein the auxiliary pirate pushes out the seat back cushion forward when it protrudes forward while curving, characterized in that the auxiliary plate is provided at its upper portion with a plurality of hooks (41, 42) to be engaged in a plurality of engagement holes (43, 44) formed in the cushion plate, and the hooks (41, 42) are engaged in the engagement holes (43, 44) so that they can rotate around a lateral direction but do not move in back-and-forth direction and in a vertical direction. a rectangular-frame-shaped seat back frame including a pair of side frames; upper and lower seat springs (32A, 32B) mounted between the side frames; a single plate-shaped flexible cushion plate mounted on the seat springs (32A, 32B); a seat back cushion provided in front of the cushion plate; and a single plate-shaped flexible auxiliary plate provided between the seat back cushion and the cushion plate and mounted on the cushion plate, wherein the auxiliary pirate pushes out the seat back cushion forward when it protrudes forward while curving, characterized in that the auxiliary plate is provided at its upper portion with a plurality of hooks (41, 42) to be engaged in a plurality of engagement holes (43, 44) formed in the cushion plate, and the hooks (41, 42) are engaged in the engagement holes (43, 44) so that they can rotate around a lateral direction but do not move in back-and-forth direction and in a vertical direction.
A massage system comprising: a sleep assessment system, the sleep assessment system comprising a blood flow measurement unit configured to acquire first biological information related to blood flow of a user and a controller configured to determine a sleep stage of the user based on the first biological information; and a massage unit configured to massage the user; wherein the controller is configured to determine a timing of a massage by the massage unit based on the first biological information, wherein the controller is configured to determine the timing of the massage synchronized with a pulse wave of the user based on a positional relationship between a first site of the user where the first biological information is acquired and a second site of the user where the massage is to be performed, so as to increase the circulating blood volume that returns to the user's heart. a sleep assessment system, the sleep assessment system comprising a blood flow measurement unit configured to acquire first biological information related to blood flow of a user and a controller configured to determine a sleep stage of the user based on the first biological information; and a massage unit configured to massage the user; wherein the controller is configured to determine a timing of a massage by the massage unit based on the first biological information, wherein the controller is configured to determine the timing of the massage synchronized with a pulse wave of the user based on a positional relationship between a first site of the user where the first biological information is acquired and a second site of the user where the massage is to be performed, so as to increase the circulating blood volume that returns to the user's heart.
A method of scheduling transmissions in a mobile communication system, said method comprising: determining a bandwidth assignment for each of two or more concurrently scheduled mobile terminals during a scheduling interval comprising two or more time slots; determining a frequency hopping pattern for each of said two or more concurrently scheduled mobile terminals over said scheduling interval based on the bandwidth assignment for the respective scheduled mobile terminal measured in number of resource blocks; and transmitting to each of said two or more concurrently scheduled mobile terminals the bandwidth assignment and frequency hopping pattern for the respective mobile terminal for the scheduling interval in a scheduling grant. determining a bandwidth assignment for each of two or more concurrently scheduled mobile terminals during a scheduling interval comprising two or more time slots; determining a frequency hopping pattern for each of said two or more concurrently scheduled mobile terminals over said scheduling interval based on the bandwidth assignment for the respective scheduled mobile terminal measured in number of resource blocks; and transmitting to each of said two or more concurrently scheduled mobile terminals the bandwidth assignment and frequency hopping pattern for the respective mobile terminal for the scheduling interval in a scheduling grant.
Method for the preparation of lignite coke doped with elemental sulphur, wherein the elemental sulphur predominantly does not form an irreversible chemical bond with mercury, in which method sulphur is mixed with the lignite coke, the mixture is heated to a temperature between 120°C and 150°C and the temperature is maintained for a period between 0.5 and 1 hour, characterized in that the heating of the mixture takes place under a controlled oxygen-containing atmosphere, wherein the oxygen content is adjusted to an amount between 13 and 21 vol% and maintained within the adjusted range.
A direction-sensitive electronic animal containment system comprising: a wire loop bounding a selected area, said wire loop defining a safe zone, a correction zone, and an escape zone, said safe zone and said correction zone located within the selected area, said escape zone located outside the selected area; a containment signal generator in communication with said wire loop, said containment signal generator being suitable for generating a containment signal current in said wire loop, said containment signal current comprising a containment signal waveform having a rise time and a fall time, the rise time having a different rate of change than the fall time; and a receiver unit being suitable for receiving a signal having an uneven voltage duty cycle (802, 804) as a result of said containment signal current in said wire loop, and for determining a direction of approach of the correction zone based on the polarity of the received signal determined by evaluating said duty cycle, said receiver unit correcting an animal when the direction of approach indicates the animal is entering said correction zone from said safe zone, said receiver unit allowing the animal to pass without correction when the direction of approach indicates the animal is entering said correction zone from said escape zone. a wire loop bounding a selected area, said wire loop defining a safe zone, a correction zone, and an escape zone, said safe zone and said correction zone located within the selected area, said escape zone located outside the selected area; a containment signal generator in communication with said wire loop, said containment signal generator being suitable for generating a containment signal current in said wire loop, said containment signal current comprising a containment signal waveform having a rise time and a fall time, the rise time having a different rate of change than the fall time; and a receiver unit being suitable for receiving a signal having an uneven voltage duty cycle (802, 804) as a result of said containment signal current in said wire loop, and for determining a direction of approach of the correction zone based on the polarity of the received signal determined by evaluating said duty cycle, said receiver unit correcting an animal when the direction of approach indicates the animal is entering said correction zone from said safe zone, said receiver unit allowing the animal to pass without correction when the direction of approach indicates the animal is entering said correction zone from said escape zone.
A robotic system comprising: a robotic manipulator having a tool holder, the manipulator being configured to move the holder in response to signals from a processor; a tool having a surgical end effector; an adapter for coupling the tool to the holder and for maintaining a sterile separation between the tool and holder; a first sensor disposed adjacent the holder, the first sensor being configured to transmit a first signal to the processor in response to coupling of the adapter to the holder; and a second sensor disposed adjacent the holder, characterized by the second sensor being configured to transmit a second signal to the processor in response to coupling of the tool to the adapter. a robotic manipulator having a tool holder, the manipulator being configured to move the holder in response to signals from a processor; a tool having a surgical end effector; an adapter for coupling the tool to the holder and for maintaining a sterile separation between the tool and holder; a first sensor disposed adjacent the holder, the first sensor being configured to transmit a first signal to the processor in response to coupling of the adapter to the holder; and a second sensor disposed adjacent the holder, characterized by the second sensor being configured to transmit a second signal to the processor in response to coupling of the tool to the adapter.
A trim unit (200; 300) for an electrical switch comprising a control member (220; 320) and a trim plate (210; 310; 410; 510) having a peripheral portion (211; 311; 411; 511) that is provided with a central recess defined by an inner edge of said peripheral portion (211; 311; 411; 511), the trim unit being characterized in that the trim plate (210; 310; 410; 510) includes a central portion (212; 312; 412; 512) that is arranged in the central recess and that is surrounded by a gap (215; 315) defined between the outer edge of the central portion (212; 312; 412; 512) and the inner edge of the peripheral portion (211; 311; 411; 511) so as to receive the control member (220; 320) of the electrical switch surrounding the central portion (212; 312; 412; 512).
A tail structure which adjoins a fuselage section particularly of an aircraft or spacecraft, comprising: a support construction for supporting at least one craft component (40, 41); and a bulkhead unit for the pressure-tight sealing of the fuselage section and able to be coupled both to the support construction and to the fuselage section so as to form a force flow path between the at least one craft component (40, 41) and the fuselage section, wherein the support construction comprises two pylons forming the force flow path for supporting a respective engine, and the pylons are formed by a parallelepiped-defining support bar construction (70, 71, 72) with at least one support bar extending diagonally in the parallelepiped. a support construction for supporting at least one craft component (40, 41); and a bulkhead unit for the pressure-tight sealing of the fuselage section and able to be coupled both to the support construction and to the fuselage section so as to form a force flow path between the at least one craft component (40, 41) and the fuselage section, wherein the support construction comprises two pylons forming the force flow path for supporting a respective engine, and the pylons are formed by a parallelepiped-defining support bar construction (70, 71, 72) with at least one support bar extending diagonally in the parallelepiped.