mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a solid dosage form comprising i) an inert core unit; and ii) a drug coating comprising at least one antibody or functional fragment thereof as active agent, a buffer and at least one polymeric binder, deposited on the inert core unit by drug layering; the method comprising the steps of a) preparing an active agent coating liquid, comprising the at least one antibody or functional fragment thereof, the buffer and the at least one polymeric binder, as an aqueous solution or suspension; b) layering the inert core unit with the active agent coating liquid using spray coating; c) drying the wet drug layered inert core unit, simultaneously with step b), or after step b) has been completed, to give rise to a dried solid dosage form; and after step c), d) applying at least one additional coating in the form of a sustained release coating, by layering the solid dosage form of step c) with a sustained release coating liquid using spray coating, and then drying the wet layered solid dosage form using a fluidized bed or an oven; and wherein the sustained release coating liquid further comprises a coalescence enhancer. a) preparing an active agent coating liquid, comprising the at least one antibody or functional fragment thereof, the buffer and the at least one polymeric binder, as an aqueous solution or suspension; b) layering the inert core unit with the active agent coating liquid using spray coating; c) drying the wet drug layered inert core unit, simultaneously with step b), or after step b) has been completed, to give rise to a dried solid dosage form; and after step c), d) applying at least one additional coating in the form of a sustained release coating, by layering the solid dosage form of step c) with a sustained release coating liquid using spray coating, and then drying the wet layered solid dosage form using a fluidized bed or an oven; and
A semiconductor compound, represented by Chemical Formula 1 below: Chemical Formula 1 In x CO 4 Sb 12-z Te z where, in the Chemical Formula 1, 0<x≤0.5 and 1.0≤z≤1.5.
A medical system (41, 42) for determining a treatment regimen for a patient with a condition, the system (41, 42) comprising: at least one sensor (10, 11) configured to sense right atrial pressure and left atrial pressure; and a receiver configured to receive measurement data corresponding to the sensed right atrial pressure and the sensed left atrial pressure, to receive the condition of the patient, and output to a display device the received measurement data: a memory unit configured to store the received measurement data and the condition of the patient; and a processor configured to: compare the sensed right atrial pressure to a baseline right atrial pressure to determine a first comparison; compare the sensed left atrial pressure to a baseline left atrial pressure to determine a second comparison; and determine the treatment regimen for the patient based on the comparisons and the condition of the patient, wherein the condition is at least one selected from the group of: left heart failure, right heart failure, and primary pulmonary disorder. at least one sensor (10, 11) configured to sense right atrial pressure and left atrial pressure; and a receiver configured to receive measurement data corresponding to the sensed right atrial pressure and the sensed left atrial pressure, to receive the condition of the patient, and output to a display device the received measurement data: a memory unit configured to store the received measurement data and the condition of the patient; and a processor configured to: compare the sensed right atrial pressure to a baseline right atrial pressure to determine a first comparison; compare the sensed left atrial pressure to a baseline left atrial pressure to determine a second comparison; and determine the treatment regimen for the patient based on the comparisons and the condition of the patient, wherein the condition is at least one selected from the group of: left heart failure, right heart failure, and primary pulmonary disorder. a memory unit configured to store the received measurement data and the condition of the patient; and a processor configured to: compare the sensed right atrial pressure to a baseline right atrial pressure to determine a first comparison; compare the sensed left atrial pressure to a baseline left atrial pressure to determine a second comparison; and determine the treatment regimen for the patient based on the comparisons and the condition of the patient, wherein the condition is at least one selected from the group of: left heart failure, right heart failure, and primary pulmonary disorder. compare the sensed right atrial pressure to a baseline right atrial pressure to determine a first comparison; compare the sensed left atrial pressure to a baseline left atrial pressure to determine a second comparison; and determine the treatment regimen for the patient based on the comparisons and the condition of the patient, wherein the condition is at least one selected from the group of: left heart failure, right heart failure, and primary pulmonary disorder.
A PIP-47 polypeptide having insecticidal activity against Western Corn Root Worm (WCRW), wherein the PIP-47 polypeptide comprises an amino acid sequence having at least 80% identity to SEQ ID NO: 2.
A method for dynamic adjustment of downlink-uplink resource allocation ratio in a long-term evolution TDD system, comprising: replacing at least one uplink subframe in a subframe pattern with at least one of a mute subframe and a mute uplink pilot timeslot, within a geographical guard area that isolates at least two areas having different TDD allocation patterns; and scheduling an uplink transmission from at least one mobile terminal such that the at least one of the mute subframe and the mute uplink pilot timeslot are unused, characterized in that a TDD configuration index substitution solution controls the uplink transmission where the subframe pattern includes at least one of the mute subframe and the mute uplink pilot timeslot, and the method further comprising performing the TDD configuration index substitution l → i, wherein the substitution mapping l → i is determined such that a TDD allocation pattern C i is the same as replacing the mute subframe in a TDD allocation pattern A 1 with a downlink subframe, where A 1 is the TDD allocation pattern whose functional configuration is applied to the uplink transmission, and the substitution mapping is determined by a lookup table. replacing at least one uplink subframe in a subframe pattern with at least one of a mute subframe and a mute uplink pilot timeslot, within a geographical guard area that isolates at least two areas having different TDD allocation patterns; and scheduling an uplink transmission from at least one mobile terminal such that the at least one of the mute subframe and the mute uplink pilot timeslot are unused, characterized in that a TDD configuration index substitution solution controls the uplink transmission where the subframe pattern includes at least one of the mute subframe and the mute uplink pilot timeslot, and the method further comprising performing the TDD configuration index substitution l → i, wherein the substitution mapping l → i is determined such that a TDD allocation pattern C i is the same as replacing the mute subframe in a TDD allocation pattern A 1 with a downlink subframe, where A 1 is the TDD allocation pattern whose functional configuration is applied to the uplink transmission, and the substitution mapping is determined by a lookup table.
A process for making an ethoxylated amine compound from the reaction of ethylene oxide and an amine compound wherein undesirable amine glycol ether byproducts and/or vinyl ether ethoxylates are formed, which comprises adding an acid to a reaction mixture comprising an amine product selected from ammonia, a primary amine, and a secondary amine, prior to or concurrently with the addition of ethylene oxide to a reactor, wherein the ethoxylated amine compound is prepared, provided that the ethoxylated amine compound is not piperazine or a piperazine derivative, wherein the acid is present in an amount of from 0.001 to 10 weight percent based on the total weight of the reaction mixture, and wherein ethylene oxide is present in an amount of from 0.5 to 1.1 mol equivalents of ethylene oxide for each NH based on the amount of amine compound.
A catalytic assembly comprising: a cooling housing that receives a coolant; a catalyst housing disposed within the cooling housing such that coolant flows between the catalyst housing and the cooling housing;and a catalyst substrate within the catalyst housing such that exhaust flows through the catalyst substrate, characterized in that the catalyst housing includes a first fitting; and that the cooling housing includes a second fitting that mates with the first fitting preventing rotation of the catalyst housing relative to the cooling housing. a cooling housing that receives a coolant; a catalyst housing disposed within the cooling housing such that coolant flows between the catalyst housing and the cooling housing;and a catalyst substrate within the catalyst housing such that exhaust flows through the catalyst substrate, characterized in that the catalyst housing includes a first fitting; and that the cooling housing includes a second fitting that mates with the first fitting preventing rotation of the catalyst housing relative to the cooling housing.
A particle-drop system comprising: a plurality of three-dimensional drop-carrier particles, each drop-carrier particle having an interior region defining a three-dimensional void and exterior region defining a radially symmetric shell, the interior region comprising a hydrophilic material functionalized to support biomolecules or affinity capture reagents, wherein the void is open to an external environment of the three-dimensional drop-carrier particle; and an aqueous droplet disposed in the interior region of the plurality of three-dimensional drop-carrier particles that form a plurality of particle-drops; and wherein the plurality of particle-drops are disposed in an oil phase and wherein the aqueous droplets disposed in the respective voids of the plurality of three-dimensional drop-carrier particles have substantially the same volumes. a plurality of three-dimensional drop-carrier particles, each drop-carrier particle having an interior region defining a three-dimensional void and exterior region defining a radially symmetric shell, the interior region comprising a hydrophilic material functionalized to support biomolecules or affinity capture reagents, wherein the void is open to an external environment of the three-dimensional drop-carrier particle; and an aqueous droplet disposed in the interior region of the plurality of three-dimensional drop-carrier particles that form a plurality of particle-drops; and wherein the plurality of particle-drops are disposed in an oil phase and wherein the aqueous droplets disposed in the respective voids of the plurality of three-dimensional drop-carrier particles have substantially the same volumes.
An uplink signal transmission method, comprising: • receiving (S 501), by a terminal device, first information sent by a network device, wherein the first information is used to instruct the terminal device to transmit a sounding reference signal, SRS, in a set of symbols in a first slot, wherein the set of symbols comprises at least two symbols; • receiving (S 502), by the terminal device, second information transmitted by the network device, wherein the second information is used to instruct the terminal device not to transmit the SRS in M symbols from the set of symbols, and M is an integer greater than 0; and • transmitting (S 503), by the terminal device based on the first information and the second information, the SRS in a subset of symbols from the set of symbols and that is different from the M symbols. • receiving (S 501), by a terminal device, first information sent by a network device, wherein the first information is used to instruct the terminal device to transmit a sounding reference signal, SRS, in a set of symbols in a first slot, wherein the set of symbols comprises at least two symbols; • receiving (S 502), by the terminal device, second information transmitted by the network device, wherein the second information is used to instruct the terminal device not to transmit the SRS in M symbols from the set of symbols, and M is an integer greater than 0; and • transmitting (S 503), by the terminal device based on the first information and the second information, the SRS in a subset of symbols from the set of symbols and that is different from the M symbols.
A wireless dental foot pedal controller for communication with at least one wireless dental instrument, comprising: (a) a housing; (b) a power source and (c) a printed circuit board positioned within the housing, the printed circuit board connected to receive power from the power source; (d) an analog to digital signal converter; and the printed circuit board comprising a substrate for mounting a plurality of electronic components, the electronic components comprising: (i) a programmable controller comprising non-volatile memory for storing software and data; (ii) a radio frequency for wireless communications with at least one other remote device; (iii) an accelerometer comprising a capacitive sensing cell and a signal conditioning application-specific integrated circuit that measures the capacitive sensing cell and extract acceleration data from a difference between two capacitors; and outputs a voltage signal that is proportional to acceleration and scaled substantially linearly with an applied supply voltage; (iv) a wake-up device for generating a wake-up signal to the controller; and (v) an antenna; the electronic components in electronic communication through printed circuit traces on the substrate, to control wireless communications between the foot pedal and one or more remote wireless devices. (a) a housing; (b) a power source and (c) a printed circuit board positioned within the housing, the printed circuit board connected to receive power from the power source; (d) an analog to digital signal converter; and (i) a programmable controller comprising non-volatile memory for storing software and data; (ii) a radio frequency for wireless communications with at least one other remote device; (iii) an accelerometer comprising a capacitive sensing cell and a signal conditioning application-specific integrated circuit that measures the capacitive sensing cell and extract acceleration data from a difference between two capacitors; and outputs a voltage signal that is proportional to acceleration and scaled substantially linearly with an applied supply voltage; (iv) a wake-up device for generating a wake-up signal to the controller; and (v) an antenna; the electronic components in electronic communication through printed circuit traces on the substrate, to control wireless communications between the foot pedal and one or more remote wireless devices.
A bone filler material injection system having an apparatus for regulating setting time of a bone filler material in the bone filler material injection system, the system comprising: (a) a reservoir; (b) a thermoelectric cooling mechanism adapted to cool a bone filler material mixture in the reservoir; and (c) control circuitry adapted to output a control signal to the thermoelectric cooling mechanism so that the bone filler material is cooled after mixing and so that the mixture does not set before a minimum setting time. (a) a reservoir; (b) a thermoelectric cooling mechanism adapted to cool a bone filler material mixture in the reservoir; and (c) control circuitry adapted to output a control signal to the thermoelectric cooling mechanism so that the bone filler material is cooled after mixing and so that the mixture does not set before a minimum setting time.
A communication apparatus (10, 100) for wireless communication in a wireless local area network, said communication apparatus comprising: a communication unit configured to transmit a trigger frame including wireless communication resource information in which resources selectable as uplink resources are specified from a plurality of resources and attribute information related to transmission of a response uplink frame and receive the response uplink frame transmitted as a response to the trigger frame, the response uplink frame being transmitted using a resource randomly selected from the selectable resources specified in the wireless communication resource information on the basis of the attribute information related to the transmission of the response uplink frame; characterized in that the wireless communication resource information includes information indicating information requested to be stored in the response uplink frame transmitted in response to the trigger frame. a communication unit configured to transmit a trigger frame including wireless communication resource information in which resources selectable as uplink resources are specified from a plurality of resources and attribute information related to transmission of a response uplink frame and receive the response uplink frame transmitted as a response to the trigger frame, the response uplink frame being transmitted using a resource randomly selected from the selectable resources specified in the wireless communication resource information on the basis of the attribute information related to the transmission of the response uplink frame; characterized in that the wireless communication resource information includes information indicating information requested to be stored in the response uplink frame transmitted in response to the trigger frame.
A method for transferring data (638, 640), the method comprising: receiving, at a prefetcher (224, 324, 424) for the storage device (106, 206, 306, 406), an indication of a relationship between a producer device and a consumer device; writing, from the producer device, first data to a storage device (106, 206, 306, 406) through an interconnect (108, 208, 308), the first data including second data; determining the consumer device for the second data based on the indication; prefetching the second data from the storage device (106, 206, 306, 406); and transferring, based on the determining, the second data to the consumer device through the interconnect (108, 208, 308), and characterized in that the indication is provided, through the interconnect (108, 208, 308) to the prefetcher (224, 324, 424), by an application (403, 803) associated with the consumer device; and the second data is prefetched while the first data is written. receiving, at a prefetcher (224, 324, 424) for the storage device (106, 206, 306, 406), an indication of a relationship between a producer device and a consumer device; writing, from the producer device, first data to a storage device (106, 206, 306, 406) through an interconnect (108, 208, 308), the first data including second data; determining the consumer device for the second data based on the indication; prefetching the second data from the storage device (106, 206, 306, 406); and transferring, based on the determining, the second data to the consumer device through the interconnect (108, 208, 308), and characterized in that the indication is provided, through the interconnect (108, 208, 308) to the prefetcher (224, 324, 424), by an application (403, 803) associated with the consumer device; and the second data is prefetched while the first data is written.
An apparatus for operating on tissue, the apparatus comprising: (a) a body assembly; (b) a shaft extending distally from the body assembly, wherein the shaft defines a longitudinal axis; (c) an acoustic waveguide, wherein the waveguide comprises a flexible portion; (d) an articulation section coupled with the shaft, wherein a portion of the articulation section encompasses the flexible portion of the waveguide; (e) an end effector comprising an ultrasonic blade in acoustic communication with the waveguide; (f) an articulation drive assembly operable to drive articulation of the articulation section to thereby deflect the end effector from the longitudinal axis, wherein the articulation drive assembly comprises an actuator, wherein the actuator is movable relative to the body assembly to drive articulation of the articulation section; and (g) a locking feature in communication with the actuator, wherein the locking feature is movable between an unlocked state and a locked state, wherein the locking feature is configured to permit movement of the actuator relative to the body assembly in the unlocked state, wherein the locking feature is configured to prevent movement of the actuator relative to the body assembly in the locked state, wherein the locking feature comprises a button extending along an axis of the actuator, wherein the locking feature is configured to move to the unlocked configuration in response to an actuation of the button along the axis. (a) a body assembly; (b) a shaft extending distally from the body assembly, wherein the shaft defines a longitudinal axis; (c) an acoustic waveguide, wherein the waveguide comprises a flexible portion; (d) an articulation section coupled with the shaft, wherein a portion of the articulation section encompasses the flexible portion of the waveguide; (e) an end effector comprising an ultrasonic blade in acoustic communication with the waveguide; (f) an articulation drive assembly operable to drive articulation of the articulation section to thereby deflect the end effector from the longitudinal axis, wherein the articulation drive assembly comprises an actuator, wherein the actuator is movable relative to the body assembly to drive articulation of the articulation section; and (g) a locking feature in communication with the actuator, wherein the locking feature is movable between an unlocked state and a locked state, wherein the locking feature is configured to permit movement of the actuator relative to the body assembly in the unlocked state, wherein the locking feature is configured to prevent movement of the actuator relative to the body assembly in the locked state,
An electrical switching device for low voltage circuits comprising an enclosure having a front wall, a rear wall, a first lateral wall, a second lateral wall, a lower wall and an upper wall that define a volume for containing the members of said switching device, said enclosure comprising: - a first section that defines a first housing space for a switching unit that comprises one or more electrical poles (20A, 20B, 20C), each of said electrical poles comprising at least one fixed contact and one moving contact, mutually couplable/decouplable; - a second section that defines a second housing space for a control mechanism of the moving contacts of said electrical poles; - a third section that defines a third housing space for one or more accessory devices (91A, 91B, 91C, 91D) of said switching device; characterized in that said front wall comprises a first shaped portion and a second shaped portion adapted to respectively close the housing spaces defined by said second and third section (22, 23), at said front wall, said first and second shaped portion (31, 32) being mechanically separable from one another and being mechanically coupled to one another so that said first shaped portion is removable from said front wall only after having removed said second shaped portion. - a first section that defines a first housing space for a switching unit that comprises one or more electrical poles (20A, 20B, 20C), each of said electrical poles comprising at least one fixed contact and one moving contact, mutually couplable/decouplable; - a second section that defines a second housing space for a control mechanism of the moving contacts of said electrical poles; - a third section that defines a third housing space for one or more accessory devices (91A, 91B, 91C, 91D) of said switching device;