mhurhangee/patent-ind-claim-en huggingface dataset:
A method for obtaining information stored in registers (Rij) of at least one processing module (MTj) of a computer (CA), each processing module (MTj) further comprising a management controller (CGj) able to read the information stored in the registers (Rij) of a list of registers which it stores in a non-volatile memory, a programmable logic circuit (CLj) able to trigger a reset required following a fatal error, a basic input/output system, and at least one processor (P1j, P2j) which can be accessed by the management controller (CGj) via an access bus and having at least one of the registers (Rij), the list of registers (Rij) having a first part comprising registers belonging to the processor (P1j, P2j) and to the programmable logic circuit (CLj) and a second part comprising "sticky" type registers containing the stored information as long as the basic input/output system is not started following a reset, whereby in the event of receiving a reset request by a programmable logic circuit (CLj) of a processing module (MTj), this programmable logic circuit (CLj) suspends the triggering of this reset and alerts the associated management controller (CGj) of the occurrence of a fatal error , then: - if the management controller (CGj) can read the information stored in the registers (Rij) of the first part of the list of registers, it reads the information stored in the registers (Rij) of the first part of the list of registers, then stores this read information in a file , then said associated programmable logic circuit (CLj) is authorized to trigger said required reset ; - if the data bus between the management controller (CGj) and the processor (P1j, P2j) is blocked, said associated programmable logic circuit (CLj) is authorized to trigger said required reset in order to unblock the data bus, and the basic input/output system of said processing module (MTj, 130) is blocked immediately to prevent it from starting, then said management controller (CGj) reads the information stored in the registers (Rij) of the second part of the list of registers, then stores this read information in a file . - if the management controller (CGj) can read the information stored in the registers (Rij) of the first part of the list of registers, it reads the information stored in the registers (Rij) of the first part of the list of registers, then stores this read information in a file , then said associated programmable logic circuit (CLj) is authorized to trigger said required reset ; - if the data bus between the management controller (CGj) and the processor (P1j, P2j) is blocked, said associated programmable logic circuit (CLj) is authorized to trigger said required reset in order to unblock the data bus, and the basic input/output system of said processing module (MTj, 130) is blocked immediately to prevent it from starting, then said management controller (CGj) reads the information stored in the registers (Rij) of the second part of the list of registers, then stores this read information in a file .
A method for generating a directive for maintaining a target of a plasma donation center comprising: integrating a control center system with a plurality of healthcare provider data systems ; obtaining information from at least one of the plurality of healthcare provider data systems , wherein the obtained information includes production data from a plasma data system, data from a screening instrument or data from an apheresis device; correlating , using artificial intelligence , the obtained information against a target for at least one donation center, the target being one of total donors, total units, a donations per hour rate, a donor door to door time, an average yield or an average device turn rate; generating , using a heuristic model, a directive to the at least one donation center, to achieve the target, the directive being to open or close screening booths, to add or close beds, to add phlebotomists or to rebalance supply lines and bins; and presenting the directive to at least one user and/or user system such that the directive may carried out by the at least one user and/or user system. integrating a control center system with a plurality of healthcare provider data systems ; obtaining information from at least one of the plurality of healthcare provider data systems , wherein the obtained information includes production data from a plasma data system, data from a screening instrument or data from an apheresis device; correlating , using artificial intelligence , the obtained information against a target for at least one donation center, the target being one of total donors, total units, a donations per hour rate, a donor door to door time, an average yield or an average device turn rate; generating , using a heuristic model, a directive to the at least one donation center, to achieve the target, the directive being to open or close screening booths, to add or close beds, to add phlebotomists or to rebalance supply lines and bins; and presenting the directive to at least one user and/or user system such that the directive may carried out by the at least one user and/or user system.
An isolated recombinant influenza A virus having PA, PB1, PB2, NP, NS, and M viral segments from a first influenza vaccine virus isolate, a heterologous or chimeric influenza virus NA viral segment, and a heterologous or chimeric HA viral segment, wherein the recombinant influenza virus: i) has a PA segment encoding a PA having 401K and a PB1 segment encoding a PB1 having 40L and 180W; ii) has a PB1 segment encoding a PB1 having 112G and a PB2 segment encoding a PB2 having 504V; iii) the PB1 DNA encodes a PB1 having 112G and the PB2 DNA encodes a PB2 having 202L and 323L; iv) has a PB2 segment encoding a PB2 having 202L and 323L and a PB1 segment encoding a PB1 having 247H; v) has a PA segment encoding a PA having 401K and a PB1 segment encoding a PB1 having 247H; or vi) a PB2 segment encoding a PB2 having 202L and 323L and a PB1 segment encoding a PB1 having 40L and 180W. i) has a PA segment encoding a PA having 401K and a PB1 segment encoding a PB1 having 40L and 180W; ii) has a PB1 segment encoding a PB1 having 112G and a PB2 segment encoding a PB2 having 504V; iii) the PB1 DNA encodes a PB1 having 112G and the PB2 DNA encodes a PB2 having 202L and 323L; iv) has a PB2 segment encoding a PB2 having 202L and 323L and a PB1 segment encoding a PB1 having 247H; v) has a PA segment encoding a PA having 401K and a PB1 segment encoding a PB1 having 247H; or vi) a PB2 segment encoding a PB2 having 202L and 323L and a PB1 segment encoding a PB1 having 40L and 180W.
A method for producing a transformable dry preform, in particular for the creation of a product made of composite materials, characterized in that it comprises the sequence of the following steps: - simultaneous weft/wale knitting of at least one stitch thread and at least one unidirectional reinforcement thread, at least one stitch thread comprising a material, the nature of which being different to that of a material comprised in at least one unidirectional reinforcement thread, one of said materials being a thermoplastic material and the other material being a material referred to as a reinforcement material, at least one unidirectional reinforcement thread comprising at least one reinforcement material and at least one thermoplastic material, the thermoplastic material having a melting point lower than the melting point of the reinforcement material, - creation of a three-dimensional knit that constitutes a dry preform in the shape of the product that is to be obtained. - simultaneous weft/wale knitting of at least one stitch thread and at least one unidirectional reinforcement thread, at least one stitch thread comprising a material, the nature of which being different to that of a material comprised in at least one unidirectional reinforcement thread, one of said materials being a thermoplastic material and the other material being a material referred to as a reinforcement material, at least one unidirectional reinforcement thread comprising at least one reinforcement material and at least one thermoplastic material, the thermoplastic material having a melting point lower than the melting point of the reinforcement material, - creation of a three-dimensional knit that constitutes a dry preform in the shape of the product that is to be obtained.
A bussing connector, comprising: bus bar connections , each of the bus bar connections comprising an output section and an input section, the input sections of the bus bar connections cooperatively forming a multiphase alternating current, AC, input ; output elements arranged along and in electrical communication with the output sections of each of the bus bar connections; and dielectric material configured to partially surround and partially electrically insulate the input and output sections and the output elements of each of the bus bar connections, the dielectric material being further configured to expose the multiphase AC input and portions of each of the outlet elements of each of the bus bar connections, wherein each of the output elements of each of the output sections of each of the bus bar connections cooperatively form multiple linear three-phase output element groups, and the dielectric material comprises elongate elements interposed between neighboring pairs of the bus bar connections and plugs that surround the multiple output elements in corresponding ones of each of the multiple linear three-phase output element groups. bus bar connections , each of the bus bar connections comprising an output section and an input section, the input sections of the bus bar connections cooperatively forming a multiphase alternating current, AC, input ; output elements arranged along and in electrical communication with the output sections of each of the bus bar connections; and dielectric material configured to partially surround and partially electrically insulate the input and output sections and the output elements of each of the bus bar connections, the dielectric material being further configured to expose the multiphase AC input and portions of each of the outlet elements of each of the bus bar connections, wherein each of the output elements of each of the output sections of each of the bus bar connections cooperatively form multiple linear three-phase output element groups, and the dielectric material comprises elongate elements interposed between neighboring pairs of the bus bar connections and plugs that surround the multiple output elements in corresponding ones of each of the multiple linear three-phase output element groups.
A method performed by a network repository function of a telecommunications network having a plurality of service communication proxies, SCPs , deployed between a first network node and a second network node , the method comprising: receiving , from a first SCP of the plurality of SCPs, a request for a next hop identity to signal a message from the first network node to the second network node; and responsive to the request from the first SCP, providing a response to the first SCP wherein the response identifies at least a portion of a routing path for the message based on a routing path configuration, wherein the response includes the identity of a second SCP of the plurality of SCPs. receiving , from a first SCP of the plurality of SCPs, a request for a next hop identity to signal a message from the first network node to the second network node; and responsive to the request from the first SCP, providing a response to the first SCP wherein the response identifies at least a portion of a routing path for the message based on a routing path configuration, wherein the response includes the identity of a second SCP of the plurality of SCPs.
A driver assembly for use in a power tool, said driver assembly comprising: a movable piston , exhibiting a top outer surface , a bottom outer surface , and a side wall outer surface extending between said top and bottom outer surfaces; a hollow cylinder having an inner surface surrounding said side wall outer surface of the piston; a movable driver that is in mechanical communication with the piston; a guide body configured to guide said driver and configured to receive a fastener to be driven by the driver toward an exit portion of said guide body; a first recess in said side wall outer surface of the piston; and a porous media positioned in said first recess along said side wall outer surface of the piston containing a liquid lubricant oil stored therein, wherein said porous media is configured to dispense said liquid lubricant oil onto said inner surface of said hollow cylinder ; and an anti-seize grease pre-applied to said inner surface of said hollow cylinder ; wherein: both said liquid lubricant oil and said anti-seize grease provide lubrication to at least a portion of said inner surface of said hollow cylinder proximal to said side wall outer surface of said piston , as said piston moves through said hollow cylinder. a movable piston , exhibiting a top outer surface , a bottom outer surface , and a side wall outer surface extending between said top and bottom outer surfaces; a hollow cylinder having an inner surface surrounding said side wall outer surface of the piston; a movable driver that is in mechanical communication with the piston; a guide body configured to guide said driver and configured to receive a fastener to be driven by the driver toward an exit portion of said guide body; a first recess in said side wall outer surface of the piston; and a porous media positioned in said first recess along said side wall outer surface of the piston containing a liquid lubricant oil stored therein, wherein said porous media is configured to dispense said liquid lubricant oil onto said inner surface of said hollow cylinder ; and an anti-seize grease pre-applied to said inner surface of said hollow cylinder ; wherein: both said liquid lubricant oil and said anti-seize grease provide lubrication to at least a portion of said inner surface of said hollow cylinder proximal to said side wall outer surface of said piston , as said piston moves through said hollow cylinder.
Single-grain sowing unit of a single-grain seeder having at least one single-grain sowing unit , with at least one assigned storage container , with a housing and a separating element , which is arranged and driven in the housing , with a seed storage compartment which is located in the housing and in which seed from the storage container is supplied by means of suitable means from the storage container for separating by the separating element , and with at least one seed emptying opening which is located in the lower region of the housing in the region of the seed storage compartment , is closable by means of a closure plate and can be opened for emptying the seed located in the seed storage compartment , wherein an obliquely downwardly inclined emptying chute leading away from the seed emptying opening of the housing can be attached to the outer side of the housing by means of suitable attachment means , characterized in that the emptying chute can be optionally attached on one of the two opposite sides of the housing of the separating unit by means of the attachment means .
Vacuum bell probe for detecting leaks in underground gas pipes, comprising a flexible suction cup having a bottom side forming a suction opening , the suction cup defining an interior volume , characterized in that the bottom side comprises a soft seal ring having a higher elasticity than the suction cup , surrounding the suction opening and forming a contact surface adapted to create a seal in contact with a ground surface under which a gas leak is assumed such that a vacuum may be generated within the interior volume upon contact to the ground surface, and the suction cup forms a bellow being compressible by vacuum pressure within the interior volume .
Passenger transport system with a device for detecting users (81A-81F), wherein the passenger transport system comprises a region through which the users (81A-81F) can walk, and the device has at least two sensors which operate according to the principle of transit time detection, and at least one signal evaluation unit connected to said sensors , wherein each sensor has at least one emitter for transmitting electromagnetic waves into a detection region and, adjoining this emitter , a receiver for detecting the electromagnetic waves emitted by the emitter and reflected out of the detection region of the sensor , wherein the emitter and the receiver of each sensor are directed into the region that can be walked through, and the detection region of each sensor is a three-dimensional space having a main direction axis , wherein at least one sensor of the device is respectively arranged on mutually opposite sides of the region that can be walked through and that the main direction axes of the detection regions of the sensors are arranged parallel to one another and orthogonally to the longitudinal extension of the region that can be walked through, characterized in that the presence of a user (81A-81F) and his/her distance (d) relative to the detecting sensor can be detected by means of the transit time detection of the sensors , and the number of simultaneously detected users (81A-81F) can be determined from the determined distances (d) of mutually opposite sensors by an evaluation by means of a comparison of the distance signal profiles.
A method for stabilizing a lift truck having at least two spring loaded casters disposed away from a roll-axis of the lift truck on opposite sides of the roll axis, the method being characterized in that it comprises: measuring a value of rotational speed of the lift truck about the roll-axis; determining which direction the lift truck is moving by comparing the measured value of rotational speed to a stationary value of rotational speed; determining an absolute value of rotational speed of the lift truck; comparing the absolute value of rotational speed to a threshold value of rotational speed; allowing vertical movement of the spring loaded casters if the absolute value of rotational speed is less than or equal to the threshold value of rotational speed; locking a vertical movement of the spring loaded caster on a side of the lift truck that is determined to be moving when the absolute value of rotational speed is greater than the threshold value of rotational speed; and unlocking said spring loaded caster after a predetermined duration of time. measuring a value of rotational speed of the lift truck about the roll-axis; determining which direction the lift truck is moving by comparing the measured value of rotational speed to a stationary value of rotational speed; determining an absolute value of rotational speed of the lift truck; comparing the absolute value of rotational speed to a threshold value of rotational speed; allowing vertical movement of the spring loaded casters if the absolute value of rotational speed is less than or equal to the threshold value of rotational speed; locking a vertical movement of the spring loaded caster on a side of the lift truck that is determined to be moving when the absolute value of rotational speed is greater than the threshold value of rotational speed; and unlocking said spring loaded caster after a predetermined duration of time.
A coding method, comprising: coding (S101), by a coding apparatus, a low frequency band signal of an input audio signal whose corresponding spectrum range is [0, f1] to obtain a characteristic factor of the input audio signal; performing (S102), by the coding apparatus, coding and spread spectrum prediction on a high frequency band signal of the input audio signal whose corresponding spectrum range is [f1, f2] to obtain a first full band signal; performing (S103), by the coding apparatus, de-emphasis processing on the first full band signal, wherein a de-emphasis parameter of the de-emphasis processing is determined according to the characteristic factor; calculating (S104), by the coding apparatus, a first energy of the first full band signal that has undergone de-emphasis processing; performing (S105), by the coding apparatus, band-pass filtering processing on the input audio signal to obtain a second full band signal whose corresponding spectrum range is [f2, f3]; calculating (S106), by the coding apparatus, a second energy of the second full band signal; calculating (S107), by the coding apparatus, an energy ratio of the second energy of the second full band signal to the first energy of the first full band signal; and sending (S108), by the coding apparatus to a decoding apparatus, a bitstream resulting from coding the input audio signal, wherein the bitstream comprises the characteristic factor, high frequency band coding information, and the energy ratio of the input audio signal. coding (S101), by a coding apparatus, a low frequency band signal of an input audio signal whose corresponding spectrum range is [0, f1] to obtain a characteristic factor of the input audio signal; performing (S102), by the coding apparatus, coding and spread spectrum prediction on a high frequency band signal of the input audio signal whose corresponding spectrum range is [f1, f2] to obtain a first full band signal; performing (S103), by the coding apparatus, de-emphasis processing on the first full band signal, wherein a de-emphasis parameter of the de-emphasis processing is determined according to the characteristic factor; calculating (S104), by the coding apparatus, a first energy of the first full band signal that has undergone de-emphasis processing; performing (S105), by the coding apparatus, band-pass filtering processing on the input audio signal to obtain a second full band signal whose corresponding spectrum range is [f2, f3]; calculating (S106), by the coding apparatus, a second energy of the second full band signal; calculating (S107), by the coding apparatus, an energy ratio of the second energy of the second full band signal to the first energy of the first full band signal; and sending (S108), by the coding apparatus to a decoding apparatus, a bitstream resulting from coding the input audio signal, wherein the bitstream comprises the characteristic factor, high frequency band coding information, and the energy ratio of the input audio signal.