mhurhangee/patent-ind-claim-en huggingface dataset:
A seismic yielding panel , the seismic yielding panel comprising: a panel including an upper truss structure and one or more side studs ; one or more structural columns ; and one or more seismic yielding connectors connecting the one or more side studs of the panel to the one or more structural columns, each of the one or more seismic yielding connectors comprising: a U-shaped plate configured to connect one of the one or more side studs to another component of the panel; a yielding plate located between the U-shaped plate and the one of the one or more side studs of the panel; a high-strength bolt connecting the U-shaped plate, the yielding plate, and the one of the one or more side studs of the panel; and characterized in that each of the one or more seismic yielding connectors further comprising a bushing located between the U-shaped plate and one of the one or more structural columns. a panel including an upper truss structure and one or more side studs ; one or more structural columns ; and one or more seismic yielding connectors connecting the one or more side studs of the panel to the one or more structural columns, each of the one or more seismic yielding connectors comprising: a U-shaped plate configured to connect one of the one or more side studs to another component of the panel; a yielding plate located between the U-shaped plate and the one of the one or more side studs of the panel; a high-strength bolt connecting the U-shaped plate, the yielding plate, and the one of the one or more side studs of the panel; and characterized in that each of the one or more seismic yielding connectors further comprising a bushing located between the U-shaped plate and one of the one or more structural columns. a U-shaped plate configured to connect one of the one or more side studs to another component of the panel; a yielding plate located between the U-shaped plate and the one of the one or more side studs of the panel; a high-strength bolt connecting the U-shaped plate, the yielding plate, and the one of the one or more side studs of the panel; and characterized in that each of the one or more seismic yielding connectors further comprising a bushing located between the U-shaped plate and one of the one or more structural columns.
A pharmaceutical formulation comprising: an anti-PD-1 antibody at a concentration of about 5 mg/mL to about 15 mg/mL; citrate at a concentration of about of about 15 mM to about 25 mM; histidine at a concentration of about 20 mM to about 30 mM; mannitol at a concentration of about 130 mM to about 165 mM; sodium chloride at a concentration of about 45 mM to about 55 mM; edetate at a concentration of about 0.01 mM to about 0.03 mM; and polysorbate 20 or polysorbate 80 at a concentration of about 0.01% to about 0.03%; and having pH from about 5.5 to about 6.5; wherein the anti-PD-1 antibody comprises two light chains (LCs) and two heavy chains (HCs), wherein the amino acid sequence of both LCs is SEQ ID NO: 2 and the amino acid sequence of both HCs is the same and is either SEQ ID NO: 3 or SEQ ID NO: 4. an anti-PD-1 antibody at a concentration of about 5 mg/mL to about 15 mg/mL; citrate at a concentration of about of about 15 mM to about 25 mM; histidine at a concentration of about 20 mM to about 30 mM; mannitol at a concentration of about 130 mM to about 165 mM; sodium chloride at a concentration of about 45 mM to about 55 mM; edetate at a concentration of about 0.01 mM to about 0.03 mM; and polysorbate 20 or polysorbate 80 at a concentration of about 0.01% to about 0.03%; and having pH from about 5.5 to about 6.5;
A method in a first wireless device , which is one of a plurality of wireless devices located in a geographical area associated with a wireless communications network, for determining whether to perform validation of one or more of a pool of un-validated messages, each addressed to one of the plurality of wireless devices; the method comprising: obtaining respective weightings associated with each of the plurality of wireless devices, wherein a weighting, associated with a wireless device, is representative of a number of un-validated messages the wireless device is able to validate in a unit of time; obtaining a zone list wherein the zone list comprises a list of the plurality of wireless devices and the respective weightings associated with the plurality of wireless devices; selecting an active list of one or more wireless devices from the plurality of wireless devices by selecting a first number of wireless devices from the zone list associated with the highest weightings such that a count of the pool of un-validated messages at a time, t, divided by a sum of the weightings associated with the first number of wireless devices, is less than or equal to a predetermined maximum time for validating an un-validated message; and responsive to the active list comprising the first wireless device, performing validation of the one or more of the pool of un-validated messages. obtaining respective weightings associated with each of the plurality of wireless devices, wherein a weighting, associated with a wireless device, is representative of a number of un-validated messages the wireless device is able to validate in a unit of time; obtaining a zone list wherein the zone list comprises a list of the plurality of wireless devices and the respective weightings associated with the plurality of wireless devices; selecting an active list of one or more wireless devices from the plurality of wireless devices by selecting a first number of wireless devices from the zone list associated with the highest weightings such that a count of the pool of un-validated messages at a time, t, divided by a sum of the weightings associated with the first number of wireless devices, is less than or equal to a predetermined maximum time for validating an un-validated message; and responsive to the active list comprising the first wireless device, performing validation of the one or more of the pool of un-validated messages.
A microbe-binding molecule comprising: (i) a collagen domain of a collectin, ficolin, or a naturally-occurring or synthetic collagen-like peptide; (ii) an Fc domain of an immunoglobulin; and (iii) a microbe-binding domain comprising a helical domain of a collectin, ficolin, or synthetic helical peptide, and a carbohydrate recognition domain (CRD) of a sugar-binding lectin, DC-SIGN, or macrophage mannose receptor; wherein the Fc domain links the collagen domain to the microbe-binding domain; and wherein the collagen domain, helical domain, and CRD can each be from the same molecule or different molecules. (i) a collagen domain of a collectin, ficolin, or a naturally-occurring or synthetic collagen-like peptide; (ii) an Fc domain of an immunoglobulin; and (iii) a microbe-binding domain comprising a helical domain of a collectin, ficolin, or synthetic helical peptide, and a carbohydrate recognition domain (CRD) of a sugar-binding lectin, DC-SIGN, or macrophage mannose receptor;
A computer implemented method for processing a breakpoint request regarding a target program, the method comprising: receiving breakpoint information from a computer user in regard to an execution location in a target program executing on a computing device to set a first breakpoint, the execution of the target program causing multiple threads of execution to occur, the breakpoint information including a condition upon which the first breakpoint will trigger, wherein the first breakpoint is conditioned according to information regarding a logical execution context, wherein said context is viewed as a collective execution of the threads and wherein said context relates to the computer user causing the execution by way of a context identifier; identifying a code block of the target program including the execution location of the first breakpoint; re-compiling the code block of the target program, wherein re-compiling the code block of the target program comprises: re-compiling the code block without optimizations; and including executable instructions at the execution location to generate a snapshot of debugger information regarding the target program upon the first breakpoint triggering; and binding the re-compiled code block in the target program. receiving breakpoint information from a computer user in regard to an execution location in a target program executing on a computing device to set a first breakpoint, the execution of the target program causing multiple threads of execution to occur, the breakpoint information including a condition upon which the first breakpoint will trigger, wherein the first breakpoint is conditioned according to information regarding a logical execution context, wherein said context is viewed as a collective execution of the threads and wherein said context relates to the computer user causing the execution by way of a context identifier; identifying a code block of the target program including the execution location of the first breakpoint; re-compiling the code block of the target program, wherein re-compiling the code block of the target program comprises: re-compiling the code block without optimizations; and including executable instructions at the execution location to generate a snapshot of debugger information regarding the target program upon the first breakpoint triggering; and binding the re-compiled code block in the target program. re-compiling the code block without optimizations; and including executable instructions at the execution location to generate a snapshot of debugger information regarding the target program upon the first breakpoint triggering; and binding the re-compiled code block in the target program.
A synchronizer assembly comprising: a hub including external teeth formed thereon, the hub having at least one recess formed therein; and a shift sleeve including internal teeth formed thereon, the shift sleeve disposed about the hub ; a pre-energizer assembly disposed in the at least one recess , the pre-energizer assembly including a housing disposed in the recess, characterized in that the housing has two separated bores formed therein, springs disposed in each of the two separated bores, bearing members disposed in each of the two separated bores and biased by the two springs applying a force to the shift sleeve , wherein each of the bearing members apply the force in parallel to the other bearing member . a hub including external teeth formed thereon, the hub having at least one recess formed therein; and a shift sleeve including internal teeth formed thereon, the shift sleeve disposed about the hub ; a pre-energizer assembly disposed in the at least one recess , the pre-energizer assembly including a housing disposed in the recess, characterized in that the housing has two separated bores formed therein, springs disposed in each of the two separated bores, bearing members disposed in each of the two separated bores and biased by the two springs applying a force to the shift sleeve , wherein each of the bearing members apply the force in parallel to the other bearing member .
A composition comprising a purified immunoconjugate comprising the V H -PE38 subunit having the amino acid sequence of SEQ ID NO: 1 and the V L subunit having the amino acid sequence of SEQ ID NO:2, wherein the composition comprises less than 25% of deamidated species and the deamidation occurs at position 358 of SEQ ID NO: 1.
A hydraulic power unit system comprising: a hydraulic power unit, HPU, and a pressure relief valve, PRV, ; the PRV having an open port and a close port ; the HPU including: a pneumatic primary pump ; a hydraulic fluid reservoir in fluid communication with the primary pump ; an accumulator ; a first two position solenoid directional valve, TPSDV, in communication with the primary pump , the reservoir , and the accumulator , and the first TPSDV provides fluid communication with the PRV; a second TPSDV ; at least one first fluid line ; and at least one second fluid line ; wherein in a first configuration of the second TPSDV , the at least one first fluid line provides fluid communication between the first TPSDV and the close port of the PRV, and the at least one second fluid line provides fluid communication between the first TPSDV and the open port of the PRV; wherein in a second configuration of the second TPSDV , the at least one first fluid line provides fluid communication between the first TPSDV and the open port of the PRV, and the at least one second fluid line provides fluid communication between the first TPSDV and the close port of the PRV; and wherein the HPU is configurable in a PRV fail open configuration and a PRV fail close configuration. a hydraulic power unit, HPU, and a pressure relief valve, PRV, ; the PRV having an open port and a close port ; the HPU including: a pneumatic primary pump ; a hydraulic fluid reservoir in fluid communication with the primary pump ; an accumulator ; a first two position solenoid directional valve, TPSDV, in communication with the primary pump , the reservoir , and the accumulator , and the first TPSDV provides fluid communication with the PRV; a second TPSDV ; at least one first fluid line ; and at least one second fluid line ; a pneumatic primary pump ; a hydraulic fluid reservoir in fluid communication with the primary pump ; an accumulator ; a first two position solenoid directional valve, TPSDV, in communication with the primary pump , the reservoir , and the accumulator , and the first TPSDV provides fluid communication with the PRV; a second TPSDV ; at least one first fluid line ; and at least one second fluid line ; wherein in a first configuration of the second TPSDV , the at least one first fluid line provides fluid communication between the first TPSDV and the close port of the PRV, and the at least one second fluid line provides fluid communication between the first TPSDV and the open port of the PRV; wherein in a second configuration of the second TPSDV , the at least one first fluid line provides fluid communication between the first TPSDV and the open port of the PRV, and the at least one second fluid line provides fluid communication between the first TPSDV and the close port of the PRV; and wherein the HPU is configurable in a PRV fail open configuration and a PRV fail close configuration.
A microplate processing apparatus , comprising at least one slide having a first receptacle for microplates , wherein the at least one slide can be moved linearly in a first horizontal direction (X), whereby the microplates can be introduced with the at least one slide into a processing area of the processing apparatus or removed from the processing area, at least one lift , which can be moved in a vertical direction (Z), whereby the microplates can be removed from the slide or fed to the slide , wherein the slide comprises a passage opening , the circumference of which, in the vertical projection, projects at least partially horizontally inwards below the circumference of a microplate accommodated in the slide , and wherein the lift comprises a second receptacle for microplates , the circumference of which, in the vertical projection, projects below the circumference of the passage opening , whereby the second receptacle can be moved unhindered in the vertical direction (Z) through the passage opening , characterized in that the passage opening of the slide comprises at least one recess which projects laterally outwards beyond the circumference of an accommodated microplate , and in that the second receptacle of the lift comprises at least one arm which, in the projection in the vertical direction (Z), is arranged in the at least one recess , wherein a front recess is provided on a front side of the passage opening in the first horizontal direction (X), which recess completely breaks through the front region of the slide at least in sections, resulting in a forkshaped design of the slide . at least one lift , which can be moved in a vertical direction (Z), whereby the microplates can be removed from the slide or fed to the slide , wherein the slide comprises a passage opening , the circumference of which, in the vertical projection, projects at least partially horizontally inwards below the circumference of a microplate accommodated in the slide , and wherein the lift comprises a second receptacle for microplates , the circumference of which, in the vertical projection, projects below the circumference of the passage opening , whereby the second receptacle can be moved unhindered in the vertical direction (Z) through the passage opening , characterized in that the passage opening of the slide comprises at least one recess which projects laterally outwards beyond the circumference of an accommodated microplate , and in that the second receptacle of the lift comprises at least one arm which, in the projection in the vertical direction (Z), is arranged in the at least one recess , wherein a front recess is provided on a front side of the passage opening in the first horizontal direction (X), which recess completely breaks through the front region of the slide at least in sections, resulting in a forkshaped design of the slide .
Single-portion pack for producing a beverage from a beverage concentrate, comprising a closable concentrate container for holding the beverage concentrate, wherein the single-portion pack has an extraction and mixing device comprising: an extraction means for extracting the beverage concentrate from the concentrate container , a mixing chamber for preparing the beverage from the beverage concentrate extracted from the concentrate container and a mixing liquid able to be supplied, an inlet for the mixing liquid into the mixing chamber , and an outlet for the beverage from the mixing chamber , wherein the concentrate container has a thin point which is configured to be pierceable by the extraction means , characterized in that the extraction means has a piercing part which has an air duct and from the base of the extraction and mixing device protrudes in the direction of the thin point , and an opening part which from the base of the extraction and mixing device protrudes in the direction of the thin point .
Method for operating a vehicle, comprising the following method steps: - sensing a momentary acceleration value of the vehicle, - comparing the sensed acceleration value with a predefined acceleration value, - inferring that there is an unknown braking force if it is found that the sensed acceleration value deviates from the predefined acceleration value by at least a predefined amount, - outputting a signal concerning an unknown braking force to the driver of the vehicle, characterized by : - sensing a position of a control element for regulating the drive power, - predefining the predefined acceleration value in accordance with the sensed position of the control element for regulating the drive power. comprising the following method steps: - sensing a momentary acceleration value of the vehicle, - comparing the sensed acceleration value with a predefined acceleration value, - inferring that there is an unknown braking force if it is found that the sensed acceleration value deviates from the predefined acceleration value by at least a predefined amount, - outputting a signal concerning an unknown braking force to the driver of the vehicle, - sensing a momentary acceleration value of the vehicle, - comparing the sensed acceleration value with a predefined acceleration value, - inferring that there is an unknown braking force if it is found that the sensed acceleration value deviates from the predefined acceleration value by at least a predefined amount, - outputting a signal concerning an unknown braking force to the driver of the vehicle, characterized by : - sensing a position of a control element for regulating the drive power, - predefining the predefined acceleration value in accordance with the sensed position of the control element for regulating the drive power. - sensing a position of a control element for regulating the drive power, - predefining the predefined acceleration value in accordance with the sensed position of the control element for regulating the drive power.
A device, comprising: an ultrasound transducer assembly configured to: emit a signal comprising a main lobe and two grating lobes towards a blood vessel, wherein the grating lobes have a separation angle, and the signal includes an emitted waveform, the emitted waveform having propagation characteristics; and receive a return signal including a return waveform from the main lobe and the grating lobes; and an analysis component configured to analyze the return signals to: determine a depth of the vessel from the specular component of the main lobe; to determine a pulse wave velocity value from the depth of the vessel, the separation angle of the grating lobes and the time between the pulse passing by any two lobes; and to determine an instantaneous blood velocity value using pulse wave doppler, the analysis component being further configured to compute a blood pressure value from the pulse wave velocity value and the instantaneous blood velocity value. an ultrasound transducer assembly configured to: emit a signal comprising a main lobe and two grating lobes towards a blood vessel, wherein the grating lobes have a separation angle, and the signal includes an emitted waveform, the emitted waveform having propagation characteristics; and receive a return signal including a return waveform from the main lobe and the grating lobes; and emit a signal comprising a main lobe and two grating lobes towards a blood vessel, wherein the grating lobes have a separation angle, and the signal includes an emitted waveform, the emitted waveform having propagation characteristics; and receive a return signal including a return waveform from the main lobe and the grating lobes; and an analysis component configured to analyze the return signals to: determine a depth of the vessel from the specular component of the main lobe; to determine a pulse wave velocity value from the depth of the vessel, the separation angle of the grating lobes and the time between the pulse passing by any two lobes; and to determine an instantaneous blood velocity value using pulse wave doppler, the analysis component being further configured to compute a blood pressure value from the pulse wave velocity value and the instantaneous blood velocity value.