mhurhangee/patent-ind-claim-en huggingface dataset:
Device configured for providing a spreading function to a surgical instrument wherein the surgical instrument comprises a linear body of circular cross-section with 5 mm in diameter, wherein the device comprises a body comprising: - a first side , and - a second side comprising: - at least two grooves configured to perform a folding of the body ; and - a housing configured to be transversed by the linear body of circular section of the surgical instrument ; and wherein the body is configured to adopt two positions: a U-shaped folded position and a flat unfolded position; characterised in that the second side further comprises two tabs having a section with a circular sector shape and spaced a distance apart such that the linear body of circular section can be housed between the tabs ; and in that in the flat unfolded position, the housing and the two tabs are configured to simultaneously receive the linear body , and wherein the surgical instrument is a laparoscopic instrument. - a first side , and - a second side comprising: - at least two grooves configured to perform a folding of the body ; and - a housing configured to be transversed by the linear body of circular section of the surgical instrument ; - at least two grooves configured to perform a folding of the body ; and - a housing configured to be transversed by the linear body of circular section of the surgical instrument ; and wherein the body is configured to adopt two positions: a U-shaped folded position and a flat unfolded position; characterised in that the second side further comprises two tabs having a section with a circular sector shape and spaced a distance apart such that the linear body of circular section can be housed between the tabs ; and in that in the flat unfolded position, the housing and the two tabs are configured to simultaneously receive the linear body , and wherein the surgical instrument is a laparoscopic instrument.
A pump , comprising: a reservoir configured to deliver a liquid; a port coupled to the reservoir and configured to discharge the liquid; a plunger having a piston coupled to a shaft , wherein the piston is disposed within the reservoir in sliding engagement with an inner surface of the reservoir, wherein the piston defines a liquid side of the reservoir and a non-liquid side of the reservoir whereby movement of the plunger towards the liquid side of the reservoir discharges liquid through the port; and a reference-volume assembly coupled to the reservoir, characterized in that the reference-volume assembly comprises: a reference-volume chamber in acoustic communication with the non-liquid side of the reservoir; a speaker disposed within the reference-volume chamber configured to generate a sound wave; a reference microphone disposed within the reference-volume chamber; and a conduit configured to receive the shaft, wherein the shaft is in sliding engagement with the conduit, wherein the pump further comprises a variable-volume microphone disposed within the non-liquid side of the reservoir configured to sense the sound wave within the reservoir. a reservoir configured to deliver a liquid; a port coupled to the reservoir and configured to discharge the liquid; a plunger having a piston coupled to a shaft , wherein the piston is disposed within the reservoir in sliding engagement with an inner surface of the reservoir, wherein the piston defines a liquid side of the reservoir and a non-liquid side of the reservoir whereby movement of the plunger towards the liquid side of the reservoir discharges liquid through the port; and a reference-volume assembly coupled to the reservoir, characterized in that the reference-volume assembly comprises: a reference-volume chamber in acoustic communication with the non-liquid side of the reservoir; a speaker disposed within the reference-volume chamber configured to generate a sound wave; a reference microphone disposed within the reference-volume chamber; and a conduit configured to receive the shaft, wherein the shaft is in sliding engagement with the conduit, a reference-volume chamber in acoustic communication with the non-liquid side of the reservoir; a speaker disposed within the reference-volume chamber configured to generate a sound wave; a reference microphone disposed within the reference-volume chamber; and a conduit configured to receive the shaft, wherein the shaft is in sliding engagement with the conduit, wherein the pump further comprises a variable-volume microphone disposed within the non-liquid side of the reservoir configured to sense the sound wave within the reservoir.
A positive electrode active material for a secondary battery, comprising: a core; a shell located to surround the core; and a buffer layer located between the core and the shell, and including a three-dimensional network structure connecting the core and the shell and a pore, wherein the core, the shell and the three-dimensional network structure in the buffer layer each independently include a lithium composite metal oxide, and the positive electrode active material has a BET specific surface area of 0.2 m 2 /g to 0.5 m 2 /g, a porosity of 30 vol% or less, and an average particle size (D 50 ) of 8 μm to 15 μm. a core; a shell located to surround the core; and a buffer layer located between the core and the shell, and including a three-dimensional network structure connecting the core and the shell and a pore, wherein the core, the shell and the three-dimensional network structure in the buffer layer each independently include a lithium composite metal oxide, and the positive electrode active material has a BET specific surface area of 0.2 m 2 /g to 0.5 m 2 /g, a porosity of 30 vol% or less, and an average particle size (D 50 ) of 8 μm to 15 μm.
A main body of a doctor blade chamber comprising a first portion configured to hold a first doctor blade , a second portion configured to hold a second doctor blade opposite the first doctor blade , a third portion connecting the first portion and the second portion , a cavity intended to receive ink and delimited at least by the first portion , the second portion and the third portion , in which the main body is a single hollow closed profile extending according to a longitudinal main axis (X-X), the main body being made of a pultruded composite material, characterized in that the main body comprises a pressurized water channel , said water channel being positioned in a hollow of the profile of the main body and extending along the main longitudinal axis (X-X), as well as an ink channel separate from the water channel , said ink channel being positioned in a hollow in the profile of the main body and extending along the main longitudinal axis (X-X), and in that the water channel comprises at least one washing nozzle opening, on one side, into the water channel and, on the other side, into the cavity , and extending protruding from the water channel through the third portion of the main body .
A compartmentalized header tank for liquid coolant, the header tank having an intended upright position, when in use, characterized by comprising - a container having an upper portion and a lower portion on an inside thereof, wherein the upper portion being laterally divided into fluid impermeable partitions by at least one downwardly extending divider element , said partitions being open towards the lower portion , and wherein the lower portion being defined by the inside of the container below the at least one divider element ; - at least two tank gas outlets , each tank gas outlet being positioned in a respective partition of the container's upper portion ; - at least two tank coolant inlets , each tank coolant inlet corresponding to a tank gas outlet , and being positioned below thereof in the respective partition of the corresponding tank gas outlet , and - a tank coolant outlet positioned in a lower portion of the container. - a container having an upper portion and a lower portion on an inside thereof, wherein the upper portion being laterally divided into fluid impermeable partitions by at least one downwardly extending divider element , said partitions being open towards the lower portion , and wherein the lower portion being defined by the inside of the container below the at least one divider element ; - at least two tank gas outlets , each tank gas outlet being positioned in a respective partition of the container's upper portion ; - at least two tank coolant inlets , each tank coolant inlet corresponding to a tank gas outlet , and being positioned below thereof in the respective partition of the corresponding tank gas outlet , and - a tank coolant outlet positioned in a lower portion of the container.
A noble metal-containing titanosilicate material, wherein said material is represented by xTiO 2 ·100SiO 2 ·yEO m ·zE in an oxide form, wherein x ranges from 0.001 to 50.0; (y+z) ranges from 0.0001 to 20.0 and y/z is from 0.01/6.4 to less than 5; E represents one or more noble metals selected from the group consisting of Ru, Rh, Pd, Re, Os, Ir, Pt, Ag and Au; m is a number satisfying the oxidation state of E; and the crystal grains of said material contain hollow structures, wherein the cavity portion of the hollow crystal grains has a radial length of 0.5 to 300 nm, and wherein the benzene adsorption capacity of said material is at least 35 mg/g, measured under the conditions of a temperature of 25°C, P/P 0 = 0.10 and the adsorption time of 1 h.
A method for determining a microbial pathogen and an anti-infective resistance thereof in a sample comprising the microbial pathogen and an anti-infective, comprising the following steps: - cultivating the sample comprising at least one microbial pathogen and an anti-infective; - determining Raman spectra of the microbial pathogen by Raman spectroscopy of the sample under at least two different anti-infective conditions, - determining quantitative morphology parameters of the microbial pathogen by optical detection of the sample under at least two different anti-infective conditions, - determining the microbial pathogen based on the Raman spectra and the quantitative morphology parameters of the microbial pathogen, - determining the anti-infective resistance of the microbial pathogen based on the Raman spectra and the quantitative morphology parameters of the microbial pathogen. - cultivating the sample comprising at least one microbial pathogen and an anti-infective; - determining Raman spectra of the microbial pathogen by Raman spectroscopy of the sample under at least two different anti-infective conditions, - determining quantitative morphology parameters of the microbial pathogen by optical detection of the sample under at least two different anti-infective conditions, - determining the microbial pathogen based on the Raman spectra and the quantitative morphology parameters of the microbial pathogen, - determining the anti-infective resistance of the microbial pathogen based on the Raman spectra and the quantitative morphology parameters of the microbial pathogen.
Complex comprising (i) a protein binding domain capable of specifically binding to an intracellular conformational epitope of a GPCR and capable, upon binding, of stabilizing an active conformational state of said GPCR, wherein said protein binding domain comprises a nanobody sequence, or any suitable fragment thereof; and (ii) a GPCR in an active conformational state.
A hydrosilylation curable silicone composition comprising: (A) one or more polyorganosiloxanes containing at least two unsaturated groups per molecule, which unsaturated groups are selected from alkenyl and alkynyl groups and having a viscosity in a range of 1000mPa.s to 200,000mPa.s at 25°C, measured using a Brookfield rational viscometer with Spindle LV-4, (B) a polyorganosiloxane containing at least two or alternatively at least three terminal silicon bonded hydrogen groups, (C) at least one hydrosilylation catalyst, (D) a hydrosilylation cure inhibitor consisting or comprising a multiacrylate compound having at least three acrylate groups per molecule. (A) one or more polyorganosiloxanes containing at least two unsaturated groups per molecule, which unsaturated groups are selected from alkenyl and alkynyl groups and having a viscosity in a range of 1000mPa.s to 200,000mPa.s at 25°C, measured using a Brookfield rational viscometer with Spindle LV-4, (B) a polyorganosiloxane containing at least two or alternatively at least three terminal silicon bonded hydrogen groups, (C) at least one hydrosilylation catalyst, (D) a hydrosilylation cure inhibitor consisting or comprising a multiacrylate compound having at least three acrylate groups per molecule.
Water supply control system for a washing machine having a tub and a laundry drum , comprising the steps of - determining a load of laundry in the laundry drum ; and - determining a drip saturation value, which defines a water binding capacity of the laundry , by calculating an average of stored drip saturation values which are assigned to a selected washing program. - determining a load of laundry in the laundry drum ; and - determining a drip saturation value, which defines a water binding capacity of the laundry , by calculating an average of stored drip saturation values which are assigned to a selected washing program.
An apparatus , comprising: a housing ; digit gears coupled to the housing to rotate about respective parallel axes, each digit gear having a first portion including a first set of teeth disposed about an entire circumference of the first portion and a second portion including a second set of teeth disposed about only a portion of a circumference of the second portion , each of the digit gears to correspond to a respective digit in a code representing an absolute position of a shaft ; and a respective idler gear between each adjacent pair of the digit gears , each idler gear to be intermeshed with the first set of teeth of one of the adjacent pair of the digit gears and the second set of teeth of the other one of the adjacent pair of the digit gears , wherein each digit gear comprises a third portion , wherein the third portion is adapted to engage a second idler gear portion of the respective idler gear to prevent reverse rotation of the digit gear wherein the second idler gear portion includes a respective tooth associated with every other tooth of the first idler gear portion such that the second idler gear portion extends the face width of every other tooth of the first idler gear portion to a second length, characterised in that the third portion is disposed between the first portion and the second portion . a housing ; digit gears coupled to the housing to rotate about respective parallel axes, each digit gear having a first portion including a first set of teeth disposed about an entire circumference of the first portion and a second portion including a second set of teeth disposed about only a portion of a circumference of the second portion , each of the digit gears to correspond to a respective digit in a code representing an absolute position of a shaft ; and a respective idler gear between each adjacent pair of the digit gears , each idler gear to be intermeshed with the first set of teeth of one of the adjacent pair of the digit gears and the second set of teeth of the other one of the adjacent pair of the digit gears , wherein each digit gear comprises a third portion , wherein the third portion is adapted to engage a second idler gear portion of the respective idler gear to prevent reverse rotation of the digit gear wherein the second idler gear portion includes a respective tooth associated with every other tooth of the first idler gear portion such that the second idler gear portion extends the face width of every other tooth of the first idler gear portion to a second length, characterised in that the third portion is disposed between the first portion and the second portion .
A safety-related automation system with monitored deactivation behavior, comprising: an input device having at least one input connection , a ground connection and a monitoring device which is adapted to monitor the voltage drop at the input connection during a deactivation operation and to detect a deactivation signal of a sensor at the input connection when the voltage at the input connection is less than or equal to a predetermined voltage value, wherein the sensor is connected to the input connection ; a voltage supply source for powering the sensor ; a deactivation acceleration device which is adapted to provide an electrical resistor between the input connection and the ground connection during the deactivation operation in dependence of the voltage applied at the input connection during the deactivation operation, so that accelerated discharge of capacitive elements occurs, wherein the deactivation acceleration device is active only during the deactivation operation. an input device having at least one input connection , a ground connection and a monitoring device which is adapted to monitor the voltage drop at the input connection during a deactivation operation and to detect a deactivation signal of a sensor at the input connection when the voltage at the input connection is less than or equal to a predetermined voltage value, wherein the sensor is connected to the input connection ; a voltage supply source for powering the sensor ; a deactivation acceleration device which is adapted to provide an electrical resistor between the input connection and the ground connection during the deactivation operation in dependence of the voltage applied at the input connection during the deactivation operation, so that accelerated discharge of capacitive elements occurs, wherein the deactivation acceleration device is active only during the deactivation operation.
A telescopic rail comprising a first rail element with two running surfaces , a second rail element with two running surfaces , at least one rolling body cage for positioning a plurality of rolling bodies, and a plurality of rolling bodies which are received at the rolling body cage , wherein portions of the rolling body cage with the rolling bodies are arranged between the running surfaces of the first and second rail elements in such a way that the first rail element and the second rail element are linearly displaceable relative to each other in an extension direction , wherein the rolling body cage establishes a position of each rolling body in the extension direction relative to the rolling body cage , characterised in that the rolling body cage is secured to the first rail element so that the rolling bodies perform a sliding movement with respect to the running surfaces of the first rail element and the rolling bodies perform a sliding movement with respect to the running surfaces of the second rail element or roll on the running surfaces of the second rail element . a first rail element with two running surfaces , a second rail element with two running surfaces , at least one rolling body cage for positioning a plurality of rolling bodies, and a plurality of rolling bodies which are received at the rolling body cage , wherein portions of the rolling body cage with the rolling bodies are arranged between the running surfaces of the first and second rail elements in such a way that the first rail element and the second rail element are linearly displaceable relative to each other in an extension direction , wherein the rolling body cage establishes a position of each rolling body in the extension direction relative to the rolling body cage , characterised in that the rolling body cage is secured to the first rail element so that the rolling bodies perform a sliding movement with respect to the running surfaces of the first rail element and the rolling bodies perform a sliding movement with respect to the running surfaces of the second rail element or roll on the running surfaces of the second rail element .
A method of data communication in a Multiple-Input and Multiple-Output, MIMO, system including a base station comprising a plurality of antennae and a plurality of user equipments, UEs , wherein the plurality of antennae have been partitioned into a plurality of subsets of antennae , the method including: generating, at a first UE of the plurality of UEs, first channel information relating to a first subset of the plurality of subsets of antennae ; generating, at the first UE , second channel information relating to a second subset of the plurality of subsets of antennae ; and providing the first and second channel information to the base station for generation of a precoder, wherein the generation of the precoder comprises stacking sub-precoders corresponding to the channel information of the plurality of subsets, wherein the method further includes removing aspects of the sub-precoders associated with a reference antenna prior to stacking the sub-precoders, wherein the plurality of subsets are joint subsets, wherein the plurality of subsets comprises at least one reference antenna that is common to all of the plurality of subsets, and wherein the removing aspects of the sub-precoders associated with the reference antenna comprises removing the rows associated with the reference antenna of N-1 sub-precoders, wherein N is the number of the plurality of subsets of antennas. generating, at a first UE of the plurality of UEs, first channel information relating to a first subset of the plurality of subsets of antennae ; generating, at the first UE , second channel information relating to a second subset of the plurality of subsets of antennae ; and providing the first and second channel information to the base station for generation of a precoder, wherein the generation of the precoder comprises stacking sub-precoders corresponding to the channel information of the plurality of subsets, wherein the method further includes removing aspects of the sub-precoders associated with a reference antenna prior to stacking the sub-precoders, wherein the plurality of subsets are joint subsets, wherein the plurality of subsets comprises at least one reference antenna that is common to all of the plurality of subsets, and wherein the removing aspects of the sub-precoders associated with the reference antenna comprises removing the rows associated with the reference antenna of N-1 sub-precoders, wherein N is the number of the plurality of subsets of antennas.