mhurhangee/patent-ind-claim-en huggingface dataset:
A method to handle sample tubes in a diagnostic laboratory automation system comprising a control device and a tube analyzing device, wherein the tube analyzing device comprises a tube identification device reader , a tube type recognition unit , a sample color determination unit , and a tube consistence unit , wherein the tube identification device reader reads a tube identification device of a sample tube to determine the sample tube type, wherein the tube type recognition device identifies the type of tube, wherein the sample color determination unit determines the color of the sample in the sample tube, wherein the tube consistence unit determines the consistency of the sample in the tube, consisting of determining whether there exist several separated phases in the content of tube, wherein the sample tube type, the tube type, the color of the sample, and the consistency of the sample are sent to the control device, characterized in that the control device determines a construed sample tube type construed out of all of the information of the type of tube, the color of the sample, and the consistency of the sample in the tube, and in that the control device determines a confidence level of the construed sample tube type out of all of the information of the type of tube, the color of the sample, and the consistency of the sample in the tube, and only changes the used sample tube type from the sample tube type to the construed sample tube type if the confidence level is above or equal a predetermined confidence level. wherein the tube identification device reader reads a tube identification device of a sample tube to determine the sample tube type, wherein the tube type recognition device identifies the type of tube, wherein the sample color determination unit determines the color of the sample in the sample tube, wherein the tube consistence unit determines the consistency of the sample in the tube, consisting of determining whether there exist several separated phases in the content of tube, wherein the sample tube type, the tube type, the color of the sample, and the consistency of the sample are sent to the control device, characterized in that the control device determines a construed sample tube type construed out of all of the information of the type of tube, the color of the sample, and the consistency of the sample in the tube, and in that the control device determines a confidence level of the construed sample tube type out of all of the information of the type of tube, the color of the sample, and the consistency of the sample in the tube, and only changes the used sample tube type from the sample tube type to the construed sample tube type if the confidence level is above or equal a predetermined confidence level.
A radio frequency motion sensing apparatus for detection of periodic limb movement in a sleeping person, the apparatus comprising: a radio frequency transmitter configured to emit radio frequency signals; a receiver configured to: receive reflected ones of the emitted radio frequency signals, and process the received reflected ones of the emitted radio frequency signals to produce motion signals, wherein processing comprises mixing the received signals with emitted signals; and a processor configured to: partition the motion signals into breath sections; classify each breath section of the motion signals as containing a limb movement or not containing a limb movement; and generate an indicator that identifies one or more occurrences of periodic limb movement in the motion signals based on the classified breath sections. a radio frequency transmitter configured to emit radio frequency signals; a receiver configured to: receive reflected ones of the emitted radio frequency signals, and process the received reflected ones of the emitted radio frequency signals to produce motion signals, wherein processing comprises mixing the received signals with emitted signals; and receive reflected ones of the emitted radio frequency signals, and process the received reflected ones of the emitted radio frequency signals to produce motion signals, wherein processing comprises mixing the received signals with emitted signals; and a processor configured to: partition the motion signals into breath sections; classify each breath section of the motion signals as containing a limb movement or not containing a limb movement; and generate an indicator that identifies one or more occurrences of periodic limb movement in the motion signals based on the classified breath sections. partition the motion signals into breath sections; classify each breath section of the motion signals as containing a limb movement or not containing a limb movement; and generate an indicator that identifies one or more occurrences of periodic limb movement in the motion signals based on the classified breath sections.
A holder for detachably fastening a flat, approximately rectangular device such as a tablet computer or a smartphone to a component, in particular to a component of a motor vehicle, wherein the holder has a holding device for detachably mounting the device and a fastening element connected to the holding device for connecting the holder to the component, wherein a rotary bearing rotatable about an axis of rotation is provided which is connected to the holding device and wherein a pivot bearing connected to the rotary bearing is provided, which is connected to the fastening element , wherein the rotary bearing includes a first rotary bearing portion connected to the holding device and a second rotary bearing portion connected to the fastening element , wherein a spring washer is provided on the rotary bearing , wherein the spring washer includes spring arms integrally connected with the spring washer , with locking sections which are moveable perpendicular to the axis of rotation of the rotary bearing between a radially inner locking position and a radially outer release position, wherein the first rotary bearing portion is rotatable in the release position relative to the second rotary bearing portion and wherein the first rotary bearing portion is fixed in the locking position relative to the second rotary bearing portion , characterized in that the spring washer is designed and situated in such a way that the locking sections are biased radially inward into the locking position by means of the spring arms , wherein the spring washer has an annular base portion from which the spring arms extend radially outward.
Cooling module for an electric or hybrid motor vehicle , said cooling module being intended to have an air flow (F) passing through it and having: • a set of heat exchangers having a first heat exchanger configured to absorb heat energy from the air flow (F) and a second heat exchanger configured to release heat energy into the air flow (F), • a first header housing disposed downstream of the set of heat exchangers in the direction of circulation of the air flow (F), said first header housing having an outlet for the air flow (F), • a tangential-flow turbomachine configured so as to generate the air flow (F), characterized in that the cooling module also has: • an air evacuation means disposed downstream of the outlet for the air flow (F) of the first header housing , said air evacuation means emerging outside the vehicle , and • a bypass connecting the outlet for the air flow to an opening emerging upstream of the set of heat exchangers , the air evacuation means having a first shut-off device that is able to move between a first position, known as the evacuation position, and a second position, known as the recirculation position, said first shut-off device being configured to redirect the air flow (F) coming from the outlet toward the outside of the vehicle in its evacuation position and to redirect said air flow (F) toward the bypass in its recirculation position. • a set of heat exchangers having a first heat exchanger configured to absorb heat energy from the air flow (F) and a second heat exchanger configured to release heat energy into the air flow (F), • a first header housing disposed downstream of the set of heat exchangers in the direction of circulation of the air flow (F), said first header housing having an outlet for the air flow (F), • a tangential-flow turbomachine configured so as to generate the air flow (F), • an air evacuation means disposed downstream of the outlet for the air flow (F) of the first header housing , said air evacuation means emerging outside the vehicle , and • a bypass connecting the outlet for the air flow to an opening emerging upstream of the set of heat exchangers ,
A method for performing sidelink communication by a first device, the method comprising: receiving, from a second device, information regarding a latency bound related to sidelink channel state information, CSI, medium access control, MAC, control element, CE, transmission, wherein a respective latency bound is maintained for each of PC5 radio resource control, RRC, connections between the first device and the second device; receiving, from the second device, a channel state information-reference signal, CSI-RS; transmitting, to a base station, a scheduling request, SR, based on (i) triggering of the sidelink CSI MAC CE transmission to the second device and (ii) no sidelink grant for the sidelink CSI MAC CE transmission, wherein a sidelink CSI MAC CE including channel-related information is obtained based on the CSI-RS; receiving, from the base station, a sidelink grant related to the SR; and canceling the triggered sidelink CSI MAC CE transmission to the second device, based on the sidelink grant which cannot fulfil the latency bound related to the sidelink CSI MAC CE transmission. receiving, from a second device, information regarding a latency bound related to sidelink channel state information, CSI, medium access control, MAC, control element, CE, transmission, wherein a respective latency bound is maintained for each of PC5 radio resource control, RRC, connections between the first device and the second device; receiving, from the second device, a channel state information-reference signal, CSI-RS; transmitting, to a base station, a scheduling request, SR, based on (i) triggering of the sidelink CSI MAC CE transmission to the second device and (ii) no sidelink grant for the sidelink CSI MAC CE transmission, wherein a sidelink CSI MAC CE including channel-related information is obtained based on the CSI-RS; receiving, from the base station, a sidelink grant related to the SR; and canceling the triggered sidelink CSI MAC CE transmission to the second device, based on the sidelink grant which cannot fulfil the latency bound related to the sidelink CSI MAC CE transmission.
A method of manufacturing a temperature sensor , comprising: depositing a metal layer on a substrate ; fabricating a calibration structure having a first calibration portion and a second calibration portion on the metal layer; performing a first calibration of the temperature sensor by modifying the first calibration portion, wherein the first calibration includes additional resistance within the range of 2Ω-6Ω; placing a cover layer on a portion of the first calibration portion ; placing at least one passivation layer between the cover layer and the first calibration portion ; and performing a second calibration of the temperature sensor by modifying the second calibration portion to a nominal resistance value after placing the cover layer on the portion of the first calibration portion . depositing a metal layer on a substrate ; fabricating a calibration structure having a first calibration portion and a second calibration portion on the metal layer; performing a first calibration of the temperature sensor by modifying the first calibration portion, wherein the first calibration includes additional resistance within the range of 2Ω-6Ω; placing a cover layer on a portion of the first calibration portion ; placing at least one passivation layer between the cover layer and the first calibration portion ; and performing a second calibration of the temperature sensor by modifying the second calibration portion to a nominal resistance value after placing the cover layer on the portion of the first calibration portion .
A method for producing a partial section of a multi-part tower section of a tower, the method comprising: separating a shell of the multi-part tower section along a first portion of a desired longitudinal separation line of the shell; mounting a first longitudinal flange part of a longitudinal flange of a first partial section of the multi-part tower section to a shell segment of the shell associated with the first partial section along the first portion of the desired longitudinal separation line after separating the shell along the first portion of the desired longitudinal separation line; separating the shell along a second portion of the desired longitudinal separation line during or after mounting the first longitudinal flange part of the longitudinal flange of the first partial section; and mounting auxiliary bridge structures to an exterior of the shell prior to separating the shell along the first portion of the desired longitudinal separation line, each auxiliary bridge structure having a first mounting portion mounted to the shell segment of the first partial section and a second mounting portion mounted to a shell segment of the second partial section such that the auxiliary bridge structure bridges the desired longitudinal separation line. separating a shell of the multi-part tower section along a first portion of a desired longitudinal separation line of the shell; mounting a first longitudinal flange part of a longitudinal flange of a first partial section of the multi-part tower section to a shell segment of the shell associated with the first partial section along the first portion of the desired longitudinal separation line after separating the shell along the first portion of the desired longitudinal separation line; separating the shell along a second portion of the desired longitudinal separation line during or after mounting the first longitudinal flange part of the longitudinal flange of the first partial section; and mounting auxiliary bridge structures to an exterior of the shell prior to separating the shell along the first portion of the desired longitudinal separation line, each auxiliary bridge structure having a first mounting portion mounted to the shell segment of the first partial section and a second mounting portion mounted to a shell segment of the second partial section such that the auxiliary bridge structure bridges the desired longitudinal separation line.
A glass-ceramic sheet intended in particular to be used as a surface of a furniture unit and/or as a worktop, and which comprises, in at least one of its faces, in particular its lower face , at least one connection element of a height less than 10 cm and of which the cross section can be inscribed inside a circle of a diameter less than 3 cm, said connection element being made from a material able to withstand at least 70°C and comprising at least one fixing system allowing fixing along at least two axes and/or in two movements, in particular obtained by at least two different translational and/or rotational movements, and/or able to exert a force directed toward the glass-ceramic sheet, said connection element or at least part of said connection elements are able to accept, advantageously removably, at least one or more elements to be added , in particular at least part of a support element that is to accept one or more accessories to be associated, or at least part of an accessory that is to be associated, said element or elements to be added are each provided with at least one fixing means that complements the fixing system belonging to said connection element, characterized in that the fixing system is formed by the combination of at least one pressing element in the form of a spring , with a stop element in the form of a pin , keeping the spring in compression once the fixing means of the added element has been introduced into the connection element.
A recombinant lipidated fusion protein comprising pneumococcal surface antigen A (PsaA), wherein the recombinant lipidated fusion protein comprises the C-terminal fragment of PsaA having an amino acid sequence set forth in SEQ ID NO: 9 or a variant thereof at least 80-95% identical to the amino acid sequence set forth in SEQ ID NO: 9, and wherein the C-terminal fragment of PsaA is lipid-modified at the N-terminal Cysteine residue with triacyl(C16:0, C17:1, C16:0), and wherein the N-terminal sequence of the recombinant lipidated fusion protein is N-acyl-S-diacylglycerol cysteine-Ala-Ser-Gly-Lys, and wherein only a single form of lipid modification is expressed, whereby the recombinant lipidated fusion protein is capable of inducing a protective immune response against Streptococcus pneumoniae.
A solid composition comprising nanoparticles of atovaquone dispersed within one or more carrier materials, wherein the atovaquone is present in an amount of at least 10 wt%, wherein the one or more carrier materials are provided in any one or more of the following combinations: - polyvinyl alcohol-polyethylene glycol graft copolymer AND D-α-tocopherol polyethylene glycol 1000 succinate; - polyvinyl alcohol-polyethylene glycol graft copolymer AND polyoxyethylene sorbitan monolaurate; - polyvinyl alcohol-polyethylene glycol graft copolymer AND polyoxyethylene sorbitan monooleate; - polyvinyl alcohol-polyethylene glycol graft copolymer AND polyethylene glycol -hydroxystearate; - polyvinylpyrrolidone k30 AND D-α-tocopherol polyethylene glycol 1000 succinate; - polyvinylpyrrolidone k30 AND polyoxyethylene sorbitan monolaurate; - polyvinylpyrrolidone k30 AND polyoxyethylene sorbitan monooleate; - polyvinylpyrrolidone k30 AND polyethylene glycol -hydroxystearate; - polyvinyl alcohol AND polyoxyethylene sorbitan monooleate; - polyvinyl alcohol AND sodium deoxycholate; and - polyvinyl alcohol AND polyethylene glycol -hydroxystearate. - polyvinyl alcohol-polyethylene glycol graft copolymer AND D-α-tocopherol polyethylene glycol 1000 succinate; - polyvinyl alcohol-polyethylene glycol graft copolymer AND polyoxyethylene sorbitan monolaurate; - polyvinyl alcohol-polyethylene glycol graft copolymer AND polyoxyethylene sorbitan monooleate; - polyvinyl alcohol-polyethylene glycol graft copolymer AND polyethylene glycol -hydroxystearate; - polyvinylpyrrolidone k30 AND D-α-tocopherol polyethylene glycol 1000 succinate; - polyvinylpyrrolidone k30 AND polyoxyethylene sorbitan monolaurate; - polyvinylpyrrolidone k30 AND polyoxyethylene sorbitan monooleate; - polyvinylpyrrolidone k30 AND polyethylene glycol -hydroxystearate; - polyvinyl alcohol AND polyoxyethylene sorbitan monooleate; - polyvinyl alcohol AND sodium deoxycholate; and - polyvinyl alcohol AND polyethylene glycol -hydroxystearate.
A method for separating off a substance by crystallization from a solution of the substance, in which a suspension of seed crystals is produced and, if a desired amount of seed crystals is present, a crystallization method is started, in which crystals of the substance are obtained which are then separated off, where, for producing the desired amount of seed crystals: electromagnetic radiation is radiated into the solution, where the electromagnetic radiation radiated into the solution has the form of a beam, the aperture angle of which is greater than 5 degrees, and is in the visible spectral range or is infrared radiation, for establishing a desired amount of seed crystals an intensity of the electromagnetic radiation which has been scattered by crystals located in the solution is detected, the detected intensity is compared with a desired intensity (I s ), the temperature of the solution is regulated depending on the difference between the detected intensity and the desired intensity (I s ) in such a way that the amount of this difference is reduced, if the amount of the difference between the detected intensity and the desired intensity (I s ) is less than a limiting value, the desired amount of seed crystals for the crystallization method is present. electromagnetic radiation is radiated into the solution, where the electromagnetic radiation radiated into the solution has the form of a beam, the aperture angle of which is greater than 5 degrees, and is in the visible spectral range or is infrared radiation, for establishing a desired amount of seed crystals an intensity of the electromagnetic radiation which has been scattered by crystals located in the solution is detected, the detected intensity is compared with a desired intensity (I s ), the temperature of the solution is regulated depending on the difference between the detected intensity and the desired intensity (I s ) in such a way that the amount of this difference is reduced, if the amount of the difference between the detected intensity and the desired intensity (I s ) is less than a limiting value, the desired amount of seed crystals for the crystallization method is present.
Wind turbine rotor blade , which is formed by at least two rotor blade segments , wherein at a division area of the wind turbine rotor blade said segments are firmly connected together at respective connection ends by means of a plurality of connecting elements , wherein a gap is formed between the connection ends , and a fairing is attached to said segments at the division area , the fairing covering the gap and the connecting elements ; wherein the fairing is divided into at least two separate fairing sections , the fairing sections are coupled together at coupling regions at the pressure side and/or at the suction side of the rotor blade , the coupling regions are spaced apart from the trailing edge or leading edge , wherein the fairing runs along the entire profile contour of the wind turbine rotor blade , and wherein two fairing sections overlap in a respective coupling region such that a step is formed transverse to a flow direction of air during an operation of the rotor blade , over which step the air flows downwardly during the operation of the rotor blade . at a division area of the wind turbine rotor blade said segments are firmly connected together at respective connection ends by means of a plurality of connecting elements , wherein a gap is formed between the connection ends , and a fairing is attached to said segments at the division area , the fairing covering the gap and the connecting elements ; wherein the fairing is divided into at least two separate fairing sections , the fairing sections are coupled together at coupling regions at the pressure side and/or at the suction side of the rotor blade , the coupling regions are spaced apart from the trailing edge or leading edge , wherein the fairing runs along the entire profile contour of the wind turbine rotor blade , and wherein two fairing sections overlap in a respective coupling region such that a step is formed transverse to a flow direction of air during an operation of the rotor blade , over which step the air flows downwardly during the operation of the rotor blade . the fairing is divided into at least two separate fairing sections , the fairing sections are coupled together at coupling regions at the pressure side and/or at the suction side of the rotor blade , the coupling regions are spaced apart from the trailing edge or leading edge , wherein the fairing runs along the entire profile contour of the wind turbine rotor blade , and wherein two fairing sections overlap in a respective coupling region such that a step is formed transverse to a flow direction of air during an operation of the rotor blade , over which step the air flows downwardly during the operation of the rotor blade .