mhurhangee/patent-ind-claim-en huggingface dataset:
A method for classifying the lymphoma type of a sample, the method comprising: (a) providing a formalin-fixed and paraffin-embedded (FFPE) lymphoma sample from the subject; (b) isolating RNA from the sample; (c) obtaining gene expression data from the RNA, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (d) determining a tumor predictor score from the gene expression data, wherein the tumor predictor score is calculated by S = ∑ k = 1 58 a i x i , wherein a i is the model coefficient value for gene i as listed in Table 1, column D for determining whether the sample is PMBCL or DLBCL and as listed in Table 1, column E for determining whether the sample is ABC DLBCL or GCB DLBCL, and x i is the log 2 transformed expression signal value for gene i ; and (e) when the coefficient values in column D of Table 1 are used, classifying the lymphoma as: (i) DLBCL when S is less than -57.95, (ii) PMBCL when S is greater than -23.57, (iii) uncertain DLBCL/PMBCL when S is between -57.95 and -23.57, (e') when the coefficient values in column E of Table 1 are used, classifying the lymphoma as: (iv) GCB DLBCL when S is less than 798.5, (v) ABC DLBCL when S is greater than 1324.5, or (vi) uncertain ABC/GCB DLBCL when S is between 798.5 and 1324.5. (a) providing a formalin-fixed and paraffin-embedded (FFPE) lymphoma sample from the subject; (b) isolating RNA from the sample; (c) obtaining gene expression data from the RNA, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (d) determining a tumor predictor score from the gene expression data, wherein the tumor predictor score is calculated by S = ∑ k = 1 58 a i x i , wherein a i is the model coefficient value for gene i as listed in Table 1, column D for determining whether the sample is PMBCL or DLBCL and as listed in Table 1, column E for determining whether the sample is ABC DLBCL or GCB DLBCL, and x i is the log 2 transformed expression signal value for gene i ; and (e) when the coefficient values in column D of Table 1 are used, classifying the lymphoma as: (i) DLBCL when S is less than -57.95, (ii) PMBCL when S is greater than -23.57, (iii) uncertain DLBCL/PMBCL when S is between -57.95 and -23.57, (i) DLBCL when S is less than -57.95, (ii) PMBCL when S is greater than -23.57, (iii) uncertain DLBCL/PMBCL when S is between -57.95 and -23.57, (e') when the coefficient values in column E of Table 1 are used, classifying the lymphoma as: (iv) GCB DLBCL when S is less than 798.5, (v) ABC DLBCL when S is greater than 1324.5, or (vi) uncertain ABC/GCB DLBCL when S is between 798.5 and 1324.5. (iv) GCB DLBCL when S is less than 798.5, (v) ABC DLBCL when S is greater than 1324.5, or (vi) uncertain ABC/GCB DLBCL when S is between 798.5 and 1324.5.
A transmitting device (100; 120; 202) associated with a real-time locating system, the transmitting device comprising: a first transducer (102; 122) configured to transmit acoustic signals having a first frequency, the acoustic signals including an identifying code of the transmitting device, wherein the identifying code represents a location of the transmitting device; and a beacon device configured to transmit beacon data via a short-range wireless communication technique, wherein the beacon data includes information that may be used by a receiving device (110; 204) in decoding the transmitted acoustic signals, the information describing a subset of identifying codes in use in a vicinity of the beacon device, and wherein the identifying code is a member of the subset of identifying codes. a first transducer (102; 122) configured to transmit acoustic signals having a first frequency, the acoustic signals including an identifying code of the transmitting device, wherein the identifying code represents a location of the transmitting device; and a beacon device configured to transmit beacon data via a short-range wireless communication technique, wherein the beacon data includes information that may be used by a receiving device (110; 204) in decoding the transmitted acoustic signals, the information describing a subset of identifying codes in use in a vicinity of the beacon device, and wherein the identifying code is a member of the subset of identifying codes.
A various-substance holder comprising plural sets of particulate carriers to which plural types of chemical substances are or can be immobilized, and a carrier holding portion holding the plural sets of particulate carriers in a substantially stationary state such that the plural sets of particulate carriers can be externally measured, wherein at least one of the particulate carriers belonging to the plural sets of the particulate carriers , or each of the particulate carriers, or each set of the particulate carriers, are labeled according to chemical substances so as to be identifiable before the particulate carriers are introduced and held in the carrier holding portion, wherein the carrier holding portion includes a tip-like container having an installing opening that can be installed around a nozzle through which gas is sucked and discharged, and a mouth portion through which a fluid is allowed to flow in and out by sucking and discharging the gas, wherein the tip-like container has a storage portion which can store liquid and which has the installing opening , and a capillary which is in communication with the storage portion and which has the mouth portion at an end of the capillary opposite the storage portion , the capillary being formed to be thinner than the storage portion so as to be able to be inserted into various containers, and the particulate carriers are held in the capillary , and an entrapping portion that entraps the particulate carriers in the capillary so that the particulate carriers can contact the fluid flowing in from the mouth portion , but are prevented from entering the storage portion , wherein the storage portion has a volume several times to several tens of times larger than a space in the capillary which can accommodate fluid, wherein a plurality of particulate carriers of the same size and shape are held in the capillary in a line along the axial direction of the capillary in the substantially stationary state, such that the particulate carriers are externally individually measureable, wherein each set of the particulate carriers has at least two separate particulate carriers, wherein the particulate carriers are labelled with a fluorescent substance so as to be mutually identifiable, and at least one of the two separate particulate carriers of at least the one set is a boundary particle which is a particle adapted to block light from the substance of the sets of the particulate carriers , wherein the boundary particle defines the boundary between the sets of the particulate carriers .
Method for operating a spark-ignition gas engine by setting an ignition time (ZZP), comprising the steps of: - mixing air and fuel gas to form a combustion gas mixture in a mixing arrangement , - feeding in and igniting the combustion gas mixture in a combustion chamber while setting an ignition time (ZZP) and burning the combustion gas mixture and discharging exhaust gas from the combustion chamber, also comprising the steps of: - detecting an exhaust-gas temperature (T_AG) of the exhaust gas , - presetting at least one throttle position (LRV) of a component of the mixing arrangement , the component being formed as a throttling member in a gas feed , - setting the ignition time (ZZP) of the spark-ignition gas engine in dependence on the exhaust-gas temperature (T_AG) and the throttle position (LRV), wherein the throttle position (LRV) is preset as a manipulated variable by a mixture controller , wherein the ignition time (ZZP) is set by means of a control value of the ignition time (ZZPreg) in dependence on the setpoint value of the ignition time (ZZPsoll) and the actual value of the ignition time (ZZPist) and also an exhaust-gas temperature (T_AG) in such a way that an actual value of an exhaust-gas temperature (T_AG) lies or remains within a preset exhaust-gas temperature range, characterized in that - a setpoint value of the ignition time (ZZP) is determined on the basis of the throttle position (LRV), in that - a calorific value of the fuel gas is indicated in dependence on the throttle position (LRV) (KL1), and - a setpoint value of the ignition time (ZZPsoll) is indicated in dependence on the calorific value of the fuel gas (KL2), and - these indications are correlated in order to indicate the setpoint value of the ignition time (ZZPsoll) of the spark-ignition gas engine in dependence on the throttle position (LRV). - mixing air and fuel gas to form a combustion gas mixture in a mixing arrangement , - feeding in and igniting the combustion gas mixture in a combustion chamber while setting an ignition time (ZZP) and burning the combustion gas mixture and discharging exhaust gas from the combustion chamber, - detecting an exhaust-gas temperature (T_AG) of the exhaust gas , - presetting at least one throttle position (LRV) of a component of the mixing arrangement , the component being formed as a throttling member in a gas feed , - setting the ignition time (ZZP) of the spark-ignition gas engine in dependence on the exhaust-gas temperature (T_AG) and the throttle position (LRV), wherein - a setpoint value of the ignition time (ZZP) is determined on the basis of the throttle position (LRV), in that - a calorific value of the fuel gas is indicated in dependence on the throttle position (LRV) (KL1), and - a setpoint value of the ignition time (ZZPsoll) is indicated in dependence on the calorific value of the fuel gas (KL2), and - these indications are correlated in order to indicate the setpoint value of the ignition time (ZZPsoll) of the spark-ignition gas engine in dependence on the throttle position (LRV).
A patient monitoring device comprising: a wireless communication interface; patient monitoring hardware for measuring at least one physiological parameter of a patient; and a processor configured to: provide a protocol stack for enabling communication via the wireless communication interface, transmit the at least one physiological parameter via the protocol stack and the wireless communication interface, request wireless access point, AP, information about a plurality of APs from the protocol stack, the AP information including connection or link statistics, identify at least one AP of the plurality of APs as a critical AP, generate a connectivity report based on the AP information, wherein the connectivity report identifies the critical AP, and transmit the connectivity report to a remote server via the protocol stack and the wireless communication interface. a wireless communication interface; patient monitoring hardware for measuring at least one physiological parameter of a patient; and a processor configured to: provide a protocol stack for enabling communication via the wireless communication interface, transmit the at least one physiological parameter via the protocol stack and the wireless communication interface, request wireless access point, AP, information about a plurality of APs from the protocol stack, the AP information including connection or link statistics, identify at least one AP of the plurality of APs as a critical AP, generate a connectivity report based on the AP information, wherein the connectivity report identifies the critical AP, and transmit the connectivity report to a remote server via the protocol stack and the wireless communication interface. provide a protocol stack for enabling communication via the wireless communication interface, transmit the at least one physiological parameter via the protocol stack and the wireless communication interface, request wireless access point, AP, information about a plurality of APs from the protocol stack, the AP information including connection or link statistics, identify at least one AP of the plurality of APs as a critical AP, generate a connectivity report based on the AP information, wherein the connectivity report identifies the critical AP, and transmit the connectivity report to a remote server via the protocol stack and the wireless communication interface.
Method for estimating a relative position of an object in the surroundings of a vehicle , wherein an electronic control unit of the vehicle estimates the relative position on the basis of a 2D camera image taken by a camera of the vehicle , characterized in that the control unit performs the following steps: - determining an object contour of the object from the camera image and - back-projecting the object contour into a 3-dimensional virtual space that represents the surroundings , wherein the back-projected object contour describes a virtual 3-dimensional frustum reaching from the camera into the surroundings, and - determining at least one digital object template that represents the object and - positioning the at least one object template at several predefined positions inside the frustum , wherein the positions are determined according to a predefined positioning rule , and - forward projecting the at least one object template from the respective different positions onto an image plane of the camera image , wherein each forward-projected object template yields a respective 2-dimensional contour proposal , and - comparing the contour proposals with the object contour of the object , wherein at least one contour proposal that fulfills a predefined matching criterion with regard to the object contour is selected as a respective best-fit contour proposal , and - determining the relative position of the object on the basis of the respective position of each corresponding object template that leads to the at least one selected best-fit contour proposal . - determining an object contour of the object from the camera image and - back-projecting the object contour into a 3-dimensional virtual space that represents the surroundings , wherein the back-projected object contour describes a virtual 3-dimensional frustum reaching from the camera into the surroundings, and - determining at least one digital object template that represents the object and - positioning the at least one object template at several predefined positions inside the frustum , wherein the positions are determined according to a predefined positioning rule , and - forward projecting the at least one object template from the respective different positions onto an image plane of the camera image , wherein each forward-projected object template yields a respective 2-dimensional contour proposal , and - comparing the contour proposals with the object contour of the object , wherein at least one contour proposal that fulfills a predefined matching criterion with regard to the object contour is selected as a respective best-fit contour proposal , and - determining the relative position of the object on the basis of the respective position of each corresponding object template that leads to the at least one selected best-fit contour proposal .
Propulsion assembly for an aircraft , having a longitudinal axis (X) and having: - a primary duct and a secondary duct , - an outer fairing having an external annular wall and an internal annular wall that delimit between them an outer compartment , wherein the external annular wall has an inlet opening , - an inner fairing having an external annular wall and an internal annular wall that delimit between them an inner compartment , wherein the external annular wall has at least one air exhaust aperture , wherein the secondary duct is delimited between the internal annular wall of the outer fairing and the external annular wall of the inner fairing , wherein the primary duct is delimited inside the internal annular wall of the inner fairing , said propulsion assembly being characterized in that it also has: - a suction system having an inlet , an outlet and mobile elements that are designed to draw air in via the inlet and deliver the drawn-in air via the outlet , - a drive means designed to drive the mobile elements, - a transfer pipe fluidically connected to the outlet of the suction system , - a distribution pipe disposed in the inner compartment , fluidically connected to the transfer pipe and having a plurality of nozzles , - a supply pipe of which one end opens into the outer compartment and of which the other end is fluidically connected to the inlet of the suction system , and - a regulating means arranged so as to regulate the flow rate of air in the suction system . - a primary duct and a secondary duct , - an outer fairing having an external annular wall and an internal annular wall that delimit between them an outer compartment , wherein the external annular wall has an inlet opening , - an inner fairing having an external annular wall and an internal annular wall that delimit between them an inner compartment , wherein the external annular wall has at least one air exhaust aperture , wherein the secondary duct is delimited between the internal annular wall of the outer fairing and the external annular wall of the inner fairing , wherein the primary duct is delimited inside the internal annular wall of the inner fairing , wherein the secondary duct is delimited between the internal annular wall of the outer fairing and the external annular wall of the inner fairing , wherein the primary duct is delimited inside the internal annular wall of the inner fairing , - a suction system having an inlet , an outlet and mobile elements that are designed to draw air in via the inlet and deliver the drawn-in air via the outlet , - a drive means designed to drive the mobile elements, - a transfer pipe fluidically connected to the outlet of the suction system , - a distribution pipe disposed in the inner compartment , fluidically connected to the transfer pipe and having a plurality of nozzles , - a supply pipe of which one end opens into the outer compartment and of which the other end is fluidically connected to the inlet of the suction system , and - a regulating means arranged so as to regulate the flow rate of air in the suction system .
A pre-alloyed Al-based powder suitable for additive manufacturing consisting by weight of total pre-alloyed Al-based powder of: 3 to 5.5% by weight of Mn, 0.2 to 2% by weight of Zr, 0.2 to 1.4% by weight of Cr, 0 to 2% by weight of Mg, at most 0.7% by weight of Fe and Si in total, at most 0.7% by weight of O as an inevitable impurity, and, at most 0.5% by weight of further inevitable impurities, balanced with Al. 3 to 5.5% by weight of Mn, 0.2 to 2% by weight of Zr, 0.2 to 1.4% by weight of Cr, 0 to 2% by weight of Mg, at most 0.7% by weight of Fe and Si in total, at most 0.7% by weight of O as an inevitable impurity, and, at most 0.5% by weight of further inevitable impurities,
Sealing device adapted to block an air passage under a radiator of an automobile vehicle, comprising a seal in two parts, respectively a relatively more rigid part and a relatively more flexible part , the relatively more rigid part being formed of a profile adapted to cooperate clipping fashion with a lower plate of the radiator consisting of a plate forming the bottom of the radiator and featuring a pair of opposed raised edges extending substantially vertically under the bottom of the radiator and the relatively more flexible part including at least one flexible lip seal adapted to extend under the profile opposite the lower plate when the seal is mounted under the radiator, characterized in that the profile has a U-shaped cross section each branch of which is adapted to engage over a respective raised edge of said pair of opposed raised edges of the lower plate of the radiator, said branches of the U-shaped profile being adapted to cooperate by friction with at least one external wall of a respective raised edge of said pair of opposed raised edges of the lower plate of the radiator, while the web of the U-shaped profile is intended to extend opposite a bottom face of the radiator extending between said pair of raised edges.
DC-DC converter , comprising: a first control device , which is designed to determine a first controlled variable (R1) using a value for a present input voltage (U_in), a value for a present input current (I_in) and a setpoint value for an output voltage (U_des); a second control device , which is designed to determine a second controlled variable (R2) using the setpoint value for the output voltage (U_des) and the value for the present output voltage (U_out); a combination element , which is designed to combine the first controlled variable (R1) and the second controlled variable (R2) and to output said variables as setpoint controlled variable (R3); and at least one DC-DC converter module , which is designed to convert a DC input voltage (U_in) into a DC output voltage (U_out) using an output controlled variable (R4), characterized in that the DC-DC converter comprises a third control device , which is designed to limit a gradient of the setpoint controlled variable (R3) to a predetermined minimum value and/or a predetermined maximum value and to provide the limited setpoint controlled variable (R3) as output controlled variable (R4). a first control device , which is designed to determine a first controlled variable (R1) using a value for a present input voltage (U_in), a value for a present input current (I_in) and a setpoint value for an output voltage (U_des); a second control device , which is designed to determine a second controlled variable (R2) using the setpoint value for the output voltage (U_des) and the value for the present output voltage (U_out); a combination element , which is designed to combine the first controlled variable (R1) and the second controlled variable (R2) and to output said variables as setpoint controlled variable (R3); and at least one DC-DC converter module , which is designed to convert a DC input voltage (U_in) into a DC output voltage (U_out) using an output controlled variable (R4), characterized in that the DC-DC converter comprises a third control device , which is designed to limit a gradient of the setpoint controlled variable (R3) to a predetermined minimum value and/or a predetermined maximum value and to provide the limited setpoint controlled variable (R3) as output controlled variable (R4).
A negative electrode comprising a negative electrode active material layer, wherein the negative electrode active material layer comprises a negative electrode active material and a conductive material, the negative electrode active material comprises silicon particles, the conductive material comprises single-walled carbon nanotubes and graphite-based particles, the graphite-based particles comprise a first artificial graphite and a second artificial graphite, the first artificial graphite is a plate-type artificial graphite, and the second artificial graphite comprises a secondary particle structure in which a plurality of primary particles are bonded through amorphous carbon. wherein the negative electrode active material layer comprises a negative electrode active material and a conductive material, the negative electrode active material comprises silicon particles, the conductive material comprises single-walled carbon nanotubes and graphite-based particles, the graphite-based particles comprise a first artificial graphite and a second artificial graphite, the first artificial graphite is a plate-type artificial graphite, and the second artificial graphite comprises a secondary particle structure in which a plurality of primary particles are bonded through amorphous carbon.