mhurhangee/patent-ind-claim-en huggingface dataset:
Computer-implemented method for identifying pathological changes in follow-up medical images, the method comprising: providing (M10) reference image data (RI) showing a body part of a patient at a first time; providing (M10) follow-up image data (FI) showing the body part of the patient at a subsequent second time; generating (M20) one or more deformation fields (DF) for the reference image data (RI) and the follow-up image data (FI) describing anatomical deformations in the body part between the reference image data (RI) and the follow-up image data (FI) using at least one image registration; aligning (M30) the reference image data (RI) and the follow-up image data (FI) using the one or more deformation fields (DF) to generate co-aligned image data (CAI); and analyzing (M40) the co-aligned image data (CAI) to identify pathological changes in the body part from the reference image data (RI) to the follow-up image data (FI) using a machine learned network trained to identify pathological relevant changes in co-aligned image data (CAI). providing (M10) reference image data (RI) showing a body part of a patient at a first time; providing (M10) follow-up image data (FI) showing the body part of the patient at a subsequent second time; generating (M20) one or more deformation fields (DF) for the reference image data (RI) and the follow-up image data (FI) describing anatomical deformations in the body part between the reference image data (RI) and the follow-up image data (FI) using at least one image registration; aligning (M30) the reference image data (RI) and the follow-up image data (FI) using the one or more deformation fields (DF) to generate co-aligned image data (CAI); and analyzing (M40) the co-aligned image data (CAI) to identify pathological changes in the body part from the reference image data (RI) to the follow-up image data (FI) using a machine learned network trained to identify pathological relevant changes in co-aligned image data (CAI).
A railway vehicle comprising: a transformer including a primary winding to be electrically connected to an overhead wire; a first power converting device to be cooled, connected to a secondary winding of the transformer ; a driving motor being a device to be cooled, connected to the first power converting device ; and a cooling device connected to a tertiary winding of the transformer , characterized in that the cooling device is supplied with regenerative power of the driving motor to perform cooling operation to the devices to be cooled, the regenerative power being boosted in voltage by the first power converting device and having superimposed thereon power from the overhead wire via the transformer . a transformer including a primary winding to be electrically connected to an overhead wire; a first power converting device to be cooled, connected to a secondary winding of the transformer ; a driving motor being a device to be cooled, connected to the first power converting device ; and a cooling device connected to a tertiary winding of the transformer , characterized in that the cooling device is supplied with regenerative power of the driving motor to perform cooling operation to the devices to be cooled, the regenerative power being boosted in voltage by the first power converting device and having superimposed thereon power from the overhead wire via the transformer .
An impact-resistant and thermal-resistant epoxy structural adhesive composition comprising: (a) a first component including an epoxy-cyanate ester intermediate and core-shell rubber particles; (b) a second component including a flame retardant and core-shell rubber particles dispersed in a tetrafunctional epoxy monomer; and (c) a third component including two types of monomers respectively having a vinyl group and a multifunctional thiol group at ends thereof. (a) a first component including an epoxy-cyanate ester intermediate and core-shell rubber particles; (b) a second component including a flame retardant and core-shell rubber particles dispersed in a tetrafunctional epoxy monomer; and (c) a third component including two types of monomers respectively having a vinyl group and a multifunctional thiol group at ends thereof.
A system comprising: an implantable medical device that is connectable to an electrode lead having a plurality of electrodes; and a non-transitory computer-readable medium having instructions that are executable by control circuitry to cause the control circuitry to: generate a graphical user interface that is configured to receive one or more inputs to specify one or more parameters of a gradual transition over a duration of the transition between a first stimulation mode and a second stimulation mode, wherein the first stimulation mode defines stimulation of a first polarity to be issued at a set of the electrodes and the second stimulation mode defines stimulation of a second polarity to be issued at the set of the electrodes, wherein the first polarity is opposite of the second polarity; and communicate stimulation parameters based on the one or more parameters of the transition to the implantable medical device. an implantable medical device that is connectable to an electrode lead having a plurality of electrodes; and a non-transitory computer-readable medium having instructions that are executable by control circuitry to cause the control circuitry to: generate a graphical user interface that is configured to receive one or more inputs to specify one or more parameters of a gradual transition over a duration of the transition between a first stimulation mode and a second stimulation mode, wherein the first stimulation mode defines stimulation of a first polarity to be issued at a set of the electrodes and the second stimulation mode defines stimulation of a second polarity to be issued at the set of the electrodes, wherein the first polarity is opposite of the second polarity; and communicate stimulation parameters based on the one or more parameters of the transition to the implantable medical device. generate a graphical user interface that is configured to receive one or more inputs to specify one or more parameters of a gradual transition over a duration of the transition between a first stimulation mode and a second stimulation mode, wherein the first stimulation mode defines stimulation of a first polarity to be issued at a set of the electrodes and the second stimulation mode defines stimulation of a second polarity to be issued at the set of the electrodes, wherein the first polarity is opposite of the second polarity; and communicate stimulation parameters based on the one or more parameters of the transition to the implantable medical device.
A net lamp, comprising; a plurality of conductive wires , a plurality of insulated wires , a plurality of lamp bodies disposed on the conductive wires, and a plurality of fasteners for fastening the conductive wires and the insulated wires ; wherein the plurality of conductive wires and the plurality of insulated wires are connected to form a net-like structure by means of the plurality of fasteners; wherein each of the fasteners is provided as a sheath body , the lamp bodies are located outside the sheath bodies ; the conductive wires connected at the lamp bodies are tightened by the sheath bodies , and the insulated wires are also tightened by the sheath bodies , characterized in that each of the sheath bodies is provided as a heat-shrinkable sleeve.
A method of removing oil adhering to an assembly including a sensor element that has a measurement gas inlet for introducing a measurement-object gas at one end side of the sensor element and that detects a specific gas concentration in the introduced measurement-object gas, a metal cylindrical body through which the sensor element penetrates in an axial direction, and a protection cover that is attached to the cylindrical body and that covers the one end side of the sensor element , the method comprising: a step of arranging a coil in a periphery of at least a portion of the cylindrical body at the other end side of the sensor element with respect to the protection cover to avoid the protection cover of the assembly , induction heating the portion of the cylindrical body where the coil is arranged in the periphery by applying current to the coil , and hence removing oil adhering to the portion, wherein the assembly includes a ceramic member arranged between the inner peripheral surface of the cylindrical body and the sensor element , and at least one of the following Conditions A and B is satisfied. Condition A: in the step of arranging, induction heating and removing oil, a temperature of the portion of the cylindrical body where the coil is arranged in the periphery is raised to 400°C or higher, and a temperature rise rate when the temperature of the portion is 400°C or higher is set so as not to exceed 27.5°C/second. Condition B: in the step of arranging, induction heating and removing oil, the temperature of the portion of the cylindrical body where the coil is arranged in the periphery is raised to 600°C or higher, and a temperature rise rate when the temperature of the portion is in a range from 400°C or higher to 600°C or lower is set so as not to exceed 27.5°C/second. a step of arranging a coil in a periphery of at least a portion of the cylindrical body at the other end side of the sensor element with respect to the protection cover to avoid the protection cover of the assembly , induction heating the portion of the cylindrical body where the coil is arranged in the periphery by applying current to the coil , and hence removing oil adhering to the portion, wherein the assembly includes a ceramic member arranged between the inner peripheral surface of the cylindrical body and the sensor element , and at least one of the following Conditions A and B is satisfied. Condition A: in the step of arranging, induction heating and removing oil, a temperature of the portion of the cylindrical body where the coil is arranged in the periphery is raised to 400°C or higher, and a temperature rise rate when the temperature of the portion is 400°C or higher is set so as not to exceed 27.5°C/second. Condition B: in the step of arranging, induction heating and removing oil, the temperature of the portion of the cylindrical body where the coil is arranged in the periphery is raised to 600°C or higher, and a temperature rise rate when the temperature of the portion is in a range from 400°C or higher to 600°C or lower is set so as not to exceed 27.5°C/second.
A computing system comprising: a computing platform ; a non-volatile dual in-line memory module, NVDIMM, coupled to the computing platform; circuitry at a controller resident on the NVDIMM; a receive component (722-1) for execution by the circuitry to receive an error scanning request; an error component (722-2) for execution by the circuitry, responsive to the error scanning request, to scan a device physical address range for a non-volatile memory at the NVDIMM and identify uncorrected errors in the device physical address range, the non-volatile memory capable of providing persistent memory for the NVDIMM; and an indicate component (722-3) for execution by the circuitry to indicate device physical addresses having the identified uncorrected errors to a basic input/output system, BIOS, for the computing platform; the indicate component to indicate NVDIMM specific device physical addresses having the identified uncorrected errors comprising indicating via a first data structure resident at the NVDIMM, the BIOS capable of accessing the first data structure to read the indicated device physical addresses and convert the device physical addresses to system specific system physical addresses that are then maintained in a second data structure resident on the computing platform, the second data structure being accessible to an operating system or a device driver for the computing platform. a computing platform ; a non-volatile dual in-line memory module, NVDIMM, coupled to the computing platform; circuitry at a controller resident on the NVDIMM; a receive component (722-1) for execution by the circuitry to receive an error scanning request; an error component (722-2) for execution by the circuitry, responsive to the error scanning request, to scan a device physical address range for a non-volatile memory at the NVDIMM and identify uncorrected errors in the device physical address range, the non-volatile memory capable of providing persistent memory for the NVDIMM; and an indicate component (722-3) for execution by the circuitry to indicate device physical addresses having the identified uncorrected errors to a basic input/output system, BIOS, for the computing platform; the indicate component to indicate NVDIMM specific device physical addresses having the identified uncorrected errors comprising indicating via a first data structure resident at the NVDIMM, the BIOS capable of accessing the first data structure to read the indicated device physical addresses and convert the device physical addresses to system specific system physical addresses that are then maintained in a second data structure resident on the computing platform, the second data structure being accessible to an operating system or a device driver for the computing platform.
Discontinuous recliner for a vehicle seat, which discontinuous recliner comprises a first disc-shaped plate and a second disc-shaped plate , said first and second plates substantially having the same diameter so that they can be coupled to each other, wherein said first plate comprises a peripheral rim oriented towards said second plate and provided with teeth on its inner surface, and wherein said second plate is provided with one or more locking pawls , which have an outer surface in the radial direction provided with teeth and which are movable in the radial direction from a locking position, in which the teeth on their outer surface engage the teeth on the inner surface of said peripheral rim of said first plate, to an unlocking position, in which the teeth on their outer surface are spaced apart from the teeth on the inner surface of said peripheral rim of said first plate, and vice versa, wherein said discontinuous recliner is provided with a single actuating element for driving said locking pawls both from said unlocking position to said locking position and from said locking position to said unlocking position and with a single return spring , having the shape of a spiral, with a first, outer end inserted into a hole provided in said second plate , and a second, inner end wound to form a square and fitted on a square boss provided on said actuating element , characterized in that said actuating element is provided, on its surface oriented towards said first plate , with a hub protruding from said surface thereof, whereby said hub penetrates into a matching hole centrally provided in said first plate , and in that said actuating element is provided, on its surface oriented towards said second plate , with a cylindrical protrusion, whereby said protrusion penetrates into a matching hole centrally provided in said second plate ..
A milk module for preparing hot or cold, frothed or non-frothed milk-based beverages from liquid milk; the milk module comprises a milk line extending from a milk container up to a milk dispensing nozzle ; and an air line extending from an air source and opens into the milk line ; the milk line comprises a milk pump to suck the milk from the milk container , a flow restriction arranged on a delivery side of the milk pump , and a milk heater ; the milk module further comprises a proportional air solenoid valve arranged along the air line ; a pressure sensor to measure and output an output indicative of a pressure of the milk-air mixture in the milk line downstream of the milk pump ; and an electronic control unit in communication with the pressure sensor to receive the output thereof and with the proportional air solenoid valve to control operation thereof; in order to control operation of the proportional air solenoid valve , the electronic control unit is configured to: - store data representative of at least one target pressure profile (P) indicative of a time development of a target pressure of the milk-air mixture that is desired to be obtained in the milk line , downstream of the milk pump ; and - closed-loop control the proportional air solenoid valve based on the pressure of the milk-air mixture measured by the pressure sensor and the target pressure profile (P). the milk module comprises a milk line extending from a milk container up to a milk dispensing nozzle ; and an air line extending from an air source and opens into the milk line ; the milk line comprises a milk pump to suck the milk from the milk container , a flow restriction arranged on a delivery side of the milk pump , and a milk heater ; the milk module further comprises a proportional air solenoid valve arranged along the air line ; a pressure sensor to measure and output an output indicative of a pressure of the milk-air mixture in the milk line downstream of the milk pump ; and an electronic control unit in communication with the pressure sensor to receive the output thereof and with the proportional air solenoid valve to control operation thereof; in order to control operation of the proportional air solenoid valve , the electronic control unit is configured to: - store data representative of at least one target pressure profile (P) indicative of a time development of a target pressure of the milk-air mixture that is desired to be obtained in the milk line , downstream of the milk pump ; and - closed-loop control the proportional air solenoid valve based on the pressure of the milk-air mixture measured by the pressure sensor and the target pressure profile (P). - store data representative of at least one target pressure profile (P) indicative of a time development of a target pressure of the milk-air mixture that is desired to be obtained in the milk line , downstream of the milk pump ; and - closed-loop control the proportional air solenoid valve based on the pressure of the milk-air mixture measured by the pressure sensor and the target pressure profile (P).
A method for producing a deodorized goat/sheep milk product, wherein the method comprises purifying a fresh goat/sheep milk or goat/sheep full cream, wherein the material is subjected to a carbon dioxide treatment during the purification, and the carbon dioxide treatment comprises: introducing carbon dioxide into the material, then refrigerating the material for 2 to 8 hours, and removing carbon dioxide; wherein the amount of carbon dioxide introduced into the material during the carbon dioxide treatment is 1000-5000 ppm; and wherein the purifying comprises steps of clarifying, homogenizing and sterilizing.
An apparatus , intended for use in encrypting data, comprising: a key determiner configured to determine a cipher key , for white-box cryptography, WBC-based encryption, and a symmetric key different from the cipher key ; an encrypter configured to generate a ciphertext , of the data , by applying the WBC-based encryption with the cipher key to a first part of the data and by applying symmetric-key-based encryption with the symmetric key to a second part of the data different from the first part of the data , wherein the encrypter is further configured to generate the ciphertext so as to include: a symmetric-key-based ciphertext; and a WBC-based ciphertext adapted for use in decrypting the symmetric-key-based ciphertext; and one or more hardware processors implementing the key determiner and the encrypter . a key determiner configured to determine a cipher key , for white-box cryptography, WBC-based encryption, and a symmetric key different from the cipher key ; an encrypter configured to generate a ciphertext , of the data , by applying the WBC-based encryption with the cipher key to a first part of the data and by applying symmetric-key-based encryption with the symmetric key to a second part of the data different from the first part of the data , wherein the encrypter is further configured to generate the ciphertext so as to include: a symmetric-key-based ciphertext; and a WBC-based ciphertext adapted for use in decrypting the symmetric-key-based ciphertext; and one or more hardware processors implementing the key determiner and the encrypter . a symmetric-key-based ciphertext; and a WBC-based ciphertext adapted for use in decrypting the symmetric-key-based ciphertext; and one or more hardware processors implementing the key determiner and the encrypter .
Method for identifying anomalies (A) during operation of a conveyor system for transporting piece goods, for example pieces of baggage, comprising a revolving drive chain , a drive unit and a conveying section, wherein the drive chain serves for transmitting force and movement from a drive unit to a conveying section and the drive chain comprises chain links and pins connecting them, wherein at least one of the pins is a force measuring pin configured for contactless transmission of the forces acting on it to a background system; characterised by the following method steps: a) when the drive chain is moved, the force measuring pin registers the forces acting on it; b) the registered forces are transmitted wirelessly from the force measuring pin to the background system together with a time stamp and/or a location stamp and an identity of the force measuring pin ; c) in the background system, the data transmitted in method step b) is subjected to an analysis and identified as an anomaly (A) in the event of deviations and signalled with a message. a) when the drive chain is moved, the force measuring pin registers the forces acting on it; b) the registered forces are transmitted wirelessly from the force measuring pin to the background system together with a time stamp and/or a location stamp and an identity of the force measuring pin ; c) in the background system, the data transmitted in method step b) is subjected to an analysis and identified as an anomaly (A) in the event of deviations and signalled with a message.
A polymerizable composition for optical materials, comprising: (A) a polythiol comprising a mixture of 5,7-dimercaptomethyl-1,11-dimercapto-3,6,9-trithiaundecane, 4,7-dimercaptomethyl-1,11-dimercapto-3,6,9-trithiaundecane, and 4,8-dimercaptomethyl-1,11-dimercapto-3,6,9-trithiaundecane; (B) a polyisocyanate selected from the group consisting of m-xylylene diisocyanate, a mixture of 2,5-bis(isocyanatomethyl)-bicyclo[2.2.1]heptane and 2,6-bis(isocyanatomethyl)-bicyclo[2.2.1]heptane, hexamethylene diisocyanate, and isophorone diisocyanate; and (C) an ultraviolet absorber consisting of 2-(2-hydroxy-3-t-butyl-5-methylphenyl)-chlorobenzotriazole, wherein 0.1% by weight to 1.5% by weight of the ultraviolet absorber (C) is included in 100% by weight of the polymerizable composition for optical materials. (A) a polythiol comprising a mixture of 5,7-dimercaptomethyl-1,11-dimercapto-3,6,9-trithiaundecane, 4,7-dimercaptomethyl-1,11-dimercapto-3,6,9-trithiaundecane, and 4,8-dimercaptomethyl-1,11-dimercapto-3,6,9-trithiaundecane; (B) a polyisocyanate selected from the group consisting of m-xylylene diisocyanate, a mixture of 2,5-bis(isocyanatomethyl)-bicyclo[2.2.1]heptane and 2,6-bis(isocyanatomethyl)-bicyclo[2.2.1]heptane, hexamethylene diisocyanate, and isophorone diisocyanate; and (C) an ultraviolet absorber consisting of 2-(2-hydroxy-3-t-butyl-5-methylphenyl)-chlorobenzotriazole,