mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting bladder cancer, comprising: (i) providing a urine sample; (ii) detecting the levels of the human neutrophil marker gene interleukin 8 receptor B (IL8Rb) in association with bladder cancer marker genes in said sample wherein the BTM genes comprise cell division cycle 2, G1 to S and G2 to M, midkine (neurite growth-promoting factor 2), Homeo Box A13 (HOXA13), and insulin-like growth factor binding protein 5 (IGFBP5); and (iii) wherein the presence of cancer is established by comparing the levels of IL8Rb and the BTM genes with the levels in normal patients, and/or patients having bladder cancer, and/or patients having an inflammatory bladder condition, and establishing if the patient has bladder cancer, wherein an increase in the levels of the BTM genes, without an increase in the level of IL8Rb, is indicative of the patient having bladder cancer, and wherein an increase in the level of IL8Rb is indicative of the patient having an inflammatory bladder condition. (i) providing a urine sample; (ii) detecting the levels of the human neutrophil marker gene interleukin 8 receptor B (IL8Rb) in association with bladder cancer marker genes in said sample wherein the BTM genes comprise cell division cycle 2, G1 to S and G2 to M, midkine (neurite growth-promoting factor 2), Homeo Box A13 (HOXA13), and insulin-like growth factor binding protein 5 (IGFBP5); and (iii) wherein the presence of cancer is established by comparing the levels of IL8Rb and the BTM genes with the levels in normal patients, and/or patients having bladder cancer, and/or patients having an inflammatory bladder condition, and establishing if the patient has bladder cancer,
An Ni-based superalloy for hot forging, having a component composition consisting of, in terms of % by mass, C: more than 0.001% and less than 0.100%, Cr: 11% or more and less than 19%, Co: more than 5% and less than 25%, Fe: 0.1% or more and less than 4.0%, Mo: more than 2.0% and less than 5.0%, W: more than 1.0% and less than 5.0%, Nb: 2.0% or more and less than 4.0%, Al: more than 3.0% and less than 5.0%, and Ti: more than 1.0% and less than 3.0%, and optionally, B: less than 0.03%, Zr: less than 0.1%, Mg: less than 0.030%, Ca: less than 0.030%, and REM: 0.200% or less with the balance being unavoidable impurities and Ni, wherein, when a content of an element M in terms of atomic % is represented by, the component composition satisfies the following two relationships: 3.5 ≤ Ti + Nb / Al × 10 < 6.5 and 9.5 ≤ Al + Ti + Nb < 13.0. C: more than 0.001% and less than 0.100%, Cr: 11% or more and less than 19%, Co: more than 5% and less than 25%, Fe: 0.1% or more and less than 4.0%, Mo: more than 2.0% and less than 5.0%, W: more than 1.0% and less than 5.0%, Nb: 2.0% or more and less than 4.0%, Al: more than 3.0% and less than 5.0%, and Ti: more than 1.0% and less than 3.0%, and B: less than 0.03%, Zr: less than 0.1%, Mg: less than 0.030%, Ca: less than 0.030%, and REM: 0.200% or less
A cable-type secondary battery comprising: an inner electrode comprising an inner current collector and an inner electrode active material layer formed surrounding an outer surface of the inner current collector; a separation layer formed surrounding an outer surface of the inner electrode to insert the inner electrode inside; an outer electrode active material structure formed surrounding an outer surface of the separation layer to insert the separation layer inside, the outer electrode active material structure comprising a porous polymer support and an outer electrode active material layer formed on at least one of an upper surface and a lower surface of the porous polymer support; and an outer electrode comprising an outer current collector formed surrounding the outer electrode active material structure to insert the outer electrode active material structure inside. an inner electrode comprising an inner current collector and an inner electrode active material layer formed surrounding an outer surface of the inner current collector; a separation layer formed surrounding an outer surface of the inner electrode to insert the inner electrode inside; an outer electrode active material structure formed surrounding an outer surface of the separation layer to insert the separation layer inside, the outer electrode active material structure comprising a porous polymer support and an outer electrode active material layer formed on at least one of an upper surface and a lower surface of the porous polymer support; and an outer electrode comprising an outer current collector formed surrounding the outer electrode active material structure to insert the outer electrode active material structure inside.
Receptacle including a housing having an opening, a cover adapted to the opening of the housing and a clamping mechanism configured to hold the cover on the housing and to close its opening or to release the cover from the housing and open said opening, this receptacle further comprising at least one removable container which can be placed inside the housing; and a sealing system between each of the removable containers and the cover, this sealing system being configured to seal the removable containers when the cover is held on the housing by the clamping mechanism, this receptacle being characterized in that said cover has a removable internal face made of metal.
Electrical assembly, in particular gas-insulated medium-voltage switchgear assembly, comprising at least one functional module (10-1, 10-2) which has a substantially cuboidal housing (11-1, 11-2), and a pressure-relief channel which extends parallel to a front side of the electrical assembly and is mounted onto the housing (11-1, 11-2) in the region of a top side of the housing (11-1, 11-2), characterized in that the pressure-relief channel is of modular construction, wherein a corresponding module (21-1, 21-2) of the pressure-relief channel is unambiguously associated with each functional module (10-1, 10-2), and in that each module (21-1, 21-2) of the pressure-relief channel in a rear region, which is averted from the front side, of the functional module (10-1, 10-2) which is associated with the respective module (21-1, 21-2) is inserted into the housing (11-1, 11-2) of the respectively associated functional module (10-1, 10-2), as a result of which a first screw-free connection is formed.
A processor-implemented method programmed in a non-transitory processor-readable medium and for execution on one or more processors configured to execute the method, the method comprising: configuring a mobile converter application for a target mobile device, wherein configuring further includes providing the mobile converter application with a detection mechanism to identify information embedded in a particular barcode as an instruction to automatically convert the particular barcode to an equivalent NFC code; distributing the mobile converter application to the target mobile device; and initiating the mobile converter application on the target mobile device, the mobile converter application resident in the target mobile device: for converting barcodes to Near Field Communication codes and the NFC codes to the barcodes for automated transactions or for remotely acquiring conversions for the barcodes to NFC codes and the NFC codes to the barcodes. configuring a mobile converter application for a target mobile device, wherein configuring further includes providing the mobile converter application with a detection mechanism to identify information embedded in a particular barcode as an instruction to automatically convert the particular barcode to an equivalent NFC code; distributing the mobile converter application to the target mobile device; and initiating the mobile converter application on the target mobile device, the mobile converter application resident in the target mobile device: for converting barcodes to Near Field Communication codes and the NFC codes to the barcodes for automated transactions or for remotely acquiring conversions for the barcodes to NFC codes and the NFC codes to the barcodes.
Bumper structure for a motor vehicle comprising at least two polymeric crash boxes having preferably an alveolar structure, and comprising a cross member which extends between said at least two polymeric crash boxes, wherein in said bumper structure the said cross member is a metallic cross member and it is able to support a compression force greater than 60000 N applied along a longitudinal direction of said motor vehicle, the bumper structure comprising connection means which extend between said metallic cross member and a frame of said motor vehicle, which are positioned preferably in proximity of said at least two polymeric crash boxes, said connection means being plastically deformable under compression with a compression force greater than 500 N applied along said longitudinal direction and avoiding advantageously to transmit said compression stresses to said frame, characterized in that each polymeric crash box shows a longitudinal axis with respect to a longitudinal axis of said vehicle which forms an angle that in absolute value shows a value included between 0,01° and 20° and in particular included between 0,01° and 10°
A system comprising a zero liquid discharge desalination plant (20, 30) and a power generation plant, the power generation plant comprising a salinity gradient power unit with a high salinity feed, a low salinity feed, and a mixed water output; said high salinity feed comprising rehydrated high salinity output from the zero liquid discharge desalination plant (20,30); said mixed water output is directed into a body of water.
Foot-worn sports equipment, in particular for a football player, comprising a positioning aid to which a protective element is attached in a defined position, wherein the protective element forms a wedge support on the positioning aid, which wedge support has a concave inner surface which conforms to the instep of a foot wearing the positioning aid and which is opposite a planar outer surface which allows defined ball contact with the instep, wherein the positioning aid is a sock, in particular a sports sock, and the wedge support is permanently connected to the positioning aid, in particular by gluing, welding, sewing or flowing into the material of the positioning aid,wherein the wedge support consists of a dimensionally stable, shock-absorbing material, preferably of a silicone-based material, and an extension is formed on the wedge support, which extends along the foot outer edge of a foot wearing the positioning aid in the direction of its heel.
A method by a UE in a mobile communication system, the method comprising: performing (320, 405) a measurement operation; transmitting (325, 410) a result of the measurement operation to an eNB; receiving (335, 415) a control message including a handover prohibition condition from the eNB; searching (345, 350, 425, 430) for a cell if a radio link failure, RLF, occurs; determining (355, 435) whether the UE is not allowed to handover to the searched cell based on the handover prohibition condition; and transmitting (360, 440) a radio resource control, RRC, connection reestablishment message to the eNB if the UE is not allowed to handover to the searched cell. performing (320, 405) a measurement operation; transmitting (325, 410) a result of the measurement operation to an eNB; receiving (335, 415) a control message including a handover prohibition condition from the eNB; searching (345, 350, 425, 430) for a cell if a radio link failure, RLF, occurs; determining (355, 435) whether the UE is not allowed to handover to the searched cell based on the handover prohibition condition; and transmitting (360, 440) a radio resource control, RRC, connection reestablishment message to the eNB if the UE is not allowed to handover to the searched cell.
A building automation system comprising: a server engine adapted to accept, store, process, and retrieve data in a computer processor based control system; a plurality of BAS devices configured to supply at least one data value about a measurable condition in the BAS, each associated with at least one of a space, a system, or a subsystem for at least a portion of a building or a campus; a network communicatively coupling the server engine and the plurality of BAS devices and supporting a plurality of communication protocols; a scheduler implemented by the server engine, configured to maintain a plurality of command queues associated with a period of time when the at least one data value is to be retrieved from a specific BAS device selected from the plurality of BAS devices coupled through the network; a data harvester configured to determine if the period of time associated with the command queue to collect the data value from the at least one of the plurality of devices has expired; a log collection handler configured to monitor the data harvester and supply the data harvester with an indication of which of the plurality of command queues the data harvester should process; wherein at least some of the BAS devices have a predetermined network reporting capability that is less than a maximum capacity of the network; and wherein the log collection handler is further configured to skip over the collection a stale data value when a tunable, predetermined percentage of the time period associated with the command queue to collect the data value has elapsed. a server engine adapted to accept, store, process, and retrieve data in a computer processor based control system; a plurality of BAS devices configured to supply at least one data value about a measurable condition in the BAS, each associated with at least one of a space, a system, or a subsystem for at least a portion of a building or a campus; a network communicatively coupling the server engine and the plurality of BAS devices and supporting a plurality of communication protocols; a scheduler implemented by the server engine, configured to maintain a plurality of command queues associated with a period of time when the at least one data value is to be retrieved from a specific BAS device selected from the plurality of BAS devices coupled through the network; a data harvester configured to determine if the period of time associated with the command queue to collect the data value from the at least one of the plurality of devices has expired; a log collection handler configured to monitor the data harvester and supply the data harvester with an indication of which of the plurality of command queues the data harvester should process; wherein at least some of the BAS devices have a predetermined network reporting capability that is less than a maximum capacity of the network; and wherein the log collection handler is further configured to skip over the collection a stale data value when a tunable, predetermined percentage of the time period associated with the command queue to collect the data value has elapsed.
Method for controlling the operation of a recovery boiler or another boiler having a furnace wherein the operation is monitored by monitoring sensors, said sensors converting acquired electromagnetic radiation to electrical signals which are conducted to image processing which forms an image of an object, such as a char bed and/or a char and/or chemicals on the furnace walls and/or deposits on boiler surfaces, and the image is formed based on the data from the sensors, and controlling the operation using the image, wherein the operation includes burning of the char bed and/or the formation of char and/or chemicals on the furnace walls and/or the formation of deposits on boiler surfaces, characterised in that the sensors (6a-6c) produce sensor signals for 3D (three-dimensional) imaging, which sensors (6a-6c) are wide range sensors and acquire radiation data in several wavelength ranges, and said ranges include ultraviolet, visible, IR and millimeter wavelength ranges, that the sensor signals are conducted to an image processing unit for forming a 3D image, such as an image of the bed and/or the char and/or the chemicals, and/or its shape describing derivatives, and/or temperature chart of the bed surface, and that the image processing further comprises a filtering phase wherein the sensor signals or the 3D image are/is filtered in order to avoid the thermal radiation emission of hot gases, liquids and/or particles in the furnace, wherein the sensor signals or the 3D image are/is conducted to a filter unit filtering the signals/images to several relatively narrow bands (BAND1 to BANDn), whereby the final 3D image is obtained by comparative analysis of the sensor signals from chosen different frequency bands or the 3D images from chosen different frequency bands.
A receiver, comprising: a front-end block to provide a front-end gain on a radio-frequency input signal, the front-end block including a mixer to convert the radio-frequency input signal to a baseband signal; a wide-band peak detector coupled to the front-end block; a baseband block to provide a baseband gain on the baseband signal; an analog-to-digital converter to convert the baseband signal to a digital signal; a narrow-band peak detector coupled to an output of the analog-to-digital converter, wherein the narrow-band peak detector includes: a first comparator (420.1) having a first energy value threshold corresponding to a low overload condition, and a second comparator (420.2) having a second energy value threshold, greater than the first energy value threshold and corresponding to a high overload condition; wherein the first and second energy value thresholds correspond to different saturation levels of the analog-to-digital converter; and an automatic gain control circuit, to control the front-end gain and the baseband gain based on outputs from the wide-band peak detector and narrowband peak detector. a front-end block to provide a front-end gain on a radio-frequency input signal, the front-end block including a mixer to convert the radio-frequency input signal to a baseband signal; a wide-band peak detector coupled to the front-end block; a baseband block to provide a baseband gain on the baseband signal; an analog-to-digital converter to convert the baseband signal to a digital signal; a narrow-band peak detector coupled to an output of the analog-to-digital converter, wherein the narrow-band peak detector includes: a first comparator (420.1) having a first energy value threshold corresponding to a low overload condition, and a second comparator (420.2) having a second energy value threshold, greater than the first energy value threshold and corresponding to a high overload condition; wherein the first and second energy value thresholds correspond to different saturation levels of the analog-to-digital converter; and a first comparator (420.1) having a first energy value threshold corresponding to a low overload condition, and a second comparator (420.2) having a second energy value threshold, greater than the first energy value threshold and corresponding to a high overload condition; wherein the first and second energy value thresholds correspond to different saturation levels of the analog-to-digital converter; and an automatic gain control circuit, to control the front-end gain and the baseband gain based on outputs from the wide-band peak detector and narrowband peak detector.
Exosomes comprising miRNAs, wherein the miRNA is encoded by any one of the transcription units comprised in the C19MC and selected from the group consisting of miR-517a-3p, miR-517b-3p, hsa-miR-517c-3p and hsa-miR-517-5p having the SEQ ID NOs.: 10 to 13 for use in immunomodulation in a pregnancy-associated disease linked to a deregulated immune system.
A sheet-fed printing machine, wherein the sheet-fed printing machine has at least two sheet-fed printing units (03; 200; 500; 600; 700), wherein a first sheet-fed printing unit (03; 500; 600; 700) has a first cylinder (501; 601; 701) of a first type formed as an impression cylinder (501; 601; 701) and a second cylinder (502; 602; 702) of the first type formed as an impression cylinder (502; 602; 702), which have direct contact with one another and/or are arranged to interact directly with one another and each of which have an axis of rotation (521; 522; 621; 622; 721; 722), and wherein an axial plane is a plane containing both the axis of rotation (521; 621; 721) of the first cylinder (501; 601; 701) of the first type as well as the axis of rotation (522; 622; 722) of the second cylinder (502; 602; 702) of the first type, and wherein a reference plane is a plane containing at least one axis of rotation (521; 522; 621; 622; 721; 722) of such a cylinder (501; 502; 601; 602; 701; 702) of the first type and having a horizontal surface normal, and wherein these two cylinders (501; 502; 601; 602; 701; 702) of the first type are arranged, at least during a processing operation, such that the intersection angle between the axial plane, on the one hand, and the reference plane, on the other hand, is no more than 30°, and wherein a second sheet-fed printing unit (03; 200; 500; 600; 700) has at least one cylinder (201; 202; 501; 502; 601; 602; 701; 702) of the first type formed as an impression cylinder (201; 202; 501; 502; 601; 602; 701; 702), and wherein the first and the second impression cylinder (501; 502; 601; 602; 701; 702) of the first printing unit (03; 500; 600; 700) and the at least one impression cylinder (201; 202; 501; 502; 601; 602; 701; 702) of the second printing unit (03; 200; 500; 600; 700) have a same outer circumference, characterized in that the first sheet-fed printing unit (03; 500; 600; 700) has at least one form cylinder (503; 504; 506; 507; 603; 604; 606; 607; 703; 704; 706; 707), which has direct contact with and/or is arranged to interact directly with the first impression cylinder (501; 601; 701) or with the second impression cylinder (502; 602; 702) and which is formed as a numbering form cylinder (503; 504; 506; 507) or as a flexo form cylinder (603; 604; 606; 607) or as a screen printing form cylinder (703; 704; 706; 707).
A process for distilling a mixture containing hydrogen iodide and water, which comprises distilling the mixture having a water content of not more than 5% by weight in a distillation column to prevent condensation of hydrogen iodide in the distillation column, wherein the mixture contains hydrogen iodide, water, an alcohol having a carbon number of "n", an alkyl iodide corresponding to the alcohol, a carboxylic acid having a carbon number of "n+1", and an ester of the carboxylic acid with the alcohol, and the concentration of the hydrogen iodide in the mixture is 1 to 3000 ppm on the basis of weight.
A method for controlling a playback tempo of an audio track to be presented at an audio output, the audio track comprising a plurality of audio components, a first audio component of the plurality of audio components being associated with a plurality of sets of audio data, wherein each respective set of audio data in the plurality of sets of audio data relates to a same part of the audio track for a respective audio component recorded at a different respective tempo, and wherein each set of audio data in the plurality of sets of audio data is associated with a respective playback tempo range, the method comprising: receiving a playback tempo for presenting the audio track at the audio output; selecting, from the plurality of sets of audio data, a set of audio data that has an associated playback tempo range comprising the received playback tempo; and allocating the selected set of audio data to the first audio component for presenting the audio track at the audio output. receiving a playback tempo for presenting the audio track at the audio output; selecting, from the plurality of sets of audio data, a set of audio data that has an associated playback tempo range comprising the received playback tempo; and allocating the selected set of audio data to the first audio component for presenting the audio track at the audio output.