mhurhangee/ep-ind-claims huggingface dataset:
A combination of probes comprising at least four probes, wherein said combination of probes comprises a chromosome 6 enumerator probe, a probe that targets chromosome region 6p, a probe that targets chromosome region 6q and a probe that targets chromosome region 11q, wherein the combination of at least four probes has a difference from ideal value of less than 0.29 for melanoma, wherein DFI is calculated as [(1-sensitivity) 2 + (1-specificity) 2] 1/2.
An abradable coating for a turbomachine, in particular a jet engine, for positioning on a sealing between a rotor and a stator, wherein the abradable coating comprises a metal framework, which has interstices, which are filled with an inorganic non-metallic inert material, wherein the metal framework is formed by an arrangement of metal fibers, characterized in that the inert materials are made of polymer-derived ceramic foams or self-hardening cements or comprise the same.
A method of executing a virtualized application able to run in a virtualized environment, the method comprising: using a computer to perform the steps of: searching for a license pre-stored in the virtualized application, upon an occurrence of an event to launch the virtualized application; monitoring a system environment, receiving a license from the system environment, and determining whether the license received from the system environment conforms with the pre-stored license; and launching the virtualized application to run in the virtualized environment, according to an execution policy of the virtualized application, upon determining that the license received from the system environment conforms with the pre-stored license, wherein the determining of whether the license from the system environment conforms to the pre-stored license is performed by a policy monitor included in the virtualized application in the virtualized environment. using a computer to perform the steps of: searching for a license pre-stored in the virtualized application, upon an occurrence of an event to launch the virtualized application; monitoring a system environment, receiving a license from the system environment, and determining whether the license received from the system environment conforms with the pre-stored license; and launching the virtualized application to run in the virtualized environment, according to an execution policy of the virtualized application, upon determining that the license received from the system environment conforms with the pre-stored license, wherein the determining of whether the license from the system environment conforms to the pre-stored license is performed by a policy monitor included in the virtualized application in the virtualized environment. searching for a license pre-stored in the virtualized application, upon an occurrence of an event to launch the virtualized application; monitoring a system environment, receiving a license from the system environment, and determining whether the license received from the system environment conforms with the pre-stored license; and launching the virtualized application to run in the virtualized environment, according to an execution policy of the virtualized application, upon determining that the license received from the system environment conforms with the pre-stored license, wherein the determining of whether the license from the system environment conforms to the pre-stored license is performed by a policy monitor included in the virtualized application in the virtualized environment.
Apparatus for supportive ventilation, which has a respiratory gas pump connected to a controller and in which the respiratory gas pump can be connected to a patient interface and in which the controller predefines a lower respiratory gas pressure during an expiration phase than during an inspiration phase, and in which at least one sensor is connected to the controller for the purpose of capturing at least one parameter of the respiratory gas using metrology, characterized in that the controller has a control characteristic with a minimum expiration time which is a trigger blockade time during which a registered patient signal, on the basis of which it is possible to change over to inspiration, is not taken into account, and in that the controller is provided with a trigger signal suppression means which blocks a pressure increase for the predefinable trigger blockade time which begins with an expiratory pressure reduction, and in that the minimum expiration time is extended by the period until the occurrence of a signal, which represents the respiratory flow of the expiration or the breathing volume of the inspiration and indicates that the expiration process of the patient has been concluded, if, after expiry of the minimum expiration time, it is indicated that the expiration process has not been concluded.
A method comprising: receiving a data signal on a data channel and a pilot signal on a pilot channel; demodulating the received data signal and the received pilot signal to obtain a demodulated data signal and a demodulated pilot signal (P1, 320); generating a data stream by decoding the demodulated data signal; generating a feedback signal (F1,F2) by encoding the data stream; characterized in: performing a measurement of a coherent sum signal comprising the coherent sum of: the demodulated pilot signal; and a product of the demodulated data signal and the feedback signal, wherein the product is generated by a multiplier that multiplies the demodulated data signal and the feedback signal to generate the product. receiving a data signal on a data channel and a pilot signal on a pilot channel; demodulating the received data signal and the received pilot signal to obtain a demodulated data signal and a demodulated pilot signal (P1, 320); generating a data stream by decoding the demodulated data signal; generating a feedback signal (F1,F2) by encoding the data stream; characterized in: performing a measurement of a coherent sum signal comprising the coherent sum of: the demodulated pilot signal; and a product of the demodulated data signal and the feedback signal, wherein the product is generated by a multiplier that multiplies the demodulated data signal and the feedback signal to generate the product. the demodulated pilot signal; and a product of the demodulated data signal and the feedback signal, wherein the product is generated by a multiplier that multiplies the demodulated data signal and the feedback signal to generate the product.
Cosmetic composition for washing and conditioning keratin fibres, in particular human keratin fibres such as the hair, comprising, in a cosmetically acceptable medium: (i) one or more organosilicon compounds chosen from silanes comprising one silicon atom and siloxanes comprising two or three silicon atoms, the said organosilicon compounds also comprising one or more basic chemical functions and one or more hydroxyl or hydrolysable groups per molecule; (ii) one or more sulfate or sulfonate anionic surfactants; (iii) one or more carboxylic anionic surfactants other than the anionic surfactants (ii) chosen from alkyl ether carboxylic acids and salts thereof, and (iv) one or more amphoteric surfactants. (i) one or more organosilicon compounds chosen from silanes comprising one silicon atom and siloxanes comprising two or three silicon atoms, the said organosilicon compounds also comprising one or more basic chemical functions and one or more hydroxyl or hydrolysable groups per molecule; (ii) one or more sulfate or sulfonate anionic surfactants; (iii) one or more carboxylic anionic surfactants other than the anionic surfactants (ii) chosen from alkyl ether carboxylic acids and salts thereof, and (iv) one or more amphoteric surfactants.
Deployment system for an implantable medical device comprising: an expandable medical device having a larger deployed diameter and a smaller compacted diameter for delivery; a sheath surrounding the smaller, compacted medical device, said sheath everted back over itself, wherein an outer portion of said sheath surrounds an inner portion of said sheath; a filamentary constraining member, located between the inner and outer portions (30, 28) of said sheath, wherein said medical device is deployed to the larger diameter by the application of simultaneous actuation forces to the sheath and the filamentary constraining member, characterised in that the sheath comprises a filament that unravels upon the application of a tensile force. an expandable medical device having a larger deployed diameter and a smaller compacted diameter for delivery; a sheath surrounding the smaller, compacted medical device, said sheath everted back over itself, wherein an outer portion of said sheath surrounds an inner portion of said sheath; a filamentary constraining member, located between the inner and outer portions (30, 28) of said sheath, wherein said medical device is deployed to the larger diameter by the application of simultaneous actuation forces to the sheath and the filamentary constraining member, characterised in that the sheath comprises a filament that unravels upon the application of a tensile force.
A book comprising a multipart hardcover and a book block, wherein the multipart hardcover comprises at least one front and rear cover page (2.1, 2.2) and a book spine element (2.3) flexibly connecting the front and rear cover pages (2.1, 2.2) to one another, characterized in that each of the front and the rear cover page (2.1, 2.2) is hinged to the book spine element (2.3) by means of at least one double-jointed hinge.
A wireless device for a wireless communication network, the wireless device being configured for carrier aggregation under operation with 3rd 5 Generation Partnership Project, 3GPP, frame structure type 3, the wireless device configured to: obtain a channel occupancy threshold; obtain a set of received signal strength indication, RSSI, samples on a carrier frequency; obtain a quality criterion for a channel occupancy measurement, the quality criterion defining a quality of an RSSI sample, the quality criterion being met when a value of the RSSI sample is above the value of the channel occupancy threshold plus an RSSI measurement accuracy value, or below the value of the channel occupancy threshold minus the RSSI measurement accuracy value; determine the channel occupancy measurement for the carrier frequency based on the obtained channel occupancy threshold, the quality criterion and at least one RSSI sample of the set of RSSI samples; and perform at least one task based on the channel occupancy measurement, wherein the performing of the at least one task includes at least one of sending at least one result of the channel occupancy measurement and triggering an event based on the channel occupancy measurement, reporting the channel occupancy measurement to a network node, preventing a reporting of at least one result of the channel occupancy measurement if a predefined number of the RSSI samples of the set of RSSI samples do not meet the quality criterion, and adjusting the channel occupancy threshold based on the channel occupancy measurement. obtain a channel occupancy threshold; obtain a set of received signal strength indication, RSSI, samples on a carrier frequency; obtain a quality criterion for a channel occupancy measurement, the quality criterion defining a quality of an RSSI sample, the quality criterion being met when a value of the RSSI sample is above the value of the channel occupancy threshold plus an RSSI measurement accuracy value, or below the value of the channel occupancy threshold minus the RSSI measurement accuracy value; determine the channel occupancy measurement for the carrier frequency based on the obtained channel occupancy threshold, the quality criterion and at least one RSSI sample of the set of RSSI samples; and perform at least one task based on the channel occupancy measurement,
A precision glass mold comprising: a fine grained graphite mold body having one or more mold features; an encapsulating coating atop the graphite mold body and the one or more mold features, wherein the encapsulating coating comprises a titanium carbide layer or region atop the graphite mold body and has a coefficient of thermal expansion that is within 1 part per million/°C of the coefficient of thermal expansion of the graphite mold body. a fine grained graphite mold body having one or more mold features; an encapsulating coating atop the graphite mold body and the one or more mold features, wherein the encapsulating coating comprises a titanium carbide layer or region atop the graphite mold body and has a coefficient of thermal expansion that is within 1 part per million/°C of the coefficient of thermal expansion of the graphite mold body.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to the operator network system, a dedicated Protocol Data Unit, PDU, session establishment request for a user plane, UP, signalling messages; in case that the UE supports an integrity protection based on a maximum data rate of the UE, establishing a dedicated PDU session with the operator network system with integrity protection based on a configuration received from the operator network system, and exchanging the UP signaling messages over the established dedicated PDU session; and characterised in that: in case that the UE does not support the integrity protection based on the maximum data rate of the UE, exchanging the UP signalling message with the operator network system over a non-access-stratum, NAS, to confirm the integrity protection. transmitting, to the operator network system, a dedicated Protocol Data Unit, PDU, session establishment request for a user plane, UP, signalling messages; in case that the UE supports an integrity protection based on a maximum data rate of the UE, establishing a dedicated PDU session with the operator network system with integrity protection based on a configuration received from the operator network system, and exchanging the UP signaling messages over the established dedicated PDU session; and characterised in that: in case that the UE does not support the integrity protection based on the maximum data rate of the UE, exchanging the UP signalling message with the operator network system over a non-access-stratum, NAS, to confirm the integrity protection.
A process for producing a regenerated elastic roller for use in an electrophotographic image forming apparatus, comprising the steps of: heating in a cylindrical mold an elastic roller comprising an electrically conductive mandrel and an elastic layer to which a compression set has been occurred, and thermally expanding said elastic layer so that the surface of said elastic roller comes into contact with an inner surface of said cylindrical mold. heating in a cylindrical mold an elastic roller comprising an electrically conductive mandrel and an elastic layer to which a compression set has been occurred, and thermally expanding said elastic layer so that the surface of said elastic roller comes into contact with an inner surface of said cylindrical mold.
A method comprising: receiving (202,204,206) system malfunction effects data (110,112,114) including at least one malfunction and a plurality of direct and indirect effects associated with each of the at least one malfunction; storing the received system malfunction effects data; facilitating (212,214) a user in viewing and/or modifying the system malfunction effects data, and the viewing includes presenting the data in a relational fashion, with each malfunction linked to one or more direct effects, and each direct effect linked to one or more indirect effects, and recommending a design change based at least on the system malfunction effects data. receiving (202,204,206) system malfunction effects data (110,112,114) including at least one malfunction and a plurality of direct and indirect effects associated with each of the at least one malfunction; storing the received system malfunction effects data; facilitating (212,214) a user in viewing and/or modifying the system malfunction effects data, and the viewing includes presenting the data in a relational fashion, with each malfunction linked to one or more direct effects, and each direct effect linked to one or more indirect effects, and recommending a design change based at least on the system malfunction effects data.
A multicore fiber connection method of connecting multicore fibers, comprising: a matching step of causing end surfaces of the multicore fibers to match each other such that cores of one multicore fiber and cores of the other multicore fiber face each other with a predetermined gap interposed therebetween; a shaping step of shaping end surfaces to be connected of the multicore fibers by heating the end surfaces of the multicore fibers in a state in which the end surfaces match each other such that each of the end surfaces is curved in a convex shape and a portion intersecting the central axis of the multicore fibers is most protruding; and a fusing step of moving the multicore fibers such that the shaped end surfaces come in contact with each other and fusing the shaped end surfaces to each other, wherein the multicore fibers satisfy 25 ≤ Y ≤ 50 where a distance from a center of a core located on the outer periphery side of the clad to a side surface of the clad is defined as Y μm, and the shaping step includes heating the end surfaces to satisfy 0 < X / Y ≤ 0.0054 Y + 0.268 where a distance in a longitudinal direction from a part of each multicore fiber located at an end in the longitudinal direction on each shaped end surface to a position at which the end surface and the side surface of the clad meet each other is defined as X μm, wherein a diameter of the clad is 140 μm or more and 230 μm or less. a matching step of causing end surfaces of the multicore fibers to match each other such that cores of one multicore fiber and cores of the other multicore fiber face each other with a predetermined gap interposed therebetween; a shaping step of shaping end surfaces to be connected of the multicore fibers by heating the end surfaces of the multicore fibers in a state in which the end surfaces match each other such that each of the end surfaces is curved in a convex shape and a portion intersecting the central axis of the multicore fibers is most protruding; and a fusing step of moving the multicore fibers such that the shaped end surfaces come in contact with each other and fusing the shaped end surfaces to each other, wherein the multicore fibers satisfy 25 ≤ Y ≤ 50 where a distance from a center of a core located on the outer periphery side of the clad to a side surface of the clad is defined as Y μm, and the shaping step includes heating the end surfaces to satisfy 0 < X / Y ≤ 0.0054 Y + 0.268 where a distance in a longitudinal direction from a part of each multicore fiber located at an end in the longitudinal direction on each shaped end surface to a position at which the end surface and the side surface of the clad meet each other is defined as X μm, wherein a diameter of the clad is 140 μm or more and 230 μm or less.
An aerial lift, comprising: - a lower portion (2, 3) equipped with members for connecting to the ground; - a lifting structure; - a platform supported by the lifting structure; - a lighting system including different lighting devices (21, 22, 23), other than driving lights; characterized in that it comprises a control console positioned on the platform and the position of which relative to the members for connecting to the ground is variable, and in that the lighting devices (21, 22, 23) are arranged on the lower portion (2, 3) of the aerial lift and on the lifting structure or on the platform and selectively generate colored light beams (F21, F22, F23) pointed toward the ground and the environment immediately surrounding the aerial lift, at least partly including a zone comprised between 0 and 1 meter from the edge of the members for connecting to the ground, these light beams (F21, F22, F23) being oriented toward four opposite sides (11, 12, 13, 14), in pairs, of the aerial lift irrespective of the position of the control console relative to the members for connecting to the ground. - a lower portion (2, 3) equipped with members for connecting to the ground; - a lifting structure; - a platform supported by the lifting structure; - a lighting system including different lighting devices (21, 22, 23), other than driving lights;
A method for producing an immunogenic vaccine composition comprising an inactivated pathogen, the method comprising: contacting a pathogen having an RNA or DNA genome with a chemical inactivating agent in the presence of one or more inorganic polyatomic oxyanions in an amount and for a time-period sufficient for the chemical inactivating agent to render the pathogen noninfectious while enhancing retention of pathogen antigenicity and/or immunogenicity relative to that retained by contacting the pathogen with the chemical inactivating agent alone under standard reaction conditions, wherein the inorganic polyatomic oxyanion is one or more of sodium phosphate (Na 2 HPO 4) at a level of at least 50 mM; sodium sulfate (Na 2 SO 4) at a level of at least 25 mM; sodium trimetaphosphate (Na 3 P 3 O 9) at a level of at least 0.10 mM; sodium triphosphate (Na 5 P 3 O 10) at a level of at least 0.50 mM; or magnesium sulfate (MgSO 4) at a level of at least 150 mM, wherein the chemical inactivating agent comprises one or more of hydrogen peroxide, formaldehyde, β-propiolactone, binary ethylenimine inactivation, or Fenton-type reagent(s) comprising hydrogen peroxide in combination with at least one transition metal ion selected from ions of Cu, and/or Fe, and preferably wherein the pathogen is isolated or purified prior to contacting with the inactivating reagent.