mhurhangee/ep-ind-claims huggingface dataset:
A method for analyzing diagnostic image data, comprising: receiving diagnostic image data comprising a plurality of acquisition images of a vessel of interest at a trained classifying device, the diagnostic image data having been acquired using a pre-defined acquisition method, classifying the diagnostic image data to extract at least one quantitative feature of the vessel of interest from at least one acquisition image of the plurality of acquisition images, characterized by outputting the at least one quantitative feature of the vessel of interest associated with the at least one acquisition image while the acquisition of the diagnostic image data is still in progress, and adjusting one or more adjustable image acquisition settings based on the at least one quantitative feature to optimize the acquisition of the diagnostic image data. receiving diagnostic image data comprising a plurality of acquisition images of a vessel of interest at a trained classifying device, the diagnostic image data having been acquired using a pre-defined acquisition method, classifying the diagnostic image data to extract at least one quantitative feature of the vessel of interest from at least one acquisition image of the plurality of acquisition images, characterized by outputting the at least one quantitative feature of the vessel of interest associated with the at least one acquisition image while the acquisition of the diagnostic image data is still in progress, and adjusting one or more adjustable image acquisition settings based on the at least one quantitative feature to optimize the acquisition of the diagnostic image data.
A wheel storage rack comprising a frame with multiple receiving devices for the wheels, arranged on top of each other in the frame, wherein each receiving device has a gravity conveyor for transporting the wheels toward the output side, wherein the wheels of a wheel set are received horizontally and behind one another relative to the output side, wherein the wheel respectively stored at the output side is held there by a retention device, characterized in that the retention device is designed as a storage floor having approximately the size of a wheel, in such a manner that the friction of the wheel on the storage floor is such that the rearward wheels do not slide beyond the storage floor after the front wheel is removed.
A medical device for treating and/or diagnosing a paranasal sinus condition, said medical device comprising: a flexible hollow cannula configured to be at least partially inserted through an ostium into a sinus cavity of a subject, said flexible hollow cannula comprising a flexible grinding wire configured to rotate along a longitudinal axis thereof and thereby grind, chop and/or stir material present in said sinus cavity, characterized in that said flexible hollow cannula is configured to retractably extend from a distal end (104, 204, 302, 402, 502, 702, 802, 902) of an saint elongated tubular member configured to receive said flexible hollow cannula, wherein said elongated tubular member comprises a distal end being bent or bendable so as to face the ostium of the paranasal sinus once inserted into the subject's nose, and the flexible hollow cannula is configured to penetrate through the ostium of the paranasal sinus, when said distal end (104, 204, 302, 402, 502, 702, 802, 902) of said elongated tubular member faces said ostium, wherein said flexible hollow cannula comprises a super-elastic material or pseudo-elastic material, and wherein activation of said medical device induces precession of said flexible hollow cannula, thereby enlarging the ostium without surgical dilation.
A freestanding pilot training system comprising: a floor-resting base; a seat pan; a plurality of actuators connecting the floor-resting base and the seat pan and positioned above the floor-resting base and below the seat pan, the plurality of actuators being configured to move the seat pan linearly and rotationally along x, y, and z axes; a pedal support removably connected to the seat pan via a first support post; a yoke support removably connected to the seat pan via a second support post; a head-mounted display configured to display an output of a flight simulation software reflecting a simulated flight environment, wherein a point of view of the head-mounted display is synchronized to motion of the seat pan; and a training terminal comprising a processor, wherein the pedal support and the yoke support are rigidly linked with the seat pan so as to move synchronously therewith: a floor-resting base; a seat pan; a plurality of actuators connecting the floor-resting base and the seat pan and positioned above the floor-resting base and below the seat pan, the plurality of actuators being configured to move the seat pan linearly and rotationally along x, y, and z axes; a pedal support removably connected to the seat pan via a first support post; a yoke support removably connected to the seat pan via a second support post; a head-mounted display configured to display an output of a flight simulation software reflecting a simulated flight environment, wherein a point of view of the head-mounted display is synchronized to motion of the seat pan; and a training terminal comprising a processor, wherein the pedal support and the yoke support are rigidly linked with the seat pan so as to move synchronously therewith:
Method for operating a Coriolis mass flow measuring device, whereby the Coriolis mass flow measuring device has at least one measuring tube through which a medium flows, at least one oscillation generator (2a, 2b), at least one first oscillation sensor, at least one second oscillation sensor, and at least one control and analysis unit, whereby excitation signals ( U Dae, U Dbe) can be routed via at least one excitation channel (Chal, Cha2) to the oscillation generator (2a, 2b) of the control and analysis unit, whereby a first primary measuring signal ( V a) of interest can be routed via at least one first measuring channel to the control and analysis unit from the first oscillation sensor, and a second primary measuring signal ( V b) of interest can be routed via at least one second measuring channel to the control and analysis unit from the second oscillation sensor, characterized in that the control and analysis unit ratiometrically calculates at least one derived secondary variable ( ṁ) - typically the mass flow - at least indirectly from the primary measuring signals ( V ag, V bg) transmitted via the measuring channels (Ch1, Ch2, Chn), by forming ratios of the difference of the first primary measuring signal and the second primary measuring signal, on the one hand, and the sum of the first primary measuring signal and the second primary measuring signal, on the other hand, wherein the primary measuring signals ( V a, V b) of interest are routed alternately via the different measuring channels (Ch1, Ch2, Chn) to the control and analysis unit, and comparison values ( V am, V bm) of the transmitted primary measuring signals are calculated from the different values for the first transmitted primary measuring signals ( V ag1, V ag2, V agn) and the second transmitted primary signals ( V bg1, V bg2, V bgn) that are obtained via the different measuring channels (Ch1, Ch2, Chn) by forming a mean value for the first transmitted primary signal ( V ag) and by forming a mean value for the second transmitted primary signal ( V bg), and the comparison values ( V am, V bm) of the primary measuring signals are taken as a basis for calculating the derived secondary variable ( ṁ) instead of the primary measuring signals ( V a, V b), in that the calculation of the derived secondary variable ( ṁ) is carried out using the received comparison values ( V am, V bm).
A method for defense against Return Oriented Programming, ROP, attacks, the method comprising: identifying (102, 402) a substitutable instruction pair from a binary file, the substitutable instruction pair including a first instruction for pushing a first group of registers onto a stack memory, and a second instruction for popping the first group of registers off the stack memory, wherein the first group of registers includes at least one general purpose register; generating (103, 403) an equivalent instruction pair for the substitutable instruction pair, the equivalent instruction pair including a first equivalent instruction for pushing a second group of registers onto the stack memory, and a second equivalent instruction for popping the second group of registers off the stack memory,; and overwriting (104, 404) the first instruction and the second instruction with the first equivalent instruction and the second equivalent instruction respectively, characterized in that the second group of registers includes the first group of registers and at least one additional register which is not being used by the substitutable instruction pair. identifying (102, 402) a substitutable instruction pair from a binary file, the substitutable instruction pair including a first instruction for pushing a first group of registers onto a stack memory, and a second instruction for popping the first group of registers off the stack memory, wherein the first group of registers includes at least one general purpose register; generating (103, 403) an equivalent instruction pair for the substitutable instruction pair, the equivalent instruction pair including a first equivalent instruction for pushing a second group of registers onto the stack memory, and a second equivalent instruction for popping the second group of registers off the stack memory,; and overwriting (104, 404) the first instruction and the second instruction with the first equivalent instruction and the second equivalent instruction respectively, characterized in that the second group of registers includes the first group of registers and at least one additional register which is not being used by the substitutable instruction pair.
A peptide binder to Streptavidin, having at least 80% sequence identity to peptide AFPDYLAEYHGG (SEQ ID NO:241) or peptide RDPAPAWAHGGG (SEQ ID NO:243), and having an equilibrium dissociation constant (K D) of less than 10 micromolar (μM).
A non-transitory computer readable medium comprising machine readable instructions which, when executed by a processor, cause the processor to: identify an initial first position of a first sensor system relative to a reference point based on initial first sensor data captured by the first sensor system; identify an initial second position of a second sensor system relative to a stationary trackable object (110, 114) based on initial second sensor data captured by the second sensor system, the first sensor system being in a fixed spatial relationship relative to the second sensor system, the first and second sensor systems (210, 102) comprising a helmet sensor system; determine, after a first duration of movement of the helmet sensor system, a subsequent first position of the first sensor system relative to the reference point based on subsequent first sensor data captured by the first sensor system, determine, after the first duration of movement of the helmet sensor system, a subsequent second position of the second sensor system relative to the trackable object (110, 114) based on subsequent second sensor data captured by the second sensor system; and identify a vector relationship between the first sensor system and the second sensor system based on the initial first position of the first sensor system, the initial second position of the second sensor system, the subsequent first position of the first sensor system, and the subsequent second position of the second sensor system. identify an initial first position of a first sensor system relative to a reference point based on initial first sensor data captured by the first sensor system; identify an initial second position of a second sensor system relative to a stationary trackable object (110, 114) based on initial second sensor data captured by the second sensor system, the first sensor system being in a fixed spatial relationship relative to the second sensor system, the first and second sensor systems (210, 102) comprising a helmet sensor system; determine, after a first duration of movement of the helmet sensor system, a subsequent first position of the first sensor system relative to the reference point based on subsequent first sensor data captured by the first sensor system, determine, after the first duration of movement of the helmet sensor system, a subsequent second position of the second sensor system relative to the trackable object (110, 114) based on subsequent second sensor data captured by the second sensor system; and identify a vector relationship between the first sensor system and the second sensor system based on the initial first position of the first sensor system, the initial second position of the second sensor system, the subsequent first position of the first sensor system, and the subsequent second position of the second sensor system.
A compound represented by the following formula: wherein, R 1 represents a chlorine atom or bromine atom, R 2 represents a cyano group or nitro group, R 3 represents a C 1 -C 6 alkyl group (which may be substituted with one or more halogen atoms depending on the case), fluorine atom, chlorine atom or bromine atom, and a represents 3 to 5. R 1 represents a chlorine atom or bromine atom, R 2 represents a cyano group or nitro group, R 3 represents a C 1 -C 6 alkyl group (which may be substituted with one or more halogen atoms depending on the case), fluorine atom, chlorine atom or bromine atom, and a represents 3 to 5.
A method of communicating with a device (240, 242, 244) using a Field Device Tool framework, wherein the device operates in a process control environment and is communicatively coupled to a communication link, the method characterized by: providing a scan capable device type manager of type device, wherein the scan capable device type manager of type device (i) represents the device in the Field Device Tool framework and (ii) includes a scan function configured to scan the communication link; generating an instance of the scan capable device type manager of type device; communicatively connecting the instance of the scan capable device type manager to a communication channel, wherein the communication channel is operatively coupled to the communication link; using the scan function to scan the communication link to discover the field device; connecting the instance of the scan capable device type manager to a frame application; and enabling communications between the discovered device and the frame application via the instance of the scan capable device type manager. providing a scan capable device type manager of type device, wherein the scan capable device type manager of type device (i) represents the device in the Field Device Tool framework and (ii) includes a scan function configured to scan the communication link; generating an instance of the scan capable device type manager of type device; communicatively connecting the instance of the scan capable device type manager to a communication channel, wherein the communication channel is operatively coupled to the communication link; using the scan function to scan the communication link to discover the field device; connecting the instance of the scan capable device type manager to a frame application; and enabling communications between the discovered device and the frame application via the instance of the scan capable device type manager.
A connector assembly comprising a connector for corrugated steel pipes and a corrugated steel pipe having a nominal diameter that is smaller than a diameter of an opening of the connector, the connector comprising a connector body which is provided with at least two openings (2a, 2b), and at least one reduction element, wherein said reduction element is adapted to be coupled to at least one of said openings (2a, 2b) of said connector body, said reduction element being adapted to define an inlet diameter for the pipe that is smaller than the diameter of the at least one of said openings (2a, 2b) of the body of the connector, said reduction element comprising a flat face provided with a hole and a raised portion which extends at an opposite face, which is opposite to the flat face, said raised portion being adapted to engage the at least one of said openings (2a, 2b) of said connector body by being inserted into said at least one of said openings (2a, 2b), said opposite face being configured to abut against the at least one of said openings (2a, 2b), externally to said one opening (2a, 2b).
Biomaterial or biocomposite based on sunflower seed shells/husks, where the fat content of the sunflower seed shells/husks is at most 4% and where the grain size of the sunflower seed shells/husks is in the range from 0.01 to 0.5 mm.
Bottle for packaging liquid, comprising a reservoir (2; 102) on which there is mounted a dispensing head (4; 104) that comprises an axially movable portion of a liquid-takeoff pump system and a dispensing nozzle constrained to move with said movable pump portion and through which the liquid is delivered, said movable portion having a collar, to a top face of which said dispensing nozzle is fixed, characterised in that it comprises a cover (6, 106) formed by a sleeve (20; 40, 42; 140, 142) covering said movable portion for actuating the pump and a removable part (22; 122; 222) for covering the bottle, said sleeve comprising a cylindrical lateral wall (26; 126), the top end of which is extended by a transverse wall (28; 128) that is suitable for resting on said top face of said collar and which has a central bore enabling the nozzle to pass, said removable part of the cover being held on said transverse wall of said sleeve by a holding device (24; 124) that can be broken when the bottle is first used, so that said removable part of the cover covers the central bore, opposite said lateral wall of the sleeve (26; 126), when it is held on said transverse wall (28; 128) of the sleeve, and so that the central bore and the dispensing nozzle are released when the removable part of the cover (22, 122, 222) is removed after breakage of the holding device.
A method for handling signalling congestion for a machine type communication, MTC, device in a wireless communication system, the method comprising: receiving system information broadcasted by a network configured for the MTC device; characterized by stopping a triggering operation in a communication window of the MTC device according to the system information; wherein the communication window is configured to be distributed over grant time interval for permitting access for the MTC device; wherein the system information indicates occurrence of a signalling congestion or overload situation in the network; and determining whether to stop the triggering operation in the communication window according to priority of an application included in a MTC subscription. receiving system information broadcasted by a network configured for the MTC device; characterized by stopping a triggering operation in a communication window of the MTC device according to the system information; wherein the communication window is configured to be distributed over grant time interval for permitting access for the MTC device; wherein the system information indicates occurrence of a signalling congestion or overload situation in the network; and determining whether to stop the triggering operation in the communication window according to priority of an application included in a MTC subscription.
Medical device comprising: - a sealed, gas-containing housing adapted to be implanted in a human or animal patient's body, - an inflatable element adapted to be implanted in the patient's body outside the housing, - a fluid circuit comprising a fluid reservoir with a variable fluid volume arranged in the housing and a tube providing a fluid connection between said reservoir and said inflatable element, - an actuator arranged in the housing and mechanically coupled to the fluid reservoir to selectively vary the volume of fluid in said reservoir, - a control unit configured to control the actuator so as to transfer fluid between the reservoir and the inflatable element, - at least one sensor (101, 102, 103, 90) adapted to measure an absolute fluid pressure in the fluidic circuit, a force exerted on the reservoir, a gas pressure in the housing, an atmospheric pressure or a value relative to a patient's altitude, said medical device being characterized in that said control unit is further configured to: - from a measurement of said sensor while the actuator is inactive, detect a deviation between a value relating to a patient's altitude and a reference value (A1, A2, A3, A4) and - determine, as a function of said deviation, control of the actuator so as to control the fluid pressure in the fluid circuit. - a sealed, gas-containing housing adapted to be implanted in a human or animal patient's body, - an inflatable element adapted to be implanted in the patient's body outside the housing, - a fluid circuit comprising a fluid reservoir with a variable fluid volume arranged in the housing and a tube providing a fluid connection between said reservoir and said inflatable element, - an actuator arranged in the housing and mechanically coupled to the fluid reservoir to selectively vary the volume of fluid in said reservoir, - a control unit configured to control the actuator so as to transfer fluid between the reservoir and the inflatable element, - at least one sensor (101, 102, 103, 90) adapted to measure an absolute fluid pressure in the fluidic circuit, a force exerted on the reservoir, a gas pressure in the housing, an atmospheric pressure or a value relative to a patient's altitude, - from a measurement of said sensor while the actuator is inactive, detect a deviation between a value relating to a patient's altitude and a reference value (A1, A2, A3, A4) and - determine, as a function of said deviation, control of the actuator so as to control the fluid pressure in the fluid circuit.
Energy conversion system (100, 205), comprising: - a conversion unit (103, 400, 500, 600, 700, 800) for converting thermal energy into electrical energy, said unit comprising at least one thermal exchange surface (703, 704, 705) for exchanging thermal energy with at least one external thermal source (101, 200, 401, 504, 506), - a thermal inertia unit (104, 402, 501, 502, 507, 508) configured to cooperate with the conversion unit to slow down the return of the conversion unit to a thermal balance upon the exchange of thermal energy, and - at least one first thermal connection element which is a conductor bar in thermal contact with a first thermal exchange surface of the conversion unit, said first element being configured to guide a heat transfer between a first external thermal source and said first thermal exchange surface. - a conversion unit (103, 400, 500, 600, 700, 800) for converting thermal energy into electrical energy, said unit comprising at least one thermal exchange surface (703, 704, 705) for exchanging thermal energy with at least one external thermal source (101, 200, 401, 504, 506), - a thermal inertia unit (104, 402, 501, 502, 507, 508) configured to cooperate with the conversion unit to slow down the return of the conversion unit to a thermal balance upon the exchange of thermal energy, and - at least one first thermal connection element which is a conductor bar in thermal contact with a first thermal exchange surface of the conversion unit, said first element being configured to guide a heat transfer between a first external thermal source and said first thermal exchange surface.