mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a network node of re-establishing a connection between a user controller device and a wireless device in a wireless communications network, wherein the wireless device has been corrupted such that it will only accept communications which appear to originate from an attacking controller device , the method comprising: a) obtaining attacker information based on intercepted communications between the wireless device and the attacking controller device , wherein the attacker information can be used to modify communications such that modified communications mimic communications from the attacking controller device ; b) modifying user communications from the user controller device to the wireless device with the attacker information; and c) sending the modified user communications to the wireless device . a) obtaining attacker information based on intercepted communications between the wireless device and the attacking controller device , wherein the attacker information can be used to modify communications such that modified communications mimic communications from the attacking controller device ; b) modifying user communications from the user controller device to the wireless device with the attacker information; and c) sending the modified user communications to the wireless device .
Support station for supporting a conveyor belt of a belt conveyor system, with several support rollers that are held rotatably on a supporting frame, and an anti-trap protection with several anti-trap protection sections , wherein in each case an anti-trap protection section is arranged adjacent to a support roller and at a distance from the conveyor belt, wherein each anti-trap protection section is held on a support , wherein in each case a flexible intermediate section is arranged between ends of two adjacent anti-trap protection sections and connects them flexibly to one another, wherein at least one of the supports is adjustable and thereby the distance of the anti-trap protection section that is held on it from the conveyor belt and a distance of at least one intermediate section from the conveyor belt can be set. several support rollers that are held rotatably on a supporting frame, and an anti-trap protection with several anti-trap protection sections , wherein in each case an anti-trap protection section is arranged adjacent to a support roller and at a distance from the conveyor belt, wherein each anti-trap protection section is held on a support , wherein in each case a flexible intermediate section is arranged between ends of two adjacent anti-trap protection sections and connects them flexibly to one another, wherein at least one of the supports is adjustable and thereby the distance of the anti-trap protection section that is held on it from the conveyor belt and a distance of at least one intermediate section from the conveyor belt can be set.
A production method for pure scandium comprising process steps of: a) obtaining fluorinated salt mixture of scandium in NaScF 4 and Na 3 ScF 6 forms from the scandium compound in (NH 4 ) 2 NaScF 6 form via calcination process, wherein the calcination process of the scandium compound in (NH 4 ) 2 NaScF 6 form, is conducted at 350-400 °C for a duration of 1-3 hours; b) electrolysis process of the obtained fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms via molten salt electrolysis method, wherein the electrolysis process comprises: • heating the fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms, until it is molten to the temperature of 600-1100 °C, • applying an electrical current to the obtained molten salt bath through the anode and the cathode in order to maintain 2-8 volts of potential difference, • obtaining pure scandium metal at the bottom of the electrolysis cell by reducing and separating the Sc +3 ions from the molten salt mixture via this applied electrical current and potential. a) obtaining fluorinated salt mixture of scandium in NaScF 4 and Na 3 ScF 6 forms from the scandium compound in (NH 4 ) 2 NaScF 6 form via calcination process, wherein the calcination process of the scandium compound in (NH 4 ) 2 NaScF 6 form, is conducted at 350-400 °C for a duration of 1-3 hours; b) electrolysis process of the obtained fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms via molten salt electrolysis method, wherein the electrolysis process comprises: • heating the fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms, until it is molten to the temperature of 600-1100 °C, • applying an electrical current to the obtained molten salt bath through the anode and the cathode in order to maintain 2-8 volts of potential difference, • obtaining pure scandium metal at the bottom of the electrolysis cell by reducing and separating the Sc +3 ions from the molten salt mixture via this applied electrical current and potential. • heating the fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms, until it is molten to the temperature of 600-1100 °C, • applying an electrical current to the obtained molten salt bath through the anode and the cathode in order to maintain 2-8 volts of potential difference, • obtaining pure scandium metal at the bottom of the electrolysis cell by reducing and separating the Sc +3 ions from the molten salt mixture via this applied electrical current and potential.
A method for reporting channel state information, CSI, in a wireless communication system, the method performed by a wireless device and comprising: receiving a first uplink grant in a first subframe for indicating that a transmission of a physical uplink shared channel, PUSCH, is triggered by a second uplink grant on a Licensed-Assisted Access, LAA, cell, the first uplink grant further requesting a report of an aperiodic CSI, the first uplink grant including a first timing offset; receiving the second uplink grant in a second subframe for triggering the transmission of the PUSCH on the LAA cell, the second uplink grant including a second timing offset; determining a third subframe in which the PUSCH is to be transmitted based on the first timing offset and the second timing offset; computing the aperiodic CSI based on a valid subframe no later than the first subframe in which the first uplink grant is received; and transmitting the PUSCH in the third subframe on the LAA cell, the PUSCH including the computed aperiodic CSI. receiving a first uplink grant in a first subframe for indicating that a transmission of a physical uplink shared channel, PUSCH, is triggered by a second uplink grant on a Licensed-Assisted Access, LAA, cell, the first uplink grant further requesting a report of an aperiodic CSI, the first uplink grant including a first timing offset; receiving the second uplink grant in a second subframe for triggering the transmission of the PUSCH on the LAA cell, the second uplink grant including a second timing offset; determining a third subframe in which the PUSCH is to be transmitted based on the first timing offset and the second timing offset; computing the aperiodic CSI based on a valid subframe no later than the first subframe in which the first uplink grant is received; and transmitting the PUSCH in the third subframe on the LAA cell, the PUSCH including the computed aperiodic CSI.
A photodetecting device comprising: a semiconductor substrate including a first principal surface and a second principal surface that oppose each other; a plurality of avalanche photodiodes (APD) each including a light receiving region (S1) disposed at the first principal surface side of the semiconductor substrate , the avalanche photodiodes (APD) being arranged in a matrix at the semiconductor substrate , and operating in Geiger mode; and a plurality of through-electrodes (TE) electrically connected to corresponding light receiving regions (S1), and penetrating through the semiconductor substrate in a thickness direction, wherein each of the plurality of through-electrodes (TE) is arranged in a respective area surrounded by four mutually adjacent avalanche photodiodes (APD) of the plurality of avalanche photodiodes (APD), each of the light receiving regions (S1) has, when viewed from a direction perpendicular to the first principal surface (INa), a polygonal shape including a pair of first sides opposing each other in a row direction and extending in a column direction and four second sides opposing four through-electrodes (TE) and extending in directions intersecting with the row direction and the column direction, wherein the four through-electrodes surround the light receiving region, characterized in that the length (G1) of each first side is shorter than the length (G2) of each second side . a semiconductor substrate including a first principal surface and a second principal surface that oppose each other; a plurality of avalanche photodiodes (APD) each including a light receiving region (S1) disposed at the first principal surface side of the semiconductor substrate , the avalanche photodiodes (APD) being arranged in a matrix at the semiconductor substrate , and operating in Geiger mode; and a plurality of through-electrodes (TE) electrically connected to corresponding light receiving regions (S1), and penetrating through the semiconductor substrate in a thickness direction, wherein each of the plurality of through-electrodes (TE) is arranged in a respective area surrounded by four mutually adjacent avalanche photodiodes (APD) of the plurality of avalanche photodiodes (APD), each of the light receiving regions (S1) has, when viewed from a direction perpendicular to the first principal surface (INa), a polygonal shape including a pair of first sides opposing each other in a row direction and extending in a column direction and four second sides opposing four through-electrodes (TE) and extending in directions intersecting with the row direction and the column direction, wherein the four through-electrodes surround the light receiving region,
A medical system , comprising: a display ; a console comprising a plurality of ports configured to be coupled with catheters via respective cables , the catheters having respective first electrical channel profiles, the ports having respective second electrical channel profiles; and processing circuitry configured to: receive user input selecting respective ones of the catheters to be used in a medical procedure; find a connection configuration with which to couple the respective ones of the catheters with ones of the ports via the respective cables , responsively to the respective first electrical channel profiles of the respective ones of the catheters , the respective second electrical channel profiles of the ports , and respective electrical channel profiles of the respective cables ; and render the connection configuration to the display , wherein the cables and the ports are provided with indications; and the processing circuitry is configured to render to the display the connection configuration comprising a mapping between the respective ones of the catheters and respective ones of the indications. a display ; a console comprising a plurality of ports configured to be coupled with catheters via respective cables , the catheters having respective first electrical channel profiles, the ports having respective second electrical channel profiles; and processing circuitry configured to: receive user input selecting respective ones of the catheters to be used in a medical procedure; find a connection configuration with which to couple the respective ones of the catheters with ones of the ports via the respective cables , responsively to the respective first electrical channel profiles of the respective ones of the catheters , the respective second electrical channel profiles of the ports , and respective electrical channel profiles of the respective cables ; and render the connection configuration to the display , receive user input selecting respective ones of the catheters to be used in a medical procedure; find a connection configuration with which to couple the respective ones of the catheters with ones of the ports via the respective cables , responsively to the respective first electrical channel profiles of the respective ones of the catheters , the respective second electrical channel profiles of the ports , and respective electrical channel profiles of the respective cables ; and render the connection configuration to the display , wherein the cables and the ports are provided with indications; and the processing circuitry is configured to render to the display the connection configuration comprising a mapping between the respective ones of the catheters and respective ones of the indications.
A method for observing an object containing a bolus of at least one fluorophore , the method comprising the steps of - providing a set of component signals , - accessing a time series of input frames representing electronically coded still images of the object , each input frame containing at least one observation area , the observation area comprising at least one pixel , wherein the method further comprises the iterative process steps of - automatically determining a fluorescent light intensity (I 1 ) in the observation area of one of the input frames of the time series , the fluorescent light intensity (I) being determined over at least one fluorescence emission wavelength of the fluorophore , - automatically joining the fluorescent light intensity (I 1 ) with the fluorescence light intensities (I n ) of the observation area from preceding input frames of the time series to generate a time sequence of fluorescence light intensities (I 1. I n ) of the observation area - automatically decomposing the times sequence into a combination of at least some component signals of the set . wherein an output frame is generated in which the observation area is assigned a color from a color space depending on the combination of component signals , characterized in that each component signal represents an empirically determined fluorescence intensity development of the fluorophore over time (t) in a type of tissue, in that the method comprises the further iterative process step of automatically providing at least a subset of the component signals in the combination as a new set of component signals , and in that the iterative process steps are carried out while the input frames of the time series are received. - providing a set of component signals , - accessing a time series of input frames representing electronically coded still images of the object , each input frame containing at least one observation area , the observation area comprising at least one pixel , - automatically determining a fluorescent light intensity (I 1 ) in the observation area of one of the input frames of the time series , the fluorescent light intensity (I) being determined over at least one fluorescence emission wavelength of the fluorophore , - automatically joining the fluorescent light intensity (I 1 ) with the fluorescence light intensities (I n ) of the observation area from preceding input frames of the time series to generate a time sequence of fluorescence light intensities (I 1. I n ) of the observation area - automatically decomposing the times sequence into a combination of at least some component signals of the set . each component signal represents an empirically determined fluorescence intensity development of the fluorophore over time (t) in a type of tissue, in that the method comprises the further iterative process step of automatically providing at least a subset of the component signals in the combination as a new set of component signals , and in that the iterative process steps are carried out while the input frames of the time series are received.
A pollution proof acrylic resin comprising: a first structural unit derived from a first acrylic monomer, a second structural unit derived from a second acrylic monomer into which a polysiloxane side chain is introduced, and a third structural unit derived from a third acrylic monomer into which a photo-curable functional group is introduced; wherein the pollution proof acrylic resin is a resultant product obtained by forming an intermediate through solution-polymerization on the first acrylic monomer, the second acrylic monomer, the third acrylic monomer, silicon acrylate, and a polymerization initiator, and mixing the formed intermediate with (meth)acrylic acid and a catalyst to modify an epoxy group of the third structural unit with a photo-curable functional group; and wherein the pollution proof acrylic resin includes 10 wt% to 40 wt% of the first structural unit, 10 wt% to 40 wt% of the second structural unit, and 30 wt% to 70 wt% of the third structural unit. a first structural unit derived from a first acrylic monomer, a second structural unit derived from a second acrylic monomer into which a polysiloxane side chain is introduced, and a third structural unit derived from a third acrylic monomer into which a photo-curable functional group is introduced; wherein the pollution proof acrylic resin is a resultant product obtained by forming an intermediate through solution-polymerization on the first acrylic monomer, the second acrylic monomer, the third acrylic monomer, silicon acrylate, and a polymerization initiator, and mixing the formed intermediate with (meth)acrylic acid and a catalyst to modify an epoxy group of the third structural unit with a photo-curable functional group; and wherein the pollution proof acrylic resin includes 10 wt% to 40 wt% of the first structural unit, 10 wt% to 40 wt% of the second structural unit, and 30 wt% to 70 wt% of the third structural unit.
A hair treatment agent comprising the following components (A) to (D) and water: (A) succinic acid or a salt thereof: 0.1 mass% or more and 2 mass% or less in terms of succinic acid; (B) erythritol: 0.5 mass% or more and 15 mass% or less; (C) at least one aromatic alcohol selected from the group consisting of benzyl alcohol, phenoxyethanol and benzyloxyethanol; and (D) at least one of polyoxyalkylene glycol with an alkylene group having 2 or 3 carbon atoms: 0.01 mass% or more and 5 mass% or less, wherein a mass ratio of component (C) to component (D), (C)/(D), is 0.1 or more and 20 or less. (A) succinic acid or a salt thereof: 0.1 mass% or more and 2 mass% or less in terms of succinic acid; (B) erythritol: 0.5 mass% or more and 15 mass% or less; (C) at least one aromatic alcohol selected from the group consisting of benzyl alcohol, phenoxyethanol and benzyloxyethanol; and (D) at least one of polyoxyalkylene glycol with an alkylene group having 2 or 3 carbon atoms: 0.01 mass% or more and 5 mass% or less, wherein a mass ratio of component (C) to component (D), (C)/(D), is 0.1 or more and 20 or less.
Process for the preparation of a surface of a space launcher cryogenic tank , the tank consisting of at least one wall made of aluminium alloy, the wall consisting of one at least of the following materials: an alloy from series 2000 or 5000 or 7000, in particular an aluminium 7020 alloy, in which at least a part of the surface of the wall is subjected to stripping, characterized in that the stripping comprises stripping by plasma technology, that is to say via a bombardment of the surface with a plasma gas beam of ionized gas, the plasma technology used being an atmospheric pressure plasma, and in that the bombardment of the surface with a plasma gas beam of ionized gas uses a nozzle to deliver the gas beam which is separated from the surface during stripping by a distance (H) of between 5 and 40 mm, the gas beam having a temperature of between 150 and 250°C and in particular 200°C, and in that the plasma beam has a power of between 700 and 1100 watts.
An expandable intervertebral implant , comprising: a superior member configured to engage a superior intervertebral body; an inferior member configured to engage an inferior intervertebral body; and an expansion mechanism disposed between the superior member and the inferior member configured to selectively adjust a vertical separation of the superior member from the inferior member ; wherein the expansion mechanism comprises a proximal wedge structure and a distal wedge structure that are relatively translated between the superior member and the inferior member , wherein the proximal wedge structure and the distal wedge structure are each coupled to the superior member and the inferior member by a plurality of track structures and rail structures , and wherein the track structures of the superior member and the inferior member are offset, particularly staggered, from one another relative to the central axis of the expendable intervertebral implant such that they sit side-by-side when the expandable intervertebral implant is undeployed a superior member configured to engage a superior intervertebral body; an inferior member configured to engage an inferior intervertebral body; and an expansion mechanism disposed between the superior member and the inferior member configured to selectively adjust a vertical separation of the superior member from the inferior member ; wherein the expansion mechanism comprises a proximal wedge structure and a distal wedge structure that are relatively translated between the superior member and the inferior member , wherein the proximal wedge structure and the distal wedge structure are each coupled to the superior member and the inferior member by a plurality of track structures and rail structures , and wherein the track structures of the superior member and the inferior member are offset, particularly staggered, from one another relative to the central axis of the expendable intervertebral implant such that they sit side-by-side when the expandable intervertebral implant is undeployed
Method of producing a heat exchanger, particularly for a motor vehicle, comprising the steps of: S11 preparing a second plate element having an elongated depression configured to limit a fluid channel , and providing a first plate element , S12 applying an adhesive strip such that it delineates or surrounds the depression or a first surface region of the first plate element, wherein the first surface region is arranged and configured to lie opposite the depression when the two plate elements are combined, S13 combining the two plate elements, whereupon the adhesive strip delineates or surrounds the depression, S14 curing the adhesive strip, whereupon an assembly having a cavity is formed, wherein the cavity is limited by the elongated depression, the first surface region and the cured adhesive strip, and the cavity is configured as a fluid channel for guiding a temperature control medium, characterized in that the elongated depression during step S11 is rolled into the second plate element, particularly with a first roll , such that the fluid channel is in meandering form. S11 preparing a second plate element having an elongated depression configured to limit a fluid channel , and providing a first plate element , S12 applying an adhesive strip such that it delineates or surrounds the depression or a first surface region of the first plate element, wherein the first surface region is arranged and configured to lie opposite the depression when the two plate elements are combined, S13 combining the two plate elements, whereupon the adhesive strip delineates or surrounds the depression, S14 curing the adhesive strip, whereupon an assembly having a cavity is formed, wherein the cavity is limited by the elongated depression, the first surface region and the cured adhesive strip, and the cavity is configured as a fluid channel for guiding a temperature control medium, characterized in that the elongated depression during step S11 is rolled into the second plate element, particularly with a first roll , such that the fluid channel is in meandering form.