mhurhangee/ep-ind-claims huggingface dataset:
A compound for use in a method for treating glioblastoma multiforme characterized by O 6 -methylguanine-DNA methyltransferase (MGMT) protein expression and/or MGMT promoter hypomethylation in a patient, wherein the method comprises administering an effective amount of said compound to said patient; wherein said compound is 1-ethyl-7-(2-methyl-6-(1H-1,2,4-triazol-3-yl)pyridin-3-yl)-3,4-dihydropyrazino[2,3-b]pyrazin-2 -one or a pharmaceutically acceptable salt, stereoisomer or tautomer thereof.
An electronic device (101;200;700;800) comprising: a main body that includes at least one electronic component, wherein the at least one electronic component comprises at least one camera sensor; a rotatable body that is rotatably provided in a manner of enclosing at least a region of the main body; a rotation-detecting member (170;214) configured to detect a rotation of the rotatable body; at least one processor configured to cause the electronic device to perform a function based on the detected rotation position or amount; and a functional window located on an outer circumferential face of the rotatable body such that the functional window can be rotated to a position corresponding to the camera sensor, wherein the camera sensor is disposed in a manner of being exposed to the outer circumferential face of the main body in order to perform an imaging function through the functional window, wherein the functional window is transparent, and wherein the processor is further configured to cause a function of the camera sensor corresponding to the functional window to be automatically performed based on the detected rotation position of the rotating body. a main body that includes at least one electronic component, wherein the at least one electronic component comprises at least one camera sensor; a rotatable body that is rotatably provided in a manner of enclosing at least a region of the main body; a rotation-detecting member (170;214) configured to detect a rotation of the rotatable body; at least one processor configured to cause the electronic device to perform a function based on the detected rotation position or amount; and a functional window located on an outer circumferential face of the rotatable body such that the functional window can be rotated to a position corresponding to the camera sensor, wherein the camera sensor is disposed in a manner of being exposed to the outer circumferential face of the main body in order to perform an imaging function through the functional window, wherein the functional window is transparent, and wherein the processor is further configured to cause a function of the camera sensor corresponding to the functional window to be automatically performed based on the detected rotation position of the rotating body.
Method for the combustion of one or more sulfur compounds, preferably of sulfur and/or a sulfur-containing gas, wherein the combustion gas is routed through a combustion device having at least two combustion zones arranged sequentially in flow direction of the combustion gases, wherein in each of the combustion zones, one or more sulfur compounds are injected into the combustion gas, wherein each of the combustion zones is cooled and wherein a heat exchanger used for cooling the reaction gas is arranged downstream of each of the combustion zones, such that the maximum temperature in each of the combustion zones does not exceed a value of 2000°C, characterized in that the nozzles for injecting of one or more sulfur compounds into the combustion zones are cooled from the exterior with a gas having an oxygen concentration of less than the combustion gas entering the combustion device, preferably circulating gas or air, wherein the gas enters the combustion zones and effects a reduction of the oxygen concentration in direct proximity of the nozzle tips.
A method of wireless communication, comprising: receiving, by a first modem operating according to a first radio access technology -RAT-, a message from at least one network entity (104, 108, 110) operating according to the first RAT, wherein the received message is detected by the first modem at a measured energy level; receiving, by the first modem, a subsequent message from one of the at least one network entity (104, 108, 110) or a distinct network entity different from the at least one network entity (104, 108, 110) operating according to the first RAT, sending, from the first modem to a second modem operating according to a second RAT different from the first RAT, a detected energy level value based at least on the measured energy level of the received message, wherein the subsequent message is detected by the first modem at a subsequent measured energy level, and the detected energy level value is determined based on the measured energy level of the received message and the subsequent measured energy level of the subsequent message; and adjusting an energy detection threshold for operation in the second RAT, based on the detected energy level value received from the first modem. receiving, by a first modem operating according to a first radio access technology -RAT-, a message from at least one network entity (104, 108, 110) operating according to the first RAT, wherein the received message is detected by the first modem at a measured energy level; receiving, by the first modem, a subsequent message from one of the at least one network entity (104, 108, 110) or a distinct network entity different from the at least one network entity (104, 108, 110) operating according to the first RAT, sending, from the first modem to a second modem operating according to a second RAT different from the first RAT, a detected energy level value based at least on the measured energy level of the received message, wherein the subsequent message is detected by the first modem at a subsequent measured energy level, and the detected energy level value is determined based on the measured energy level of the received message and the subsequent measured energy level of the subsequent message; and adjusting an energy detection threshold for operation in the second RAT, based on the detected energy level value received from the first modem.
A surface mount security barrier comprising: a plurality of barrier islands arranged in spaced relation to one another, each barrier island comprising: a concrete crash block having at least one pair of opposing side faces (18, 20); external fixing elements at said opposing side faces of the concrete crash block, and one or more load transfer element embedded internally within said concrete crash block; and one or more attachments extending between external fixing elements of adjacent barrier islands wherein, under load, said load transfer elements transfer load through the concrete crash block from the external fixing elements on one side of said concrete crash block to the external fixing elements on the opposing side of said concrete crash block; and characterized in that said attachments are flexible attachments which, in use, extend substantially along the ground between said adjacent barrier islands. a plurality of barrier islands arranged in spaced relation to one another, each barrier island comprising: a concrete crash block having at least one pair of opposing side faces (18, 20); external fixing elements at said opposing side faces of the concrete crash block, and one or more load transfer element embedded internally within said concrete crash block; and one or more attachments extending between external fixing elements of adjacent barrier islands wherein, under load, said load transfer elements transfer load through the concrete crash block from the external fixing elements on one side of said concrete crash block to the external fixing elements on the opposing side of said concrete crash block; and characterized in that said attachments are flexible attachments which, in use, extend substantially along the ground between said adjacent barrier islands.
A railway vehicle for transporting a semi-trailer on rails comprising: - a chassis mounted articulated on bogies arranged on either side of the chassis; - a shell movable in height inside the chassis, said shell being configured to receive a semi-trailer; - an adjustment device for adjusting the height of the shell, characterized in that it also comprises: - means for measuring the distance between the shell and the rails on which the railway vehicle rests; and - means for transmitting a measurement of the distance between the shell and the rails on which the railway vehicle rests to the adjustment device for adjusting the height of the shell. - a chassis mounted articulated on bogies arranged on either side of the chassis; - a shell movable in height inside the chassis, said shell being configured to receive a semi-trailer; - an adjustment device for adjusting the height of the shell, characterized in that it also comprises: - means for measuring the distance between the shell and the rails on which the railway vehicle rests; and - means for transmitting a measurement of the distance between the shell and the rails on which the railway vehicle rests to the adjustment device for adjusting the height of the shell. - means for measuring the distance between the shell and the rails on which the railway vehicle rests; and - means for transmitting a measurement of the distance between the shell and the rails on which the railway vehicle rests to the adjustment device for adjusting the height of the shell.
A method of manufacturing a semiconductor light emitting device, the method comprising: forming a semiconductor layer on a substrate, the semiconductor layer including a light emitting layer; forming electrodes (16, 17) on the semiconductor layer; forming a groove in the semiconductor layer, the groove having a depth capable of reaching the substrate, the groove separating the semiconductor layer into a plurality of chips; forming a first insulating film over the semiconductor layer, the first insulating film covering an inside of the groove; removing the substrate to expose the semiconductor layer and the first insulating layer surrounding each of the plurality of chips, forming an inorganic film on the semiconductor layer and the first insulating layer, the inorganic film being in contact with the first insulating film; forming a resin layer over the inorganic film; and cutting the first insulating film, the inorganic film and the resin layer at the groove to separate the semiconductor layer into a plurality of devices, the plurality of devices each including at least one chip of the plurality of chips. forming a semiconductor layer on a substrate, the semiconductor layer including a light emitting layer; forming electrodes (16, 17) on the semiconductor layer; forming a groove in the semiconductor layer, the groove having a depth capable of reaching the substrate, the groove separating the semiconductor layer into a plurality of chips; forming a first insulating film over the semiconductor layer, the first insulating film covering an inside of the groove; removing the substrate to expose the semiconductor layer and the first insulating layer surrounding each of the plurality of chips, forming an inorganic film on the semiconductor layer and the first insulating layer, the inorganic film being in contact with the first insulating film; forming a resin layer over the inorganic film; and cutting the first insulating film, the inorganic film and the resin layer at the groove to separate the semiconductor layer into a plurality of devices, the plurality of devices each including at least one chip of the plurality of chips.
A computer- implemented method (200; 300) for training a denoising model, the method comprising: converting (P201; P301) design patterns (DP11, DP12, DPn) to a first set of simulated clean SEM images (201; 301; S1, S2, Sn) of patterned substrates (PSub, 90, W) based on the design patterns, wherein the design patterns are in Graphic Data Signal file format; training (P203; P305) the denoising model based on the first set of simulated clean SEM images and an image noise added in the simulated clean SEM images, morse; wherein the denoising model is operable to generate a denoised SEM image (811, 812) of an input SEM image (801, 802); and updating the denoising model based on captured patterned substrate SEM images (205; 710), included in the training data wherein the number of captured patterned substrate SEM images is less than the number of simulated clean SEM images. converting (P201; P301) design patterns (DP11, DP12, DPn) to a first set of simulated clean SEM images (201; 301; S1, S2, Sn) of patterned substrates (PSub, 90, W) based on the design patterns, wherein the design patterns are in Graphic Data Signal file format; training (P203; P305) the denoising model based on the first set of simulated clean SEM images and an image noise added in the simulated clean SEM images, morse; wherein the denoising model is operable to generate a denoised SEM image (811, 812) of an input SEM image (801, 802); and updating the denoising model based on captured patterned substrate SEM images (205; 710), included in the training data wherein the number of captured patterned substrate SEM images is less than the number of simulated clean SEM images.
A carbon-fiber-reinforced resin composition comprising a carbon fiber not containing a sizing agent and exhibiting 0.3 mmol/g or more of total amount of acidic functional groups on a carbon fiber surface measured by Boehm titration method or 0.02 mmol/g or more of amount of carboxyl groups on a carbon fiber surface measured by Boehm titration method and a thermoplastic resin and/or a thermosetting resin; wherein the resin composition comprises 5 to 95 mass% of a carbon fiber and 5 to 95 mass% of a thermoplastic resin and/or a thermosetting resin on the basis of a total amount of the carbon fiber and the thermoplastic resin and/or a thermosetting resin as 100 mass%.
A method for calibration in an agricultural harvesting machine, wherein the harvesting machine has a container for accommodating crop, a fill level sensor assembly for the detection of an upper fill level and a lower fill level in the container, a transport assembly for conveying a flow of crop associated with the container and a crop flow sensor assembly for measuring a volume of the crop flow, wherein the crop flow sensor assembly is calibrated on the basis of the detection of the upper fill level and of the lower fill level, characterized in that the container has a linear fill level region and a non-linear fill level region, wherein in the linear fill level region, the fill level volume varies linearly with a fill level height and wherein in the non-linear fill level region, the fill level volume varies non-linearly with the fill level height and wherein the upper fill level and the lower fill level are located in the linear fill level region.
Protective device for a hydraulic or pneumatic system, which system comprises a hydraulic or pneumatic actuator and a tank for storing hydraulic fluid or a gas, having a securing element, having a pressure line and having a pressure equalization element which comprises at least one pressure equalization valve, wherein - the actuator is couplable by means of the securing element and the pressure line to the tank, - the securing element comprises at least one valve which is open during normal operation and which, if a defined pressure difference by which a pressure of the hydraulic fluid or the gas within the actuator is greater than a pressure within a portion, close to the tank, of the pressure line is attained, closes off a passage between the actuator and the tank, and - the pressure equalization element is fluidically at least indirectly coupled to a connection, intended for coupling to the actuator, of the securing element, characterized by - a pressure equalization line with a line coupling structure (11.1), - an element coupling structure (10.1) which is arranged on the pressure equalization element and which is complementary to said line coupling structure (11.1), and - a pressure-line coupling structure which is arranged on a connection, intended for coupling to the pressure line, of the securing element and which is configured for fluidic coupling of the pressure line to a further line coupling structure (11.2) which is arranged on an end of the pressure equalization line that is remote from the line coupling structure (11.1). - the actuator is couplable by means of the securing element and the pressure line to the tank, - the securing element comprises at least one valve which is open during normal operation and which, if a defined pressure difference by which a pressure of the hydraulic fluid or the gas within the actuator is greater than a pressure within a portion, close to the tank, of the pressure line is attained, closes off a passage between the actuator and the tank, and - the pressure equalization element is fluidically at least indirectly coupled to a connection, intended for coupling to the actuator, of the securing element, - a pressure equalization line with a line coupling structure (11.1), - an element coupling structure (10.1) which is arranged on the pressure equalization element and which is complementary to said line coupling structure (11.1), and - a pressure-line coupling structure which is arranged on a connection, intended for coupling to the pressure line, of the securing element and which is configured for fluidic coupling of the pressure line to a further line coupling structure (11.2) which is arranged on an end of the pressure equalization line that is remote from the line coupling structure (11.1).
Universal air-tight compatible coffee capsule, made as a single body, comprising a tubular body whose top opening is closed on the top edges by a closure septum and on the lower part there is a capsule bottom and at the centre of the bottom there is, over a step projecting outwards with respect to the bottom, an opening area that is opened by the opening devices of the dispensing machine, characterised in that there is a non-woven fabric filter inside the capsule close to the bottom, whose grammage is between 40 and 200 gr/sqm and the thickness of which is between 0.1 and 0.9 mm, where said filter is distanced from the bottom by a series of evenly spaced spacers.
Cooling device of an electronic self-heating component, comprising the electronic component with a heat conducting surface to dissipate heat and electrical connection pins, an electrical circuit board having two mutually opposite surface sides (61, 62) with connection points which are connected to the electrical connection pins, a thermal cooling element with a cooling surface which lies against the heat conducting surface, and a bearing body on which the circuit board is mounted, wherein the cooling device comprises a clamping device with mutually facing clamping surfaces (71, 72) arranged on the bearing body, wherein at least one first clamping surface is arranged in front of the one first surface side of the circuit board, and at least one second clamping surface is arranged in front of the other second surface side of the circuit board such that the circuit board extends between the clamping surfaces (71, 72), wherein the cooling element and the electronic component, with mutually contacting cooling surface and heat conducting surface in clamp assembly, are inserted clamped between the first clamping surface and the second associated clamping surface, wherein the circuit board has a penetration recess forming a spatial passage for the clamp connection, and wherein the clamp connection comprises a head side assigned to the penetration recess and to the first clamping surface, and a foot side assigned to the second clamping surface and formed at least by part of the cooling element.
Sandwich plate having a core structure, in particular having a honeycomb-shaped core structure, and plane-parallel cover layers (21, 25) that are applied to both sides of this core structure, to form a floor surface in a fuselage of an aircraft, wherein the core structure comprises at least one recess into which at least one reinforcing structure (1, 11, 18) is integrated, characterized in that the at least one reinforcing structure (1, 11, 18) is formed with at least one core (2, 12), wherein the core (2, 12) comprises at least one cut-out into which a stopper (8, 10) is introduced and it is possible to introduce at least one fastening element into said stopper so as to connect at least one further component to the sandwich plate, and wherein a plurality of prepreg strips is wrapped about the core (2, 12), the fibres of said prepreg strips being oriented in each case in a uniform direction.
A process for depositing a silicon-containing film characterized in that an aminosilane precursor is used comprising the following formula: (R 1 R 2 N) n SiR 3 4-n wherein substituents R 1 and R 2 are each independently chosen from an alkyl group comprising from 1 to 20 carbon atoms and an aryl group comprising from 6 to 30 carbon atoms, wherein the substituents R 1 and R 2 can be connected to form a ring structure, wherein at least one of substituents R 1 and R 2 comprises at least one electron withdrawing substituent chosen from F, Cl, Br, I, CN, NO 2, PO 2, OR, RCOO, SO 2 R and COOH and wherein R in the at least one electron withdrawing substituent is chosen from an alkyl group or an aryl group, R 3 is chosen from H, an alkyl group comprising from 1 to 20 carbon atoms, or an aryl group comprising from 6 to 12 carbon atoms, wherein any one of, or all of R, R 1 and R 2 can be substituted and R 3 can be substituted when it is an alkyl group or an aryl group, and n is a number ranging from 1 to 4 and wherein the aminosilane precursor does not comprise the following formula: A n SiR 4 4-n wherein A is R 4 is chosen from an alkyl group comprising from 1 to 20 carbon atoms or an aryl group comprising from 6 to 12 carbon atoms, and n is a number ranging from 1 to 4.
Handle holder device for holding the handles of cleaning tools comprising a handle or a tubular profile of an upright and consisting of a single piece comprising: a first part, said support element on which rests a handle of a generic cleaning tool or the tubular profile of an upright; said support element surrounds only in part a longitudinal section of the outer surface of a handle or of an upright, and is defined at its longitudinal ends with a first end equipped with hooking devices for engaging a second part, said connection union, and a second end, opposite the first end, joined to a third part, said elastic retention element, which extends in an orthogonal direction to the main axis of the handle or of the tubular section of the upright, flexible and elastic, to completely surround, together with the support element a longitudinal section of the circumferential and/or peripheral surface of the handle or the tubular section of the upright, where the second end of said elastic element, on the part opposite that of the connection with the support element, is joined solidly to the connection union, said support element has a hook on the outside for connecting to said handle holder in its repositioning and taking from an external support.
A delayed gelling composition comprising: a) a delayed gelling agent comprising a polyelectrolyte complex nanoparticle comprising a polyethylenimine of less than 26,000 Da and a sodium polyacrylate of less than 10,000 Da intimately associated with at least one multivalent cation crosslinker, said nanoparticle having a size of less than one micron; b) partially hydrolyzed polyacrylamide; and c) a fluid. a) a delayed gelling agent comprising a polyelectrolyte complex nanoparticle comprising a polyethylenimine of less than 26,000 Da and a sodium polyacrylate of less than 10,000 Da intimately associated with at least one multivalent cation crosslinker, said nanoparticle having a size of less than one micron; b) partially hydrolyzed polyacrylamide; and c) a fluid.