mhurhangee/patent-ind-claim-en huggingface dataset:
Cosmetic preparation comprising a) one or more UV filters from the group of triazine derivatives, b) titanium dioxide, c) hexyl 2-(4'-(diethylamino)-2'-hydroxybenzoyl)benzoate, d) 2-phenylbenzimidazole-5-sulfonic acid and/or salts thereof, e) one or more oils selected from the group of compounds comprising butylene glycol dicaprylate/dicaprate, phenethyl benzoate, C12-15 alkyl benzoate, dibutyl adipate; diisopropyl benzoate, di-C12-13 alkyl tartrate, butyloctyl salicylate, diethylhexyl syringylidenemalonate, hydrogenated castor oil dimerate, triheptanoin, C12-13 alkyl lactate, C16-17 alkyl benzoate, propylheptyl caprylate, caprylic/capric triglyceride, diethylhexyl 2,6-naphthalate, octyldodecanol, caprylic/capric triglyceride, ethylhexyl cocoate, wherein the preparation is free from ethylhexyl salicylate, 2-ethylhexyl 2-cyano-3,3-diphenylacrylate, homomenthyl salicylate, 2-ethylhexyl 4-methoxycinnamate and 3-(4-methylbenzylidene)camphor, parabens, benzethonium chloride, piroctone olamine, lauroyl arginate, benzoic acid, sorbic acid, methylisothiazolinone, chloromethylisothiazolinone, bronopol, benzalkonium chloride, formaldehyde releasers, salicylic acid, triclosan, dehydroacetic acid, DMDM hydantoin, chlorphenesin, IPBC, characterized in that the preparation comprises ethanol. a) one or more UV filters from the group of triazine derivatives, b) titanium dioxide, c) hexyl 2-(4'-(diethylamino)-2'-hydroxybenzoyl)benzoate, d) 2-phenylbenzimidazole-5-sulfonic acid and/or salts thereof, e) one or more oils selected from the group of compounds comprising butylene glycol dicaprylate/dicaprate, phenethyl benzoate, C12-15 alkyl benzoate, dibutyl adipate; diisopropyl benzoate, di-C12-13 alkyl tartrate, butyloctyl salicylate, diethylhexyl syringylidenemalonate, hydrogenated castor oil dimerate, triheptanoin, C12-13 alkyl lactate, C16-17 alkyl benzoate, propylheptyl caprylate, caprylic/capric triglyceride, diethylhexyl 2,6-naphthalate, octyldodecanol, caprylic/capric triglyceride, ethylhexyl cocoate, wherein the preparation is free from ethylhexyl salicylate, 2-ethylhexyl 2-cyano-3,3-diphenylacrylate, homomenthyl salicylate, 2-ethylhexyl 4-methoxycinnamate and 3-(4-methylbenzylidene)camphor, parabens, benzethonium chloride, piroctone olamine, lauroyl arginate, benzoic acid, sorbic acid, methylisothiazolinone, chloromethylisothiazolinone, bronopol, benzalkonium chloride, formaldehyde releasers, salicylic acid, triclosan, dehydroacetic acid, DMDM hydantoin, chlorphenesin, IPBC, characterized in that the preparation comprises ethanol.
A method, comprising: identifying, by a wireless communication device, a search space set including a plurality of physical downlink control channel, PDCCH, candidate search spaces for a downlink control channel, wherein the search space set is within a control resource set, CORESET; determining, by the wireless communication device, that a preconfigured downlink resource overlaps with the CORESET in a transmission slot; and monitoring, by the wireless communication device, for a downlink control message over the downlink control channel by excluding monitoring for the downlink control message in the entire CORESET within the transmission slot in response to determining that the preconfigured downlink resource overlaps with the CORESET. identifying, by a wireless communication device, a search space set including a plurality of physical downlink control channel, PDCCH, candidate search spaces for a downlink control channel, wherein the search space set is within a control resource set, CORESET; determining, by the wireless communication device, that a preconfigured downlink resource overlaps with the CORESET in a transmission slot; and monitoring, by the wireless communication device, for a downlink control message over the downlink control channel by excluding monitoring for the downlink control message in the entire CORESET within the transmission slot in response to determining that the preconfigured downlink resource overlaps with the CORESET.
A fluororubber composition, comprising: a polyol cross-linkable fluororubber, an aliphatic acid amide, at least one member selected from a phosphoric acid ester, and an aliphatic acid ester, and a polyol cross-linking agent, wherein a total content of the aliphatic acid amide, the phosphoric acid ester and the aliphatic acid ester is set to 0.5 ~ 5.0 parts by mass per the polyol cross-linkable fluororubber of 100 parts by mass. a polyol cross-linkable fluororubber, an aliphatic acid amide, at least one member selected from a phosphoric acid ester, and an aliphatic acid ester, and a polyol cross-linking agent, wherein a total content of the aliphatic acid amide, the phosphoric acid ester and the aliphatic acid ester is set to 0.5 ~ 5.0 parts by mass per the polyol cross-linkable fluororubber of 100 parts by mass.
A method of rendering a scene in a graphics system, the method comprising: identifying a first draw call within a current render ; analysing at least a last shader in a series of shaders used by the first draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to a current fragment location ; and in response to determining that the last shader used by the first draw call does sample from the identified buffers using screen space coordinates that correspond to the current fragment location, adding the first draw call to data relating to the previous render and recompiling the last shader to replace an instruction that reads data from an identified buffer with an instruction that reads data from an on-chip register . identifying a first draw call within a current render ; analysing at least a last shader in a series of shaders used by the first draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to a current fragment location ; and in response to determining that the last shader used by the first draw call does sample from the identified buffers using screen space coordinates that correspond to the current fragment location, adding the first draw call to data relating to the previous render and recompiling the last shader to replace an instruction that reads data from an identified buffer with an instruction that reads data from an on-chip register .
A positive electrode additive for a lithium secondary battery, comprising a lithium metal oxide represented by Formula 1 below: [Formula 1] Li 2+a Ni 1-b-c-d Al b B c M1 d O 2+e (Here, M1 is at least one selected from W, Si, Ga and P, -0.2<a<0.2, 0<b≤0.05, 0<c≤0.05, 0<d≤0.05, and 0≤e≤0.2.) M1 is at least one selected from W, Si, Ga and P, -0.2<a<0.2, 0<b≤0.05, 0<c≤0.05, 0<d≤0.05, and 0≤e≤0.2.)
Compound of formula (I) or a salt, solvate or stereoisomer thereof, wherein one or two of W, X, Y or Z is N, and the remainder of W, X, Y and Z are each CH; or each of W, X, Y and Z is CH; R 1 is H; unsubstituted or substituted alkyl; or halogen; and R 2 is an unsubstituted or substituted, aromatic or non-aromatic heterocyclic ring, wherein the ring comprises from 1 to 4 nitrogen atoms, and wherein it is one of these ring nitrogen atoms of the R 2 group that forms the bond to the rest of formula (I). or a salt, solvate or stereoisomer thereof, wherein one or two of W, X, Y or Z is N, and the remainder of W, X, Y and Z are each CH; or each of W, X, Y and Z is CH; R 1 is H; unsubstituted or substituted alkyl; or halogen; and R 2 is an unsubstituted or substituted, aromatic or non-aromatic heterocyclic ring, wherein the ring comprises from 1 to 4 nitrogen atoms, and wherein it is one of these ring nitrogen atoms of the R 2 group that forms the bond to the rest of formula (I).
A valve including a valve body (to), an inner valve seat and a valve core , wherein the valve core is installed in the valve body , and the inner valve seat is installed in the valve body , wherein the inner valve seat has an annular body and a sealing structure , wherein the sealing structure is arranged such that when the valve is in a closed state, the sealing structure seals and / or fills gaps formed among the valve body , the inner valve seat , and the valve core , wherein the sealing structure extends inwards along the entire inner peripheral surface of the annular body and is provided with an elastic portion and a first sealing portion in sequence, wherein the first sealing portion is configured to press the side of the valve core facing the inner valve seat when the valve is in a closed state, wherein the inner valve seat is further provided with a main sealing portion , wherein the main sealing portion is provided inside a top surface of the annular body and is arranged to abut against the side of the valve core facing the inner valve seat when the valve is in a closed state, and the position where the main sealing portion abuts the valve core is located radially outward compared with the position where the first sealing portion presses the valve core , characterised in that the first sealing portion protrudes from a distal end of the elastic portion toward the valve core , so that the first sealing portion is substantially hook-shaped as viewed in crosssection of the inner valve seat , and in that the first sealing portion protrudes toward the same side of the annular body as the side of the top surface of the annular body. wherein the sealing structure extends inwards along the entire inner peripheral surface of the annular body and is provided with an elastic portion and a first sealing portion in sequence, wherein the first sealing portion is configured to press the side of the valve core facing the inner valve seat when the valve is in a closed state, wherein the inner valve seat is further provided with a main sealing portion , wherein the main sealing portion is provided inside a top surface of the annular body and is arranged to abut against the side of the valve core facing the inner valve seat when the valve is in a closed state, and the position where the main sealing portion abuts the valve core is located radially outward compared with the position where the first sealing portion presses the valve core , characterised in that the first sealing portion protrudes from a distal end of the elastic portion toward the valve core , so that the first sealing portion is substantially hook-shaped as viewed in crosssection of the inner valve seat , and in that the first sealing portion protrudes toward the same side of the annular body as the side of the top surface of the annular body.
An electrosurgical system for treating biological tissue, the system comprising: an electrosurgical generator configured to supply pulsed microwave energy; and an electrosurgical instrument comprising: a flexible coaxial cable arranged to convey the pulsed microwave energy; and a radiating tip portion connected at a distal end of the coaxial cable and configured to receive the pulsed microwave energy, wherein the radiating tip portion has a maximum outer diameter that is 1.0 mm or less, and wherein the maximum outer diameter of the radiating tip portion is smaller than an outer diameter of the coaxial cable, the radiating tip portion comprising: a proximal coaxial transmission line for conveying the pulsed microwave energy; and a distal needle tip mounted at a distal end of the proximal coaxial transmission line, the distal needle tip being arranged to deliver the pulsed microwave energy into biological tissue. an electrosurgical generator configured to supply pulsed microwave energy; and an electrosurgical instrument comprising: a flexible coaxial cable arranged to convey the pulsed microwave energy; and a radiating tip portion connected at a distal end of the coaxial cable and configured to receive the pulsed microwave energy, wherein the radiating tip portion has a maximum outer diameter that is 1.0 mm or less, and wherein the maximum outer diameter of the radiating tip portion is smaller than an outer diameter of the coaxial cable, the radiating tip portion comprising: a proximal coaxial transmission line for conveying the pulsed microwave energy; and a distal needle tip mounted at a distal end of the proximal coaxial transmission line, the distal needle tip being arranged to deliver the pulsed microwave energy into biological tissue. a flexible coaxial cable arranged to convey the pulsed microwave energy; and a radiating tip portion connected at a distal end of the coaxial cable and configured to receive the pulsed microwave energy, wherein the radiating tip portion has a maximum outer diameter that is 1.0 mm or less, and wherein the maximum outer diameter of the radiating tip portion is smaller than an outer diameter of the coaxial cable, the radiating tip portion comprising: a proximal coaxial transmission line for conveying the pulsed microwave energy; and a distal needle tip mounted at a distal end of the proximal coaxial transmission line, the distal needle tip being arranged to deliver the pulsed microwave energy into biological tissue. a proximal coaxial transmission line for conveying the pulsed microwave energy; and a distal needle tip mounted at a distal end of the proximal coaxial transmission line, the distal needle tip being arranged to deliver the pulsed microwave energy into biological tissue.
In vitro use of a biomarker selected from the group consisting of VCAM-1 and ICAM-1 for predicting the outcome of the treatment with aflibercept, of a patient suspected to suffer from a cancer.
A method of receiving a Machine Type Communication, MTC, Physical Downlink Control Channel, MPDCCH, from a base station by a terminal in a wireless communication system, the method comprising: receiving, from the base station, configuration information including relationship between a demodulation reference signal, DMRS, port, and a cell specific reference signal, CRS, port, wherein the relationship is based on a specific precoder matrix of at least one precoder matrix included in a codebook defined for a transmission on the CRS port; receiving, from the base station, the DMRS and control information through the MPDCCH based on the configuration information; performing channel estimation for the MPDCCH based on at least one of the DMRS or CRS; and demodulating the control information based on the channel estimation, wherein the configuration information includes a predefined relationship, or a channel state information-based, CSI-based, relationship, wherein the predefined relationship is configured as a default value, and wherein, based on the configuration information including the CSI-based relationship, the predefined relationship is applied for a common search space. receiving, from the base station, configuration information including relationship between a demodulation reference signal, DMRS, port, and a cell specific reference signal, CRS, port, wherein the relationship is based on a specific precoder matrix of at least one precoder matrix included in a codebook defined for a transmission on the CRS port; receiving, from the base station, the DMRS and control information through the MPDCCH based on the configuration information; performing channel estimation for the MPDCCH based on at least one of the DMRS or CRS; and demodulating the control information based on the channel estimation, wherein the configuration information includes a predefined relationship, or a channel state information-based, CSI-based, relationship, wherein the predefined relationship is configured as a default value, and wherein, based on the configuration information including the CSI-based relationship, the predefined relationship is applied for a common search space.
A method for execution by an application server capable of being accessed by a communication device that is registered with a service provider having a certain domain, the communication device being registered to a customer, the method comprising: receiving a request to execute an application, the request being received from the communication device over a communication channel at least partly not within the domain of the service provider; redirecting the communication device to a first server to obtain an anonymous token from the first server , the first server being within the domain of the service provider; receiving the anonymous token comprising a service-provider-specific subscriber identifier or a random number and lacking information that would allow information regarding the customer to be ascertained by an entity not within the domain of the service provider, from the communication device over the communication channel; providing the token to a second server within the domain of the service provider; and executing the application based on information about the communication device released by the second server in response to the token. receiving a request to execute an application, the request being received from the communication device over a communication channel at least partly not within the domain of the service provider; redirecting the communication device to a first server to obtain an anonymous token from the first server , the first server being within the domain of the service provider; receiving the anonymous token comprising a service-provider-specific subscriber identifier or a random number and lacking information that would allow information regarding the customer to be ascertained by an entity not within the domain of the service provider, from the communication device over the communication channel; providing the token to a second server within the domain of the service provider; and executing the application based on information about the communication device released by the second server in response to the token.
A piezoelectric element having a first electrode layer , a piezoelectric layer , and a second electrode layer stacked in sequence on one another, comprising: a third electrode layer stacked on a part of the second electrode layer, and including third metal; and an insulating layer adapted to cover at least a part not provided with the second electrode layer of the piezoelectric layer, and having an aperture part adapted to expose a part of the second electrode layer, wherein the second electrode layer has a first layer including first metal and a second layer including second metal stacked in sequence on one another, the second layer being exposed in the aperture part, and a difference in standard redox potential between the second metal and the third metal is smaller than a difference in standard redox potential between the first metal and the third metal. a third electrode layer stacked on a part of the second electrode layer, and including third metal; and an insulating layer adapted to cover at least a part not provided with the second electrode layer of the piezoelectric layer, and having an aperture part adapted to expose a part of the second electrode layer, wherein the second electrode layer has a first layer including first metal and a second layer including second metal stacked in sequence on one another, the second layer being exposed in the aperture part, and a difference in standard redox potential between the second metal and the third metal is smaller than a difference in standard redox potential between the first metal and the third metal.
A method for measuring velocity magnitude of a moving airborne vehicle in relation to a surface , the method comprising: transmitting a radar beam from the airborne vehicle, wherein the radar beam is aimed toward the surface ; receiving a plurality of reflected signals over a period of time as the airborne vehicle carries a radar altimeter over the surface , wherein the plurality of reflected signals correspond to portions of the transmitted radar beam that are reflected by at least the same portions of the surface ; applying Doppler filtering to the plurality of reflected signals to form at least two Doppler beams; determining range measurements within each of the at least two Doppler beams, wherein each range measurement is associated with a Doppler frequency of one of the at least two Doppler beams; calculating predicted ranges (Rp) for a previous time interval based on assumed coefficients of a Taylor series expansion of the velocity magnitude from a current time interval; and calculating one or more coefficients of the Taylor series expansion of the velocity magnitude by minimizing an error between the predicted ranges based on the assumed coefficients and the range measurements associated with the Doppler frequencies of the at least two Doppler beams by using a convex minimisation algorithm; wherein the Taylor series expansion is determined to represent the velocity magnitude as a function of time. transmitting a radar beam from the airborne vehicle, wherein the radar beam is aimed toward the surface ; receiving a plurality of reflected signals over a period of time as the airborne vehicle carries a radar altimeter over the surface , wherein the plurality of reflected signals correspond to portions of the transmitted radar beam that are reflected by at least the same portions of the surface ; applying Doppler filtering to the plurality of reflected signals to form at least two Doppler beams; determining range measurements within each of the at least two Doppler beams, wherein each range measurement is associated with a Doppler frequency of one of the at least two Doppler beams; calculating predicted ranges (Rp) for a previous time interval based on assumed coefficients of a Taylor series expansion of the velocity magnitude from a current time interval; and calculating one or more coefficients of the Taylor series expansion of the velocity magnitude by minimizing an error between the predicted ranges based on the assumed coefficients and the range measurements associated with the Doppler frequencies of the at least two Doppler beams by using a convex minimisation algorithm; wherein the Taylor series expansion is determined to represent the velocity magnitude as a function of time.
An aerosol control system for a printer , comprising: a vacuum duct through which air may be sucked away from a printed side of a substrate leaving a print zone; and a pressure duct , distinct from the vacuum duct , through which air may be blown on to the printed side of the substrate leaving the print zone, wherein the pressure duct is positioned downstream, above the print zone, from the vacuum duct and configured to blow air diagonally upstream against a downstream side of the vacuum duct and down toward the substrate, characterized in that the pressure duct is configured such that the whole air flow from the pressure duct is directed directly onto an outer wall of the vacuum duct at the downstream side of the vacuum duct . a vacuum duct through which air may be sucked away from a printed side of a substrate leaving a print zone; and a pressure duct , distinct from the vacuum duct , through which air may be blown on to the printed side of the substrate leaving the print zone, wherein the pressure duct is positioned downstream, above the print zone, from the vacuum duct and configured to blow air diagonally upstream against a downstream side of the vacuum duct and down toward the substrate, characterized in that the pressure duct is configured such that the whole air flow from the pressure duct is directed directly onto an outer wall of the vacuum duct at the downstream side of the vacuum duct .