mhurhangee/patent-ind-claim-en huggingface dataset:
A secure computer audio peripheral device comprising: - a microphone ; - at least one lighted indicator capable of providing visual user indication when said microphone is active; - a computer interface for cable connecting the secure computer audio peripheral device to a coupled computer; - a momentary push-button , and; - a switch (9a-f), controllable by the user, and capable of setting said device in a secure state by simultaneously: disabling said microphone ; and turning off said lighted indicator ; and said switch (9a-f) is capable of setting said device in an operational state by simultaneously: enabling transfer of audio data from said microphone to said coupled computer; and turning on said lighted indicator , wherein said switch (9a-f) is configured to be activated by the user through said momentary push-button , characterized in that said switch (9a-f) is configured to be controlled by a time delay, such that when said momentary push-button is activated by the user said switch (9a-f) sets the device in said operational state, and then said switch (9a-f) automatically sets the device in said secure state after predefined time duration to prevent inadvertent prolonged microphone activation. - a microphone ; - at least one lighted indicator capable of providing visual user indication when said microphone is active; - a computer interface for cable connecting the secure computer audio peripheral device to a coupled computer; - a momentary push-button , and; - a switch (9a-f), controllable by the user, and capable of setting said device in a secure state by simultaneously: disabling said microphone ; and turning off said lighted indicator ; and said switch (9a-f) is capable of setting said device in an operational state by simultaneously: enabling transfer of audio data from said microphone to said coupled computer; and turning on said lighted indicator , disabling said microphone ; and turning off said lighted indicator ; and enabling transfer of audio data from said microphone to said coupled computer; and turning on said lighted indicator , wherein said switch (9a-f) is configured to be activated by the user through said momentary push-button , characterized in that said switch (9a-f) is configured to be controlled by a time delay, such that when said momentary push-button is activated by the user said switch (9a-f) sets the device in said operational state, and then said switch (9a-f) automatically sets the device in said secure state after predefined time duration to prevent inadvertent prolonged microphone activation.
Blend comprising: a) granules, wherein said granules comprise naproxen sodium, vitamin B1 and at least one binder. a) granules,
Vacuum cleaner nozzle (N), comprising: an air inlet area (AIA) having a front-end boundary (FEB), the front-end boundary (FEB) having a predetermined number of front openings (FO); and front guide elements (FGE) having a surface at an angle to the front-end boundary (FEB) for guiding dirt towards the front openings (FO), openings left by the front guide elements (FGE) being aligned with the front openings (FO), a width of the openings left by the front guide elements (FGE) not exceeding 300% of a width of the front openings (FO). an air inlet area (AIA) having a front-end boundary (FEB), the front-end boundary (FEB) having a predetermined number of front openings (FO); and front guide elements (FGE) having a surface at an angle to the front-end boundary (FEB) for guiding dirt towards the front openings (FO), openings left by the front guide elements (FGE) being aligned with the front openings (FO), a width of the openings left by the front guide elements (FGE) not exceeding 300% of a width of the front openings (FO).
A feedback information transmission method in a coordinated multipoint multi-stream system formed of N transmission points, comprising a serving transmission point and N-1 coordinated transmission points, wherein the serving transmission point serves a terminal device and wherein the method comprises: receiving (S210), by a terminal device, M data blocks corresponding to control information of N downlink control channels, from the serving transmission point and the N-1 coordinated transmission points, the M data blocks are carried on a same carrier, the same carrier is a frequency domain resource with a specified width, N is a positive integer greater than or equal to 2, and M is a positive integer greater than or equal to 2, and the N pieces of downlink control information are corresponding to the N downlink control channels; and determining (S220), by the terminal device, a target resource; and sending (S230), by the terminal device, to the N transmission points, feedback information comprising ACK/NACK information for the M data blocks on the target resource in a preset format, wherein the preset format is obtained from pre-stored information in the terminal device, such that the feedback information is used to indicate feedback results for different data streams from the N transmission points. receiving (S210), by a terminal device, M data blocks corresponding to control information of N downlink control channels, from the serving transmission point and the N-1 coordinated transmission points, the M data blocks are carried on a same carrier, the same carrier is a frequency domain resource with a specified width, N is a positive integer greater than or equal to 2, and M is a positive integer greater than or equal to 2, and the N pieces of downlink control information are corresponding to the N downlink control channels; and determining (S220), by the terminal device, a target resource; and sending (S230), by the terminal device, to the N transmission points, feedback information comprising ACK/NACK information for the M data blocks on the target resource in a preset format, wherein the preset format is obtained from pre-stored information in the terminal device, such that the feedback information is used to indicate feedback results for different data streams from the N transmission points.
A nanoparticle comprising: a core comprising a metal and/or a semiconductor; and a plurality of ligands covalently linked to the core, wherein said ligands comprise: (i) at least one galactose ligand as a liver-targeting ligand; (ii) at least one maytansinoid DM1 ligand; and (iii) at least one dilution ligand comprising a poly or oligo ethylene glycol chain having a carboxylic acid end group. a core comprising a metal and/or a semiconductor; and a plurality of ligands covalently linked to the core, wherein said ligands comprise: (i) at least one galactose ligand as a liver-targeting ligand; (ii) at least one maytansinoid DM1 ligand; and (iii) at least one dilution ligand comprising a poly or oligo ethylene glycol chain having a carboxylic acid end group. (i) at least one galactose ligand as a liver-targeting ligand; (ii) at least one maytansinoid DM1 ligand; and (iii) at least one dilution ligand comprising a poly or oligo ethylene glycol chain having a carboxylic acid end group.
A system comprising: a first body having an aerodynamic element with a flat-back type airfoil having a cross section in an airflow direction and a flat trailing edge , and a second body having a swallow tail shaped cavity body attached to the flat trailing edge of the aerodynamic element , wherein the swallow tail shaped cavity body comprises a first member having a top surface flush with an upper surface of the aerodynamic element , and a second member having a bottom surface flush with a lower surface of the aerodynamic element , the first member and second member further forming a cavity between them, and wherein the cavity has a non-symmetrical profile, and wherein a length (l 1 ) of the first member in an airflow direction of the aerodynamic element is longer than a length (l 2 ) of the second member in the airflow direction of the aerodynamic element . a first body having an aerodynamic element with a flat-back type airfoil having a cross section in an airflow direction and a flat trailing edge , and a second body having a swallow tail shaped cavity body attached to the flat trailing edge of the aerodynamic element , wherein the swallow tail shaped cavity body comprises a first member having a top surface flush with an upper surface of the aerodynamic element , and a second member having a bottom surface flush with a lower surface of the aerodynamic element , the first member and second member further forming a cavity between them, and wherein the cavity has a non-symmetrical profile, and wherein a length (l 1 ) of the first member in an airflow direction of the aerodynamic element is longer than a length (l 2 ) of the second member in the airflow direction of the aerodynamic element .
Plate heat exchanger with a cover plate , a base plate and heat exchanger plates arranged stack-like between the latter, which plates are soldered to one another peripherally in a fluid-tight manner at the edges , wherein the plate heat exchanger can be connected via the base plate to another component, for example an internal combustion engine, wherein the base plate is formed by at least two plates which are joined together with one another, characterised in that a first plate is designed to be planar and a second plate has elevations , wherein the plates are soldered together flat by means of corresponding soldering seams and in that the second plate and the adjacent heat exchanger plate are soldered to one another almost fully peripherally and linearly, wherein an opening in the area of the soldering forms an inlet/outlet for cooling fluid or fluid to be cooled.
Apparatus for extrusion of sulfur-crosslinkable rubber mixtures, characterized in that the apparatus comprises - at least one IR emitter for heating sulfur-crosslinkable rubber mixtures and - at least one gear pump arranged downstream of the one IR emitter for extrusion of rubber mixtures heated using the one IR emitter, wherein the IR emitter is configured for heating a sulfur-crosslinkable rubber mixture to at least 40°C, characterized in that the apparatus additionally comprises a control unit configured for controlling the temperature of a rubber mixture by means of the IR emitter according to - the propulsive power for rotating the gears of the gear pump and/or - the pressure of the rubber mixture in the gear pump and/or - the pressure variations of the rubber mixture in the gear pump and/or - the weight-per-meter variations of the extruded rubber mixture downstream of the gear pump. zu regeln. - at least one IR emitter for heating sulfur-crosslinkable rubber mixtures and - at least one gear pump arranged downstream of the one IR emitter for extrusion of rubber mixtures heated using the one IR emitter, the IR emitter is configured for heating a sulfur-crosslinkable rubber mixture to at least 40°C, characterized in that the apparatus additionally comprises a control unit configured for controlling the temperature of a rubber mixture by means of the IR emitter according to - the propulsive power for rotating the gears of the gear pump and/or - the pressure of the rubber mixture in the gear pump and/or - the pressure variations of the rubber mixture in the gear pump and/or - the weight-per-meter variations of the extruded rubber mixture downstream of the gear pump. zu regeln. - the propulsive power for rotating the gears of the gear pump and/or - the pressure of the rubber mixture in the gear pump and/or - the pressure variations of the rubber mixture in the gear pump and/or - the weight-per-meter variations of the extruded rubber mixture downstream of the gear pump. zu regeln.
A floor covering comprising: a substrate, and a coating layer comprising a cross-linked polymer formed from a curable coating composition comprising a mixture of: an acrylate-functional polymeric resin; an acrylate-functional oligomer having an acrylate-functionality ranging from two to four; wherein the cross-linked polymer has a glass transition temperature of at least 40 °C and has a cross-link density of at least 0.004 C=C eq/gm as measured from the polymerization of carbon-carbon double bonds in the curable coating composition. a substrate, and a coating layer comprising a cross-linked polymer formed from a curable coating composition comprising a mixture of: an acrylate-functional polymeric resin; an acrylate-functional oligomer having an acrylate-functionality ranging from two to four; an acrylate-functional polymeric resin; an acrylate-functional oligomer having an acrylate-functionality ranging from two to four; wherein the cross-linked polymer has a glass transition temperature of at least 40 °C and has a cross-link density of at least 0.004 C=C eq/gm as measured from the polymerization of carbon-carbon double bonds in the curable coating composition.
A functionalized polymerization initiator comprising the reaction product of an alkyl lithium compound and a compound of formula 1 wherein R 1 is selected from a C1 to a C8 alkyl, aryl or substituted aryl group or is -SiR 3 where R 3 are independently selected from a C1 to a C8 alkyl group; wherein R 2 is selected from a C1 to a C8 alkyl, aryl or substituted aryl group or is -SiR 3 ; and wherein n = 0 to 3.
An unbonded flexible pipe for transportation of fluids, the unbonded flexible pipe has a length along a longitudinal center axis, and a first and a second end, and a first end fitting connected to the first end, the unbonded flexible pipe comprises from inside and out an electrically conductive carcass , an electrically insulating innermost sealing sheath , at least one electrically conductive armor layer comprising at least one helically wound electrically conductive wire and an electrically insulating outer sealing sheath , at least the electrically conductive layers are mechanically terminated in the first end fitting and the pipe comprises electrical connections in the first end fitting arranged to apply a voltage over the electrically conductive layers which electrically conductive layers are electrically connected at a far position of the unbonded flexible pipe at a distance from the first end fitting of the unbonded flexible pipe to provide an electric circuit; wherein the unbonded flexible pipe comprises a temperature sensor; wherein the electrically conductive armor layer comprises at least one of a tensile armor layer or a pressure armor layer and wherein the electrically conductive carcass and the electrically conductive armor layer are selected such that a voltage drop V c over the electrically conductive carcass is larger than a voltage drop V a over the electrically conductive armor layer , preferably V c > 1.5 times V a , such as V c > 2 times V a , such as V c > 5 times V a , such as V c > 10 times V a .
Compound of formula , (AE) a-d-v-y D d A y M 1 b-e M 2 e M 3 v E c-e-y X x+y N e+v Formula where the following applies to the symbols and indices used: AE is selected from the group consisting of Ba or a mixture of Ba and Sr or a mixture of Ba and Ca; D is selected from Eu or a mixture of Eu and Mn, which comprises a maximum of 10 atom-% of Mn with respect to the total amount of AE + Eu + Mn; A is selected from the group consisting of Na, K or mixtures of these elements; M 1 is selected from the group consisting of B, Al, Ga, In, Sc or mixtures of these elements, where M 1 contains Al; M 2 is selected from the group consisting of C, Si, Ge, Sn or mixtures of these elements; M 3 is selected from the group consisting of Y, Lu, La or mixtures of these elements; E is a divalent anion selected from O or mixtures of O and S; X is a monovalent anion selected from F or mixtures of F and Cl; N is a trivalent nitride ion; 0.65 ≤ a ≤ 1 ; 0 ≤ y ≤ 0.1a where a is as defined above; 0 ≤ v ≤ 0.1a where a is as defined above; 10.667 ≤ b ≤ 11.133 ; 17.00 ≤ c ≤ 17.35 ; 0 < d ≤ 1 ; 0 ≤ x ≤ 5 ; 0 ≤ e ≤ 5 ; 0.0584 ≤ a / b ≤ 0.0938 ; 0.0375 ≤ a / c ≤ 0.0588 ; 2 ⁢ a + 3 ⁢ b = 2 ⁢ c + x ; with the proviso that x ≠ 0 and/or y ≠ 0. AE is selected from the group consisting of Ba or a mixture of Ba and Sr or a mixture of Ba and Ca; D is selected from Eu or a mixture of Eu and Mn, which comprises a maximum of 10 atom-% of Mn with respect to the total amount of AE + Eu + Mn; A is selected from the group consisting of Na, K or mixtures of these elements; M 1 is selected from the group consisting of B, Al, Ga, In, Sc or mixtures of these elements, where M 1 contains Al; M 2 is selected from the group consisting of C, Si, Ge, Sn or mixtures of these elements; M 3 is selected from the group consisting of Y, Lu, La or mixtures of these elements; E is a divalent anion selected from O or mixtures of O and S; X is a monovalent anion selected from F or mixtures of F and Cl; N is a trivalent nitride ion;
A computer implemented method of determining a predicted response of a subject to a TNF inhibitor, comprising: calculating a predicted response value from a sample in a subject prior to administration of a TNF inhibitor to the subject, wherein the predicted response value is determined by: (a) an amount of an mRNA sequence corresponding to SEQ ID NO:1 (SPTYD1), present in the sample; and (b) an amount of an mRNA sequence comprising SEQ ID NO:2 (C1orf105), present in the sample; wherein a response value r below 0 indicates that the subject will not respond, and a response value r greater or equal to 0 indicates that a subject will respond, wherein when normalized, the predicted response value is substantially equivalent to the final r calculated in the sequence of operations below: r 02 = ADD r 05 , r 02 r 00 = ADD r 06 , r 01 r 00 = DIV r 02 , r 00 r 01 = SIN r 06 r 00 = SUB r 00 , r 01 r 02 = MOD r 01 . r 00 r 03 = MOD r 04 , r 00 r 00 = SIN r 00 r 00 = ADD r 02 , r 00 r 03 = MUL r 03 , r 03 r 02 = ADD r 06 , r 03 r 03 = DIV r 03 , r 02 r 00 = ADD r 03 , r 00 r 00 = ADD r 03 , r 00 wherein: r is a normalized value of (a); r is a normalized value of (b), r is equal to 5; r is equal to 2; and r is equal to 1. calculating a predicted response value from a sample in a subject prior to administration of a TNF inhibitor to the subject, wherein the predicted response value is determined by: (a) an amount of an mRNA sequence corresponding to SEQ ID NO:1 (SPTYD1), present in the sample; and (b) an amount of an mRNA sequence comprising SEQ ID NO:2 (C1orf105), present in the sample; wherein a response value r below 0 indicates that the subject will not respond, and a response value r greater or equal to 0 indicates that a subject will respond, wherein when normalized, the predicted response value is substantially equivalent to the final r calculated in the sequence of operations below: r 02 = ADD r 05 , r 02 r 00 = ADD r 06 , r 01 r 00 = DIV r 02 , r 00 r 01 = SIN r 06 r 00 = SUB r 00 , r 01 r 02 = MOD r 01 . r 00 r 03 = MOD r 04 , r 00 r 00 = SIN r 00 r 00 = ADD r 02 , r 00 r 03 = MUL r 03 , r 03 r 02 = ADD r 06 , r 03 r 03 = DIV r 03 , r 02 r 00 = ADD r 03 , r 00 r 00 = ADD r 03 , r 00 wherein: r is a normalized value of (a); r is a normalized value of (b), r is equal to 5; r is equal to 2; and r is equal to 1. r is a normalized value of (a); r is a normalized value of (b), r is equal to 5; r is equal to 2; and r is equal to 1.
A method of controlling a wind power installation connected to an electric network having a generator with an aerodynamic rotor with an adjustable rotary speed, in which the wind power installation can be operated at an operating point which is optimum in relation to prevailing wind conditions at an optimum rotary speed, wherein the wind power installation is operated for a transitional period of time or lastingly at a non-optimum operating point at a non-optimum rotary speed and the non-optimum rotary speed is higher than the optimum rotary speed, characterized in that in the full-load mode of operation for a transitional period of time the wind power installation is operated at a rotary speed higher than the nominal rotary speed
A composition comprising a clathrate consisting of a cyclodextrin and an active ingredient, wherein the cyclodextrin and active ingredient clathrate is homogeneously dispersed in a polysaccharide polymer matrix in aqueous solution formed by hyaluronic acid and/or salts thereof and an oligosaccharide derivative of chitosan with lactose, obtained by reductive amination reaction of chitosan D-glucosamine, having a degree of substitution of the amine functional group with lactose of at least 40%.
A combine harvester with a threshing assembly for threshing harvested material which has been picked up to obtain grain, and with a driver assistance system for controlling the threshing assembly , wherein the driver assistance system comprises a memory for storing data and a computing device for processing the data stored in the memory , characterized in that the threshing assembly together with the driver assistance system forms an automated threshing unit , with a plurality of selectable harvesting process strategies being stored in the memory and, in order to implement the respectively selected harvesting process strategy , with the computing device being configured to determine at least one threshing assembly parameter autonomously and specify it to the threshing assembly and wherein, in order to implement the respectively selected harvesting process strategy , the computing device is configured to determine at least one threshing assembly parameter cyclically and to specify it to the threshing assembly , wherein a functional system model for at least a part of the combine harvester is stored in the memory and in that the computing device is configured to carry out the autonomous determination of the at least one threshing assembly parameter based on the system model , and in that the computing device cyclically aligns the system model with the current harvesting process state during an ongoing harvesting operation.
A pharmaceutical composition for use in a method for therapy of a cancer caused by a growth defect of a cancer cell having a mutation in a BRAF gene and the resistance to a BRAF inhibitor, the pharmaceutical composition comprising a cell death inducing agent or cell growth suppressing agent for a cell having a mutation in a BRAF gene, said agent comprising a drug suppressing GST-π as an active ingredient, wherein the drug is a substance selected from the group consisting of RNAi molecules, ribozymes, antisense nucleic acids, DNA/RNA chimera polynucleotides and vectors expressing at least one thereof.
A solid electrolyte comprising: an inorganic lithium ion conductive film; and a porous layer on a surface of the inorganic lithium ion conductive film, wherein the porous layer comprises a first porous layer and a second porous layer, and the second porous layer is disposed between the inorganic lithium ion conductive film and the first porous layer, wherein the first porous layer has a pore size which is greater than a pore size of the second porous layer and wherein the pore size is determined based on a cross-section scanning electron microscopy image. an inorganic lithium ion conductive film; and a porous layer on a surface of the inorganic lithium ion conductive film, wherein the porous layer comprises a first porous layer and a second porous layer, and the second porous layer is disposed between the inorganic lithium ion conductive film and the first porous layer,