mhurhangee/patent-ind-claim-en huggingface dataset:
A non-aqueous electrolyte solution comprising: an additive for non-aqueous electrolyte solutions comprising a compound represented by Formula , wherein in Formula , X represents a sulfonyl group, R 1 represents an alkyl group having 1 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an alkenyl group having 2 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an alkynyl group having 2 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an aryl group wherein each hydrogen may be substituted with a halogen atom, an alkoxy group having 1 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an alkenyloxy group having 2 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an alkynyloxy group having 2 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, or an aryloxy group wherein each hydrogen may be substituted with a halogen atom; a non-aqueous solvent; and an electrolyte, wherein the electrolyte includes a lithium salt. an additive for non-aqueous electrolyte solutions comprising a compound represented by Formula , wherein in Formula , X represents a sulfonyl group, R 1 represents an alkyl group having 1 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an alkenyl group having 2 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an alkynyl group having 2 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an aryl group wherein each hydrogen may be substituted with a halogen atom, an alkoxy group having 1 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an alkenyloxy group having 2 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, an alkynyloxy group having 2 to 4 carbon atoms wherein each hydrogen may be substituted with a halogen atom, or an aryloxy group wherein each hydrogen may be substituted with a halogen atom; a non-aqueous solvent; and an electrolyte, wherein the electrolyte includes a lithium salt.
An optical imaging lens , in order from an object side to an image side along an optical axis (Z), formed by eight lenses, comprising: a first lens (L1) having positive refractive power; a second lens (L2) having positive refractive power; a third lens (L3) having negative refractive power, wherein the second lens (L2) and the third lens (L3) are adhered to form a compound lens (C2) with positive refractive power; an aperture (ST); a fourth lens (L4) having negative refractive power; a fifth lens (L5) having positive refractive power, wherein the fourth lens (L4) and the fifth lens (L5) are adhered to form a compound lens (C3); and a sixth lens (L6) having positive refractive power; a seventh lens (L7) having positive refractive power; and an eighth lens (L8) having negative refractive power; wherein the optical imaging lens satisfies: 1.47>F/f1>0.14; 1.55>F/f6>0.46; -0.42>F/f8>-1.86; 1.26>F/f23≥0.76 1.07>F/f7≥0.53; F is a focal length of the optical imaging lens ; f1 is a focal length of the first lens (L1); f6 is a focal length of the sixth lens (L6); f8 is a focal length of the eighth lens (L8); f23 is a focal length of the compound lens (C2) formed by the second lens (L2) and the third lens (L3); f7 is a focal length of the seventh lens (L7). a first lens (L1) having positive refractive power; a second lens (L2) having positive refractive power; a third lens (L3) having negative refractive power, wherein the second lens (L2) and the third lens (L3) are adhered to form a compound lens (C2) with positive refractive power; an aperture (ST); a fourth lens (L4) having negative refractive power; a fifth lens (L5) having positive refractive power, wherein the fourth lens (L4) and the fifth lens (L5) are adhered to form a compound lens (C3); and a sixth lens (L6) having positive refractive power; a seventh lens (L7) having positive refractive power; and an eighth lens (L8) having negative refractive power; wherein the optical imaging lens satisfies: 1.47>F/f1>0.14; 1.55>F/f6>0.46; -0.42>F/f8>-1.86; 1.26>F/f23≥0.76 1.07>F/f7≥0.53; F is a focal length of the optical imaging lens ; f1 is a focal length of the first lens (L1); f6 is a focal length of the sixth lens (L6); f8 is a focal length of the eighth lens (L8); f23 is a focal length of the compound lens (C2) formed by the second lens (L2) and the third lens (L3); f7 is a focal length of the seventh lens (L7).
A mechanical or electromechanical device (DBT) configured to carry out a test of the "bulge test" type of deformation of a material sample, the device (DBT) comprising a piston and/or an input bar , a cell (CEL), in turn comprising a chamber configured to contain a liquid, a die element for holding said sample called "blank" to be deformed, - said cell (CEL) having a mass greater than a predetermined threshold value, - the device (DBT) being devoid of a mechanical element of the extending bar type adapted to transmit all or part of the energy received by propagation of a force and/or a shock wave through said liquid and distributed over said blank, in a longitudinal continuation of said chamber , and on the opposite side of the chamber relative to said piston and/or to said input bar , said device (DBT) being characterised in that : said cell (CEL) is integral with at least one bearing element adapted to put pressure on a damper configured to absorb part of the energy received via said piston and/or said input bar . - said cell (CEL) having a mass greater than a predetermined threshold value, - the device (DBT) being devoid of a mechanical element of the extending bar type adapted to transmit all or part of the energy received by propagation of a force and/or a shock wave through said liquid and distributed over said blank, in a longitudinal continuation of said chamber , and on the opposite side of the chamber relative to said piston and/or to said input bar ,
An exhaust gas purification controller for an engine, comprising an NO x catalyst provided on an exhaust gas passage of the engine, and configured to occlude NO x in an flowing-in exhaust gas in a state wherein an air-fuel ratio of the flowing-in exhaust gas is leaner than a stoichiometric air-fuel ratio and to reduce the occluded NO x to N 2 in a state wherein the air-fuel ratio of the flowing-in exhaust gas is richer than the stoichiometric air-fuel ratio, an NO x catalyst regenerator configured to control a fuel injection valve in the engine in order to make the air-fuel ratio of the exhaust gas flowing into the NO x catalyst richer, an SCR catalyst provided on the exhaust gas passage downstream the NO x catalyst , and configured to purify NO x by a reaction with NH 3 , an NH 3 supplier configured to supply NH 3 or a raw material for NH 3 to the SCR catalyst and cause the SCR catalyst to absorb the NH 3 or the raw material for NH 3 , an NH 3 supply amount controller configured to control a supply amount of the NH 3 or the raw material for NH 3 to the SCR catalyst by the NH 3 supplier , and an exhaust-gas flow amount detector configured to detect or estimate a flow amount of the exhaust gas, wherein the NH 3 supply amount controller is configured to reduce the supply amount of the NH 3 or the raw material for NH 3 to the SCR catalyst by the NH 3 supplier when the NO x catalyst regenerator has performed an NO x catalyst regeneration, compared with when the NO x catalyst regenerator has not performed the NO x catalyst regeneration, characterized in that the exhaust gas purification controller is configured such that the supply amount of the NH 3 or the raw material for NH 3 controlled by the NH 3 supply amount controller is set smaller when the flow amount of the exhaust gas detected or estimated by the exhaust-gas flow amount detector is larger.
An apparatus for degassing liquids comprising a degassing system, wherein the degassing system has a first degassing chamber , a second degassing chamber , a liquid store , a pump , and a supply line that connects the liquid store to the first degassing chamber , wherein the pump is connected to the first degassing chamber at the intake side and to the second degassing chamber (11 0b) at the pressure side, wherein the degassing system furthermore has a return line that can be cut off and that connects the two degassing chambers to one another, and wherein the apparatus comprises a controller that is configured to operate the degassing system in a first operating mode and in a second operating mode, wherein the degassing system is connected in the first operating mode such that the pump conducts liquid away from the first degassing chamber and supplies it to a removal unit for degassed liquid, characterized in that the degassing system is connected in the second operating mode such that liquid is returned from the second to the first degassing chamber through the return line .
A process for treating WWTP sludge comprising the steps of, feeding pre-thickened or dewatered WWTP sludge at 12-20%TS to an anaerobic digester, wherein TS is the total solid concentration; operating the anaerobic digester at 6-12% TS without recuperative thickening; adding nutrients to the digester in an amount effective to alleviate ammonia toxicity; and, dewatering digestate in two stages, wherein the first dewatering stage is performed without polymer, and the liquid fraction from the first dewatering stage is treated in the second dewatering stage with polymer. operating the anaerobic digester at 6-12% TS without recuperative thickening; adding nutrients to the digester in an amount effective to alleviate ammonia toxicity; and, dewatering digestate in two stages, wherein the first dewatering stage is performed without polymer, and the liquid fraction from the first dewatering stage is treated in the second dewatering stage with polymer.
A method of communication for an apparatus , comprising: obtaining first channel state information for a first wireless communication link ; obtaining second channel state information for a second wireless communication link ; determining that a feedback signal is to be based on the first channel state information and the second channel state information , wherein the determination is based on whether a first antenna sub-array for the first wireless communication link is within a threshold distance of a second antenna sub-array for the second wireless communication link ; and generating the feedback signal based on the first channel state information and the second channel state information . obtaining first channel state information for a first wireless communication link ; obtaining second channel state information for a second wireless communication link ; determining that a feedback signal is to be based on the first channel state information and the second channel state information , wherein the determination is based on whether a first antenna sub-array for the first wireless communication link is within a threshold distance of a second antenna sub-array for the second wireless communication link ; and generating the feedback signal based on the first channel state information and the second channel state information .
A semiconductor device for infrared detection, comprising a stack of a first semiconductor layer , a second semiconductor layer and an optical coupling layer , wherein: - the first semiconductor layer has a first type of conductivity and the second semiconductor layer has a second type of conductivity, wherein the first and second semiconductor layers are arranged as pn-junction such that a depletion region or space charge region is formed between the layers, - the optical coupling layer is arranged on a main surface of the second semiconductor layer and comprises an optical coupler and two lateral absorber regions , which flank the optical coupler , - the optical coupler further comprises two output sides which are coupled to and facing the lateral absorber regions , respectively, and is configured to deflect incident light towards the two lateral absorber regions , and - the lateral absorber regions comprise an absorber material with a bandgap E g in the infrared, IR, smaller in value than the bandgap for Silicon of E g = 1.1 eV and comprises a strained Silicon Germanium, Si-Ge, alloy. - the first semiconductor layer has a first type of conductivity and the second semiconductor layer has a second type of conductivity, wherein the first and second semiconductor layers are arranged as pn-junction such that a depletion region or space charge region is formed between the layers, - the optical coupling layer is arranged on a main surface of the second semiconductor layer and comprises an optical coupler and two lateral absorber regions , which flank the optical coupler , - the optical coupler further comprises two output sides which are coupled to and facing the lateral absorber regions , respectively, and is configured to deflect incident light towards the two lateral absorber regions , and - the lateral absorber regions comprise an absorber material with a bandgap E g in the infrared, IR, smaller in value than the bandgap for Silicon of E g = 1.1 eV and comprises a strained Silicon Germanium, Si-Ge, alloy.
Driving mechanism for use in a movement of a timepiece and comprising a first driving mobile suitable for being driven in rotation by the movement of the timepiece, a finger pivotably mounted on said first driving mobile and suitable for cooperating with a second mobile , a pin driven into the first driving mobile and arranged so that, when said first driving mobile turns in a first direction, the pin comes to abut against the finger which can then drive the second mobile , characterised in that the mechanism also comprises a spring strip , formed as one piece with or attached to said finger , said spring strip being shaped such that, when the first driving mobile turns in the first direction, the finger drives the second mobile without deforming or constraining the spring strip ; and such that, when the first driving mobile turns in a second direction opposite to first, the spring strip cooperates with the pin so that the finger , coming into contact with the second mobile , pivots without driving said second mobile , the spring strip also being shaped to keep the finger in a position in which it can resume driving of the second mobile when the first driving mobile resumes its rotation in the first direction.
Extraction connection system for portable machine tools , which is provided to connect a portable machine tool and a dust extraction device for extracting abrasion dust arising during a machining of a workpiece by means of the portable machine tool , comprising at least one tool connection element (14a; 14b; 14c; 14d), comprising at least one suction apparatus connection element (16a; 16b; 16c, 16d) which is in the form of a suction-apparatus-side connecting branch, wherein the tool connection element (14a; 14b; 14c; 14d) and the suction apparatus connection element (16a; 16b; 16c, 16d) are provided to be connected to each other, and comprising at least one fixing unit (24a; 24a'; 24b; 24c; 24d), which comprises at least one movably mounted fixing element (18a; 18a'; 18b, 20b, 22b; 18c; 18d), for fixing the tool connection element (14a; 14b; 14c; 14d) and the suction apparatus connection element (16a; 16b; 16c, 16d) against a movement relative to each other in at least one direction, characterized in that the tool connection element (14a; 14b; 14c; 14d) is in the form of a tool-side connecting branch and in that the fixing element (18a; 18a'; 18b, 20b, 22b; 18c; 18d) is in the form of a closed circular ring.
An antenna block comprising: a port located on a bottom surface of the antenna block; a two-dimensional antenna array (702A-B, 722A-B) located on a top surface of the antenna block; a set of waveguides in the antenna block configured to couple the two-dimensional antenna array to the port; and at least one parasitic surface wave radiator (704A-F, 724A-F, 744A-F), wherein the at least one parasitic surface wave radiator is located on the top surface of the antenna block. a port located on a bottom surface of the antenna block; a two-dimensional antenna array (702A-B, 722A-B) located on a top surface of the antenna block; a set of waveguides in the antenna block configured to couple the two-dimensional antenna array to the port; and at least one parasitic surface wave radiator (704A-F, 724A-F, 744A-F), wherein the at least one parasitic surface wave radiator is located on the top surface of the antenna block.
An embedded touch display device, comprising: a first substrate and a second substrate which are opposite to each other; and a liquid crystal display unit and a capacitive touch unit disposed between the first substrate and the second substrate , wherein the liquid crystal display unit comprises a pixel electrode layer , a common electrode layer and a liquid crystal layer , wherein the pixel electrode layer and the common electrode layer are disposed on two sides of the liquid crystal layer respectively, and wherein the liquid crystal in the liquid crystal layer comprises a ferroelectric liquid crystal material, wherein the common electrode layer comprises a plurality of parallel common electrodes , and wherein the capacitive touch unit comprises: a plurality of parallel driving electrodes crossing the common electrodes or a plurality of parallel sensing electrodes crossing the common electrodes, characterized in that , the liquid crystal in the liquid crystal layer comprises Semi-V shaped ferroelectric liquid crystals, which are obtained by performing asymmetrical anchoring on the ferroelectric liquid crystal. a first substrate and a second substrate which are opposite to each other; and a liquid crystal display unit and a capacitive touch unit disposed between the first substrate and the second substrate , wherein the liquid crystal display unit comprises a pixel electrode layer , a common electrode layer and a liquid crystal layer , wherein the pixel electrode layer and the common electrode layer are disposed on two sides of the liquid crystal layer respectively, and wherein the liquid crystal in the liquid crystal layer comprises a ferroelectric liquid crystal material, wherein the common electrode layer comprises a plurality of parallel common electrodes , and wherein the capacitive touch unit comprises: a plurality of parallel driving electrodes crossing the common electrodes or a plurality of parallel sensing electrodes crossing the common electrodes, characterized in that , the liquid crystal in the liquid crystal layer comprises Semi-V shaped ferroelectric liquid crystals, which are obtained by performing asymmetrical anchoring on the ferroelectric liquid crystal.
Method for analysing and monitoring interfering movements of an inertial unit of an aircraft during a static alignment phase of said inertial unit , such that, during the said static alignment phase of said inertial unit , said method carries out the following steps: - an acquisition of displacement measurements of said aircraft with respect to the ground, provided by a displacement sensor of the aircraft , and - an estimate of the states of a mirror process in which the model is simplified and/or approximated with respect to the model of a static alignment process of said inertial unit used during the static alignment phase, said estimate of said states of said mirror process being carried out using observations consisting of said displacement measurements. - an acquisition of displacement measurements of said aircraft with respect to the ground, provided by a displacement sensor of the aircraft , and - an estimate of the states of a mirror process in which the model is simplified and/or approximated with respect to the model of a static alignment process of said inertial unit used during the static alignment phase, said estimate of said states of said mirror process being carried out using observations consisting of said displacement measurements.
An alarm management system comprising: an alarm management apparatus; a monitoring terminal; and a controller; wherein the alarm management apparatus is configured to generate an alarm based on information received from the controller or receive an alarm from the controller; receive information related to a filtering condition from the monitoring terminal; perform filtering on the alarm based on the filtering condition; and transmit the alarm subjected to the filtering to the monitoring terminal, wherein based on a comparison between a new alarm and an old alarm, the alarm management apparatus is configured to identify updated information among information included in the new alarm, and wherein the monitoring terminal is configured to: acquire only the updated information among information included in the new alarm from the alarm management apparatus, generate the new alarm by overwriting only the updated information among the information included in the old alarm, and present the generated alarm to an operator. an alarm management apparatus; a monitoring terminal; and a controller; wherein the alarm management apparatus is configured to generate an alarm based on information received from the controller or receive an alarm from the controller; receive information related to a filtering condition from the monitoring terminal; perform filtering on the alarm based on the filtering condition; and transmit the alarm subjected to the filtering to the monitoring terminal, generate an alarm based on information received from the controller or receive an alarm from the controller; receive information related to a filtering condition from the monitoring terminal; perform filtering on the alarm based on the filtering condition; and transmit the alarm subjected to the filtering to the monitoring terminal, wherein based on a comparison between a new alarm and an old alarm, the alarm management apparatus is configured to identify updated information among information included in the new alarm, and wherein the monitoring terminal is configured to: acquire only the updated information among information included in the new alarm from the alarm management apparatus, generate the new alarm by overwriting only the updated information among the information included in the old alarm, and present the generated alarm to an operator. acquire only the updated information among information included in the new alarm from the alarm management apparatus, generate the new alarm by overwriting only the updated information among the information included in the old alarm, and present the generated alarm to an operator.
A method for allocating frequency resources for at least two wireless devices in a cell of a wireless communication network, wherein semi-persistent scheduling, SPS, transmissions and automatic retransmissions are applied for the at least two wireless devices, and wherein a time difference between an SPS transmission and a first automatic retransmission related to the SPS transmission is determined by a round trip time value, the method being performed in a radio base station serving the cell, and the method comprising: - determining at least two different sets of frequency resources for the SPS transmissions of the at least two wireless devices, and - allocating frequency resources for the SPS transmissions of the at least two wireless devices within an SPS period, such that the allocated frequency resources change between two of the at least two different sets every round trip time value. - determining at least two different sets of frequency resources for the SPS transmissions of the at least two wireless devices, and - allocating frequency resources for the SPS transmissions of the at least two wireless devices within an SPS period, such that the allocated frequency resources change between two of the at least two different sets every round trip time value.