mhurhangee/ep-ind-claims huggingface dataset:
An antireflection film, comprising a film including: particles and a binder bonding the particles, wherein: the particles have a mean particle size of 15 nm or more and 100 nm or less; the film contains voids included in the binder; and a content of the voids included in the binder contained in the film is 5 vol% or more and 25 vol% or less of a total volume of the antireflection film; characterized in that the binder contains 10 voids or less each having a cross-sectional area of 1,000 nm 2 or more with respect to 1 μm 2 of a cross-sectional area of the binder; and in that the particles are hollow particles (14, 15). particles and a binder bonding the particles, wherein: the particles have a mean particle size of 15 nm or more and 100 nm or less; the film contains voids included in the binder; and a content of the voids included in the binder contained in the film is 5 vol% or more and 25 vol% or less of a total volume of the antireflection film; characterized in that the binder contains 10 voids or less each having a cross-sectional area of 1,000 nm 2 or more with respect to 1 μm 2 of a cross-sectional area of the binder; and in that the particles are hollow particles (14, 15). the particles have a mean particle size of 15 nm or more and 100 nm or less; the film contains voids included in the binder; and a content of the voids included in the binder contained in the film is 5 vol% or more and 25 vol% or less of a total volume of the antireflection film; characterized in that the binder contains 10 voids or less each having a cross-sectional area of 1,000 nm 2 or more with respect to 1 μm 2 of a cross-sectional area of the binder; and in that the particles are hollow particles (14, 15).
A microelectromechanical (MEMS) accelerometer, comprising: a first proof mass; a second proof mass; one or more first electrodes located adjacent to the first proof mass to sense movement of the first proof mass along a first axis in response to a linear acceleration along the first axis during a self-test time period; one or more second electrodes located adjacent to the second proof mass to sense movement of the second proof mass along the first axis during the self-test time period, wherein the first proof mass and the second proof mass move in-phase along the first axis in response to the linear acceleration along the first axis; self-test drive circuitry coupled to the first proof mass and the second proof mass, wherein the self-test drive circuitry is configured to continuously cause the first proof mass and the second proof mass to move out-of-phase along the first axis during the self-test time period; and processing circuitry coupled to the one or more first electrodes and the one or more second electrodes, wherein the processing circuitry comprises a demultiplexer configured to receive a sense signal during the self-test time period and to extract from the sense signal a self-test signal corresponding to the out-of-phase movement of the proof masses during the self-test time period and a linear acceleration signal corresponding to the in-phase movement of the proof masses during the self-test time period. a first proof mass; a second proof mass; one or more first electrodes located adjacent to the first proof mass to sense movement of the first proof mass along a first axis in response to a linear acceleration along the first axis during a self-test time period; one or more second electrodes located adjacent to the second proof mass to sense movement of the second proof mass along the first axis during the self-test time period, wherein the first proof mass and the second proof mass move in-phase along the first axis in response to the linear acceleration along the first axis; self-test drive circuitry coupled to the first proof mass and the second proof mass, wherein the self-test drive circuitry is configured to continuously cause the first proof mass and the second proof mass to move out-of-phase along the first axis during the self-test time period; and processing circuitry coupled to the one or more first electrodes and the one or more second electrodes, wherein the processing circuitry comprises a demultiplexer configured to receive a sense signal during the self-test time period and to extract from the sense signal a self-test signal corresponding to the out-of-phase movement of the proof masses during the self-test time period and a linear acceleration signal corresponding to the in-phase movement of the proof masses during the self-test time period.
A computer-implemented method for executing an action on an electronic device, comprising: - outputting, at a touch screen of the electronic device, a lock screen view configured to prevent unauthorized or inadvertent access to the electronic device, the access being conditioned to a predefined shape of a user touch input; while the lock screen view is displayed at the touch screen: - detecting, at the touch screen, a touch input having a first shape; - verifying if the first shape comprises both the predefined shape and a further touch input prior or subsequent to the predefined shape, the further touch input disguising the predefined shape in a longer and continuous user input; and - when the touch input comprises the predefined shape and the further touch input, executing, by the electronic device, a particular action determined, at least in part on the predefined shape. - outputting, at a touch screen of the electronic device, a lock screen view configured to prevent unauthorized or inadvertent access to the electronic device, the access being conditioned to a predefined shape of a user touch input; - detecting, at the touch screen, a touch input having a first shape; - verifying if the first shape comprises both the predefined shape and a further touch input prior or subsequent to the predefined shape, the further touch input disguising the predefined shape in a longer and continuous user input; and - when the touch input comprises the predefined shape and the further touch input, executing, by the electronic device, a particular action determined, at least in part on the predefined shape.
A bending tool for attachment to a tool holder of a bending machine, in particular a brake press, comprising an attachment section which can be coupled to a holding section of the tool holder and an adjustably mounted contact element for electrical connection of a functional element configured on the bending tool with a contact area on the holding section of the tool holder, characterized in that the contact element can be brought by an actuating member disposed in the holding section of the tool holder from a rest position at a distance from the contact area relative to an outer surface of the attachment section outwards into a contact position in contact with the contact area and a spring element (29, 40) acting on the contact element in the direction of the rest position is disposed in the attachment section.
A method for operating a towing winch of a tug, the towing winch comprising a rotatable winch drum for spooling a spoolable medium, an electric motor operably coupled to the winch drum to rotate the winch drum, an electric drive operably coupled to the electric motor to control the electric motor, the method comprising: controlling by the electric drive, during a towing of at least one object connected to the spoolable medium, a tension of the spoolable medium between the winch drum and the at least one object to be towed to be equal to or lower than a tension limit value, characterized in that the method comprises: monitoring by the electric drive, during the towing, a roll angle of the tug, and in response to the monitored roll angle of the tug being outside of a predetermined range, lowering by the electric drive the tension limit value.
Apparatus for guiding a valve spindle, comprising: a valve housing part; a first sleeve part with a first axial side which is held axially on the valve housing part; a stuffing box which is arranged so as to axially adjoin a second axial side of the first sleeve part; a second sleeve part with a first axial side which is arranged so as to axially adjoin the stuffing box; a pressure plate which can be connected selectively to the first valve housing part in a first or a second configuration in such a way that the first axial side of the second sleeve part is spaced apart from the second axial side of the first sleeve part by a predefined first distance or a predefined second distance, the valve housing part having a cut-out, in which the first sleeve part, the stuffing box and the second sleeve part are received, characterized in that the pressure plate has a housing part contact face (25, 27) on the first and on the second axial side, which housing part contact face (25, 27) is in contact in the first and the second configuration in each case directly or via a seal with a surface of the valve housing part. a valve housing part; a first sleeve part with a first axial side which is held axially on the valve housing part; a stuffing box which is arranged so as to axially adjoin a second axial side of the first sleeve part; a second sleeve part with a first axial side which is arranged so as to axially adjoin the stuffing box; a pressure plate which can be connected selectively to the first valve housing part in a first or a second configuration in such a way that the first axial side of the second sleeve part is spaced apart from the second axial side of the first sleeve part by a predefined first distance or a predefined second distance, the valve housing part having a cut-out, in which the first sleeve part, the stuffing box and the second sleeve part are received, characterized in that the pressure plate has a housing part contact face (25, 27) on the first and on the second axial side, which housing part contact face (25, 27) is in contact in the first and the second configuration in each case directly or via a seal with a surface of the valve housing part.
An ultrasonic diagnostic apparatus, comprising: an ultrasonic probe which scans an observation region in an object with an ultrasonic wave; and an estimated image generating means including a model (305, 425) having been machine-learned using learning data (301, 421) including first data based on a first received signal that is obtained by one scan of an ultrasonic wave and second data based on a second received signal that is obtained by a plurality of scans, in which a transmission direction or a central frequency of an ultrasonic wave has been changed, wherein the estimated image generating means is adapted to generate, by using the model, an estimated image equivalent to image data obtained by a plurality of scans, in which a transmission direction or a central frequency of an ultrasonic wave has been changed, from third data based on a third received signal that is obtained by one scan of the ultrasonic wave by the ultrasonic probe. an ultrasonic probe which scans an observation region in an object with an ultrasonic wave; and an estimated image generating means including a model (305, 425) having been machine-learned using learning data (301, 421) including first data based on a first received signal that is obtained by one scan of an ultrasonic wave and second data based on a second received signal that is obtained by a plurality of scans, in which a transmission direction or a central frequency of an ultrasonic wave has been changed, wherein the estimated image generating means is adapted to generate, by using the model, an estimated image equivalent to image data obtained by a plurality of scans, in which a transmission direction or a central frequency of an ultrasonic wave has been changed, from third data based on a third received signal that is obtained by one scan of the ultrasonic wave by the ultrasonic probe.
A process for the preparation of a compound of formula (Ib), wherein: R 10 is a straight-chain, branched or cyclic C 1 -C 20 alkyl; R 11 is -C(R 13)(R 14) or a protected -C(=O)(R 15); R 12 is H or CN; R 13 is a straight-chain, branched or cyclic C 1 -C 20 -alkyl; R 14 is a straight-chain, branched or cyclic C 1 -C 20 -alkyl; and R 15 is a straight-chain, branched or cyclic C 1 -C 20 -alkyl --- is a double bond or a single bond; the process comprising: i. reacting a compound of formula (Ia) with a thiolate in a suitable polar aprotic solvent, wherein the thiolate is selected from the group consisting of an optionally substituted C 1 -C 20 -alkylthiolate, an optionally substituted C 6 -C 20 -arylthiolate or an optionally substituted C 7 -C 30 -arylalkylthiolate; and ii. treating the reaction mixture of step (i) with a protonating agent to give the compound of formula (Ib). R 10 is a straight-chain, branched or cyclic C 1 -C 20 alkyl; R 11 is -C(R 13)(R 14) or a protected -C(=O)(R 15); R 12 is H or CN; R 13 is a straight-chain, branched or cyclic C 1 -C 20 -alkyl; R 14 is a straight-chain, branched or cyclic C 1 -C 20 -alkyl; and R 15 is a straight-chain, branched or cyclic C 1 -C 20 -alkyl --- is a double bond or a single bond; i. reacting a compound of formula (Ia) with a thiolate in a suitable polar aprotic solvent, wherein the thiolate is selected from the group consisting of an optionally substituted C 1 -C 20 -alkylthiolate, an optionally substituted C 6 -C 20 -arylthiolate or an optionally substituted C 7 -C 30 -arylalkylthiolate; and ii. treating the reaction mixture of step (i) with a protonating agent to give the compound of formula (Ib).
An ink comprising a polymer having a structure represented by the following general formula: wherein R 1 and R 2 each independently represent a hydrogen atom or a cation, wherein the polymer further has a structure containing at least one of a glycidyl group and a hydroxyl group, wherein the polymer has the structure in an amount in the range of 1 to 20% by mass, based on the mass of the polymer, and wherein the polymer is contained in the ink in an amount in the range of 6 to 10% by mass, based on the mass of the ink. wherein R 1 and R 2 each independently represent a hydrogen atom or a cation, wherein the polymer further has a structure containing at least one of a glycidyl group and a hydroxyl group, wherein the polymer has the structure in an amount in the range of 1 to 20% by mass, based on the mass of the polymer, and wherein the polymer is contained in the ink in an amount in the range of 6 to 10% by mass, based on the mass of the ink.
A method for performing a computational task using a network of lighting apparatuses (102, 202, 318, 402, 440), the method comprising the following steps carried out by a lighting apparatus in the network of lighting apparatuses: - receiving task schedules from lighting apparatuses in the network of lighting apparatuses; - determining, based on the received task schedules, an amount of computational resources available from the lighting apparatuses; - identifying a subgroup of lighting apparatuses in the network of lighting apparatuses that have available computational resources; and - distributing the computational task to the identified subgroup of lighting apparatuses in the network of lighting apparatuses, characterized in that the method comprises the following further step carried out by said lighting apparatus: - determining an occupancy pattern of a room illuminated by at least one lighting apparatus in the network of lighting apparatuses; wherein identifying the subgroup of lighting apparatuses is at least partially based on the determined occupancy pattern of the room. - receiving task schedules from lighting apparatuses in the network of lighting apparatuses; - determining, based on the received task schedules, an amount of computational resources available from the lighting apparatuses; - identifying a subgroup of lighting apparatuses in the network of lighting apparatuses that have available computational resources; and - distributing the computational task to the identified subgroup of lighting apparatuses in the network of lighting apparatuses, - determining an occupancy pattern of a room illuminated by at least one lighting apparatus in the network of lighting apparatuses;
A method of cleaning a pipette, comprising either: carrying out a cleaning sequence in a waste station; immersing the pipette into a neutralizing liquid vessel containing a neutralizing liquid; aspirating the neutralizing liquid into the pipette; and dispensing the neutralizing liquid back into the neutralizing liquid vessel; or immersing the pipette into a neutralizing liquid vessel containing a neutralizing liquid; aspirating the neutralizing liquid into the pipette; dispensing the neutralizing liquid back into the neutralizing liquid vessel; and carrying out a cleaning sequence in a waste station; characterized in that, the pipette is immersed in the neutralizing liquid of a single one of the neutralizing liquid vessel for at least 750 successive cleaning operations. carrying out a cleaning sequence in a waste station; immersing the pipette into a neutralizing liquid vessel containing a neutralizing liquid; aspirating the neutralizing liquid into the pipette; and dispensing the neutralizing liquid back into the neutralizing liquid vessel; or immersing the pipette into a neutralizing liquid vessel containing a neutralizing liquid; aspirating the neutralizing liquid into the pipette; dispensing the neutralizing liquid back into the neutralizing liquid vessel; and carrying out a cleaning sequence in a waste station;
A pre-combustion chamber assembly for a spark ignition engine, the assembly having: an ignition chamber adapted to contain at least one electrode of a spark generator; the ignition chamber being adapted to communicate with a main engine combustion chamber via at least one pre-chamber port; wherein the ignition chamber communicates for removal therefrom of exhaust gas residuals to a distinct storage chamber via at least one transfer port; characterised in that the ignition chamber includes an entrance channel leading from each said pre-chamber port in a direction towards an ignition region of the ignition chamber, the ignition region having a larger cross-section than the entrance channel, wherein the entrance channel is substantially a circular cylinder and the ignition region is substantially circularly cylindrical, and wherein the entrance channel and ignition region are joined by a flaring chamber connector wall; and wherein the ignition chamber includes a tumble feature adapted to promote flow tumble, and the tumble feature is located in the region of the flaring chamber wall.
A self-expanding device having a first compressed configuration with a compressed diameter enabling low profile delivery through a delivery device, and a second expanded configuration with an expanded diameter for apposition against a tissue wall and defining a lumen for fluid flow there through, at least one polymer filament formed into a shape having a series of peaks and valleys and which constitute the peaks and valleys of the device, wherein the shape approximates a repeating diamond-shaped pattern, wherein at least one of the peaks or valleys comprises a loop formed at an end thereof, wherein the loop is configured to provide for even distribution of bending stresses when the device is placed in the first configuration and loaded into the delivery device, wherein the diameter of the device in the compressed configuration (d) is from about 1 mm to about 5.5 mm, and wherein the device is configured to biodegrade.
A smart device control method performed by a control device, the method comprising: finding one or more smart devices connected to the control device; sending identifications of the smart devices connected to the control device to an instruction sending device; receiving a control instruction sent by the instruction sending device and including a set of working mode information, wherein the set of working mode information is formed by combining working mode information corresponding to the types of the smart devices connected to the control device by the instruction sending device; detecting if the control device has an authorization to set the working mode of a target smart device; and setting the working mode of the target smart device connected to the control device via a local area network, LAN, based on the set of working mode information, when it is detected that the control device has the authorization to set the working mode of the target smart device. finding one or more smart devices connected to the control device; sending identifications of the smart devices connected to the control device to an instruction sending device; receiving a control instruction sent by the instruction sending device and including a set of working mode information, wherein the set of working mode information is formed by combining working mode information corresponding to the types of the smart devices connected to the control device by the instruction sending device; detecting if the control device has an authorization to set the working mode of a target smart device; and setting the working mode of the target smart device connected to the control device via a local area network, LAN, based on the set of working mode information, when it is detected that the control device has the authorization to set the working mode of the target smart device.
A vector for use in a preventive treatment of amyotrophic lateral sclerosis, which vector comprises cholesterol 24-hydroxylase encoding nucleic acid.
Lift fitting (10; 110) for parallel lifting of a table top (3; 103) or the like relative to a furniture body (2; 102), comprising a mounting flange (11; 111) on the table top side and a mounting flange (12; 112) on the furniture body side, which are connected to each other via two parallelogram guides (13, 14; 113, 114) which can be lifted in the operating position of the fitting (10; 110) from a lower parallelogram position to abutment at an end stop (16; 116) into a laterally offset upper parallelogram position, and comprising a locking lever (17; 117) which locks one of the parallelogram guides (13, 14; 113, 114) in the upper parallelogram position, characterized in that for stabilizing the lower parallelogram position, a stabilization lever arm is provided which is hinged to the mounting flange on the table top side and to the mounting flange on the furniture body side.