mhurhangee/ep-ind-claims huggingface dataset:
A silicone hydrogel ophthalmic device, comprising a silicone hydrogel material having an oxygen permeability of at least 50 barrers and a modulus of 1.2 MPa or less, a water content of at least 15% by weight when fully hydrated, and a predominant glass-transition temperature of 25°C or higher, which is obtained by copolymerizing, at an elevated temperature of 60°C or above, a polymerizable fluid composition which is a solvent-free polymerizable composition and comprises (a) from 20 to 46 % of at least one siloxane-containing macromer with ethylenically unsaturated group(s); from 10% to 30% by weight of a siloxane-containing vinylic monomer; from 15% to 50% by weight of a hydrophilic vinylic monomer, 5% to 20% by weight of a blending vinylic monomer; (b) from 0.2% to 1.0% by weight of a radical initiator, and (c) an organonitroxide, wherein ratio of percentage by weight of the organonitroxide to the radical initiator in the polymerizable fluid composition is from 0.3 to 1.1, wherein the organonitroxide is TEMPO, 4-hydroxy-TEMPO, 4-oxo-TEMPO, or a compound having the formula of in which R 1, and R 2 are independently H, an alkyl group, a cycloalkyl group, an arenyl group, a heterocyclic group, or an aryl group; R 3 is an alkyl group, a cycloalkyl group, an arenyl group, a heterocyclic group, or an aryl group; R 3 and R 2 or R 1 and R 2 may be joined together to form a cyclic ring structure that may have fused with it another saturated or aromatic ring; each of R 1, R 2, or R 3 may be substituted by at least one member of the group consisting of hydroxyl group, sulfonate group, sulfate group, carboxylate group, amino group, ammonium group, alkoxy group, aryloxy group, silyl group, boryl group, phosphino group, thio group, seleno group, and combinations thereof.
A method for encapsulating media packets having data therein into network streams of media data, comprising: providing base-layer media packets corresponding to a base layer stream of the network streams, the base layer stream comprising network packets; providing enhancement-layer media packets corresponding to an enhancement layer stream of the network streams, the enhancement layer stream comprising network packets, wherein a one-to-one correspondence exists between the base-layer media packets and the enhancement-layer media packets; encapsulating the base-layer media packets into the network packets of the base layer stream, wherein each network packet of the base layer stream includes a header field, and wherein each network packet of the base layer stream includes one, and no more than one, corresponding base-layer media packet; and encapsulating the enhancement-layer media packets into the network packets of the enhancement layer stream, wherein each network packet of the enhancement layer stream includes a header field, wherein a first portion and a second remaining portion of any enhancement-layer media packet are respectively included in successive network packets of the enhancement layer stream in order to have each network packet of the enhancement layer stream filled to a constant number of bits NE that does not exceed a maximum number of bits NEMAX, subject to the last network packet of the enhancement layer stream being required to be filled to only as many bits as is necessary to include the last enhancement-layer media packet of the enhancement-layer media packets. providing base-layer media packets corresponding to a base layer stream of the network streams, the base layer stream comprising network packets; providing enhancement-layer media packets corresponding to an enhancement layer stream of the network streams, the enhancement layer stream comprising network packets, wherein a one-to-one correspondence exists between the base-layer media packets and the enhancement-layer media packets; encapsulating the base-layer media packets into the network packets of the base layer stream, wherein each network packet of the base layer stream includes a header field, and wherein each network packet of the base layer stream includes one, and no more than one, corresponding base-layer media packet; and encapsulating the enhancement-layer media packets into the network packets of the enhancement layer stream, wherein each network packet of the enhancement layer stream includes a header field, wherein a first portion and a second remaining portion of any enhancement-layer media packet are respectively included in successive network packets of the enhancement layer stream in order to have each network packet of the enhancement layer stream filled to a constant number of bits NE that does not exceed a maximum number of bits NEMAX, subject to the last network packet of the enhancement layer stream being required to be filled to only as many bits as is necessary to include the last enhancement-layer media packet of the enhancement-layer media packets.
A method in an electronic device which is in a first mode, the device comprising a plurality of modules, the method comprising: detecting a grip state of the electronic device; detecting a change in tilt of the electronic device when the detected grip state is equal to or greater than a predetermined value; switching a mode from the first mode to a second mode without user authentication when the detected change in tilt is within a set tilt range; and switching the mode from the second mode to a predetermined mode upon detecting a change in grip state on the electronic device, wherein, in the first mode, the electronic device is in a sleep mode, the electronic device being configured to use a first sensor, which is provided at a predetermined portion of the device, to detect the grip state in the first mode and a second sensor to detect a change in the tilt of the electronic device in the first mode; wherein, the second mode is a mode in which only a camera module among the plurality of modules is driven by the processor, the electronic device being configured to use the first sensor in the second mode, and the predetermined mode is a lock set mode. detecting a grip state of the electronic device; detecting a change in tilt of the electronic device when the detected grip state is equal to or greater than a predetermined value; switching a mode from the first mode to a second mode without user authentication when the detected change in tilt is within a set tilt range; and switching the mode from the second mode to a predetermined mode upon detecting a change in grip state on the electronic device, wherein, in the first mode, the electronic device is in a sleep mode, the electronic device being configured to use a first sensor, which is provided at a predetermined portion of the device, to detect the grip state in the first mode and a second sensor to detect a change in the tilt of the electronic device in the first mode; wherein, the second mode is a mode in which only a camera module among the plurality of modules is driven by the processor, the electronic device being configured to use the first sensor in the second mode, and the predetermined mode is a lock set mode.
A method of displaying a thumbnail image on a display of an electronic device, the method comprising: detecting meta data associated with an image stored in a data storage unit and object information indicating an object of the image; determining an aspect ratio of a thumbnail image to be displayed corresponding to the image on the basis of the detected meta data and a type of object indicated by object information; and displaying the thumbnail image in a display window of the display according to the determined aspect ratio. detecting meta data associated with an image stored in a data storage unit and object information indicating an object of the image; determining an aspect ratio of a thumbnail image to be displayed corresponding to the image on the basis of the detected meta data and a type of object indicated by object information; and displaying the thumbnail image in a display window of the display according to the determined aspect ratio.
A process for producing an aminoalkylthiosulfuric acid compound represented by formula: wherein R 1 and R 2 each independently represent a hydrogen atom and n represents an integer of 2 to 9, the process comprising the following steps, and: - a step of reacting a hydrochloride of a chloroalkylamine compound represented by formula: wherein R 1, R 2 and n are as defined above, with an alkali metal salt of thiosulfuric acid in the presence of from 2 parts by weight to 6 parts by weight of water with respect to 1 part by weight of the hydrochloride of the chloroalkylamine compound represented by formula at between 50oC and 100oC, - a step of obtaining a mixture of a solid containing the aminoalkylthiosulfuric acid compound represented by formula and a liquid containing an alkali metal chloride by adjusting the temperature of the reaction mixture obtained in step to not lower than -15oC and lower than 50oC, - a step of obtaining the aminoalkylthiosulfuric acid compound as solid by separating the solid containing the aminoalkylthiosulfuric acid compound represented by formula and the liquid containing the alkali metal chloride from the mixture obtained in step. - a step of reacting a hydrochloride of a chloroalkylamine compound represented by formula: wherein R 1, R 2 and n are as defined above, with an alkali metal salt of thiosulfuric acid in the presence of from 2 parts by weight to 6 parts by weight of water with respect to 1 part by weight of the hydrochloride of the chloroalkylamine compound represented by formula at between 50oC and 100oC, wherein R 1, R 2 and n are as defined above, with an alkali metal salt of thiosulfuric acid in the presence of from 2 parts by weight to 6 parts by weight of water with respect to 1 part by weight of the hydrochloride of the chloroalkylamine compound represented by formula at between 50oC and 100oC, - a step of obtaining a mixture of a solid containing the aminoalkylthiosulfuric acid compound represented by formula and a liquid containing an alkali metal chloride by adjusting the temperature of the reaction mixture obtained in step to not lower than -15oC and lower than 50oC, - a step of obtaining the aminoalkylthiosulfuric acid compound as solid by separating the solid containing the aminoalkylthiosulfuric acid compound represented by formula and the liquid containing the alkali metal chloride from the mixture obtained in step.
A memory device, comprising: memory cells (111-1,..., 111-N); and a controller configured to: perform a number of sense operations on the memory cells (111-1,..., 111-N), wherein each sense operation is performed using a different sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2) determine, for each of the different sensing voltages (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2), a quantity of the memory cells (111-1,..., 111-N) having a threshold voltage (Vt) greater than the respective sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2); determine differences between the determined quantities of memory cells (111-1,..., 111-1); determine a trend associated with the determined differences; and adjust a sensing voltage used to determine a state of the memory cells (111-1,..., 111-N) based, at least partially, on the determined trend. memory cells (111-1,..., 111-N); and a controller configured to: perform a number of sense operations on the memory cells (111-1,..., 111-N), wherein each sense operation is performed using a different sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2) determine, for each of the different sensing voltages (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2), a quantity of the memory cells (111-1,..., 111-N) having a threshold voltage (Vt) greater than the respective sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2); determine differences between the determined quantities of memory cells (111-1,..., 111-1); determine a trend associated with the determined differences; and adjust a sensing voltage used to determine a state of the memory cells (111-1,..., 111-N) based, at least partially, on the determined trend. perform a number of sense operations on the memory cells (111-1,..., 111-N), wherein each sense operation is performed using a different sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2) determine, for each of the different sensing voltages (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2), a quantity of the memory cells (111-1,..., 111-N) having a threshold voltage (Vt) greater than the respective sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2); determine differences between the determined quantities of memory cells (111-1,..., 111-1); determine a trend associated with the determined differences; and adjust a sensing voltage used to determine a state of the memory cells (111-1,..., 111-N) based, at least partially, on the determined trend.
A surface melting furnace comprising: a furnace chamber having a slag port; a treatment-target supply mechanism configured to supply a treatment target to the furnace chamber; and a plurality of sensors configured to perform measurement at different measurement locations for estimation of a profile of a molten surface of the treatment target, wherein the plurality of sensors includes a temperature sensor (T s) configured to determine whether the molten surface of the treatment target is in a retreat phase where the molten surface of the treatment target retreats from the slag port to the treatment-target supply mechanism or in a moving-on phase where the molten surface of the treatment target moves on from the treatment-target supply mechanism toward the slag port on the basis of a temperature of an upper layer of the treatment target in a supplied portion where the treatment target is supplied in the furnace chamber by the treatment-target supply mechanism, and a non-contact sensor (H s) configured to detect a height from a furnace bottom to the surface of the treatment target; and the treatment target supplied to the furnace chamber by the treatment-target supply mechanism and accumulated in the furnace bottom in such a manner that the surface of the treatment target is inclined downward to the slag port is configured to melt from a surface of the upper layer and flow down to the slag port. a furnace chamber having a slag port; a treatment-target supply mechanism configured to supply a treatment target to the furnace chamber; and a plurality of sensors configured to perform measurement at different measurement locations for estimation of a profile of a molten surface of the treatment target, wherein the plurality of sensors includes a temperature sensor (T s) configured to determine whether the molten surface of the treatment target is in a retreat phase where the molten surface of the treatment target retreats from the slag port to the treatment-target supply mechanism or in a moving-on phase where the molten surface of the treatment target moves on from the treatment-target supply mechanism toward the slag port on the basis of a temperature of an upper layer of the treatment target in a supplied portion where the treatment target is supplied in the furnace chamber by the treatment-target supply mechanism, and a non-contact sensor (H s) configured to detect a height from a furnace bottom to the surface of the treatment target; and the treatment target supplied to the furnace chamber by the treatment-target supply mechanism and accumulated in the furnace bottom in such a manner that the surface of the treatment target is inclined downward to the slag port is configured to melt from a surface of the upper layer and flow down to the slag port.
A laminate comprising: a substrate, and a wear-resistant layer containing a cured product of a radiation-curable ink, the radiation-curable ink containing inorganic nanoparticles, a compound represented by Formula, and at least one selected from the group consisting of a radiation-curable polymerizable oligomer and a radiation-curable polymerizable monomer: R 1 -R 2 -Si(OR 3) 3 Formula wherein R 1 is an acryloyl group or a methacryloyl group, R 2 is an alkylene group having from 5 to 12 carbon atoms, and R 3 is an alkyl group having from 1 to 4 carbon atoms. a substrate, and a wear-resistant layer containing a cured product of a radiation-curable ink, the radiation-curable ink containing inorganic nanoparticles, a compound represented by Formula, and at least one selected from the group consisting of a radiation-curable polymerizable oligomer and a radiation-curable polymerizable monomer: R 1 -R 2 -Si(OR 3) 3 Formula wherein R 1 is an acryloyl group or a methacryloyl group, R 2 is an alkylene group having from 5 to 12 carbon atoms, and R 3 is an alkyl group having from 1 to 4 carbon atoms.
Vehicle, in particular transport vehicle, with a vehicle frame and a drive motor, in particular internal combustion engine and/or electric motor and/or hydraulic motor, a vehicle frame and at least two wheel axles (28, 29) being provided and the vehicle frame comprising at least one load receptacle that can be pivoted about a tilting axis with a first adjustment unit, said load receptacle taking the form of a trough or the like for receiving/storing material, in particular bulk building material, and being arranged at least in part within an intermediate region formed by two planes (30, 31) running perpendicular to a connecting line of the two wheel axles through the wheel axles, and being pivotable into a tilted position which lies at least in part in an edge region of the vehicle that is located on one side, opposite the intermediate region, of one of the two planes delimiting the intermediate region, the vehicle comprising at least one support unit arranged in this edge region and having at least one ground contact surface for supporting the vehicle or the vehicle frame on the ground side and at least one second adjustment unit for adjusting/changing a length and/or position of the support unit, characterised in that an automatic control unit is provided that actuates the second adjustment unit depending on a cylinder pressure of the first adjustment unit and/or on the machine inclination and/or a braking deceleration or a braking pressure in a brake unit of the vehicle and/or an axle relief.
A fluid dispenser device comprising: a reservoir containing fluid; a dispenser head that is provided with a dispenser orifice, dispenser means for dispensing at least a fraction of said fluid through said dispenser orifice, and passage means for connecting said reservoir to said dispenser orifice on actuation of said dispenser means, said passage means including a hollow needle that penetrates into said reservoir on actuation of said dispenser means, said needle being fastened in a needle support that is itself fastened in said dispenser head, said needle support including blocking means (65, 66), characterized in that said blocking means (65, 66), in the rest position, co-operate with said reservoir so as to prevent it from moving axially relative to said head.
A buckle device, comprising: a buckle body to which a tongue portion mounted on a three-point seat belt is to be connected; a connecting member that is flexible and that has a first longitudinal end portion connected to the buckle body; and a force limiter mechanism including a take-up shaft around which a second longitudinal end portion of the connecting member is wound, the take-up shaft being supported below the buckle body in a vertical direction of a vehicle so as to be rotatable relative to a vehicle seat or a vehicle body, and an energy absorbing member that is deformed by rotation of the take-up shaft, wherein the energy absorbing member is a torsion shaft that is torsionally deformed by the rotation of the take-up shaft, the buckle device being characterized in that the torsion shaft is coaxially disposed next to the take-up shaft in an axial direction. a buckle body to which a tongue portion mounted on a three-point seat belt is to be connected; a connecting member that is flexible and that has a first longitudinal end portion connected to the buckle body; and a force limiter mechanism including a take-up shaft around which a second longitudinal end portion of the connecting member is wound, the take-up shaft being supported below the buckle body in a vertical direction of a vehicle so as to be rotatable relative to a vehicle seat or a vehicle body, and an energy absorbing member that is deformed by rotation of the take-up shaft, wherein the energy absorbing member is a torsion shaft that is torsionally deformed by the rotation of the take-up shaft, the buckle device being characterized in that the torsion shaft is coaxially disposed next to the take-up shaft in an axial direction.
A decoy peptide or polypeptide consisting of a peptide sequence represented by the following Formula I: X 1 -Ala-X 2 -X 3 -Ile-Glu-X 4 wherein X 1 represents 0-1 amino acid residue(s), X 2 represents Ser, Glu, or Asp, X 3 represents Thr, Glu, or Asp and and X 4 represents 0-3 amino acid residue(s), with the proviso that X 2 is not Ser when X 3 is Thr; wherein the decoy peptide or polypeptide inhibits PP1 (protein phosphatase 1)-mediated dephosphorylation of PLB (phospholamban) by a competitive inhibition, wherein neither X 1 nor X 4 contain membrane-spanning domains and with the proviso that the peptide is not Tyr Ala Asp Asp Ile Glu Lys Lys Ile.
A method comprising: receiving an audio stream and a video stream associated with the audio stream, wherein the audio stream includes speech of a user and wherein the video stream includes video presentation of a face and/or a body of the user; determining a value of at least one speech element associated with the audio stream; comparing the value of the at least one speech element with at least one threshold value of the speech element, wherein the at least one threshold value of the speech element includes at least one upper threshold limit and at least one lower threshold limit; in response to said value being higher than said at least one upper threshold limit or said value being less than said at least one lower threshold limit, initiating processing of the video stream for determination of an emotional state of the user, and determining the emotional state based on the processing of the video stream. receiving an audio stream and a video stream associated with the audio stream, wherein the audio stream includes speech of a user and wherein the video stream includes video presentation of a face and/or a body of the user; determining a value of at least one speech element associated with the audio stream; comparing the value of the at least one speech element with at least one threshold value of the speech element, wherein the at least one threshold value of the speech element includes at least one upper threshold limit and at least one lower threshold limit; in response to said value being higher than said at least one upper threshold limit or said value being less than said at least one lower threshold limit, initiating processing of the video stream for determination of an emotional state of the user, and determining the emotional state based on the processing of the video stream.