mhurhangee/ep-ind-claims huggingface dataset:
A solid-state imaging device comprising: a semiconductor substrate; a photoelectric conversion part formed in the semiconductor substrate; a laminate including color filters having different thicknesses for different colors, an organic material layer and an inorganic material layer placed on the semiconductor substrate, wherein the organic material layer is a planarizing layer formed on the color filters and the inorganic material layer is formed on the organic material layer; and at least one stress relaxation layer interposed between the organic material layer and the inorganic material layer, wherein the stress relaxation layer has a film stress that is different from and between a film stress of the organic material layer and a film stress of the inorganic material layer. a semiconductor substrate; a photoelectric conversion part formed in the semiconductor substrate; a laminate including color filters having different thicknesses for different colors, an organic material layer and an inorganic material layer placed on the semiconductor substrate, wherein the organic material layer is a planarizing layer formed on the color filters and the inorganic material layer is formed on the organic material layer; and at least one stress relaxation layer interposed between the organic material layer and the inorganic material layer, wherein the stress relaxation layer has a film stress that is different from and between a film stress of the organic material layer and a film stress of the inorganic material layer.
A method of sending a limited-area alert message via a cellular network infrastructure, the method comprising: receiving, from a mobile device, at a designated number, an alert request message; identifying a requesting party via metadata associated with the alert request message; authenticating the requesting party to confirm an authenticated request; responsive to the confirmation of the authenticated request, parsing the alert request message into a requested distance (132,136,138,146) and a message; comparing the requested distance (132,136,138,146) to an authorized distance (130,134,140,148), wherein the authorized distance (130,134,140,148) is a maximum broadcast distance for which the requesting party is authorized; generating an actual distance responsive to the comparison with the authorized distance (130,134,140,148), wherein generating the actual distance comprises keeping the actual distance equal to the requested distance (132,136,138,146) when the authorized distance (130,134,140,148) is greater than or equal to the requested distance (132,136,138,146); determining at least one cell tower associated with the actual distance; and sending the message to all mobile devices covered by the at least one cell tower associated with the actual distance. receiving, from a mobile device, at a designated number, an alert request message; identifying a requesting party via metadata associated with the alert request message; authenticating the requesting party to confirm an authenticated request; responsive to the confirmation of the authenticated request, parsing the alert request message into a requested distance (132,136,138,146) and a message; comparing the requested distance (132,136,138,146) to an authorized distance (130,134,140,148), wherein the authorized distance (130,134,140,148) is a maximum broadcast distance for which the requesting party is authorized; generating an actual distance responsive to the comparison with the authorized distance (130,134,140,148), wherein generating the actual distance comprises keeping the actual distance equal to the requested distance (132,136,138,146) when the authorized distance (130,134,140,148) is greater than or equal to the requested distance (132,136,138,146); determining at least one cell tower associated with the actual distance; and sending the message to all mobile devices covered by the at least one cell tower associated with the actual distance.
A solid state thermal process for the preparation of LiCoO 2, comprising: reacting Li 2 O with Co 3 O 4 in solid state; adding urea or ammonium nitrate to the mixture of Li 2 O and Co 3 O 4 to obtain a reaction mixture; and grinding the reaction mixture; wherein Li 2 O and Co 3 O 4 are heated at a temperature in the range of 450 to 750°C. reacting Li 2 O with Co 3 O 4 in solid state; adding urea or ammonium nitrate to the mixture of Li 2 O and Co 3 O 4 to obtain a reaction mixture; and grinding the reaction mixture; wherein Li 2 O and Co 3 O 4 are heated at a temperature in the range of 450 to 750°C.
A power consumption reduction device (30, 130, 230) comprising: a power generating part; a voltage detecting part configured and arranged to detect from current flowing therein, a value for voltage supplied from the power generating part; a drive signal generating part configured and arranged to generate a drive signal (SU, SV, SW) for driving an actuator based on a detection result of the voltage detecting part; an electric current supply part configured and arranged to supply current to the voltage detecting part; and a switching part (35, 135, 235) configured and arranged to switch flow of current such that, during a drive mode in which the actuator drives, current flows in the voltage detecting part, while during a drive stop mode in which the actuator stops driving, current does not flow in the voltage detecting part, wherein the switching part (35, 135, 235) is configured to allow the current to flow into the voltage detecting part when the actuator which has stopped driving commences driving, and configured to cut the flow of the current to the voltage detecting part when a predetermined time has elapsed from when the actuator stopped driving. a power generating part; a voltage detecting part configured and arranged to detect from current flowing therein, a value for voltage supplied from the power generating part; a drive signal generating part configured and arranged to generate a drive signal (SU, SV, SW) for driving an actuator based on a detection result of the voltage detecting part; an electric current supply part configured and arranged to supply current to the voltage detecting part; and a switching part (35, 135, 235) configured and arranged to switch flow of current such that, during a drive mode in which the actuator drives, current flows in the voltage detecting part, while during a drive stop mode in which the actuator stops driving, current does not flow in the voltage detecting part, wherein the switching part (35, 135, 235) is configured to allow the current to flow into the voltage detecting part when the actuator which has stopped driving commences driving, and configured to cut the flow of the current to the voltage detecting part when a predetermined time has elapsed from when the actuator stopped driving.
An ablation system, comprising: an elongate shaft having a distal region; a plurality of ablation tines (16a-16f, 20a-20f; 146; 346) disposed at the distal region; wherein each of the ablation tines (16a-16f, 20a-20f; 146; 346) includes an electrically conductive tubular member having a flexible circuit (130; 130a-130d; 230; 230a-230d; 330; 430; 530; 630) disposed therein; wherein the flexible circuit (130; 130a-130d; 230; 230a-230d; 330; 430; 530; 630) includes a substrate (132; 332; 432; 532; 632), one or more electrodes coupled to the substrate, and a temperature sensor (138; 338; 438; 538a; 638a) coupled to the substrate and positioned adjacent to the one or more electrodes, the one or more electrodes of the flexible circuit (130; 130a-130d; 230; 230a-230d; 330; 430; 530; 630) being disposed within the ablation tine (16a-16f, 20a-20f; 146; 346) and in electrical contact with the electrically conductive tubular member of the ablation tine (16a-16f, 20a-20f; 146; 346); wherein the plurality of ablation tines (16a-16f, 20a-20f; 146; 346) includes a first ablation tine and a second ablation tine; and wherein a pair of bipolar electrodes is defined by a first electrode disposed at the first ablation tine and a second electrode disposed at the second ablation tine. an elongate shaft having a distal region; a plurality of ablation tines (16a-16f, 20a-20f; 146; 346) disposed at the distal region; wherein each of the ablation tines (16a-16f, 20a-20f; 146; 346) includes an electrically conductive tubular member having a flexible circuit (130; 130a-130d; 230; 230a-230d; 330; 430; 530; 630) disposed therein; wherein the flexible circuit (130; 130a-130d; 230; 230a-230d; 330; 430; 530; 630) includes a substrate (132; 332; 432; 532; 632), one or more electrodes coupled to the substrate, and a temperature sensor (138; 338; 438; 538a; 638a) coupled to the substrate and positioned adjacent to the one or more electrodes, the one or more electrodes of the flexible circuit (130; 130a-130d; 230; 230a-230d; 330; 430; 530; 630) being disposed within the ablation tine (16a-16f, 20a-20f; 146; 346) and in electrical contact with the electrically conductive tubular member of the ablation tine (16a-16f, 20a-20f; 146; 346); wherein the plurality of ablation tines (16a-16f, 20a-20f; 146; 346) includes a first ablation tine and a second ablation tine; and wherein a pair of bipolar electrodes is defined by a first electrode disposed at the first ablation tine and a second electrode disposed at the second ablation tine.
Surface decoration kit comprising a PVC-based surface coating to be installed on the surface to be decorated, characterized in that: said PVC-based coating is a paintable surface coating, the surface of which to be painted is covered with a varnish obtained by UV crosslinking of a UV-crosslinkable polyurethane polymer; and the kit additionally comprises a container containing a acrylic urethane-based paint to be applied to the varnish of the surface to be painted, after having laid the surface coating on the surface to be decorated. said PVC-based coating is a paintable surface coating, the surface of which to be painted is covered with a varnish obtained by UV crosslinking of a UV-crosslinkable polyurethane polymer; and the kit additionally comprises a container containing a acrylic urethane-based paint to be applied to the varnish of the surface to be painted, after having laid the surface coating on the surface to be decorated.
A pneumatic tire comprising a carcass, the carcass having one or more cord reinforced plies (240, 260) and a pair of bead portions each comprising a bead core, wherein at least one of the bead portions comprises a chafer comprising three zones (410, 420, 430), wherein the three zones (410, 420, 430) are formed of different materials, wherein the first zone extends from axially inward of the bead core to an end axially outward of the bead core, the second zone extends from the end of the first zone to an end of the second zone located radially outward of the end of the first zone, and the third zone extends from the radially outer end of the second zone to the radially outer end of the chafer, characterized in that the end of the first zone axially outward of the bead core is located radially between the radially outermost end of the bead core and the radially innermost end of the bead core.
A device comprising a flexible tube, the flexible tube comprising: an end portion comprising a first elongated hardened element located at a tip of the end portion; a collapsible end portion configured to fold on or into itself and comprising a second elongated hardened element threaded thereon; and an actuating element secured to the collapsible end portion, wherein, the end portion and the collapsible end portion are each sized to be threaded through at least one aperture in tissue and when the end portion and the collapsible end portion are threaded distally through respective first and second apertures, and the actuating element is pulled proximally, the collapsible end portion collapses proximally on or into itself and forms a bulge larger than the second aperture in vicinity to the second elongated hardened element, thereby anchoring the flexible tube against a rim of the second aperture. an end portion comprising a first elongated hardened element located at a tip of the end portion; a collapsible end portion configured to fold on or into itself and comprising a second elongated hardened element threaded thereon; and an actuating element secured to the collapsible end portion, wherein, the end portion and the collapsible end portion are each sized to be threaded through at least one aperture in tissue and when the end portion and the collapsible end portion are threaded distally through respective first and second apertures, and the actuating element is pulled proximally, the collapsible end portion collapses proximally on or into itself and forms a bulge larger than the second aperture in vicinity to the second elongated hardened element, thereby anchoring the flexible tube against a rim of the second aperture.
A method of sealing gaps between materials, by applying a joint sealant, wherein the joint sealant comprises a bituminous material or a clear synthetic binder material and comprises a mineral filler, and wherein the joint sealant is in the form of granules, comprising steps of (a) placing the granules in the gaps between the materials; and (b) heating the granules such that the joint sealant flows and seals the gaps between the materials. (a) placing the granules in the gaps between the materials; and (b) heating the granules such that the joint sealant flows and seals the gaps between the materials.
A bit securing system comprising: at least two bits, each bit including a respective shank, each shank including a respective locking portion; an adapter board including at least two holes, each respective hole of the adapter board configured to receive one respective shank of the at least two bits; and an anti-rotation plate configured to engage the respective locking portions of the shanks of the at least two bits such that the anti-rotation plate constrains the at least two bits against rotation with respect to the adapter board; characterised in that the adapter board includes a lower surface and an upper surface; each bit includes a respective shoulder; each shank extends from a respective shoulder; and when each shank of the at least two bits are received within a respective hole of the adapter board with each shoulder abutting the lower surface of the adapter board, the respective locking portions extend outside each respective hole from the upper surface of the adapter board. at least two bits, each bit including a respective shank, each shank including a respective locking portion; an adapter board including at least two holes, each respective hole of the adapter board configured to receive one respective shank of the at least two bits; and an anti-rotation plate configured to engage the respective locking portions of the shanks of the at least two bits such that the anti-rotation plate constrains the at least two bits against rotation with respect to the adapter board; characterised in that the adapter board includes a lower surface and an upper surface; each bit includes a respective shoulder; each shank extends from a respective shoulder; and when each shank of the at least two bits are received within a respective hole of the adapter board with each shoulder abutting the lower surface of the adapter board, the respective locking portions extend outside each respective hole from the upper surface of the adapter board.
A signal generation method for generating an information signal F(b) by performing a Fourier transform on a signal f(a), the method comprising the steps of: detecting the maximum peak intensity of the information signal F(b); calculating an amplitude, a phase, and a frequency of the signal f(a) corresponding to the maximum peak intensity of the information signal F(b); generating a signal f'(a) which extends along an 'a' axis on the basis of the information about the amplitude, the phase, and the frequency; generating an extrapolation signal by extracting a signal in a region smaller than a1 and a signal in a region larger than a2 from the extending signal f'(a), wherein a1 < a2; generating a composite signal by combining the extrapolation signal with the signal f(a) in a range from a1 to a2; and further performing a Fourier transform on the composite signal. detecting the maximum peak intensity of the information signal F(b); calculating an amplitude, a phase, and a frequency of the signal f(a) corresponding to the maximum peak intensity of the information signal F(b); generating a signal f'(a) which extends along an 'a' axis on the basis of the information about the amplitude, the phase, and the frequency; generating an extrapolation signal by extracting a signal in a region smaller than a1 and a signal in a region larger than a2 from the extending signal f'(a), wherein a1 < a2; generating a composite signal by combining the extrapolation signal with the signal f(a) in a range from a1 to a2; and further performing a Fourier transform on the composite signal.
A method for manufacturing tissue, towel, or napkin paper from a continuous paper web fed onto the outer surface of a paper drying drum, comprising: applying a creping adhesive composition to the outer surface of the paper drying drum, prior to the web contacting the drum surface, the adhesive comprising a phosphoric acid stabilized poly(aminoamide)-epihalohydrin creping adhesive; contacting the creping adhesive-bearing drum surface with a continuous paper web; drying the continuous paper web; and creping the dry continuous paper with a creping blade to form the creped tissue, towel, or napkin paper. applying a creping adhesive composition to the outer surface of the paper drying drum, prior to the web contacting the drum surface, the adhesive comprising a phosphoric acid stabilized poly(aminoamide)-epihalohydrin creping adhesive; contacting the creping adhesive-bearing drum surface with a continuous paper web; drying the continuous paper web; and creping the dry continuous paper with a creping blade to form the creped tissue, towel, or napkin paper.
A shrouded turbine for producing power, comprising a shroud and blades that have an NACA series type foil shape, said shroud consisting of a partial airfoil shape, wherein the blades have a P/D ratio defined by pitch P divided by blade diameter D, as P/D = pi ∗ (r/R) ∗ tan(Phi), where Phi is the pitch angle, r is the radial coordinate and R is the tip radius, characterised in the P/D ratio starting to steadily increase up to the blade tip from a starting point within 40-90% of the distance from the central axis of the turbine to the periphery of the blades where said ratio at the tip is greater than 0.7.
A mobile terminal, comprising: at least one pressure sensor (110, 120, 440) including a left pressure sensor disposed at a left edge of the mobile terminal and a right pressure sensor disposed at a right edge of the mobile terminal; a proximity sensor (100, 450); and a controller configured to: determine a squeezing pressure on an edge of the mobile terminal using the left pressure sensor and the right pressure sensor, characterized in that the controller is further configured to: determine a difference value between the determined squeezing pressure and a previous squeezing pressure; determine whether the difference value is within a threshold; determine whether the proximity sensor (100, 450) is hidden by a person or an object using the proximity sensor (100, 450) when the determined difference value is within the threshold; and transition the mobile terminal to a wakeup state in response to determining that the proximity sensor (100, 450) is not hidden by the person or the object. at least one pressure sensor (110, 120, 440) including a left pressure sensor disposed at a left edge of the mobile terminal and a right pressure sensor disposed at a right edge of the mobile terminal; a proximity sensor (100, 450); and a controller configured to: determine a squeezing pressure on an edge of the mobile terminal using the left pressure sensor and the right pressure sensor, characterized in that the controller is further configured to: determine a difference value between the determined squeezing pressure and a previous squeezing pressure; determine whether the difference value is within a threshold; determine whether the proximity sensor (100, 450) is hidden by a person or an object using the proximity sensor (100, 450) when the determined difference value is within the threshold; and transition the mobile terminal to a wakeup state in response to determining that the proximity sensor (100, 450) is not hidden by the person or the object. determine a squeezing pressure on an edge of the mobile terminal using the left pressure sensor and the right pressure sensor, characterized in that the controller is further configured to: determine a difference value between the determined squeezing pressure and a previous squeezing pressure; determine whether the difference value is within a threshold; determine whether the proximity sensor (100, 450) is hidden by a person or an object using the proximity sensor (100, 450) when the determined difference value is within the threshold; and transition the mobile terminal to a wakeup state in response to determining that the proximity sensor (100, 450) is not hidden by the person or the object. determine a difference value between the determined squeezing pressure and a previous squeezing pressure; determine whether the difference value is within a threshold; determine whether the proximity sensor (100, 450) is hidden by a person or an object using the proximity sensor (100, 450) when the determined difference value is within the threshold; and transition the mobile terminal to a wakeup state in response to determining that the proximity sensor (100, 450) is not hidden by the person or the object.
A fiber structure for deodorization, wherein inorganic particles and water-soluble amine compound are supported in a fiber structure, an equilibrated water content under the environment adjusted at a temperature of 25°C and a relative humidity of 75% is 15% by mass or less, and a pH when the fiber structure is immersed in water to 3% by weight relative to water is 3. 5 to 7, and wherein the inorganic particles are hydrophobic porous particles and the hydrophobic porous particles have an average pore diameter of 2 to 50 nm.