mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition for wound healing, which forms a film upon application to the skin, comprising: (a) a pharmaceutically active substance; (b) a film-forming substance consisting of chitosan or a salt thereof; (c) a solvent for dissolving the chitosan, wherein the solvent comprising a mixture of water and a lower alcohol having 1 to 4 carbon atoms, wherein the lower alcohol is selected from ethanol and isopropyl alcohol; and (d) an additive selected from the group consisting of an acid, a plasticizer, a thickener, a surfactant, a preservative, a flavoring agent, a stabilizer, a defoamer, an analgesic agent, an antioxidant, an adhesive, a gellant, an emulsifier, an astringent, an opacifier, a humectant and mixtures thereof, wherein the film-forming substance is contained in an amount of 0.4 to 20 wt% with respect to the total weight of the composition, and the additive is contained in an amount of 0.1 to 30 wt% with respect to the total weight of the composition; wherein the pharmaceutically active substance is tyrothricin or a salt thereof; and wherein the composition does not contain a cream base component, or contains a cream base component and the weight ratio of the film forming substance to the cream base component is 1 part of the film forming substance to 50 parts or less of the cream base component. (a) a pharmaceutically active substance; (b) a film-forming substance consisting of chitosan or a salt thereof; (c) a solvent for dissolving the chitosan, wherein the solvent comprising a mixture of water and a lower alcohol having 1 to 4 carbon atoms, wherein the lower alcohol is selected from ethanol and isopropyl alcohol; and (d) an additive selected from the group consisting of an acid, a plasticizer, a thickener, a surfactant, a preservative, a flavoring agent, a stabilizer, a defoamer, an analgesic agent, an antioxidant, an adhesive, a gellant, an emulsifier, an astringent, an opacifier, a humectant and mixtures thereof, wherein the film-forming substance is contained in an amount of 0.4 to 20 wt% with respect to the total weight of the composition, and the additive is contained in an amount of 0.1 to 30 wt% with respect to the total weight of the composition; wherein the pharmaceutically active substance is tyrothricin or a salt thereof; and wherein the composition does not contain a cream base component, or contains a cream base component and the weight ratio of the film forming substance to the cream base component is 1 part of the film forming substance to 50 parts or less of the cream base component. wherein the film-forming substance is contained in an amount of 0.4 to 20 wt% with respect to the total weight of the composition, and the additive is contained in an amount of 0.1 to 30 wt% with respect to the total weight of the composition; wherein the pharmaceutically active substance is tyrothricin or a salt thereof; and wherein the composition does not contain a cream base component, or contains a cream base component and the weight ratio of the film forming substance to the cream base component is 1 part of the film forming substance to 50 parts or less of the cream base component.
A circuit for translating a voltage of a digital signal from a first voltage level of a first voltage domain to a second voltage level of a second voltage domain, the circuit comprising: a configurable circuit to be coupled between the first voltage domain and the second voltage domain, wherein the configurable circuit includes a plurality of parallel data paths, wherein the configurable circuit is configured to enable only one of the plurality of data paths at a given time, wherein a first path in the plurality of parallel data paths is configured to be enabled when the first voltage level is greater than the second voltage level and a second path in the plurality of parallel data paths is configured to be enabled when the first voltage level is lesser than the second voltage level, wherein the second path includes a level shifter circuit, the level shifter circuit comprising: a comparator including an input differential transistor pair with a matched current mirror load; a parallel signal path circuit comprising an inverter coupled between an input of the level shifter and the comparator output to reduce a voltage transition lag caused by the comparator; a hysteresis adjusting device; and a reference voltage generator circuit to provide a reference voltage to the comparator. a comparator including an input differential transistor pair with a matched current mirror load; a parallel signal path circuit comprising an inverter coupled between an input of the level shifter and the comparator output to reduce a voltage transition lag caused by the comparator; a hysteresis adjusting device; and a reference voltage generator circuit to provide a reference voltage to the comparator.
Blade for a fan of a turbomachine comprising a composite material structure comprising a fibrous reinforcement obtained by three-dimensional weaving of strands and a matrix wherein the fibrous reinforcement is embedded; the composite material structure comprising a leading edge , a trailing edge , a blade with an aerodynamic profile able to extend in an air flow and a foot configured to be fixed to a disc of the fan and a stilt extending between the foot and the blade ; the fibre reinforcement comprising a first portion forming the trailing edge , a second portion forming all or part of the leading edge and a third portion extending between the first portion and the second portion ; the strands of the fibre reinforcement comprising first strands having a predefined elongation at break and second strands having an elongation at break greater than that of the first strands , the first portion comprising all or part of the first strands , the second portion comprising all or part of the second strands and a density of the second strands increasing progressively in the third portion from the first portion to the second portion ; and the first and second strands comprising warp strands distributed so as to form warp columns, a percentage, relative to the total number of warp strands in a warp column of the third portion , of second strands introduced between two immediately adjacent columns of warp strands being at most 30%, and preferably between 5% and 15%. the composite material structure comprising a leading edge , a trailing edge , a blade with an aerodynamic profile able to extend in an air flow and a foot configured to be fixed to a disc of the fan and a stilt extending between the foot and the blade ; the fibre reinforcement comprising a first portion forming the trailing edge , a second portion forming all or part of the leading edge and a third portion extending between the first portion and the second portion ; the strands of the fibre reinforcement comprising first strands having a predefined elongation at break and second strands having an elongation at break greater than that of the first strands , the first portion comprising all or part of the first strands , the second portion comprising all or part of the second strands and a density of the second strands increasing progressively in the third portion from the first portion to the second portion ; and the first and second strands comprising warp strands distributed so as to form warp columns, a percentage, relative to the total number of warp strands in a warp column of the third portion , of second strands introduced between two immediately adjacent columns of warp strands being at most 30%, and preferably between 5% and 15%.
A thermoplastic resin composition, comprising a thermoplastic resin (A) and, per 100 parts by mass of the thermoplastic resin (A), from 0 to 0.2 parts by mass of a metal salt-containing flame retardant (B), and not less than 0.05 parts by mass and less than 3 parts by mass of an organopolysiloxane (C), wherein the organopolysiloxane (C) has a molecular weight distribution (Mw/Mn) determined in accordance with indications given in the description of 1.01 to 1.4.
A method for covering a curved or flat wall of a building, comprising: a) raising, parallel to the wall , a bearing surface comprising a plurality of flexible panels ; b) constraining the bearing surface to the wall by fastening elements and d) fastening a wall covering to the bearing surface , characterized in that the orientation of the fastening elements can be adjusted; and c) precisely adjusting the orientation of the bearing surface from the wall , by selectively orientating the single fastening elements to keep the bearing surface flat, curved or wavy in at least one direction. a) raising, parallel to the wall , a bearing surface comprising a plurality of flexible panels ; b) constraining the bearing surface to the wall by fastening elements and d) fastening a wall covering to the bearing surface , characterized in that the orientation of the fastening elements can be adjusted; and c) precisely adjusting the orientation of the bearing surface from the wall , by selectively orientating the single fastening elements to keep the bearing surface flat, curved or wavy in at least one direction.
A system for assembling a double-deck vehicle body, comprising: a vehicle body chassis support and an upper floor support , wherein: the vehicle body chassis support comprises a crossbeam , end supports , and an intermediate support , wherein the end supports are arranged separately at two ends of the crossbeam , the intermediate support is arranged at the middle of the crossbeam , a height of the end supports is greater than a height of the intermediate support , upper surfaces of the end supports and an upper surface of the intermediate support are configured to be closely fitted to a lower surface of a vehicle body chassis; and the upper floor support is detachably arranged on the vehicle body chassis for supporting an upper floor of the vehicle body. the vehicle body chassis support comprises a crossbeam , end supports , and an intermediate support , wherein the end supports are arranged separately at two ends of the crossbeam , the intermediate support is arranged at the middle of the crossbeam , a height of the end supports is greater than a height of the intermediate support , upper surfaces of the end supports and an upper surface of the intermediate support are configured to be closely fitted to a lower surface of a vehicle body chassis; and the upper floor support is detachably arranged on the vehicle body chassis for supporting an upper floor of the vehicle body.
Use of a composition for extracting and/or preserving nucleic acid from a microorganism or mixture of microorganisms, wherein the composition comprises an oxidizing agent and buffer, wherein the oxidizing agent is periodic acid or periodate, and wherein the composition is an aqueous solution having an alkaline pH.
A display apparatus comprising: a display surface configured to display an image; and a concave mirror configured to reflect light beams from the display surface toward a transparent member having parallel front and rear surfaces and reflecting some of the light beams that have been input thereto and transmitting the remaining light beams that have been input thereto, wherein an optical path of a first light beam (L1) after the first light beam (L1) is reflected in the transparent member coincides with an optical path of a second light beam (L2) after the second light beam (L2) is reflected in the transparent member by the reflection in the concave mirror , the first light beam (L1) reaching the transparent member from one point (P) on the display surface and reflecting on a front surface of the transparent member , and the second light beam (L2) reaching the transparent member from the one point (P) and reflecting on a rear surface of the transparent member , the first light beam (L1) and the second light beam (L2) are incident on the transparent member in parallel to each other by the reflection in the concave mirror , a virtual image of the image is presented by the transparent member , a curvature of the concave mirror or a distance on an optical path from the concave mirror to the display surface is adjusted in such a way that an optical path of the first light beam (L1) after the first light beam (L1) is reflected in the transparent member coincides with an optical path of the second light beam (L2) after the second light beam (L2) is reflected in the transparent member . a display surface configured to display an image; and a concave mirror configured to reflect light beams from the display surface toward a transparent member having parallel front and rear surfaces and reflecting some of the light beams that have been input thereto and transmitting the remaining light beams that have been input thereto, wherein an optical path of a first light beam (L1) after the first light beam (L1) is reflected in the transparent member coincides with an optical path of a second light beam (L2) after the second light beam (L2) is reflected in the transparent member by the reflection in the concave mirror , the first light beam (L1) reaching the transparent member from one point (P) on the display surface and reflecting on a front surface of the transparent member , and the second light beam (L2) reaching the transparent member from the one point (P) and reflecting on a rear surface of the transparent member , the first light beam (L1) and the second light beam (L2) are incident on the transparent member in parallel to each other by the reflection in the concave mirror , a virtual image of the image is presented by the transparent member , a curvature of the concave mirror or a distance on an optical path from the concave mirror to the display surface is adjusted in such a way that an optical path of the first light beam (L1) after the first light beam (L1) is reflected in the transparent member coincides with an optical path of the second light beam (L2) after the second light beam (L2) is reflected in the transparent member .
A vehicle body behavior control device which is incorporated into a vehicle body having a plurality of wheels (W), the vehicle body behavior control device comprising: a behavior control mechanism which is configured to control behavior of the vehicle body; and a control part which is configured to control an operation of the behavior control mechanism based on an axle load applied to the wheel (W) calculated using a gradient value (θ) of a road surface, wherein the behavior control mechanism is a brake mechanism, and the control part is configured to control an operation of applying braking to the wheel (W) performed by the brake mechanism as the operation of the behavior control mechanism, and wherein the operation of applying braking to the wheel (W) is an interlocking brake operation which applies a braking force to the plurality of wheels (W) when an operation of applying braking to any one of the wheels (W) is performed. a behavior control mechanism which is configured to control behavior of the vehicle body; and a control part which is configured to control an operation of the behavior control mechanism based on an axle load applied to the wheel (W) calculated using a gradient value (θ) of a road surface, wherein the behavior control mechanism is a brake mechanism, and the control part is configured to control an operation of applying braking to the wheel (W) performed by the brake mechanism as the operation of the behavior control mechanism, and wherein the operation of applying braking to the wheel (W) is an interlocking brake operation which applies a braking force to the plurality of wheels (W) when an operation of applying braking to any one of the wheels (W) is performed.
A control device comprising: a receiving unit that receives a request for image forming processing; and a control unit that, in a case where the receiving unit receives a plurality of requests for image forming processing from a plurality of places, controls a traveling route of an image forming apparatus , wherein the traveling route is determined based on estimated traveling time for the image forming apparatus to travel to the plurality of places and estimated processing time for the image forming apparatus to finish the image forming processing after traveling. a receiving unit that receives a request for image forming processing; and a control unit that, in a case where the receiving unit receives a plurality of requests for image forming processing from a plurality of places, controls a traveling route of an image forming apparatus , wherein the traveling route is determined based on estimated traveling time for the image forming apparatus to travel to the plurality of places and estimated processing time for the image forming apparatus to finish the image forming processing after traveling.
An electric appliance for generating a tempered airflow with an electrically operable heating element , a blower device and an air channel ; wherein - the heating element is configured - to extract thermal energy from a first area (T1) on a side of the heating element facing away from the air channel and to deliver heat to a second area (T2) on a side of the heating element facing the air channel ; or - to extract thermal energy from the second area (T2) and to deliver heat to the first area (T1); and - the blower device is formed - to generate an airflow in the air channel along the side of the heating element facing the air channel ; and - to generate a further airflow along the side of the heating element facing away from the air channel , wherein a flow direction of the airflow deviates from a further flow direction of the further airflow . - the heating element is configured - to extract thermal energy from a first area (T1) on a side of the heating element facing away from the air channel and to deliver heat to a second area (T2) on a side of the heating element facing the air channel ; or - to extract thermal energy from the second area (T2) and to deliver heat to the first area (T1); and - to extract thermal energy from a first area (T1) on a side of the heating element facing away from the air channel and to deliver heat to a second area (T2) on a side of the heating element facing the air channel ; or - to extract thermal energy from the second area (T2) and to deliver heat to the first area (T1); and - the blower device is formed - to generate an airflow in the air channel along the side of the heating element facing the air channel ; and - to generate a further airflow along the side of the heating element facing away from the air channel , wherein a flow direction of the airflow deviates from a further flow direction of the further airflow . - to generate an airflow in the air channel along the side of the heating element facing the air channel ; and - to generate a further airflow along the side of the heating element facing away from the air channel , wherein a flow direction of the airflow deviates from a further flow direction of the further airflow .
A foldable display device, comprising: a flexible display module that includes a first non-foldable portion , a second non-foldable portion , and a foldable portion disposed between the first non-foldable portion and the second non-foldable portion ; a case disposed on a back surface of the flexible display module and that includes a first cover that covers the first non-foldable portion , a second cover that covers the second non-foldable portion , and a coupling cover that covers the foldable portion ; characterized by a first metal plate disposed between the flexible display module and the case and that includes a first fixed portion that supports the first non-foldable portion and a first rotatable portion that supports the foldable portion adjacent to the first non-foldable portion ; a second metal plate disposed between the flexible display module and the case and that includes a second fixed portion that supports the second non-foldable portion and a second rotatable portion that supports the foldable portion adjacent to the second non-foldable portion ; a first hinge rotatably connected to the coupling cover and that includes a first fixed support portion that supports the first fixed portion and a first portion that supports the first rotatable portion according to a rotation of the first cover ; and a second hinge rotatably connected to the coupling cover and that includes a second fixed support portion that supports the second fixed portion and a second portion that supports the second rotatable portion according to a rotation of the second cover . a flexible display module that includes a first non-foldable portion , a second non-foldable portion , and a foldable portion disposed between the first non-foldable portion and the second non-foldable portion ; a case disposed on a back surface of the flexible display module and that includes a first cover that covers the first non-foldable portion , a second cover that covers the second non-foldable portion , and a coupling cover that covers the foldable portion ; characterized by a first metal plate disposed between the flexible display module and the case and that includes a first fixed portion that supports the first non-foldable portion and a first rotatable portion that supports the foldable portion adjacent to the first non-foldable portion ; a second metal plate disposed between the flexible display module and the case and that includes a second fixed portion that supports the second non-foldable portion and a second rotatable portion that supports the foldable portion adjacent to the second non-foldable portion ; a first hinge rotatably connected to the coupling cover and that includes a first fixed support portion that supports the first fixed portion and a first portion that supports the first rotatable portion according to a rotation of the first cover ; and a second hinge rotatably connected to the coupling cover and that includes a second fixed support portion that supports the second fixed portion and a second portion that supports the second rotatable portion according to a rotation of the second cover .
A method for adjusting spatial congruency in a video conference, the method comprising: unwarping a visual scene captured by a video endpoint device into at least one rectilinear scene, the video endpoint device being configured to capture the visual scene in an omnidirectional manner; detecting spatial congruency between the at least one rectilinear scene and an auditory scene captured by an audio endpoint device that is positioned in relation to the video endpoint device, the spatial congruency being a degree of alignment between the auditory scene and the at least one rectilinear scene; and in response to the detected spatial congruency being below a predefined threshold, adjusting the spatial congruency, wherein unwarping the visual scene comprises: assigning a nominal original direction of the captured visual scene; and unwarping the captured visual scene into two rectilinear scenes split from the nominal original direction and from an opposite direction with regard to the nominal original direction. unwarping a visual scene captured by a video endpoint device into at least one rectilinear scene, the video endpoint device being configured to capture the visual scene in an omnidirectional manner; detecting spatial congruency between the at least one rectilinear scene and an auditory scene captured by an audio endpoint device that is positioned in relation to the video endpoint device, the spatial congruency being a degree of alignment between the auditory scene and the at least one rectilinear scene; and in response to the detected spatial congruency being below a predefined threshold, adjusting the spatial congruency, wherein unwarping the visual scene comprises: assigning a nominal original direction of the captured visual scene; and unwarping the captured visual scene into two rectilinear scenes split from the nominal original direction and from an opposite direction with regard to the nominal original direction. assigning a nominal original direction of the captured visual scene; and unwarping the captured visual scene into two rectilinear scenes split from the nominal original direction and from an opposite direction with regard to the nominal original direction.