mhurhangee/ep-ind-claims huggingface dataset:
A shift register unit comprising a first pull-up module, a first scanning module, a control module, a first pull-down module and a second pull-down module; wherein the first pull-up module receives a first clock signal (CLKA), is connected to a first control node and a first signal output terminal (OUTPUT1), and is configured to pull up a signal output from the first signal output terminal (OUTPUT1) to a high level under the control of the first scanning module and the first clock signal (CLKA); the first scanning module receives a first scanning signal (V_F), a second scanning signal (V_R), is connected to a first signal input terminal (INPUT1), a second signal input terminal (INPUT2) and the first control node, wherein the first scanning signal (V_F) and the second scanning signal (V_R) determine a scanning direction of the shift register unit, and the first scanning module is configured to control a potential at the first control node according to signals input from the first signal input terminal (INPUT1) and the second signal input terminal (INPUT2); the control module receives a first Alternating Current, hereinafter termed AC, signal and a second AC signal, is connected to the first control node, the first pull-down module, the second pull-down module and a voltage terminal, and is configured to control the first pull-down module and the second pull-down module according to the first AC signal and the second AC signal; the first pull-down module and the second pull-down module are further connected to the first control node, the first signal output terminal (OUTPUT1) and the voltage terminal, and are configured to pull down the signal output from the first signal output terminal (OUTPUT1) alternately under the control of the control module, wherein the first pull down module is further configured to pull down the signal output from the first signal output terminal (OUTPUT1) in response to the first pull down node being at the active level, the first pull down node when connected to the voltage terminal (Vss) being at an inactive level; wherein the control module further comprises a first and a second control transistor (T11, T12), wherein the first control transistor has a source connected to a gate of a second control transistor, a gate connected to the first signal input terminal (INPUT1), and the second control transistor has a source connected to the voltage terminal, and a drain connected to a first pull-down node; the shift register unit is characterized in that the first control transistor has a drain connected to the first control node; wherein the first control transistor and the second control transistor are configured as: when the first signal input terminal (INPUT1) and the first control node are at an active level, the first control transistor supplies a voltage signal of the first control node to the gate of the second control transistor, to control the second control transistor to connect the first pull-down node with the voltage terminal.
A water filter cartridge, having a housing, having a flow path for air for aeration of a water-storing water tank feeding said water filter cartridge, wherein the flow path comprises a first water barrier having a vent opening for discharging air, wherein a first guide element is provided as a tubular structure for guiding the air rising from a connection, and characterised in that on the inner wall of the guide element there is provided a second guide element that is produced as a drain rib having a portion oriented vertically in the operating position of the water filter cartridge for channelling away water in order to bring about a drainage effect for adherent water droplets as early as possible.
A temperature regulating system for a heating installation of a building using a heat transfer fluid heated by a boiler, said installation comprising a heating circuit to convey the heat transfer fluid between said boiler, a mixing valve and radiators, the mixing valve being arranged to mix the fluid coming from the radiators and the fluid coming from the boiler to supply the heating circuit and a device for controlling the mixing valve arranged to slave the temperature of the heat transfer fluid supplying the radiators, called input fluid, to a setpoint temperature as a function of a temperature value outside the building, said regulating system further including a regulating block connected as input to an input fluid temperature sensor, a presence detector and a sunshine sensor as well as two temperature sensors outside and inside the building, and connected as output to an input of the control device, the regulating block comprising a set of neural networks (21, 22), a block for determining a setpoint temperature including a neural network and a circuit for optimizing the temperature of the input fluid, a circuit for determining a comfortable temperature within the building connected as output to an input of the circuit, and a circuit for determining an outside temperature signal (Tem), characterized in that an output of the circuit for optimizing the temperature of the input fluid is looped on an input of the neural network and in that the circuit for determining an outside temperature signal (Tem) is connected as input on said output of the circuit as well as an input fluid temperature sensor and as output to the control device.
Installation device for a device for the treatment of a flowing fluid, in particular a gas for cooling the same by means of a cooling medium, in particular by means of spray water or drip water, comprising - installation packages (32, 34) arranged side by side and/or above each other, respectively comprising individual corrugated mat elements (12, 14) respectively having two substantially parallel longitudinal edges and substantially parallel transversal edges extending transversally thereto, and being arranged side by side and abutting each other per installation package (32, 34), - wherein each corrugated mat element (12, 14) comprises half-channels formed by alternately successive depressions and protrusions, characterized in that - the mat elements (12, 14) comprise first mat elements with half-channels extending obliquely and under acute angles to the longitudinal edges and the transversal edges, and second mat elements with half-channels extending substantially parallel to the longitudinal or transversal edges (22, 24), and - that each installation package (32, 34) in particular comprises first and second mat elements (12, 14) arranged in alternating succession. - installation packages (32, 34) arranged side by side and/or above each other, respectively comprising individual corrugated mat elements (12, 14) respectively having two substantially parallel longitudinal edges and substantially parallel transversal edges extending transversally thereto, and being arranged side by side and abutting each other per installation package (32, 34), - wherein each corrugated mat element (12, 14) comprises half-channels formed by alternately successive depressions and protrusions, - the mat elements (12, 14) comprise first mat elements with half-channels extending obliquely and under acute angles to the longitudinal edges and the transversal edges, and second mat elements with half-channels extending substantially parallel to the longitudinal or transversal edges (22, 24), and - that each installation package (32, 34) in particular comprises first and second mat elements (12, 14) arranged in alternating succession.
An isolated immunogenic peptide comprising: a natural killer T cell epitope of an antigenic protein comprising a [FWHY]-xx-[ILMV]-xx-[FWHY] motif; and a thioreductase -xx-C or C-xx- motif, which is either immediately adjacent to said NKT cell epitope or separated by a linker of at most 7 amino acids, wherein the antigenic protein is selected from the group consisting of an autoantigen, an allofactor, an allergen, an alloantigen shed by a graft, an antigen of an intracellular pathogen, and an antigen from a viral vector used for gene therapy or gene vaccination, and wherein said antigenic protein does not comprise a -xx-C or C-xx- motif within 11 amino acids N- or C terminally adjacent to said NKT cell epitope. a natural killer T cell epitope of an antigenic protein comprising a [FWHY]-xx-[ILMV]-xx-[FWHY] motif; and a thioreductase -xx-C or C-xx- motif, which is either immediately adjacent to said NKT cell epitope or separated by a linker of at most 7 amino acids,
A method for manufacturing an integrated computational element core, the method comprising: thermally evaporating a material utilizing an e-beam source to deposit the material on a substrate, wherein the material is deposited to establish a shape of the integrated computational element core having a number of alternating layers of Nb 2 O 5 and quartz, the substrate and the layers having different complex indices of refraction, wherein the number, material, spacing and thickness of the layers, the material of the substrate, and the shape define transmission, reflection, and absorptive electromagnetic intensity as a function of wavelength, further comprising: evaluating the performance of the integrated computational element core in situ via an optical monitor assembly to measure transmission, reflection, and absorption functions of the integrated computational element core during the manufacturing process; adjusting the deposition of the material in response to the performance of the integrated computational element core by varying e-beam intensities and strengths to control the shape of the integrated computational element core to thereby control the deposition of the material and therefore transmission shape of the integrated computational element core. thermally evaporating a material utilizing an e-beam source to deposit the material on a substrate, wherein the material is deposited to establish a shape of the integrated computational element core having a number of alternating layers of Nb 2 O 5 and quartz, the substrate and the layers having different complex indices of refraction, wherein the number, material, spacing and thickness of the layers, the material of the substrate, and the shape define transmission, reflection, and absorptive electromagnetic intensity as a function of wavelength, further comprising: evaluating the performance of the integrated computational element core in situ via an optical monitor assembly to measure transmission, reflection, and absorption functions of the integrated computational element core during the manufacturing process; adjusting the deposition of the material in response to the performance of the integrated computational element core by varying e-beam intensities and strengths to control the shape of the integrated computational element core to thereby control the deposition of the material and therefore transmission shape of the integrated computational element core.
A passenger seat for an aircraft, comprising: a frame structure intended for mounting the passenger seat to cabin floor of the aircraft; a top seat pan (202, 500, 604, 704, 804) having a corrugation pattern for enhancing rigidity of the top seat pan (202, 500, 604, 704, 804); and a bottom seat pan (200, 602, 802); wherein the top seat pan (202, 500, 604, 704, 804) is disposed above the bottom seat pan (200, 602, 802)for partially absorbing a downward loading applied to the top seat pan (202, 500, 604, 704, 804) through deformation of the corrugation pattern of the rigid top seat pan as a result of a counter force applied by the bottom seat pan (200, 602, 802); and wherein the bottom seat pan (200, 602, 802) is rigidly connected to the frame structure and forms a shear resistant diaphragm for enhancing the integrity of the frame structure. a frame structure intended for mounting the passenger seat to cabin floor of the aircraft; a top seat pan (202, 500, 604, 704, 804) having a corrugation pattern for enhancing rigidity of the top seat pan (202, 500, 604, 704, 804); and a bottom seat pan (200, 602, 802); wherein the top seat pan (202, 500, 604, 704, 804) is disposed above the bottom seat pan (200, 602, 802)for partially absorbing a downward loading applied to the top seat pan (202, 500, 604, 704, 804) through deformation of the corrugation pattern of the rigid top seat pan as a result of a counter force applied by the bottom seat pan (200, 602, 802); and wherein the bottom seat pan (200, 602, 802) is rigidly connected to the frame structure and forms a shear resistant diaphragm for enhancing the integrity of the frame structure.
A disposable tourniquet arranged to be wrapped around a patient's limb and tightened to reduce circulation, said tourniquet comprising a main band portion with a band formed of a thin flexible material and having releasable securable means for enabling said band to be wrapped around the patient's limb and tightened and means for controlling the amount of tension applied to the band when it is tightened about the limb of the patient, said means for controlling the amount of tension applied is adapted for preventing over-tensioning, wherein said main band portion having a pair of ends, one of said ends being in the form of a tab having a passageway located therein, the other of said ends being a free end, wherein said passageway comprises a through hole in said tab, and said tourniquet being arranged so that said free end of said band portion may be extended through said passageway of said tab portion, characterized in that said band is formed of a non-stretchable material, said means for controlling the amount of tension comprises a tongue portion located at said tab in said passageway and over which a portion of said band adjacent said free end may slide when said free end of said band portion passes through said passageway, and said tongue is coupled to said main band portion by a crumple zone arranged to crumple upon the application of excess tension to said tourniquet.
Method for controlled switching of a circuit breaker, the method comprising initiating operation of the circuit breaker at an initiation instant that is derivable from an initiation time function by calculating a value of the initiation time function with respect to a command instant; the initiation time function being a composite function and a sum of the command instant and an inner function which is a a command delay time, wherein the initiation time function depending on a first parameter and a second parameter, the inner function of the initiation time function being one of a weighted multiplication and a weighted division of a first subfunction and a second subfunction, and the first subfunction being dependent on the first parameter, and the second subfunction being dependent on the second parameter; and the partial derivative of the initiation time function with respect to the first parameter being dependent on the second parameter and the partial derivative of the initiation time function with respect to the second parameter being dependent on the first parameter. the initiation time function being a composite function and a sum of the command instant and an inner function which is a a command delay time, wherein the initiation time function depending on a first parameter and a second parameter, the inner function of the initiation time function being one of a weighted multiplication and a weighted division of a first subfunction and a second subfunction, and the first subfunction being dependent on the first parameter, and the second subfunction being dependent on the second parameter; and the partial derivative of the initiation time function with respect to the first parameter being dependent on the second parameter and the partial derivative of the initiation time function with respect to the second parameter being dependent on the first parameter.
Anhydrous liquid composition comprising, preferably in a physiologically acceptable medium: a) an oily phase comprising: i) at least one non-volatile oil and ii) at least one volatile hydrocarbon oil and b) at least one monoalcohol comprising from 2 to 8 carbon atoms and c) at least one lipophilic film-forming polymer chosen from: (i) silicone resins of MQ type, (ii) silsesquioxane resins, (iii) vinyl polymers grafted with a carbosiloxane dendrimer, (iv) their mixtures, and d) at least one particulate material, the said composition comprising at least 30% by weight of non-volatile oil(s) with respect to the total weight of the composition. a) an oily phase comprising: i) at least one non-volatile oil and ii) at least one volatile hydrocarbon oil and i) at least one non-volatile oil and ii) at least one volatile hydrocarbon oil and b) at least one monoalcohol comprising from 2 to 8 carbon atoms and c) at least one lipophilic film-forming polymer chosen from: (i) silicone resins of MQ type, (ii) silsesquioxane resins, (iii) vinyl polymers grafted with a carbosiloxane dendrimer, (iv) their mixtures, and (i) silicone resins of MQ type, (ii) silsesquioxane resins, (iii) vinyl polymers grafted with a carbosiloxane dendrimer, (iv) their mixtures, and d) at least one particulate material, the said composition comprising at least 30% by weight of non-volatile oil(s) with respect to the total weight of the composition.
Process for preparing proton-conducting clay particles, successively comprising the following steps: a) a step of activating a clay powder, in which the said powder is subjected to a gas plasma; b) a grafting step in which the activated powder obtained from step a) is placed in contact with a solution comprising at least one compound comprising at least one group chosen from -PO 3 H 2, -CO 2 H and -SO 3 H and salts thereof and comprising at least one group capable of grafting onto the surface of the said powder, whereby said compound is immobilized onto the surface of said powder by means of a covalent chemical bond. a) a step of activating a clay powder, in which the said powder is subjected to a gas plasma; b) a grafting step in which the activated powder obtained from step a) is placed in contact with a solution comprising at least one compound comprising at least one group chosen from -PO 3 H 2, -CO 2 H and -SO 3 H and salts thereof and comprising at least one group capable of grafting onto the surface of the said powder, whereby said compound is immobilized onto the surface of said powder by means of a covalent chemical bond.
A grab handle for a passenger compartment of a vehicle, comprising a single mounting bracket including an attachment portion and a retaining portion, said attachment portion defining a plurality of apertures for attaching to a vehicle body member and said retaining portion defining two apertures for attaching a grip body to said mounting bracket, wherein said attachment portion includes an abutment flange for abutment on said vehicle body member, wherein said abutment flange extends substantially orthogonal to said attachment portion, characterized in that said retaining portion extends substantially orthogonal to said attachment portion and said retaining portion extends in a direction opposite to that of said abutment flange.
A stretched retardation film, comprising a cellulose ester having a total acyl group substitution degree of 2.0 to 2.8; and an esterified compound in which all or a part of OH groups in a compound or in a compound are esterified, wherein the compound consists of one of a furanose structure and a pyranose structure, and the compound consists of two to twelve of at least one type of a furanose structure and a pyranose structure which are bonded in the compound, characterized in that the stretched retardation film is stretched so as to exhibit the following retardation values for light having a wavelength of 590 nm under a condition of temperature of 23 °C and humidity of 55 %RH for 24 hours: an in-plane retardation value R o represented by Formula (i) is 20 to 80 nm, a thickness-direction retardation value R t represented by Formula (ii) is 100 to 250 nm and a ratio of R t / R o is 2.0 to 5.0, Ro = nx − ny × d Rt = nx + ny / 2 − nz × d where nx represents a refractive index in a film in-plane slow axis direction, ny represents a refractive index in a direction perpendicular to the slow axis, nz represents a refractive index in a film thickness direction, and d represents a film thickness (nm), and wherein the fluctuation of retardation values due to humidity change between 20 % RH and 80 % RH when subjected to a moisture conditioning at 23 °C for 5 hours is 3 to 20 nm in thickness. an in-plane retardation value R o represented by Formula (i) is 20 to 80 nm, a thickness-direction retardation value R t represented by Formula (ii) is 100 to 250 nm and a ratio of R t / R o is 2.0 to 5.0, Ro = nx − ny × d Rt = nx + ny / 2 − nz × d where nx represents a refractive index in a film in-plane slow axis direction, ny represents a refractive index in a direction perpendicular to the slow axis, nz represents a refractive index in a film thickness direction, and d represents a film thickness (nm), and wherein the fluctuation of retardation values due to humidity change between 20 % RH and 80 % RH when subjected to a moisture conditioning at 23 °C for 5 hours is 3 to 20 nm in thickness.
A powered prosthetic thumb, comprising: a mount; a digit rotatably coupled with the mount about a first axis and a second axis, the first axis non-parallel with the second axis; and an actuator configured to cause rotation of the digit about the first axis; a second actuator configured to cause the digit to rotate about the second axis; a first bevel gear and a second bevel gear in mechanical communication with the first bevel gear; wherein an orientation of the first axis relative to the mount changes as the digit rotates about the second axis, and wherein the second actuator is configured to cause rotation of the digit about the second axis by causing rotation of the first bevel gear. a mount; a digit rotatably coupled with the mount about a first axis and a second axis, the first axis non-parallel with the second axis; and an actuator configured to cause rotation of the digit about the first axis; a second actuator configured to cause the digit to rotate about the second axis; a first bevel gear and a second bevel gear in mechanical communication with the first bevel gear; wherein an orientation of the first axis relative to the mount changes as the digit rotates about the second axis, and wherein the second actuator is configured to cause rotation of the digit about the second axis by causing rotation of the first bevel gear.