mhurhangee/ep-ind-claims huggingface dataset:
Hybrid device monolithically integrating a photoanode and a commercial Si photovoltaic cell, the commercial silicon photovoltaic cell comprising a layer of positively doped silicon (p-type Si) and a layer of negatively doped silicon (n-type Si), characterized in that the photoanode is made of a InGaN layer epitaxially grown over crystallographic planes of the p-type silicon, and in that quantum dots of InN are produced over the exposed surface of the InGaN layer, said quantum dots having a ratio of height/diameter lower than 0.25.
A chemical compound comprising an aromatic core, or a carbocyclic, non-aromatic, core, wherein the aromatic core is a benzene ring or a biphenyl; the carbocyclic, non-aromatic core is a 5 to 7 membered ring; and the core having covalently attached thereto: - at least two anchoring groups, each anchoring group comprising an activated silane group, wherein the anchoring groups have the following general formula -A-(CH 2) n SiY 3 wherein A is a covalent bond or O, "n" is an integer from 1 to 3, and Y is independently a methoxy group or an ethoxy group; and - at least one hydrophilic group extending from the core, the hydrophilic group comprising one or more hydrophilic polymer residues with a molecular composition of (aO+bN)/(cC+dS+eSi+fP) > 0.3 where a, b, c, d, e and f are the mol percentage of oxygen, nitrogen, carbon, sulfur, silicon (Si) and phosphorus, respectively; wherein the hydrophilic polymer residue(s) is(are) selected, independently of each other if more than one hydrophilic group is present, from -(O-CH 2 -CH 2) m -OX, wherein X is CH 3 or H, and "m" is an integer from 6 to 25; - wherein the number of hydrophilic groups extending from the core is from one to the number of ring structures in the core. - at least two anchoring groups, each anchoring group comprising an activated silane group, wherein the anchoring groups have the following general formula -A-(CH 2) n SiY 3 wherein A is a covalent bond or O, "n" is an integer from 1 to 3, and Y is independently a methoxy group or an ethoxy group; and - at least one hydrophilic group extending from the core, the hydrophilic group comprising one or more hydrophilic polymer residues with a molecular composition of (aO+bN)/(cC+dS+eSi+fP) > 0.3 where a, b, c, d, e and f are the mol percentage of oxygen, nitrogen, carbon, sulfur, silicon (Si) and phosphorus, respectively; wherein the hydrophilic polymer residue(s) is(are) selected, independently of each other if more than one hydrophilic group is present, from -(O-CH 2 -CH 2) m -OX, wherein X is CH 3 or H, and "m" is an integer from 6 to 25; - wherein the number of hydrophilic groups extending from the core is from one to the number of ring structures in the core. - wherein the number of hydrophilic groups extending from the core is from one to the number of ring structures in the core.
A vehicle safety system, comprising: an image capture device to capture image data of an object in the vicinity of the vehicle; and a processor operable to: analyse the image data to identify an object which is likely to be a human; identify the head of the human; and from the apparent size of the head of the human in the image, determine a probable distance to the object, wherein the actual size of the head is assumed to be of a standard size, wherein the pose of the human is considered to assist in determining whether the human is oriented side-on or head-on to the camera, in order to determine said apparent size of the head of the human. an image capture device to capture image data of an object in the vicinity of the vehicle; and a processor operable to: analyse the image data to identify an object which is likely to be a human; identify the head of the human; and analyse the image data to identify an object which is likely to be a human; identify the head of the human; and
An electro-dynamic loudspeaker (100; 18-100), comprising: a frame (102; 18-102) including a recessed portion and a plurality of vent holes in the recessed portion, the vent holes being arranged in a plurality of columns, the vent holes in each column being separated by a plurality of webs where a combined length of the vent holes in a longitudinal length of the columns and a combined length of the webs in a longitudinal length of the columns define a total length of the columns of vent holes, where the columns include interior columns (18-600a, 18-600b, 18-600c. 18-600d) and a pair of outer edge columns (18-602a, 18-602b), where the combined length of the webs in a longitudinal length of the inner columns (18-600a, 18-600b, 18-600c, 18-600d) is between twenty and forty-five percent of the total length of the inner columns (18-600a, 18-600b, 18-600c, 18-600d) of vent holes and the combined length of the webs in a longitudinal length of the outer edge columns (18-602a, 18-602b) is below twenty percent of the total length of the outer columns (18-602a, 18-602b) of vent holes; a plurality of magnets disposed between the inner columns (18-600a, 18-600b, 18-600c, 18-600d) of vent holes; a diaphragm secured to the frame; an electrical circuit disposed on a surface of the diaphragm. a frame (102; 18-102) including a recessed portion and a plurality of vent holes in the recessed portion, the vent holes being arranged in a plurality of columns, the vent holes in each column being separated by a plurality of webs where a combined length of the vent holes in a longitudinal length of the columns and a combined length of the webs in a longitudinal length of the columns define a total length of the columns of vent holes, where the columns include interior columns (18-600a, 18-600b, 18-600c. 18-600d) and a pair of outer edge columns (18-602a, 18-602b), where the combined length of the webs in a longitudinal length of the inner columns (18-600a, 18-600b, 18-600c, 18-600d) is between twenty and forty-five percent of the total length of the inner columns (18-600a, 18-600b, 18-600c, 18-600d) of vent holes and the combined length of the webs in a longitudinal length of the outer edge columns (18-602a, 18-602b) is below twenty percent of the total length of the outer columns (18-602a, 18-602b) of vent holes; a plurality of magnets disposed between the inner columns (18-600a, 18-600b, 18-600c, 18-600d) of vent holes; a diaphragm secured to the frame; an electrical circuit disposed on a surface of the diaphragm.
An external modular respiratory anesthetic aggregate (1, 2) adapted to provide anesthesia capability to a respiratory ventilator having a breathing circuit comprising an inspiratory patient gas delivery path, and said aggregate (1, 2) comprising an anesthetic gasifier unit adapted to gasify an anesthetic agent, said anesthetic gasifier unit comprising a breathing gas input port and a fresh gas output port, a pump unit arranged to draw gas from the inspiratory patient gas delivery path for providing a flow of breathing gas from a first point in the inspiratory patient gas delivery path of the breathing circuit to said breathing gas input port of said anesthetic gasifier unit, a control unit, a sidestream flow meter, and a gas analyzer (170, 270) for feedback control of gasified anesthetic agent delivered to a patient connected to the respiratory ventilator, wherein said breathing gas input port is adapted to be connected to the first point in the inspiratory patient gas delivery path of the breathing circuit by means of a breathing gas input line, and said fresh gas output port is adapted to be connected to a second point in the inspiratory patient gas delivery path of the breathing circuit via a fresh gas output line, wherein said second point is arranged downstream said first point in said inspiratory patient gas delivery path of the breathing circuit, and wherein said inspiratory patient gas delivery path of the breathing circuit is connected via a mainstream connection of breathing gas between said first and second point; whereby said anesthetic gasifier unit is arranged to be connected in a sidestream configuration to said inspiratory patient gas delivery path for adding said gasified anesthetic agent gasified in the sidestream in a desired concentration to said inspiratory patient gas delivery path and to provide the gasified anesthetic agent as a fresh gas output to the second point.
A method for the polymerization of a composition containing hydridosilanes and for the subsequent use of the polymers for producing layers containing silicon, comprising the steps of: a) provision of a substrate. b) provision of a composition containing at least one hydridosilane, which is either dissolved in at least one organic and/or inorganic solvent, or containing at least one hydridosilane, which is already present in liquid form without solvent, wherein the hydridosilanes comprise at least a linear and/or a branched hydridosilane of the general formula Si n H 2n + 2 with n ≥ 3 and/or a cyclic hydridosilane of the general formula Si n H 2n with n ≥ 3. c) polymerization of the composition of step b) by acoustic cavitation. d) coating the surface of the substrate with reaction products from step c). a) provision of a substrate. b) provision of a composition containing at least one hydridosilane, which is either dissolved in at least one organic and/or inorganic solvent, or containing at least one hydridosilane, which is already present in liquid form without solvent, wherein the hydridosilanes comprise at least a linear and/or a branched hydridosilane of the general formula Si n H 2n + 2 with n ≥ 3 and/or a cyclic hydridosilane of the general formula Si n H 2n with n ≥ 3. c) polymerization of the composition of step b) by acoustic cavitation. d) coating the surface of the substrate with reaction products from step c).
A negative Poisson's ratio non-magnetic steel material for rock bolt, wherein the negative Poisson's ratio non-magnetic steel material for rock bolt has a composition, in weight percent, consisting of: C: 0.4-0.7%, Mn: 15-20%, Cr: 1-18%, Si: 0.3-3%, Ca: 0.05-0.15%, Cu: ≤0.03%, Ni: ≤0.02%, S: ≤0.001%, P: ≤0.001%, and the rest being Fe and unavoidable impurity elements, wherein the negative Poisson's ratio non-magnetic steel material for rock bolt in a hot rolled state has a yield strength of 600-1000 MPa, a tensile strength of 900-1100 MPa, a uniform elongation of ≥20-50%, in the cold rolled and annealed state has a yield strength of 600 - 1000 MPa and the elongation within the range of 20 - 60%, and the negative Poisson's ratio non-magnetic steel material for rock bolt has a Poisson's ratio of 0.003-0.008. wherein the negative Poisson's ratio non-magnetic steel material for rock bolt in a hot rolled state has a yield strength of 600-1000 MPa, a tensile strength of 900-1100 MPa, a uniform elongation of ≥20-50%, in the cold rolled and annealed state has a yield strength of 600 - 1000 MPa and the elongation within the range of 20 - 60%, and the negative Poisson's ratio non-magnetic steel material for rock bolt has a Poisson's ratio of 0.003-0.008.
A hydrogen detection apparatus, comprising: a hydrogen sensor (100, 100A) in which a resistance value fluctuates in response to a presence of a hydrogen gas; a sensor control circuit that is configured to sense the resistance value of the hydrogen sensor; and a microcomputer that is configured to set an off time that differs depending on an operating environment, and to intermittently drive the sensor control circuit, the hydrogen detection apparatus being characterized in that the hydrogen sensor includes: a first electrode; a metal-oxide layer that is disposed on the first electrode, and in which a resistance value changes in response to contacting hydrogen atoms; a second electrode that is disposed on the metal-oxide layer; and an insulating film that covers at least a portion of lateral surfaces of the first electrode, the metal-oxide layer, and the second electrode, and an aperture due to which a portion of at least one of (i) a first interface between the first electrode and the metal-oxide layer and (ii) a second interface between the second electrode and the metal-oxide layer is uncovered by the insulating film and exposed to a detection space. a hydrogen sensor (100, 100A) in which a resistance value fluctuates in response to a presence of a hydrogen gas; a sensor control circuit that is configured to sense the resistance value of the hydrogen sensor; and a microcomputer that is configured to set an off time that differs depending on an operating environment, and to intermittently drive the sensor control circuit, the hydrogen detection apparatus being characterized in that the hydrogen sensor includes: a first electrode; a metal-oxide layer that is disposed on the first electrode, and in which a resistance value changes in response to contacting hydrogen atoms; a second electrode that is disposed on the metal-oxide layer; and an insulating film that covers at least a portion of lateral surfaces of the first electrode, the metal-oxide layer, and the second electrode, and an aperture due to which a first electrode; a metal-oxide layer that is disposed on the first electrode, and in which a resistance value changes in response to contacting hydrogen atoms; a second electrode that is disposed on the metal-oxide layer; and an insulating film that covers at least a portion of lateral surfaces of the first electrode, the metal-oxide layer, and the second electrode, and an aperture due to which a portion of at least one of (i) a first interface between the first electrode and the metal-oxide layer and (ii) a second interface between the second electrode and the metal-oxide layer is uncovered by the insulating film and exposed to a detection space.
A toothbrush comprising a handle, a head secured to one end of said handle, said head having a front face, at least one carrier member having outwardly extending cleaning elements, and a drive structure mounting said carrier member to said front face for moving said carrier member and said cleaning elements, wherein said drive structure includes a motor and a drive transmitting member driven by said motor and extending into said head, wherein said carrier member is rotatably movable characterised in that said carrier member is mounted to a support member, said support member being mounted to said front face, said carrier member being movable with respect to said support member, and said support member being movable with respect to said front face; in that said support member is rotatably movable; in that said support member is eccentrically mounted to a first shaft mounted to said front face for rotational movement in an orbital path; in that said support member is drivably mounted for movement in said orbital path; and in that said carrier member is freely rotatably mounted on a second shaft mounted on said support member, which second shaft is displaced from the first shaft, such that the carrier member is driven in an orbital path when the support member is rotated on the first shaft. characterised in that said carrier member is mounted to a support member, said support member being mounted to said front face, said carrier member being movable with respect to said support member, and said support member being movable with respect to said front face; in that said support member is rotatably movable; in that said support member is eccentrically mounted to a first shaft mounted to said front face for rotational movement in an orbital path; in that said support member is drivably mounted for movement in said orbital path; and in that said carrier member is freely rotatably mounted on a second shaft mounted on said support member, which second shaft is displaced from the first shaft, such that the carrier member is driven in an orbital path when the support member is rotated on the first shaft.
A method of analyzing a liquid sample containing solid matter, the method comprising - fractionating the sample according to particle sizes and/or masses of the solid matter, so as to produce sample fractions, by - conducting the sample to a disintegration channel (23, 31, 71A-F) having depressions (72A-F) to retain the sample in said disintegration channel (23, 31, 71A-F), and a through-flow zone, - applying a liquid flow having a non-constant temporal velocity profile through the disintegration channel (23, 31, 71A-F), in order to gradually release solid particles of the sample with the liquid flow from said depressions (72A-F) to the through-flow zone in the disintegration channel (23, 31, 71A-F), wherein the liquid flow is applied at a velocity producing hydrodynamic shear on the sample when interacting with said depressions (72A-F); - measuring at least one physical or chemical property of at least one of said sample fractions. - fractionating the sample according to particle sizes and/or masses of the solid matter, so as to produce sample fractions, by - conducting the sample to a disintegration channel (23, 31, 71A-F) having depressions (72A-F) to retain the sample in said disintegration channel (23, 31, 71A-F), and a through-flow zone, - applying a liquid flow having a non-constant temporal velocity profile through the disintegration channel (23, 31, 71A-F), in order to gradually release solid particles of the sample with the liquid flow from said depressions (72A-F) to the through-flow zone in the disintegration channel (23, 31, 71A-F), wherein the liquid flow is applied at a velocity producing hydrodynamic shear on the sample when interacting with said depressions (72A-F); - measuring at least one physical or chemical property of at least one of said sample fractions.
A conveyor system having: a) a conveyor path and b) at least one conveyor carriage (14, 14') which carries an individual drive and which can be moved therewith along the conveyor path, wherein the drive comprises - a drive motor and - a separation device, by means of which the force path between the drive motor and the conveyor path can be separated, characterized in that c) the separation device is configured to be activated by means of a separation carriage (14, 14') which follows the conveyor carriage (14, 14') along the conveyor path and/or a separation carriage (14, 14') which precedes the conveyor carriage (14, 14') along the conveyor path in order to separate the force path between the drive motor of the at least one conveyor carriage (14, 14') and the conveyor path. a) a conveyor path and b) at least one conveyor carriage (14, 14') which carries an individual drive and which can be moved therewith along the conveyor path, wherein the drive comprises - a drive motor and - a separation device, by means of which the force path between the drive motor and the conveyor path can be separated, characterized in that - a drive motor and - a separation device, by means of which the force path between the drive motor and the conveyor path can be separated, c) the separation device is configured to be activated by means of a separation carriage (14, 14') which follows the conveyor carriage (14, 14') along the conveyor path and/or a separation carriage (14, 14') which precedes the conveyor carriage (14, 14') along the conveyor path in order to separate the force path between the drive motor of the at least one conveyor carriage (14, 14') and the conveyor path.
A bacteriophage-composition for the prevention of infectious diseases caused by Salmonella comprising at least one of the Salmonella lytic bacteriophages UAB _Phi20, UAB_Phi78 and UAB_Phi87 and/or parts or products thereof.
Device for emitting and for guiding infrared radiation comprising a waveguide and means for emitting infrared radiation, characterized in that said means (2, 9) for emitting infrared radiation comprise means of emission of heat taking the form of a resistive track (5, 6, 6') made from an electrically-conductive material, which is designed to be connected to an electrical current supply source, and means capable of emitting infrared radiation under the effect of the emitted heat taking the form of an emissive layer (44, 74), and are formed on the surface or inside of the waveguide (1, 8), in such a manner that, said emissive layer being placed between at least part of the waveguide and the conducting track (5, 6, 6'), the infrared radiation emitted is transmitted to the waveguide which transports it.
A method of removing sulfhydryl compounds from an aqueous substrate or a hydrocarbon substrate which comprises bringing the substrate into contact with at least one triazine of the formula: wherein R 1, R 2 and R 3 are each independently selected from the group consisting of R 4 and R 5, R 4 is a C 1 -C 20 straight or branched chain alkyl group, and characterized in that: R 5 is -( m -NH] p -(CH 2) n OH, where n and m are independently an integer from 2 to 6, p is from 1 to 6; and further wherein at least one of R 1, R 2 and R 3 is R 4 and at least one of R 1, R 2 and R 3 is R 5. R 5 is -( m -NH] p -(CH 2) n OH, where n and m are independently an integer from 2 to 6, p is from 1 to 6; and further wherein at least one of R 1, R 2 and R 3 is R 4 and at least one of R 1, R 2 and R 3 is R 5.
A method of making a composition comprising keratose, said method comprising: a. bleaching a keratin protein source; b. extracting keratose by oxidative means to thereby produce a soluble keratin protein solution; and c. dialyzing the solution; wherein the steps of (a) bleaching and (b) extracting are separate steps; and wherein the resultant composition is white. a. bleaching a keratin protein source; b. extracting keratose by oxidative means to thereby produce a soluble keratin protein solution; and c. dialyzing the solution;
A method of monitoring performance of a telephone network, said telephone network comprising at least one exchange (E1; E2; E3) configured for collecting signaling messages which are received at said at least one exchange and/or which are generated at said at least one exchange, said method comprising: a) acquiring from said exchange (E1; E2; E3) a set of signaling messages indicating unsuccessful call setup procedures relative to calls addressed to a plurality of destinations; b) associating to each signaling message of said set of signaling messages a respective destination information which is indicative of the destination of the unsuccessful call which generated the signaling message, said destination information comprising a number n of most significant digits (D1, D2, D3) of a callee telephone number; and c) processing said set of signaling messages and the corresponding associated destination information, thus obtaining information (MEk1, MEk2, MEk3) relative to said unsuccessful call setup procedures according to call destinations, wherein said method further comprises acquiring configuration information (CP1, CP2, CP3) from said at least one exchange (E1, E2, E3), said configuration information comprising said number n; wherein said steps a), b) and c) are periodically performed with a predetermined period (Pk-1, Pk, Pk+1), and wherein the method further comprises, during a first period (Pk-1), changing said configuration information (CP1, CP2, CP3) into modified configuration information (MCP1, MCP2, MCP3) based on said information (MEk1, MEk2, MEk3) relative to said unsuccessful call setup procedures according to call destinations, and transmitting said modified configuration information (MCP1, MCP2, MCP3) to said at least one exchange (E1, E2, E3) a) acquiring from said exchange (E1; E2; E3) a set of signaling messages indicating unsuccessful call setup procedures relative to calls addressed to a plurality of destinations; b) associating to each signaling message of said set of signaling messages a respective destination information which is indicative of the destination of the unsuccessful call which generated the signaling message, said destination information comprising a number n of most significant digits (D1, D2, D3) of a callee telephone number; and c) processing said set of signaling messages and the corresponding associated destination information, thus obtaining information (MEk1, MEk2, MEk3) relative to said unsuccessful call setup procedures according to call destinations,