mhurhangee/ep-ind-claims huggingface dataset:
A method for mounting an electronic display to a vertical surface comprising the steps of: presenting an electronic display assembly module having a pair of horizontal rods (50 and 51) near the top of the electronic display assembly module and a thermal plate; attaching a rear cover mounting bracket having a pair of hooks (300 and 301) located near a top of the rear cover mounting bracket to a vertical surface; engaging the horizontal rods (50 and 51) with the hooks (300 and 301) so that the electronic display assembly module hangs from the hooks (300 and 301) of the rear cover mounting bracket and is capable of rotational movement relative to the rear cover mounting bracket; attaching a bottom portion of the rear cover mounting bracket to a bottom portion of the electronic display assembly module and characterized in that the step of attaching a bottom portion of the rear cover mounting bracket to a bottom portion of the electronic display assembly module creates a plenum which is sealed from the exterior air between the rear cover mounting bracket and the thermal plate by way of a gasket extending about a perimeter of the thermal plate, wherein an electrical assembly, a pair of dividing walls (83,85), and a circulating fan (75/77) are positioned within the plenum; and in that the method comprises: activating the circulating fan (75/77) so as to circulate circulating gas within the plenum. presenting an electronic display assembly module having a pair of horizontal rods (50 and 51) near the top of the electronic display assembly module and a thermal plate; attaching a rear cover mounting bracket having a pair of hooks (300 and 301) located near a top of the rear cover mounting bracket to a vertical surface; engaging the horizontal rods (50 and 51) with the hooks (300 and 301) so that the electronic display assembly module hangs from the hooks (300 and 301) of the rear cover mounting bracket and is capable of rotational movement relative to the rear cover mounting bracket; attaching a bottom portion of the rear cover mounting bracket to a bottom portion of the electronic display assembly module and characterized in that the step of attaching a bottom portion of the rear cover mounting bracket to a bottom portion of the electronic display assembly module creates a plenum which is sealed from the exterior air between the rear cover mounting bracket and the thermal plate by way of a gasket extending about a perimeter of the thermal plate, wherein an electrical assembly, a pair of dividing walls (83,85), and a circulating fan (75/77) are positioned within the plenum; and in that the method comprises: activating the circulating fan (75/77) so as to circulate circulating gas within the plenum.
A linalool synthase comprising an amino acid sequence having at least 70% sequence identity to the amino acid sequence of SEQ ID NO:1, and an amino acid substitution corresponding to one or more of L72 and V214 relative to SEQ ID NO:1, wherein (i) the linalool synthase comprises an amino acid sequence of SEQ ID NO:2, 3, 4, 5, or 6, and/or (ii) the linalool synthase produces a greater linalool yield and/or higher linalool:nerolidol ratio compared with the corresponding wild type linalool synthase. (i) the linalool synthase comprises an amino acid sequence of SEQ ID NO:2, 3, 4, 5, or 6, and/or (ii) the linalool synthase produces a greater linalool yield and/or higher linalool:nerolidol ratio compared with the corresponding wild type linalool synthase.
A thermal transfer sheet in which a heat-resistant lubricating layer is formed on a surface of the substrate, wherein the heat-resistant lubricating layer comprises one or more of layers which include a back face layer; wherein the back face layer is arranged at a position farthest from the substrate in the case that the heat-resistant lubricating layer comprises two or more of the layers; wherein at least one layer which composes the heat-resistant lubricating layer comprises a binder resin and organic minute particles which each has a polygonal shape; and wherein a portion of surfaces of the organic minute particles protrude from a surface of the back layer.
Pressure-limiting valve having a housing, having a switching piston which is adjustable in the housing in the direction of a housing longitudinal axis between a filling position, a pressure-limiting position and a venting position, having a spring-loaded sequence valve which is able to be actuated by the switching piston and, with the switching piston in the venting position, opens up a venting duct, having a switching spring which loads the switching piston in the direction of its filling position, having a setting screw means for preloading the switching spring, and having a tensioning spring which preloads a piston of the sequence valve for abutment against the switching piston, wherein the housing is formed in one piece and has largely the geometry of a tube body which is open at both ends, wherein the preloading setting screw means is in the form of a screw cover which is able to be screwed into an axial end of the housing and which has an abutment surface for the associated end of the switching spring, wherein the tensioning spring is axially preloaded by means of an insert bushing which is able to be inserted into the other, screw cover-remote end of the housing, and characterized in that the insert bushing is fastened by means of a bayonet fastener in the housing.
An acetabular device comprising: a patient-specific acetabular alignment guide (400, 400') including a bone engagement surface (408, 408') having first and second portions (402, 402', 404, 404'), the first portion (402, 402') configured and shaped to be conforming and complementary to an acetabular rim surface of a specific patient and a second portion (404, 404') configured and shaped to be conforming and complementary to a periacetabular area of an acetabulum of the specific patient in accordance with a three-dimensional model of the acetabulum of the specific patient reconstructed pre-operatively from an image scan of the patient, the acetabular alignment guide (400, 400') including a plurality of guiding formations (406, 406') extending through the second portion (404, 404') for guiding a plurality of alignment pins there through, wherein the plurality of guiding formations (406, 406') are arranged and configured based on a pre-operative plan for the patient, the acetabular device, further comprising a patient-specific alignment adapter (470, 470', 470") configured to be coupled to an acetabular instrument, the alignment adapter (470, 470', 470") including one or more arms (474', 474"), characterised in that the alignment adapter further includes a plurality of apertures (478, 478', 478") configured to correspond to the guiding formations (406, 406', 406") of the acetabular alignment guide (400, 400') for sliding over the corresponding alignment pins; wherein each arm includes at least one of the apertures.
A positive electrode composite material for a lithium ion secondary battery is a positive electrode composite material to be used for a positive electrode of a lithium ion secondary battery, the positive electrode composite material comprising: a particulate positive electrode active material composed of a lithium composite oxide having a layered crystal structure including at least lithium, and a conductive oxide, wherein a particulate region where primary particles of the conductive oxide are aggregated, and a film-shaped region where the conductive oxide is formed in a film shape adhere to at least a part of the surface of the positive electrode active material, an average particle diameter of primary particles in the particulate region based on cross-sectional TEM observation is 0.6 nm to 55 nm, in cross-sectional TEM observation of the film-shaped region, no particles with a particle diameter equal to or greater than 0.3 nm are observed, and there are no voids equal to or greater than 2 nm, a film thickness based on cross-sectional TEM observation of the film-shaped region is 0.5 nm to 50 nm, the conductive oxide is ruthenium oxide or a lanthanum manganese cobalt composite oxide, and the positive electrode active material is a lithium nickel cobalt manganese composite oxide. a particulate positive electrode active material composed of a lithium composite oxide having a layered crystal structure including at least lithium, and a conductive oxide, wherein a particulate region where primary particles of the conductive oxide are aggregated, and a film-shaped region where the conductive oxide is formed in a film shape adhere to at least a part of the surface of the positive electrode active material, an average particle diameter of primary particles in the particulate region based on cross-sectional TEM observation is 0.6 nm to 55 nm, in cross-sectional TEM observation of the film-shaped region, no particles with a particle diameter equal to or greater than 0.3 nm are observed, and there are no voids equal to or greater than 2 nm, a film thickness based on cross-sectional TEM observation of the film-shaped region is 0.5 nm to 50 nm, the conductive oxide is ruthenium oxide or a lanthanum manganese cobalt composite oxide, and the positive electrode active material is a lithium nickel cobalt manganese composite oxide.
A glazing (2, 102, 202) for minimising or preventing bird collisions with windows or other glazings, the glazing (2, 102, 202) comprising at least one substrate (4, 104, 204), and at least one antireflective coating (10, 110), characterised in that said coating (10, 110) is deposited directly or indirectly on the substrate in a patterned arrangement comprising a plurality of separate elements (11, 111, 211).
A package for tobacco-related articles, comprising - an outer shell having a front wall, a rear wall, two lateral walls opposite to each other connecting the front wall and the rear wall, as well as a top side, - a lid adapted to close the top side of the outer shell when in a closed state, the lid being swivelably connected to the rear wall or one of the lateral walls of the outer shell at a hinge line and being swivelable about the hinge line for transfer from the closed state to an opened state, - an inner shell adapted to accommodate a plurality of tobacco-related articles and shiftably mounted in the outer shell, wherein the inner shell is moveable towards the top side of the outer shell from a retracted position to an advanced position, which enables access to the smoking articles, and - a sound-producing mechanism adapted to produce a sound when the inner shell is moved from the retracted position to the advanced position and/or from the advanced position to the retracted position, characterised in that the sound-producing mechanism comprises at least one part (90, 92; 104; 114; 124, 125) arranged at the inner shell, which part (90, 92; 104; 114; 124, 125) is adapted to interact in a sound-producing manner with a counterpart (76, 78; 106, 107; 116, 117; 126, 127, 128, 129) arranged at an inner face of the outer shell. - an outer shell having a front wall, a rear wall, two lateral walls opposite to each other connecting the front wall and the rear wall, as well as a top side, - a lid adapted to close the top side of the outer shell when in a closed state, the lid being swivelably connected to the rear wall or one of the lateral walls of the outer shell at a hinge line and being swivelable about the hinge line for transfer from the closed state to an opened state, - an inner shell adapted to accommodate a plurality of tobacco-related articles and shiftably mounted in the outer shell, wherein the inner shell is moveable towards the top side of the outer shell from a retracted position to an advanced position, which enables access to the smoking articles, and - a sound-producing mechanism adapted to produce a sound when the inner shell is moved from the retracted position to the advanced position and/or from the advanced position to the retracted position,
A current sensor comprising: at least one bus bar that has a pair of terminals (21, 22) to be connected to another device; a magnetic sensor configured to detect an induction field generated by a current flowing through the at least one bus bar; and a casing that houses the magnetic sensor, that is integrated with the at least one bus bar with the pair of terminals (21, 22) exposed, and that is formed of synthetic resin, wherein the at least one bus bar has a conductive portion for a performance check that includes an exposed face disposed such that at least part of a front face of the exposed face is exposed from the casing and a coated face formed by coating with the casing at least part of a rear face opposite the exposed face, characterised in that a length of the exposed face is greater than a length of the coated face in a sectional shape perpendicular to a current flowing direction, and edge faces that connect the exposed face and the coated face to each other such that each of the edge faces connects a corresponding one of ends of the exposed face and a corresponding one of ends of the coated face to each other form a reverse tapered shape in which a distance between the edge faces increases from the coated face toward the exposed face, and wherein the exposed face projects from a surface of the casing at a boundary between the conductive portion and the surface of the casing. at least one bus bar that has a pair of terminals (21, 22) to be connected to another device; a magnetic sensor configured to detect an induction field generated by a current flowing through the at least one bus bar; and a casing that houses the magnetic sensor, that is integrated with the at least one bus bar with the pair of terminals (21, 22) exposed, and that is formed of synthetic resin, wherein the at least one bus bar has a conductive portion for a performance check that includes an exposed face disposed such that at least part of a front face of the exposed face is exposed from the casing and a coated face formed by coating with the casing at least part of a rear face opposite the exposed face, characterised in that a length of the exposed face is greater than a length of the coated face in a sectional shape perpendicular to a current flowing direction, and edge faces that connect the exposed face and the coated face to each other such that each of the edge faces connects a corresponding one of ends of the exposed face and a corresponding one of ends of the coated face to each other form a reverse tapered shape in which a distance between the edge faces increases from the coated face toward the exposed face, and wherein the exposed face projects from a surface of the casing at a boundary between the conductive portion and the surface of the casing.
A method for performing an action in an electronic device, the method comprising: detecting a first input on a first edge of the electronic device; detecting a second input on a second edge of the electronic device, wherein the second input is detected concurrently with the first input or within a threshold time after detecting the first input, and the second input is either a two finger input or a three or more finger input; computing a first movement distance of the first input along the first edge and a second movement distance of the second input along the second edge; detecting a start of a rail swipe gesture indicating that at least one of the first movement distance and the second movement distance is greater than a threshold value and that the first input moves along the first edge and the second input moves along the second edge in the same direction as the first input moves; and in response to detecting an end of the rail swipe gesture, performing a first action of changing the brightness of a display screen of the electronic device in response to detecting that the second input is the two finger input, or performing a second action of terminating background applications in response to detecting that the second input is the three or more finger input. detecting a first input on a first edge of the electronic device; detecting a second input on a second edge of the electronic device, wherein the second input is detected concurrently with the first input or within a threshold time after detecting the first input, and the second input is either a two finger input or a three or more finger input; computing a first movement distance of the first input along the first edge and a second movement distance of the second input along the second edge; detecting a start of a rail swipe gesture indicating that at least one of the first movement distance and the second movement distance is greater than a threshold value and that the first input moves along the first edge and the second input moves along the second edge in the same direction as the first input moves; and in response to detecting an end of the rail swipe gesture, performing a first action of changing the brightness of a display screen of the electronic device in response to detecting that the second input is the two finger input, or performing a second action of terminating background applications in response to detecting that the second input is the three or more finger input.
An operating process of an electromagnetic induction furnace (1, 1', 1") intended to melt at least one electrically conductive material, such as an oxide and/or a metal, comprising at least one inductor (4, 4A, 4B) having at least one turn (41 to 47), at least one cooling circuit suitable for cooling at least the inductor, a crucible for containing the material to be melted and a cooling circuit suitable for cooling the walls of the crucible, according to which at least into the cooling circuit (5; 5.1 to 5.8) of the crucible, supercritical CO 2 is circulating, as a heat transfer fluid.
System for the generation of call advance data for an elevator control which system is suitable for installation in an elevator car moving in an elevator shaft and comprises at least one acceleration sensor outputting current acceleration data and/or magnetometer outputting a magnetic flux signal which comprises current magnetic flux data at the current position of the elevator car, which acceleration sensor and/or magnetometer is mounted in connection with the elevator car, a velocity calculating unit which calculates from the current acceleration/magnetic flux data or from current car position data current car velocity data, a position calculating unit which calculates from the current acceleration/magnetic flux data and/or from the current car velocity data current car position data; and a call advance processing unit which calculates from the current car velocity data and the current car position data call advance data which designates the time until which the car is able to stop at the next approaching floor in travelling direction, which call advance data is transmitted to a call allocation unit of an elevator control.
Method for manufacturing a temporary dental restoration assembly intended to be attached, at one of its ends, to a dental implant integrated in a bone structure of an individual, characterized in that it comprises: - a first step of taking a first digital impression of an oral space of the individual, intended to receive the temporary dental restoration assembly, where the first step of taking a first digital impression comprises taking an impression of an oral space above an implant, and - a second step of constructing a first three-dimensional virtual model of a temporary dental restoration assembly according to the first digital impression, and - a third step of constructing a database comprising digital data defining the first three-dimensional virtual model and an item of identification data of the individual in whose mouth the actual temporary dental restoration assembly corresponding to the first three-dimensional virtual model is intended to be placed, and - a fourth step of manufacturing the actual temporary dental restoration assembly from the first three-dimensional virtual model and on the basis of the digital data of the database, by transmitting the corresponding digital data to a device for manufacture by removal of material and/or by addition of material. - a first step of taking a first digital impression of an oral space of the individual, intended to receive the temporary dental restoration assembly, where the first step of taking a first digital impression comprises taking an impression of an oral space above an implant, and - a second step of constructing a first three-dimensional virtual model of a temporary dental restoration assembly according to the first digital impression, and - a third step of constructing a database comprising digital data defining the first three-dimensional virtual model and an item of identification data of the individual in whose mouth the actual temporary dental restoration assembly corresponding to the first three-dimensional virtual model is intended to be placed, and - a fourth step of manufacturing the actual temporary dental restoration assembly from the first three-dimensional virtual model and on the basis of the digital data of the database, by transmitting the corresponding digital data to a device for manufacture by removal of material and/or by addition of material.
A process for removing ammonia from ammonia-containing purge gas of a urea plant, the process comprising: a) said ammonia-containing purge gas is contacted with a stream of carbon dioxide (26, 41); b) at least one of: said ammonia-containing purge gas prior to contacting said stream of carbon dioxide, said stream of carbon dioxide prior to contacting the ammonia purge-gas, the mixture of purge gas and carbon dioxide resulting from the contacting step a), is refrigerated; c) in the so obtained refrigerated mixture of purge gas and carbon dioxide, at least some of the ammonia contained in the purge gas reacts to form one or more ammonium salts and a multiphase mixed stream containing the ammonium salts is obtained, and d) said ammonium salts are removed from said mixed stream. a) said ammonia-containing purge gas is contacted with a stream of carbon dioxide (26, 41); b) at least one of: said ammonia-containing purge gas prior to contacting said stream of carbon dioxide, said stream of carbon dioxide prior to contacting the ammonia purge-gas, the mixture of purge gas and carbon dioxide resulting from the contacting step a), is refrigerated; said ammonia-containing purge gas prior to contacting said stream of carbon dioxide, said stream of carbon dioxide prior to contacting the ammonia purge-gas, the mixture of purge gas and carbon dioxide resulting from the contacting step a), is refrigerated; c) in the so obtained refrigerated mixture of purge gas and carbon dioxide, at least some of the ammonia contained in the purge gas reacts to form one or more ammonium salts and a multiphase mixed stream containing the ammonium salts is obtained, and d) said ammonium salts are removed from said mixed stream.