mhurhangee/ep-ind-claims huggingface dataset:
Weapon coupling for fixing a weapon in a weapon and torpedo transport and stowing device, with two pivotably designed latches, for the interlocking engagement in a charging pin, which is formed on the weapon, in a locking position, wherein the latches are spring-preloaded in the locking direction and form part of an automatically locking locking mechanism, in which the charging pin is fixed solely by the latches by means of a locking operation triggered by the insertion of the charging pin into the weapon coupling, and, in the locking position, said latches engage upstream of their pivot axes in the charging pin, in the insertion direction of the charging pin into the weapon coupling,, characterized in that rotatably mounted shafts form the pivot axes of the latches, wherein the shafts are coupled in terms of movement to a slide, which is arranged displaceably on the outer side of the weapon coupling, via two levers which lie directly opposite each other transversely with respect to the longitudinal extent of the shafts and are arranged at the ends of the shafts, and wherein the slide is displaceable manually from a first end position into a second end position, and, in the first end position, the latches are in the locking position and, in the second end position, the latches are in a release position.
A computing device platform comprising: a wireless communication module that is configured to detect a presence of a wireless communication device while the wireless communication module is in a device-detect mode; an authentication module that is configured to obtain an indication of the detection of the presence of the wireless communication device from the wireless communication module and, in response to the obtained indication, to authenticate the wireless communication device; and a power management module that is configured to cause a power state of the computing device platform to change from a first power state to a second power state in response to an indication from the authentication module that the wireless communication device is authenticated; wherein the authentication module is further configured to present an authentication challenge to the wireless communication device via the wireless communication module, and wherein the power management module is further configured to cause the computing device platform to enter a sleep state capable of providing feedback to a user of the wireless communication device that the authentication was not successful in response to an unsuccessful response to the authentication challenge. a wireless communication module that is configured to detect a presence of a wireless communication device while the wireless communication module is in a device-detect mode; an authentication module that is configured to obtain an indication of the detection of the presence of the wireless communication device from the wireless communication module and, in response to the obtained indication, to authenticate the wireless communication device; and a power management module that is configured to cause a power state of the computing device platform to change from a first power state to a second power state in response to an indication from the authentication module that the wireless communication device is authenticated; wherein the authentication module is further configured to present an authentication challenge to the wireless communication device via the wireless communication module, and wherein the power management module is further configured to cause the computing device platform to enter a sleep state capable of providing feedback to a user of the wireless communication device that the authentication was not successful in response to an unsuccessful response to the authentication challenge.
A cyclic peptide derivative represented by the following general formula. (in the formula, m is 0 to 3, n ≥ 1, R 1 to R 6 are a hydrogen atom or a hydrocarbon group, R 7 and R 8 are a carboxyl group or a salt thereof, or an alkoxycarbonyl group, R 9 is a hydrocarbon group, a hydroxyl group, an alkoxy group, or an alkylcarbonyloxy group, R 10 and R 11 are a hydrogen atom, a hydrocarbon group, or an alkylcarbonyloxy group, and R 12 to R 16 are a hydrogen atom or a hydrocarbon group).
A portable electronic device, comprising: a near field communication, NFC, coil antenna; a conductive coating located between a metal chassis of the portable electronic device and the NFC coil antenna; and at least one fractal slot constructed in the conductive coating to cover an area defined at least by the NFC coil antenna, wherein a direction of sliced slots or segments of the at least one fractal slot is configured to be perpendicular to an assumed direction of an induced current in the conductive coating, wherein the assumed direction of the induced current is opposite to a direction of an injected current in the NFC coil antenna. a near field communication, NFC, coil antenna; a conductive coating located between a metal chassis of the portable electronic device and the NFC coil antenna; and at least one fractal slot constructed in the conductive coating to cover an area defined at least by the NFC coil antenna, wherein a direction of sliced slots or segments of the at least one fractal slot is configured to be perpendicular to an assumed direction of an induced current in the conductive coating, wherein the assumed direction of the induced current is opposite to a direction of an injected current in the NFC coil antenna.
A tire rubber index calculating method comprising: a tire frictional energy measuring step (100, 200) of measuring, by a frictional energy measuring device, tire frictional energies of a tire in plural tire input conditions applied to the tire on the basis of the shear force and the slippage of a tire contact patch; a setting step (102, 104, 106, 108, 110, 112, 114, 202, 204, 206, 208, 210, 108A, 110A) of obtaining sample frictional energies of a sample of the same material as the tire in sample input conditions that have been set by obtaining the sample frictional energy of the sample in the sample input condition that was set and repeatedly obtaining the sample frictional energy while changing the sample input condition until the sample frictional energy that has been obtained matches the tire frictional energy that was obtained in the corresponding tire input condition, and setting measurement conditions for measuring sample amounts of wear of the sample on the basis of the tire frictional energies in the tire input conditions that were measured and the sample frictional energies that were obtained for the sample input conditions; a sample amount of wear measuring step (116, 212) of measuring, by an amount of wear measuring device, the sample amounts of wear of the sample in the measurement conditions that were set; and a rubber index calculating step (118, 214, 216, 218, 220) of calculating a rubber index of the tire on the basis of the sample frictional energies and the sample amounts of wear that were measured. a tire frictional energy measuring step (100, 200) of measuring, by a frictional energy measuring device, tire frictional energies of a tire in plural tire input conditions applied to the tire on the basis of the shear force and the slippage of a tire contact patch; a setting step (102, 104, 106, 108, 110, 112, 114, 202, 204, 206, 208, 210, 108A, 110A) of obtaining sample frictional energies of a sample of the same material as the tire in sample input conditions that have been set by obtaining the sample frictional energy of the sample in the sample input condition that was set and repeatedly obtaining the sample frictional energy while changing the sample input condition until the sample frictional energy that has been obtained matches the tire frictional energy that was obtained in the corresponding tire input condition, and setting measurement conditions for measuring sample amounts of wear of the sample on the basis of the tire frictional energies in the tire input conditions that were measured and the sample frictional energies that were obtained for the sample input conditions; a sample amount of wear measuring step (116, 212) of measuring, by an amount of wear measuring device, the sample amounts of wear of the sample in the measurement conditions that were set; and a rubber index calculating step (118, 214, 216, 218, 220) of calculating a rubber index of the tire on the basis of the sample frictional energies and the sample amounts of wear that were measured.
A carrier selection method in a carrier aggregation technology, comprising: obtaining, by a base station, radio channel information reported by carrier aggregation, CA, user equipment, UE, wherein the radio channel information comprises radio channel information of a primary component carrier, PCC, and radio channel information of a secondary component carrier, SCC, wherein the radio channel information comprises a channel quality indicator, CQI; and when the radio channel information of the SCC is greater than the radio channel information of the PCC, wherein the radio channel information of the SCC is greater than the radio channel information of the PCC is specifically: in a second time period, a value obtained after the radio channel information of the PCC is subtracted from the radio channel information of the SCC is greater than a threshold, sending, by the base station, a radio resource control, RRC, reconfiguration message to the CA UE, wherein the RRC reconfiguration message is used by the CA UE to use the SCC as a new PCC. obtaining, by a base station, radio channel information reported by carrier aggregation, CA, user equipment, UE, wherein the radio channel information comprises radio channel information of a primary component carrier, PCC, and radio channel information of a secondary component carrier, SCC, wherein the radio channel information comprises a channel quality indicator, CQI; and when the radio channel information of the SCC is greater than the radio channel information of the PCC, wherein the radio channel information of the SCC is greater than the radio channel information of the PCC is specifically: in a second time period, a value obtained after the radio channel information of the PCC is subtracted from the radio channel information of the SCC is greater than a threshold, sending, by the base station, a radio resource control, RRC, reconfiguration message to the CA UE, wherein the RRC reconfiguration message is used by the CA UE to use the SCC as a new PCC.
A method for producing acrylic acid by the catalytic gas-phase oxidation of acrolein with molecular oxygen or molecular oxygen-containing gas by a fixed-bed multitubular reactor which has been filled with catalyst, which method comprises filling each of reaction tubes of a fixed-bed multitubular reactor with at least two species of catalysts each of which essentially comprises, as catalytically active components, oxide of molybdenum and oxide of vanadium and/or composite oxide of the same, said at least two species of catalysts being different in the ratio of D1/D2, D1 denoting the proportion of the total pore volume of pores whose pore diameter falls within the range of at least 0.03 μm and less than 0.4 μm to the total pore volume of the whole pores, and D2 denoting the proportion of the total pore volume of pores whose pore diameter falls within the range of at least 0.4 μm and at most 5 μm to the total pore volume of the whole pores, in such a manner that at least two reaction zones are formed axially in each of the reaction tubes, wherein said total pore volume and said pore diameter are measured with a mercury intrusion porosimeter at an average pressure elevation rate of 0.005-0.3 MPa/sec, and wherein said catalyst comprises a catalytically active component of formula as follows: Mo 12 V a W b A c B d C e D f O x wherein Mo is molybdenum; V is vanadium; W is tungsten; A is at least one species of element selected from the group consisting of chromium, manganese, iron, cobalt, nickel, copper, zinc and bismuth; B is at least one species of element selected from the group consisting of antimony, niobium, tin, tellurium and phosphorus; C is at least one species of element selected from the group consisting of silicon, aluminum, titanium, cerium and zirconium; D is at least one species of element selected from the group consisting of alkali metals and alkaline earth metals; and O is oxygen; and a, b, c, d, e, f and x each denote number of atoms of V, W, A, B, C, D and O, and 0 < a ≤ 14, 0 ≤ b ≤ 12, 0 ≤ c ≤ 30, 0 ≤ d ≤ 6, 0 ≤ e ≤ 50, and 0 ≤ f ≤ 6, and x is a value determined by the state of oxidation of each of the elements, and wherein D1/D2 ratio is 0.1 to 5, and wherein each of reaction tubes of a fixed-bed multitubular reactor is filled, on the gas inlet side, with a catalyst which has a small D1/D2 ratio, and on the gas outlet side with a catalyst which has a large D1/D2 ratio.
A bottom hole assembly for a drillstring, the bottom hole assembly in use being attached to the drillstring, the bottom hole assembly comprising: a main body comprising: a first electrical insulator section separating a first body portion from a second body portion; a second electrical insulator section separating the second body portion from a third body portion; and a circuit element comprising a capacitor connected across the second electrical insulator section; characterised in that the capacitor is configured to be closed and provide an electrical current path across the second electrical insulator section upon a voltage signal at a first frequency being generated across the first electrical insulator section, and wherein the capacitor is configured to be opened and break said electrical current path across the second electrical insulator section upon a voltage signal at a second frequency being generated across the second electrical insulator section. a first electrical insulator section separating a first body portion from a second body portion; a second electrical insulator section separating the second body portion from a third body portion; and a circuit element comprising a capacitor connected across the second electrical insulator section; characterised in that the capacitor is configured to be closed and provide an electrical current path across the second electrical insulator section upon a voltage signal at a first frequency being generated across the first electrical insulator section, and wherein the capacitor is configured to be opened and break said electrical current path across the second electrical insulator section upon a voltage signal at a second frequency being generated across the second electrical insulator section.
A multi-cell battery, comprising: a battery case including one or more partitions (1607, 1609) dividing the interior of said case into a plurality of compartments; and a plurality of electrochemical cells disposed within said case, said battery case comprising a gas channel transporting cell gas from at least two of said compartments to a gas vent, said gas channel having a tortuous flow path, and characterized in that it further comprises a plurality of electrolyte trapping tubes adjacent to the corresponding compartments, each of said electrolyte trapping tubes communicating with its corresponding compartment by way of a groove and communicating with the gas channel by way of an opening. a battery case including one or more partitions (1607, 1609) dividing the interior of said case into a plurality of compartments; and a plurality of electrochemical cells disposed within said case, said battery case comprising a gas channel transporting cell gas from at least two of said compartments to a gas vent, said gas channel having a tortuous flow path, and characterized in that it further comprises a plurality of electrolyte trapping tubes adjacent to the corresponding compartments, each of said electrolyte trapping tubes communicating with its corresponding compartment by way of a groove and communicating with the gas channel by way of an opening.
A shaped filtering face-piece respirator that comprises: a shaped mask body that comprises at least one filtering layer and that comprises a rearward open end with a perimeter; and, a face seal that is connected to the perimeter of the mask body and that extends inwardly from the perimeter of the mask body to terminate at an inner edge of the face seal, wherein the face seal comprises at least one water-vapor-breathable layer that is also liquid-water-repellent. a shaped mask body that comprises at least one filtering layer and that comprises a rearward open end with a perimeter; and, a face seal that is connected to the perimeter of the mask body and that extends inwardly from the perimeter of the mask body to terminate at an inner edge of the face seal, wherein the face seal comprises at least one water-vapor-breathable layer that is also liquid-water-repellent.
A sanitary set consisting of a toilet seat, a lid and a toilet bowl, where the toilet seat and the lid are located on the toilet bowl and connected to the upper edge of the toilet bowl by means of rolling joints around a horizontal axis, whereby the rolling joints are formed from magnets (5.1, 5.2) arranged on or in a horizontal bar in rear end of upper plane of toilet bowl, oppositely polarized magnets in a rear end of the toilet seat and oppositely polarized magnets in a rear end of the lid, characterized in that at least one of the magnets (5.1, 5.2, 6, 7) consists of arrangement of partial magnets arranged towards each other with changing magnetic polarity N,S in axial direction therefore fitted toward each other by repulsing magnetic poles.
Sanitary fitting (1; 1'; 1") with a base body (2; 2') comprising a water inlet and a valve unit, and with a water outlet which is fixedly connected to the base body (2; 2') and comprises at its end facing away from the base body (2; 2') an outlet head (6; 6'; 6") through which, during operation and with open valve unit, the water entering the water inlet of the base body (2; 2') exits again the sanitary fitting (1; 1'; 1"), wherein the water outlet comprises a connecting element (8; 8'; 8"), which is fixedly connected at its one end to the base body (2; 2') via an inlet part (5; 5'; 5"), through which the water that flows through the water inlet when the valve unit is open enters the water outlet, and at its other end bears the outlet head (6; 6'; 6"), and wherein between the inlet part (5; 5'; 5") and the outlet head (6; 6'; 6") a replaceable unit (4; 4'; 4") is releasably connected to the connecting element (8; 8'; 8") which abuts in a watertight manner the inlet part (5; 5'; 5") on the one hand and the outlet head (6; 6'; 6") on the other hand, and through which the water exiting the inlet part (5; 5'; 5") is completely guided into the outlet head (6; 6'; 6"), characterized in that the connecting element (8; 8'; 8") connects the inlet part (5; 5'; 5") to the outlet head (6; 6'; 6") in a mechanical and discontinuously water-carrying manner, wherein the connecting element (8; 8'; 8") is designed in the form of a half shell.
A flexible pipe for conveying a fluid, comprising: - an inner polymer sheath defining an inner passage for the circulation of a conveyed fluid; - at least one layer (34, 36) of inner armours, arranged outside the inner sheath; - a polymer outer protection sheath, positioned outside each layer (34, 36) of inner armours; - an inner fluid, received between the inner sheath and the outer sheath; characterized in that the pipe includes an intermediate polymer sheath, interposed between the inner sheath and the outer sheath, the intermediate sheath and the inner sheath delimiting an inner annular space between them for receiving the inner fluid, the inner fluid being confined in the inner annular space at a pressure above 50 bars. - an inner polymer sheath defining an inner passage for the circulation of a conveyed fluid; - at least one layer (34, 36) of inner armours, arranged outside the inner sheath; - a polymer outer protection sheath, positioned outside each layer (34, 36) of inner armours; - an inner fluid, received between the inner sheath and the outer sheath;
Covering for receiving a profiled rail carriage in an interior of the covering, comprising: a first end face and a second end face which, on sides which are opposite a movement direction of the profiled rail carriage, delimit the interior in the movement direction; and a first side face and a second side face which, on sides which are opposite in a direction perpendicular to the movement direction of the profiled rail carriage, delimit the interior in the perpendicular direction, wherein the end faces (120, 130) each have a cutout; wherein the cutouts have a shape, with the result that a profiled rail can pass through the cutouts at least with a part of their cross-sectional shape in order to allow the profiled rail carriage arranged in the interior to move along the profiled rail; and wherein the covering leaves open an upper side at least in a mounting region of the profiled rail carriage. a first end face and a second end face which, on sides which are opposite a movement direction of the profiled rail carriage, delimit the interior in the movement direction; and a first side face and a second side face which, on sides which are opposite in a direction perpendicular to the movement direction of the profiled rail carriage, delimit the interior in the perpendicular direction, wherein the end faces (120, 130) each have a cutout; wherein the cutouts have a shape, with the result that a profiled rail can pass through the cutouts at least with a part of their cross-sectional shape in order to allow the profiled rail carriage arranged in the interior to move along the profiled rail; and wherein the covering leaves open an upper side at least in a mounting region of the profiled rail carriage.
A method for generating an image information, the method comprising: - capturing a light field information of an environment with a light field camera, - detecting a gaze information indicating a position on a display unit a user is gazing at, wherein a device comprising the display unit is located remote from the light field camera, - communicating at least one of the light field information and the gaze information via a data communication between the light field camera and the device, - generating an image information based on the light field information and the gaze information, wherein generating the image information comprises determining a position in the environment which corresponds to the position on the display unit the user is gazing at, - capturing an audio information of the environment with a microphone array, the microphone array capturing an acoustic field information of the environment which is aligned with the light field information, and - generating an audio output based on the acoustic field information and the position in the environment to include audio information originating from the position in the environment which corresponds to the position on the display unit at which the user is gazing. - capturing a light field information of an environment with a light field camera, - detecting a gaze information indicating a position on a display unit a user is gazing at, wherein a device comprising the display unit is located remote from the light field camera, - communicating at least one of the light field information and the gaze information via a data communication between the light field camera and the device, - generating an image information based on the light field information and the gaze information, wherein generating the image information comprises determining a position in the environment which corresponds to the position on the display unit the user is gazing at, - capturing an audio information of the environment with a microphone array, the microphone array capturing an acoustic field information of the environment which is aligned with the light field information, and - generating an audio output based on the acoustic field information and the position in the environment to include audio information originating from the position in the environment which corresponds to the position on the display unit at which the user is gazing.