mhurhangee/ep-ind-claims huggingface dataset:
Pipe structure which has an inner pipe made of a metal, wherein the inner pipe has an inner surface and an outer surface, at least one strand surrounding the outer surface of the inner pipe and has a plurality of yarns, wherein at least one of the yarns has carbon fibres, and a protective pipe surrounding the strand and the inner pipe, characterised in that the at least one strand has a tubular design; and the inner pipe is a high-pressure pipe having an inside diameter, an outside diameter and a wall thickness (w), wherein the wall thickness (w) is equal to or greater than the inside diameter, and the protective tube consists of a metal. an inner pipe made of a metal, wherein the inner pipe has an inner surface and an outer surface, at least one strand surrounding the outer surface of the inner pipe and has a plurality of yarns, wherein at least one of the yarns has carbon fibres, and a protective pipe surrounding the strand and the inner pipe, characterised in that the at least one strand has a tubular design; and the inner pipe is a high-pressure pipe having an inside diameter, an outside diameter and a wall thickness (w), wherein the wall thickness (w) is equal to or greater than the inside diameter, and the protective tube consists of a metal.
A system for access control in a directory by a requesting entity, comprising: a security protocol adaptation module configured to: review a data request from the requesting entity received in a directory operations server, locate a security rule pertaining to the requesting entity, comprising matching a distinguished name associated with the data request against a set of name prefixes to determine the security rule, modify the data request so that the data request appears to originate from a first security user if such data request modification is set forth by the located security rule, the first security user having a security permission set that determines access control to entries in the directory, and return the modified data request to the directory operations server. a security protocol adaptation module configured to: review a data request from the requesting entity received in a directory operations server, locate a security rule pertaining to the requesting entity, comprising matching a distinguished name associated with the data request against a set of name prefixes to determine the security rule, modify the data request so that the data request appears to originate from a first security user if such data request modification is set forth by the located security rule, the first security user having a security permission set that determines access control to entries in the directory, and return the modified data request to the directory operations server. review a data request from the requesting entity received in a directory operations server, locate a security rule pertaining to the requesting entity, comprising matching a distinguished name associated with the data request against a set of name prefixes to determine the security rule, modify the data request so that the data request appears to originate from a first security user if such data request modification is set forth by the located security rule, the first security user having a security permission set that determines access control to entries in the directory, and return the modified data request to the directory operations server.
A method for wireless communication at a user equipment, UE, comprising: receiving (905, 1005, 1105) a power control configuration for uplink transmissions on a first cell group and on a second cell group, wherein the UE is configured for dual connectivity and to communicate with the first cell group and the second cell group; identifying (910, 1010, 1110) an uplink transmission for one or more symbol periods on a component carrier of the second cell group; identifying (915, 1015, 1115) a number of symbol periods for the first cell group corresponding to the one or more symbol periods and indicated as semi-static uplink or flexible by a set of time or frequency division duplexing configurations corresponding to the first cell group; determining (920, 1020, 1120), for the first cell group, a first configured power level for the number of symbol periods; and determining (925, 1040, 1140), based at least in part on the determined first configured power level and the received power control configuration, whether to perform the uplink transmission during the one or more symbol periods on the component carrier of the second cell group. receiving (905, 1005, 1105) a power control configuration for uplink transmissions on a first cell group and on a second cell group, wherein the UE is configured for dual connectivity and to communicate with the first cell group and the second cell group; identifying (910, 1010, 1110) an uplink transmission for one or more symbol periods on a component carrier of the second cell group; identifying (915, 1015, 1115) a number of symbol periods for the first cell group corresponding to the one or more symbol periods and indicated as semi-static uplink or flexible by a set of time or frequency division duplexing configurations corresponding to the first cell group; determining (920, 1020, 1120), for the first cell group, a first configured power level for the number of symbol periods; and determining (925, 1040, 1140), based at least in part on the determined first configured power level and the received power control configuration, whether to perform the uplink transmission during the one or more symbol periods on the component carrier of the second cell group.
Device for removing a protective film off a sheet such as tickets or the like, comprising at least one removal or scraping roll (76,78) of said protective film and at least one drawing or pulling roll (90,92) of said sheet opposite to said at least one scraping roll (76,78) and between which said sheet passes, characterized in that said device comprises a base and a roll unit including said at least one scraping roll (76,78) and said at least one drawing roll (90,92), said roll unit being mobile or removable with respect to said base and able to take at least two positions, a first operative position wherein said roll unit is inserted or mounted in said base and a second inoperative position wherein said roll unit is displaced or removed from said base.
An optically variable device (101a-h) comprising: a focusing layer (102a-h) comprising an array of focusing elements (103a-h) combined with a co-planar data-bearing volume (105a-e; 701; 801; 901) containing visual data elements (106a-e; 702; 803; 902) within the data-bearing volume (105a-e; 701; 801; 901), characterized in that the visual data elements (106a-e; 702; 803; 902) reflect or diffract light to create a virtual object array (108a-f) which, in conjunction with the focusing layer (102a-h), satisfies the conditions for moiré magnification, wherein the virtual object array (108a-f) is disposed in a predetermined virtual position located outside of the optically variable device, and wherein the array of focusing elements (103a-h) provides a magnified view of the virtual object array (108a-f). a focusing layer (102a-h) comprising an array of focusing elements (103a-h) combined with a co-planar data-bearing volume (105a-e; 701; 801; 901) containing visual data elements (106a-e; 702; 803; 902) within the data-bearing volume (105a-e; 701; 801; 901), characterized in that the visual data elements (106a-e; 702; 803; 902) reflect or diffract light to create a virtual object array (108a-f) which, in conjunction with the focusing layer (102a-h), satisfies the conditions for moiré magnification, wherein the virtual object array (108a-f) is disposed in a predetermined virtual position located outside of the optically variable device, and wherein the array of focusing elements (103a-h) provides a magnified view of the virtual object array (108a-f).
A packing material for liquid chromatography, wherein an amino group represented by the formula is bonded through a spacer to a hydrophilic resin comprising a polyvinyl alcohol resin, wherein R 1 represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms, R 2 represents an alkyl group having 1 to 6 carbon atoms and having one or more hydroxyl groups, and represents a bonding position to the spacer.
A method comprising: forming a plurality of self-supporting light emitting devices on a first substrate, each self-supporting light emitting device including thick metal layers (28, 30) that have a thickness of at least 50 μm to provide this self-support, removing the first substrate, singulating the plurality of self-supporting light emitting devices, placing the plurality of self-supporting light emitting elements into wells of an intermediate substrate, without adhering the light emitting elements to the intermediate substrate, encapsulating the plurality of self-supporting light emitting devices to form a plurality of encapsulated self-supporting light emitting devices, removing the intermediate substrate, and subsequently singulating the plurality of encapsulated self-supporting light emitting devices to provide individual encapsulated self-supporting light emitting devices. forming a plurality of self-supporting light emitting devices on a first substrate, each self-supporting light emitting device including thick metal layers (28, 30) that have a thickness of at least 50 μm to provide this self-support, removing the first substrate, singulating the plurality of self-supporting light emitting devices, placing the plurality of self-supporting light emitting elements into wells of an intermediate substrate, without adhering the light emitting elements to the intermediate substrate, encapsulating the plurality of self-supporting light emitting devices to form a plurality of encapsulated self-supporting light emitting devices, removing the intermediate substrate, and subsequently singulating the plurality of encapsulated self-supporting light emitting devices to provide individual encapsulated self-supporting light emitting devices.
Switching device for a high-voltage circuit breaker, having at least two switches (2a, 2b, 2c) for ascertaining states of apparatuses (3a, 3b, 3c) of the switching device via a monitoring system, characterized in that the at least two switches (2a, 2b, 2c) are connected to one another in a series circuit or in a parallel circuit and are able to be connected together to exactly one input of the monitoring system.
A polyamide molding compound comprising the components to and optionally or consisting of these components: 50 to 90 wt% of a mixture consisting of the polyamides and; wherein is 35 to 95 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of 9 to 11.5; and is 5 to 65 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of at least 12 selected from the group consisting of PA1016, PA12, PA717, PA718, PA816, PA817, PA818, PA915, PA916, PA917, PA918, PA1014, PA1015, PA1017, PA1018, PA1113, PA1114, PA1115, PA1116, PA1117, PA1118, PA1212, PA1213, PA1214, PA1215, PA1216, PA1217, PA1218, PA1311, PA1312, PA1313, PA1314, PA1315, PA1316, PA1317, PA1318, PA1410, PA1411, PA1412, PA1413, PA1414, PA1415, PA1416, PA1417, PA1418, and mixtures thereof; where the sum of and adds up to 100 wt%; 10 to 45 wt% of at least one particulate filler and/or fibrous reinforcement; 0 to 5 wt% of at least one additive; wherein the weight proportions of the components to add up to 100 wt%. 50 to 90 wt% of a mixture consisting of the polyamides and; wherein is 35 to 95 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of 9 to 11.5; and is 5 to 65 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of at least 12 selected from the group consisting of PA1016, PA12, PA717, PA718, PA816, PA817, PA818, PA915, PA916, PA917, PA918, PA1014, PA1015, PA1017, PA1018, PA1113, PA1114, PA1115, PA1116, PA1117, PA1118, PA1212, PA1213, PA1214, PA1215, PA1216, PA1217, PA1218, PA1311, PA1312, PA1313, PA1314, PA1315, PA1316, PA1317, PA1318, PA1410, PA1411, PA1412, PA1413, PA1414, PA1415, PA1416, PA1417, PA1418, and mixtures thereof; where the sum of and adds up to 100 wt%; is 35 to 95 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of 9 to 11.5; and is 5 to 65 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of at least 12 selected from the group consisting of PA1016, PA12, PA717, PA718, PA816, PA817, PA818, PA915, PA916, PA917, PA918, PA1014, PA1015, PA1017, PA1018, PA1113, PA1114, PA1115, PA1116, PA1117, PA1118, PA1212, PA1213, PA1214, PA1215, PA1216, PA1217, PA1218, PA1311, PA1312, PA1313, PA1314, PA1315, PA1316, PA1317, PA1318, PA1410, PA1411, PA1412, PA1413, PA1414, PA1415, PA1416, PA1417, PA1418, and mixtures thereof; 10 to 45 wt% of at least one particulate filler and/or fibrous reinforcement; 0 to 5 wt% of at least one additive;
Device for detecting the presence of an object close to or within a space or an opening between a first sensor and an opposing second sensor, movable against each other, the device comprising the first sensor and the second sensor, the first sensor comprising at least one reference conductor and at least one sensing line insulated and distant from the at least one reference conductor, the second sensor comprising at least one reference conductor, the at least one sensing line of the first sensor being arranged between the reference conductor of the first sensor and the reference conductor of the second sensor, the at least one sensing line of the first sensor being connected to an amplifier generating an output signal indicating the signal strength and/or attenuation of a signal at the at least one sensing line, a control circuit being provided, the control circuit further comprising a signal generator unit (420, 430) having at least a first output connected to the at least one reference conductor of the first sensor and a second output connected to the at least one reference conductor of the second sensor, whereas in a first measurement mode, the first output is configured to provide a signal and the second output is configured to provide no signal, and in a second measurement mode, the first output is configured to provide no signal and the second output is configured to provide a signal, and the signal from the same sensing line is used in the first measurement mode and in the second measurement mode, and an evaluation unit is provided and is configured to determine a value of the output signal measured in the first measurement mode and a value of the output signal measured in the second measurement mode, wherein the evaluation unit is configured to generate an object present signal based on said values.
A stainless-steel foil for a separator of a polymer electrolyte fuel cell, comprising: a substrate made of stainless-steel foil; and a Sn alloy layer with which a surface of the substrate is coated, with a strike layer in between, wherein a thickness of the Sn alloy layer is 0.1 μm or more and 5 μm or less, a coating ratio of the strike layer on the substrate is 2% to 70%, the strike layer is distributed in a form of islands, and a maximum diameter of each of the islands as coating portions is 1 μm or less. a substrate made of stainless-steel foil; and a Sn alloy layer with which a surface of the substrate is coated, with a strike layer in between, wherein a thickness of the Sn alloy layer is 0.1 μm or more and 5 μm or less, a coating ratio of the strike layer on the substrate is 2% to 70%, the strike layer is distributed in a form of islands, and a maximum diameter of each of the islands as coating portions is 1 μm or less.
A method for displaying an augmented reality, AR, model on an AR device, the method comprising: receiving, from a global navigation satellite system, GNSS, receiver, GNSS position data associated with a geospatial reference frame, the GNSS position data based on wireless signals received from GNSS satellites; receiving, from one or more cameras, image information; determining, from the image information, camera position and orientation, POS, data associated with an AR reference frame; detecting a first change in position or rotation of the AR model relative to the geospatial reference frame using the POS data; characterized by detecting a second change in position or rotation of the AR device relative to the AR reference frame using inertial sensor data; determining that the first change is different from the second change in at least one of shift or rotation; and performing at least one of shifting the AR reference frame or rotating the AR reference frame relative to the geospatial reference frame by an amount approximately equal in magnitude but opposite in direction to the first change, so that coordinates in the AR model approximately align with corresponding coordinates in the geospatial reference frame. receiving, from a global navigation satellite system, GNSS, receiver, GNSS position data associated with a geospatial reference frame, the GNSS position data based on wireless signals received from GNSS satellites; receiving, from one or more cameras, image information; determining, from the image information, camera position and orientation, POS, data associated with an AR reference frame; detecting a first change in position or rotation of the AR model relative to the geospatial reference frame using the POS data; characterized by detecting a second change in position or rotation of the AR device relative to the AR reference frame using inertial sensor data; determining that the first change is different from the second change in at least one of shift or rotation; and performing at least one of shifting the AR reference frame or rotating the AR reference frame relative to the geospatial reference frame by an amount approximately equal in magnitude but opposite in direction to the first change, so that coordinates in the AR model approximately align with corresponding coordinates in the geospatial reference frame.
A DC power supply connector, at least comprising: a positive-electrode-side electrode and a negative-electrode-side electrode configured to supply DC power, wherein provided on at least any of a positive-electrode-side electrode side and a negative-electrode-side electrode side is a current limiting circuit configured to include a switching element, characterized in that on the at least any of the positive-electrode-side electrode side and the negative-electrode-side electrode side there is also provided a movable contact piece configured to touch a first contact in a state where a terminal on a power receiving side in which a DC current flows at supply of the DC power is inserted and configured to touch a second contact in a state where the terminal is not inserted, wherein the current limiting circuit is configured to decrease the current flowing in the terminal through the movable contact piece when the terminal is removed, and wherein the current limiting circuit does not flow a current to the switching element in the case where the movable contact piece is touching the first contact, and flows a current to the terminal through the movable contact piece when the movable contact piece is separated from the first contact and linked to the second contact, and gradually decreases the flowing current. a positive-electrode-side electrode and a negative-electrode-side electrode configured to supply DC power, wherein provided on at least any of a positive-electrode-side electrode side and a negative-electrode-side electrode side is a current limiting circuit configured to include a switching element, characterized in that on the at least any of the positive-electrode-side electrode side and the negative-electrode-side electrode side there is also provided a movable contact piece configured to touch a first contact in a state where a terminal on a power receiving side in which a DC current flows at supply of the DC power is inserted and configured to touch a second contact in a state where the terminal is not inserted, wherein the current limiting circuit is configured to decrease the current flowing in the terminal through the movable contact piece when the terminal is removed, and wherein the current limiting circuit does not flow a current to the switching element in the case where the movable contact piece is touching the first contact, and flows a current to the terminal through the movable contact piece when the movable contact piece is separated from the first contact and linked to the second contact, and gradually decreases the flowing current.
A liquid ejection device, comprising: a head being configured to eject liquid on a medium, a first sensor being configured to detect liquid ejection of the head by using a first principle, a second sensor, which is distinct from the first sensor and is configured to detect the liquid ejection by using a second principle being different from the first principle a recovery unit (50, 55, 60) being configured to recover the liquid ejection by the head, and a controller being configured to control the first sensor and the second sensor, and control the recovery unit based on a first detection result by the first sensor and a second detection result by the second sensor, wherein the second sensor is configured to perform sensing on the head to detect a state of liquid within the head based on the liquid within the head. a head being configured to eject liquid on a medium, a first sensor being configured to detect liquid ejection of the head by using a first principle, a second sensor, which is distinct from the first sensor and is configured to detect the liquid ejection by using a second principle being different from the first principle a recovery unit (50, 55, 60) being configured to recover the liquid ejection by the head, and a controller being configured to control the first sensor and the second sensor, and control the recovery unit based on a first detection result by the first sensor and a second detection result by the second sensor, wherein the second sensor is configured to perform sensing on the head to detect a state of liquid within the head based on the liquid within the head.