mhurhangee/ep-ind-claims huggingface dataset:
Support assembly for a motor vehicle, in particular a car or a light commercial vehicle, which may be installed in the rear section of the motor vehicle for holding a load, with a fork-like shape with at least two retaining arms (15, 16; 15', 16') which in the installed state have horizontal clearance from one another and are joined to one another by a cross-member assembly (17; 17'), wherein the retaining arms (15, 16; 15', 16') may be attached releasably to the holders (18, 19) of a holder assembly, wherein the holders (18, 19) are mounted on opposite long sides (64, 65) of the motor vehicle in the rear area on a body of the motor vehicle, and wherein in the installed state the retaining arms, at least in the area of the holders (18, 19), run substantially in the direction of longitudinal extent of the motor vehicle, and the cross-member assembly (17; 17') is mounted behind the rear section, in particular behind a rear bumper of the motor vehicle, wherein to supply the support assembly (11, 12) and/or a trailer attached to it with electrical power, there is provided on at least one of the retaining arms (15, 16; 15', 16') an electrical support contact device which may be connected electrically to an electrical holder contact device on the motor vehicle, wherein the retaining arms (15, 16; 15', 16') have insertion sections (27, 28) which may be plugged onto and/or into plug-in sockets (25, 26) of the holders (18, 19), characterised in that there is provided on the insertion sections (27, 28) of both retaining arms (15, 16; 15', 16'), in particular at the end face and/or on an outer periphery in each case an electrical support contact device so that, on plugging together the holders (18, 19) and the retaining arms (15, 16; 15', 16'), electrical contact is made with a holder contact device, which is located in the plug-in socket of the assigned holder (18, 19) or at the side of the holder (18, 19).
A wavelength converting member comprising a polycrystalline sintered ceramic comprising a garnet phase having the compositional formula: (A 1-x B x) 3 C 5 O 12 wherein A is at least one rare earth element selected from the group consisting of Y, Gd, and Lu, B is at least one rare earth element selected from the group consisting of Ce, and Tb, C is at least one element selected from the group consisting of Al and Ga, and x is a number from 0.002 to 0.2, and a silicate phase containing at least one rare earth element selected from the group consisting of Y, Gd, and Lu, at least one rare earth element selected from the group consisting of Ce, Nd, and Tb, at least one element selected from the group consisting of Al and Ga, silicon, and oxygen, wherein fine grains of phase having an average grain size of 0.1 μm to 1 mm are included in a matrix of crystal of phase and dispersed in a matrix of crystal of phase. a garnet phase having the compositional formula: (A 1-x B x) 3 C 5 O 12 wherein A is at least one rare earth element selected from the group consisting of Y, Gd, and Lu, B is at least one rare earth element selected from the group consisting of Ce, and Tb, C is at least one element selected from the group consisting of Al and Ga, and x is a number from 0.002 to 0.2, and a silicate phase containing at least one rare earth element selected from the group consisting of Y, Gd, and Lu, at least one rare earth element selected from the group consisting of Ce, Nd, and Tb, at least one element selected from the group consisting of Al and Ga, silicon, and oxygen,
A mobile device for commissioning and/or controlling a plurality of nodes comprising: - a motion sensor configured to determine a motion of the mobile device; - a radiofrequency transceiver configured to receive a respective advertisement of each one of the plurality of nodes; - a controller configured to receive the motion of the mobile device; - a user interface, wherein the user interface is a touchscreen display for receiving a user input; wherein the controller is configured to (i) obtain and parse the respective advertisements of the plurality of nodes, when the mobile device is in a first motion, and (ii) display a list comprising the parsed advertisements of the plurality of nodes on the user interface, when the mobile device is in a second motion; wherein the first motion is the mobile device moving along a path, wherein the second motion is the mobile device standing still; wherein the user input comprises selecting a node of the plurality of nodes from said list, wherein the controller is configured to control the radiofrequency transceiver to send a control command to said node in response to said user input of selecting said node; wherein the controller is configured to determine, from the respective advertisement of each one of the plurality of nodes, a respective Received Signal Strength Indicator, RSSI, value indicative of the distance between each one of the plurality of nodes and the mobile device; wherein said list is hierarchically ordered by the respective RSSI value of the plurality of nodes. - a motion sensor configured to determine a motion of the mobile device; - a radiofrequency transceiver configured to receive a respective advertisement of each one of the plurality of nodes; - a controller configured to receive the motion of the mobile device; - a user interface, wherein the user interface is a touchscreen display for receiving a user input; wherein the controller is configured to (i) obtain and parse the respective advertisements of the plurality of nodes, when the mobile device is in a first motion, and (ii) display a list comprising the parsed advertisements of the plurality of nodes on the user interface, when the mobile device is in a second motion; wherein the first motion is the mobile device moving along a path, wherein the second motion is the mobile device standing still; wherein the user input comprises selecting a node of the plurality of nodes from said list, wherein the controller is configured to control the radiofrequency transceiver to send a control command to said node in response to said user input of selecting said node; wherein the controller is configured to determine, from the respective advertisement of each one of the plurality of nodes, a respective Received Signal Strength Indicator, RSSI, value indicative of the distance between each one of the plurality of nodes and the mobile device; wherein said list is hierarchically ordered by the respective RSSI value of the plurality of nodes.
Device for fitting an attachment part to a support part with a first leg as well as with a second leg, wherein the legs (2, 3) are connected with each other at their ends via a first connection section, with a header plate, which is connected with the second leg via a second connection section lying opposite the first connection section, wherein the header plate is equipped with a thread structure, and with a hold-down device for limiting the movement of the end of the header plate lying opposite the second connection section away from the first leg, characterised in that a shoulder structure is provided, which delimits the movement of the header plate towards the second leg.
Device suitable for heating, curing or the compacting/consolidation of a fibrous polymer matrix composite preform (150, 700), which device comprises: a. a mould body (131, 431, 471, 730, 770) made of a ceramic material that is transparent to microwaves and comprising a first die shape; b. a coating layer (132, 432, 472, 532, 732) comprising a ferrimagnetic material covering the surface of the die shape; c. a second mould body (471, 770) formed of a ceramic material comprising a second die shape complementary to the first die shape, the surface of said second die shape comprising a coating layer formed of a material comprising a ferrimagnetic component; d. the first and the second die shapes defining a cavity of constant volume. a. a mould body (131, 431, 471, 730, 770) made of a ceramic material that is transparent to microwaves and comprising a first die shape; b. a coating layer (132, 432, 472, 532, 732) comprising a ferrimagnetic material covering the surface of the die shape; c. a second mould body (471, 770) formed of a ceramic material comprising a second die shape complementary to the first die shape, the surface of said second die shape comprising a coating layer formed of a material comprising a ferrimagnetic component; d. the first and the second die shapes defining a cavity of constant volume.
A computer implemented method for detecting an operation status for a continuous glucose measurement sensor, the method, in a state machine, comprising - receiving continuous monitoring data related to an operation of a sensor and comprising compressed monitoring data; - providing a trained learning algorithm for detecting an operation status for the sensor which signifies a sensor function, wherein the learning algorithm is trained according to a training data set comprising historical data, and compressed training data; - detecting an operation status for the sensor by analyzing the continuous monitoring data with the trained learning algorithm; and - providing output data indicating the detected operation status for the sensor; wherein - the historical data consist of data that are at least one of collected, detected and measured prior to the detecting the operation status; characterized in that: - the compressed monitoring data and the compressed training data are determined by at least one of a linear regression method and a smoothing method and are the result of reduction of the dimension of monitoring data and training data, respectively, wherein in the different stages of compression, the monitoring data and training data, respectively, comprise a data per second, data per minute and / or statistic data including characteristic values such as sensor parameters, variance, noise or rate-of-change. - receiving continuous monitoring data related to an operation of a sensor and comprising compressed monitoring data; - providing a trained learning algorithm for detecting an operation status for the sensor which signifies a sensor function, wherein the learning algorithm is trained according to a training data set comprising historical data, and compressed training data; - detecting an operation status for the sensor by analyzing the continuous monitoring data with the trained learning algorithm; and - providing output data indicating the detected operation status for the sensor; wherein - the historical data consist of data that are at least one of collected, detected and measured prior to the detecting the operation status; characterized in that: - the compressed monitoring data and the compressed training data are determined by at least one of a linear regression method and a smoothing method and are the result of reduction of the dimension of monitoring data and training data, respectively, wherein in the different stages of compression, the monitoring data and training data, respectively, comprise a data per second, data per minute and / or statistic data including characteristic values such as sensor parameters, variance, noise or rate-of-change.
Ahydraulic shock absorber comprising: a vehicle body side tube and a wheel side tube which are respectively disposed on a vehicle body side and a wheel side and arranged in a telescopic manner; a cylinder provided to the wheel side tube; a reservoir defined outside the cylinder; a rod provided to the vehicle body side tube; a piston provided at a lower end of the rod, the piston slidably abutting an inner circumferential surface of the cylinder, the piston separating the cylinder into an upper chamber and a lower chamber; a passage formed inside the rod, the passage having an upper end opening that opens at an upper end of the rod and a lower end opening that opens inside the cylinder; and a control valve provided at an upper portion of the vehicle body side tube, the control valve being configured to apply flow channel resistance to operating oil flowing from the upper end opening of the passage to the reservoir at extension and contraction operations in which the rod exits from and enters the cylinder, wherein the control valve comprises a valve body configured to push a valve seat for opening and closing, characterized in that the control valve is disposed in an inclined manner above the cylinder. a vehicle body side tube and a wheel side tube which are respectively disposed on a vehicle body side and a wheel side and arranged in a telescopic manner; a cylinder provided to the wheel side tube; a reservoir defined outside the cylinder; a rod provided to the vehicle body side tube; a piston provided at a lower end of the rod, the piston slidably abutting an inner circumferential surface of the cylinder, the piston separating the cylinder into an upper chamber and a lower chamber; a passage formed inside the rod, the passage having an upper end opening that opens at an upper end of the rod and a lower end opening that opens inside the cylinder; and a control valve provided at an upper portion of the vehicle body side tube, the control valve being configured to apply flow channel resistance to operating oil flowing from the upper end opening of the passage to the reservoir at extension and contraction operations in which the rod exits from and enters the cylinder, wherein the control valve comprises a valve body configured to push a valve seat for opening and closing, characterized in that the control valve is disposed in an inclined manner above the cylinder.
A ligand-free method of preparing tetrahexahedra ("THH") nanoparticles comprising, heating particles comprising a first metal in the presence of a second metal at 500°C to 1300°C for about 0.5 hours to about 12 hours to form the THH nanoparticles; wherein the first metal comprises platinum, palladium, rhodium, nickel, cobalt, or a combination thereof and the second metal comprises Sb, Bi, Pb, Te, or a combination thereof.
A light detection and ranging (LIDAR) system comprising: a transmitter configured to emit a transmit beam (108; 303; 403); a receiving pixel (116A-D; 328; 429) configured to receive a returning beam (112; 316; 417); a rotating mirror (311; 412) configured to direct the transmit beam to a target (313; 414) and direct the returning beam to the receiving pixel, wherein the rotating mirror is configured to rotate in a first direction (381; 481) and a second opposite direction during regular operation; and a beam displacement apparatus (111; 213; 333; 433) disposed between the receiving pixel and the rotating mirror, wherein the beam displacement apparatus is configured to introduce a displacement to the returning beam to compensate for a spacing between the transmitter and the receiving pixel, and wherein the beam displacement apparatus includes a switchable beam rotator that is driven to a first retardation value when the rotating mirror is rotating in the first direction and driven to a second retardation value when the rotating mirror is rotating in the second opposite direction. a transmitter configured to emit a transmit beam (108; 303; 403); a receiving pixel (116A-D; 328; 429) configured to receive a returning beam (112; 316; 417); a rotating mirror (311; 412) configured to direct the transmit beam to a target (313; 414) and direct the returning beam to the receiving pixel, wherein the rotating mirror is configured to rotate in a first direction (381; 481) and a second opposite direction during regular operation; and a beam displacement apparatus (111; 213; 333; 433) disposed between the receiving pixel and the rotating mirror, wherein the beam displacement apparatus is configured to introduce a displacement to the returning beam to compensate for a spacing between the transmitter and the receiving pixel, and wherein the beam displacement apparatus includes a switchable beam rotator that is driven to a first retardation value when the rotating mirror is rotating in the first direction and driven to a second retardation value when the rotating mirror is rotating in the second opposite direction.
A composition for coating a frozen confection, the composition comprising, expressed in weight % (based on the total weight of the coating), 50 to 60 wt% of non-fat solids, 40 to 50 wt% of fat, which comprises a fat blend of a hardening fat and a liquid oil, wherein the fat blend consists of 45 to 55 wt % of the liquid oil and 55 to 45 wt % of the hardening fat, and wherein the hardening fat comprises at least 8 % anhydrous milk fat, and wherein the composition is free from water. 50 to 60 wt% of non-fat solids, 40 to 50 wt% of fat, which comprises a fat blend of a hardening fat and a liquid oil, wherein the fat blend consists of 45 to 55 wt % of the liquid oil and 55 to 45 wt % of the hardening fat, and wherein the hardening fat comprises at least 8 % anhydrous milk fat, and wherein the composition is free from water.
An apparatus for positioning sod strips, comprising: a structure (78, 80, 90) for mounting on a vehicle; a pushing plate slidably mounted to the structure, the pushing plate having a bottom wall and an upturned front wall arranged to be abuttable to a vertical edge of a sod strip that has already been placed flat on the ground; and at least one actuator (202, 206) operatively mounted between the structure (78, 80, 90) and the pushing plate to slide the pushing plate away from the structure to position the sod strip, wherein the actuator (202, 206) and pushing plate are arranged for the pushing plate to slide in a lateral direction that is perpendicular to the straight ahead driving direction of the vehicle and to compress the sod strip laterally. a structure (78, 80, 90) for mounting on a vehicle; a pushing plate slidably mounted to the structure, the pushing plate having a bottom wall and an upturned front wall arranged to be abuttable to a vertical edge of a sod strip that has already been placed flat on the ground; and at least one actuator (202, 206) operatively mounted between the structure (78, 80, 90) and the pushing plate to slide the pushing plate away from the structure to position the sod strip, wherein the actuator (202, 206) and pushing plate are arranged for the pushing plate to slide in a lateral direction that is perpendicular to the straight ahead driving direction of the vehicle and to compress the sod strip laterally.
A method for producing a portable data carrier having the steps of - supplying a film carrier having a contact layout arranged on its upper side and contacting surfaces arranged on its underside, - disposing a semiconductor circuit on the underside and connecting the contacts of the semiconductor circuit to the contacting surfaces, - performing an injection molding process in which there is formed on the underside around the semiconductor circuit a molded body having an outer contour corresponding to a standard specification for the outer dimensions of a portable data carrier, wherein - for the injection molding process there is used a casting tool which has an upper mold half being placed on the film carrier and enclosing a cavity whose inside height (g) corresponds to the final height (h) desired for the finished data carrier reduced by the thickness (d) of the film carrier, and the further steps also being performed:. - feeding the film carrier with the semiconductor circuit located thereon to a personalization device where an individualization of the semiconductor circuit is effected, and - thereafter singling the portable data carrier by separating the part of the film carrier connected to the molded body from the remaining film carrier, with the part of the film carrier connected to the molded body forming the cover layer of the finished data carrier. - supplying a film carrier having a contact layout arranged on its upper side and contacting surfaces arranged on its underside, - disposing a semiconductor circuit on the underside and connecting the contacts of the semiconductor circuit to the contacting surfaces, - performing an injection molding process in which there is formed on the underside around the semiconductor circuit a molded body having an outer contour corresponding to a standard specification for the outer dimensions of a portable data carrier, wherein - for the injection molding process there is used a casting tool which has an upper mold half being placed on the film carrier and enclosing a cavity whose inside height (g) corresponds to the final height (h) desired for the finished data carrier reduced by the thickness (d) of the film carrier, and the further steps also being performed:. - feeding the film carrier with the semiconductor circuit located thereon to a personalization device where an individualization of the semiconductor circuit is effected, and - thereafter singling the portable data carrier by separating the part of the film carrier connected to the molded body from the remaining film carrier, with the part of the film carrier connected to the molded body forming the cover layer of the finished data carrier.
The use of isosorbide monoethers according to general formula wherein R' represents an alkyl- or unsaturated alkenyl moiety and R" represents a hydrogen atom as thickener for aqueous surfactant compositions, wherein the thickening effective amount ranges from 0.1% to 5.0% by weight.
A temporary, relocatable, sports pitch assembly comprising: at least one base layer comprising: a plurality of removably coupleable base layer elements, wherein each base layer element comprises drainage means; and at least one base layer element coupling device (204, 206) for removably coupling adjacent base layer elements to one another; at least one shock absorbing layer comprising: a plurality of removably coupleable shock absorbing elements comprising a resiliently compressible material; and at least one shock absorbing element coupling device for removably coupling adjacent shock absorbing elements to one another; and at least one playing surface layer comprising: a plurality of removably coupleable playing surface elements; and at least one playing surface element coupling device for removably coupling adjacent playing surface elements to one another. at least one base layer comprising: a plurality of removably coupleable base layer elements, wherein each base layer element comprises drainage means; and at least one base layer element coupling device (204, 206) for removably coupling adjacent base layer elements to one another; a plurality of removably coupleable base layer elements, wherein each base layer element comprises drainage means; and at least one base layer element coupling device (204, 206) for removably coupling adjacent base layer elements to one another; at least one shock absorbing layer comprising: a plurality of removably coupleable shock absorbing elements comprising a resiliently compressible material; and at least one shock absorbing element coupling device for removably coupling adjacent shock absorbing elements to one another; and a plurality of removably coupleable shock absorbing elements comprising a resiliently compressible material; and at least one shock absorbing element coupling device for removably coupling adjacent shock absorbing elements to one another; at least one playing surface layer comprising: a plurality of removably coupleable playing surface elements; and at least one playing surface element coupling device for removably coupling adjacent playing surface elements to one another. a plurality of removably coupleable playing surface elements; and at least one playing surface element coupling device for removably coupling adjacent playing surface elements to one another.