mhurhangee/ep-ind-claims huggingface dataset:
A solar spectrum type LED eye-protection flat lamp, comprising: a front grating panel; a front diffusion panel; a circuit board; a rear reflection and diffusion panel; a multicolor LED lamp bead group; an annular reflector; wherein the front grating panel is closely attached to the front diffusion panel, and arranged on a concave disk of a light-emitting side of the LED eye-protection flat lamp, wherein the front diffusion panel is arranged in front of the front grating panel; wherein the rear reflection and diffusion panel is closely attached to the circuit board, and arranged on the concave disk at the backside of the LED eye-protection flat lamp, wherein the rear reflection and diffusion panel is arranged in front of the circuit board; wherein a distance is reserved between the front grating panel and the rear reflection and diffusion panel to form a gap; wherein the multicolor LED lamp bead group is arranged around the circuit board and located in the gap; the annular reflector is arranged around the inside of the concave disk of the LED eye-protection flat lamp. a front grating panel; a front diffusion panel; a circuit board; a rear reflection and diffusion panel; a multicolor LED lamp bead group; an annular reflector; wherein the front grating panel is closely attached to the front diffusion panel, and arranged on a concave disk of a light-emitting side of the LED eye-protection flat lamp, wherein the front diffusion panel is arranged in front of the front grating panel; wherein the rear reflection and diffusion panel is closely attached to the circuit board, and arranged on the concave disk at the backside of the LED eye-protection flat lamp, wherein the rear reflection and diffusion panel is arranged in front of the circuit board; wherein a distance is reserved between the front grating panel and the rear reflection and diffusion panel to form a gap; wherein the multicolor LED lamp bead group is arranged around the circuit board and located in the gap; the annular reflector is arranged around the inside of the concave disk of the LED eye-protection flat lamp.
A vertical industry user system, comprising a service provider device and a core network element, wherein the core network element is configured to: obtain a distribution instruction; and according to the distribution instruction, configure a core network identification number for the core network element, distribute a provider identification number to the service provider device; and the service provider device is configured to receive the provider identification number, wherein the core network identification number comprises first service parameter information, wherein the provider identification number comprises second service parameter information, further comprising a base station, wherein the core network element is configured to: distribute a base station identification number to the base station; and the base station is configured to receive the base station identification number, wherein the base station identification number comprises third service parameter information., further comprising a terminal, wherein the terminal is configured to receive a terminal identification number distributed by the service provider device, wherein the terminal identification number comprises fourth service parameter information, and characterized in that the core network identification number further comprises at least a first time parameter; the provider identification number further comprises at least a second time parameter; the base station identification number further comprises at least a third time parameter; and the terminal identification number further comprises at least a fourth time parameter.
Conveying system for conveying at least one workpiece, having a conveying device on which the workpiece can be conveyed along a conveying direction, wherein a fixing device which has at least one magnetic element which can be displaced along a lifting direction, which is different from the conveying direction, between a release position and a fixing position, wherein the at least one magnetic element is brought closer in the fixing position to the conveying device than in the release position in order to fix the workpiece in an assumed position on the conveying device, wherein the conveying device has a support surface, which extends along the conveying direction and along a transverse direction directed transversely to the conveying direction and transversely to the lifting direction, as support for the workpiece for conveying along the conveying direction, wherein the at least one magnetic element is arranged on a side of the conveying device that faces away from the support surface, wherein the fixing device has a carrier element which extends along the conveying direction and on which the at least one magnetic element is arranged and which, together with the at least one magnetic element can be displaced along the lifting direction, characterized in that the carrier element is coupled to at least one displacement element which can be displaced along the conveying direction, wherein the carrier element can be displaced along the lifting direction by displacing the at least one displacement element along the conveying direction, wherein in that the at least one displacement element is coupled to the carrier element by means of the engagement of a coupling element in a slotted guide, and in that the slotted guide extends along a curved path in a plane defined by the conveying direction and the lifting direction.
An article of footwear having an upper extending through a forefoot region, a midfoot region, and a heel region, the upper comprising: a knitted component having an exterior surface extending away from the upper and an interior surface surrounding a void within the upper for receiving a foot of a wearer; wherein the exterior surface extends away from the inside of the article of footwear, characterized in that: the interior surface comprises an exposed interior surface portion that is adapted to be adjacent to the foot of the wearer; and in that the upper further comprises: an asymmetric interior layer attached to the interior surface of the knitted component, the asymmetric interior layer including: a medial portion extending a first distance from the forefoot region to a portion of the midfoot region on a medial side of the upper, and a lateral portion extending a second distance from the forefoot region to a portion of the midfoot region on a lateral side of the upper; and wherein the second distance is larger than the first distance. a knitted component having an exterior surface extending away from the upper and an interior surface surrounding a void within the upper for receiving a foot of a wearer; wherein the exterior surface extends away from the inside of the article of footwear, characterized in that: the interior surface comprises an exposed interior surface portion that is adapted to be adjacent to the foot of the wearer; and in that the upper further comprises: an asymmetric interior layer attached to the interior surface of the knitted component, the asymmetric interior layer including: a medial portion extending a first distance from the forefoot region to a portion of the midfoot region on a medial side of the upper, and a lateral portion extending a second distance from the forefoot region to a portion of the midfoot region on a lateral side of the upper; and wherein the second distance is larger than the first distance. the interior surface comprises an exposed interior surface portion that is adapted to be adjacent to the foot of the wearer; and in that the upper further comprises: an asymmetric interior layer attached to the interior surface of the knitted component, the asymmetric interior layer including: a medial portion extending a first distance from the forefoot region to a portion of the midfoot region on a medial side of the upper, and a lateral portion extending a second distance from the forefoot region to a portion of the midfoot region on a lateral side of the upper; and wherein the second distance is larger than the first distance.
Product made using a mass comprising natural polymers, wherein the product comprises at least a first and a second product part, connected by a hinge construction, wherein the hinge construction comprises at least one flexible sheet element and one bridge portion made of said mass comprising natural polymers, characterised in that the hinge construction is designed such that, prior to a first time hinging, the at least one bridge portion forms a more rigid connection between the first and second product part than the flexible sheet element and by hinging said bridge portion is severed, such that the first and second part are substantially only connected by the or each flexible sheet element.
A method of controlling a motor of an electric projectile propulsion device with a motor controller comprising a microcontroller and a trigger sensor connected thereto adapted to start the motor in response to a displacement of a trigger, wherein the motor controller comprises a magnetic element coupled to the trigger, and the trigger sensor is a magnetic field sensor, characterized in that the magnetic field sensor has at least two non-parallel measurement axes (x,y,z) configured to sense a position of the magnetic element along the at least two axes (x,y,z), and the position (r) of the trigger is determined on the basis of a measurement carried out along these at least two axes and a comparison of the measurement readout (p cx, p cy, p cz) with reference data stored in memory of the microcontroller which contains vectors of reference measurement values for at least two axes (p cx (r), p cy (r), p cz (r)) unique for admissible trigger positions (r), and a shot is fired when a predefined condition is met.
A reactor for continuously regenerating grains of catalyst, composed of a vessel comprising an oxychlorination zone superimposed over a calcining zone provided with a line for introducing gas, characterized in that a chamber is disposed between the oxychlorination zone and the calcining zone, the chamber being composed of an internal space located between two plates (81; 82) which are gas tight and impervious to grains of catalyst, a plurality of tubes passing through the chamber to allow grains of catalyst to pass from the oxychlorination zone to the calcining zone, a plurality of means passing through the chamber to allow calcining gas to pass from the calcining zone to the oxychlorination zone, the reactor comprising at least one oxychlorination gas injection line opening into the internal space of the chamber, each means for the passage of gas comprising at least one orifice communicating with the internal space of the chamber, each means for the passage of gas comprising a means for evacuating gas in the oxychlorination zone, the gas evacuation means being permeable to gas and impermeable to grains of catalyst.
A polyester resin for heat-shrinkable film which contains terephthalic acid as a main component of a dicarboxylic acid component, contains ethylene glycol as a main component of a diol component, and contains from 18 to 32% by mole of neopentyl glycol and from 7 to 15% by mole of diethylene glycol when a total amount of the whole diol component in total polyester resin components is taken as 100% by mole, characterized in that the polyester resin satisfies the following requirements (i) to (iv): (i) The polyester resin has an intrinsic viscosity of not less than 0.65 and less than 0.70 dl/g; (ii) The polyester resin has a carboxyl end group concentration of from 8 to 25 eq/t; (iii) The polyester resin has a color b value of from 1.0 to 8.0 in an L*a*b* color system; and (iv) The polyester resin contains aluminum atom and phosphorus atom, wherein an amount of the aluminum atom in the polyester resin is 15 to 40 ppm and wherein a molar ratio of the phosphorus atom to the aluminum atom in the polyester resin is 1.8 to 2.6, wherein the intrinsic viscosity, the carboxyl end group concentration, the colour b value and the amounts of aluminum and phosphorous atoms are determined as set out in the description. (i) The polyester resin has an intrinsic viscosity of not less than 0.65 and less than 0.70 dl/g; (ii) The polyester resin has a carboxyl end group concentration of from 8 to 25 eq/t; (iii) The polyester resin has a color b value of from 1.0 to 8.0 in an L*a*b* color system; and (iv) The polyester resin contains aluminum atom and phosphorus atom, wherein an amount of the aluminum atom in the polyester resin is 15 to 40 ppm and wherein a molar ratio of the phosphorus atom to the aluminum atom in the polyester resin is 1.8 to 2.6,
Measurement unit for collecting and forwarding measured data, comprising at least one measuring point for determining the measured data, and at least one interface for at least indirectly transferring the measured data to a control center, wherein the measurement unit also has a process unit and means for local storage and/or processing of measured data in the measurement unit and is designed such that the measured data are firstly transferred from the measuring point to the process unit, these measured data, if appropriate, firstly being converted into digital signals via an analog-to-digital converter if they are made available by the measuring point in analog form, and that the measured data are subsequently written actively by this process unit into a database of the control center, characterized in that the measurement unit is controlled by storing the control commands in the control center, in particular by the control center storing the control commands in a database, and by the process unit independently reading out these control commands periodically from the control center or the database and controlling the measurement unit in accordance with these control commands.
Self-propelled vehicle for transporting a load carrier such as a pallet, comprising two elongated fork bodies (2a, 2b) extending, at least in a neutral orientation of the vehicle, parallel to each other in the horizontal direction, each comprising - an individual elongated chassis part (4a, 4b), - at least two running wheels (13, 14) which, seen in the longitudinal direction of the chassis part, are provided at a distance from each other and which are connected rotatably to the chassis part (4a, 4b) and at least one of which is connected to the chassis part (4a, 4b), swivellably about a steering shaft (15a, 15b, 16a, 16b), - a drive unit for rotating at least two running wheels (13, 14) of the at least two running wheels (13, 14), - an individual loading body (5a, 5b) with an individual elongated load surface (8a, 8b) for supporting a load carrier thereon, - a lifting unit for the vertical displacement of the individual loading body (5a, 5b) relative to the individual chassis part (4a, 4b) between a lower position and an upper position, characterized in that the chassis parts(4a, 4b) of the two fork bodies (2a, 2b) are connected to each other swivellably about a swivel axis (41; 64) extending in the horizontal direction and perpendicular to the respective longitudinal directions of the fork bodies (2a, 2b). - an individual elongated chassis part (4a, 4b), - at least two running wheels (13, 14) which, seen in the longitudinal direction of the chassis part, are provided at a distance from each other and which are connected rotatably to the chassis part (4a, 4b) and at least one of which is connected to the chassis part (4a, 4b), swivellably about a steering shaft (15a, 15b, 16a, 16b), - a drive unit for rotating at least two running wheels (13, 14) of the at least two running wheels (13, 14), - an individual loading body (5a, 5b) with an individual elongated load surface (8a, 8b) for supporting a load carrier thereon, - a lifting unit for the vertical displacement of the individual loading body (5a, 5b) relative to the individual chassis part (4a, 4b) between a lower position and an upper position,
A method of displaying program information (224, 274, 288), the method comprising: - monitoring viewing habits of a user, comprising: -- generating a list of favorite programs based upon the viewing habits of the user, - ordering downloaded program information (224, 274, 288) based upon the list of favorite programs, wherein scroll rates for use in dynamic scroll rate adjustment are assigned to the ordered program information (224, 274, 288), and - displaying the program information (224, 274, 288), comprising: -- scrolling the display (222, 272, 282) to display the program information (224, 274, 288) using a dynamically adjusted scroll rate at which the display (222, 272, 282) is scrolled according to the assigned scroll rates. - monitoring viewing habits of a user, comprising: -- generating a list of favorite programs based upon the viewing habits of the user, -- generating a list of favorite programs based upon the viewing habits of the user, - ordering downloaded program information (224, 274, 288) based upon the list of favorite programs, wherein scroll rates for use in dynamic scroll rate adjustment are assigned to the ordered program information (224, 274, 288), and - displaying the program information (224, 274, 288), comprising: -- scrolling the display (222, 272, 282) to display the program information (224, 274, 288) using a dynamically adjusted scroll rate at which the display (222, 272, 282) is scrolled according to the assigned scroll rates. -- scrolling the display (222, 272, 282) to display the program information (224, 274, 288) using a dynamically adjusted scroll rate at which the display (222, 272, 282) is scrolled according to the assigned scroll rates.
Method for determining a DC offset ( b =[ b.. b ( ν).. b]) caused on the transmitter side in an OFDM (multiplexing) transmission system with at least one transmitting antenna (1 1,.. 1 ν,.., 1 U) and at least one receiving antenna (2 1,.. 2 μ,.., 2 v), in which in the frequency domain using a maximum likelihood estimation an estimated value ( b̂ =[ b̂.. b̂ ( ν).. b̂]) is determined for the DC offset ( b = [ b.. b ( ν).. b]) caused in each transmitting antenna (1 1,.. 1 ν,.., 1 U) by weighting of frequency-transformed OFDM receive symbols ( Y =[ Y.. Y ( μ).. Y]) received in each receiving antenna (2 1,.. 2 μ,.., 2 v) with corresponding matrix elements ( H +( μ,ν)) of a pseudo inverse ( H + =( H H ·H) -1 · H H) of a channel transmission matrix with channel transmission factors ( H ( μ,ν)) for the transmission channels between each transmitting antenna (1 1,.. 1 ν,.., 1 U) and each receiving antenna (2 1,.. 2 μ,.., 2 v) characterised in that the DC offset caused in each transmitting antenna (1 1,.. 1 ν,..,1 u) is present in each case in the sub-carrier k with the index 0 of the transmission channel in which in each case no OFDM transmit symbol ( x =[ x.. x ( ν).. x]) is transmitted, and the pseudo inverse ( H + =( H H · H) -1 · H H) of the channel transmission matrix H is a pseudo inverse ( H + 0 =( H H 0 · H 0) -1 · H H 0) of a channel transmission matrix H 0 of the sub-carrier (k) with the index 0 which is weighted with the inverse transformation length N of the discrete Fourier transformation used and the inverse number L of OFDM receive symbols used in the maximum likelihood estimation.
A xylitol preparation device integrating evaporation, crystallization and centrifugation, comprising a xylitol tank, a cleaning liquid tank, a recycling tank, and a multiple distribution system, wherein the multiple distribution system comprises J groups of evaporators for evaporation-concentrating a xylitol exchange liquid to be treated into a xylitol concentrate, K groups of vacuum crystallization kettles for obtaining a xylitol paste by vacuum-crystallizing the xylitol concentrate and L groups of centrifuges for obtaining a finished xylitol crystal by centrifuging the xylitol paste, wherein 2≤J≤6, 6≤K≤12 and 2≤L≤4; inlets and outlets of the evaporator, the vacuum crystallization kettle and the centrifuge in different groups are sequentially connected in series with one another through a pipeline and a valve respectively, inlets and outlets of the evaporators in J groups are connected in parallel with each other through a pipeline respectively, inlets and outlets of the vacuum crystallization kettles in K groups are connected in parallel with each other through a pipeline respectively, inlets and outlets of the centrifuges in L groups are connected in parallel with each other through a pipeline respectively, the inlet of each evaporator in J groups is in communication with a main pipeline holding the xylitol exchange liquid to be treated through a pipeline and a valve respectively, and the outlet of each centrifuge in L groups is in communication with the xylitol tank, the cleaning liquid tank and the recycling tank through a pipeline and a valve respectively; the xylitol tank is used to collect the prepared xylitol crystal, the cleaning liquid tank is used to collect cleaning liquid from cleaning the evaporators, the vacuum crystallization kettles and the centrifuges respectively, and the recycling tank is used to collect the xylitol paste that is not converted into the xylitol crystal during centrifugation; by controlling on and off of each valve, the xylitol exchange liquid is switched and controlled between a series-connection working mode and a parallel-connection working mode in the multiple distribution system.
A method of monitoring engine health, comprising: receiving, by a controller, a measurement from a speed sensor; determining, by the controller, that the measurement from the speed sensor indicates a vibration of an engine; determining, by the controller, whether the vibration of the engine persisted for a predetermined duration; and signaling, by the controller, that the vibration of the engine is detected; characterised in that: a spring is configured to preload the speed sensor, wherein the speed sensor is configured to vibrate in response to the vibration of the engine; and in that a spring constant of the spring is selected based on a weight of the speed sensor and a desired vibration level to induce bouncing of the speed sensor. receiving, by a controller, a measurement from a speed sensor; determining, by the controller, that the measurement from the speed sensor indicates a vibration of an engine; determining, by the controller, whether the vibration of the engine persisted for a predetermined duration; and signaling, by the controller, that the vibration of the engine is detected; characterised in that: a spring is configured to preload the speed sensor, wherein the speed sensor is configured to vibrate in response to the vibration of the engine; and in that a spring constant of the spring is selected based on a weight of the speed sensor and a desired vibration level to induce bouncing of the speed sensor. a spring is configured to preload the speed sensor, wherein the speed sensor is configured to vibrate in response to the vibration of the engine; and in that a spring constant of the spring is selected based on a weight of the speed sensor and a desired vibration level to induce bouncing of the speed sensor.