mhurhangee/patent-ind-claim-en huggingface dataset:
A shingled solar cell module comprising a solder strip, characterised in that the solder strip comprises a flat portion , and an upper cell slice connecting portion ; and a lower cell slice connecting portion that are located at two sides of the flat portion ; wherein, the solder strip is used for connecting a lower cell slice and an upper cell slice which form the shingled solar cell module; the shingled solar cell module is formed by solar cells without busbar; a plurality of fine grid lines are arranged in parallel on a front surface of the lower cell slice , and a plurality of fine grid lines are arranged in parallel on a back surface of the upper cell slice ; the fine grid lines on the front surface of the lower cell slice and the fine grid lines on the back surface of the upper cell slice are arranged in parallel; and cutting directions of the lower cell slice and the upper cell slice are parallel to the fine grid lines; and the solder strip is arranged perpendicular to the fine grid lines ; and the upper cell slice partially overlaps the lower cell slice , the flat portion is soldered to the fine grid lines on the front surface of the lower cell slice and the fine grid lines on the back surface of the upper cell slice to form an overlapped region, the upper cell slice connecting portion is soldered to the fine grid lines on the back surface of the upper cell slice , and the lower cell slice connecting portion is soldered to the fine grid lines on the front surface of the lower cell slice . a flat portion , and an upper cell slice connecting portion ; and a lower cell slice connecting portion that are located at two sides of the flat portion ; wherein, the solder strip is used for connecting a lower cell slice and an upper cell slice which form the shingled solar cell module; the shingled solar cell module is formed by solar cells without busbar; a plurality of fine grid lines are arranged in parallel on a front surface of the lower cell slice , and a plurality of fine grid lines are arranged in parallel on a back surface of the upper cell slice ; the fine grid lines on the front surface of the lower cell slice and the fine grid lines on the back surface of the upper cell slice are arranged in parallel; and cutting directions of the lower cell slice and the upper cell slice are parallel to the fine grid lines; and the solder strip is arranged perpendicular to the fine grid lines ; and the upper cell slice partially overlaps the lower cell slice , the flat portion is soldered to the fine grid lines on the front surface of the lower cell slice and the fine grid lines on the back surface of the upper cell slice to form an overlapped region, the upper cell slice connecting portion is soldered to the fine grid lines on the back surface of the upper cell slice , and the lower cell slice connecting portion is soldered to the fine grid lines on the front surface of the lower cell slice .
Method for autoclave-free lamination of a composite pane, wherein (a) a stack sequence of a substrate pane , at least one intermediate layer , and a cover pane is produced, (b1) a vacuum ring or a vacuum bag is placed around the stack sequence , (b2) the stack sequence is deaerated for a period t greater than or equal to 8 min and at a temperature T from 0 °C to 30 °C by application of a negative pressure p less than or equal to 0.3 bar to the vacuum ring or the vacuum bag, (b3) the stack sequence is heated at a negative pressure p less than or equal to 0.3 bar to a temperature T from 70 °C to 115 °C, (b4) the stack sequence is deaerated for a period t greater than or equal to 8 min by application of a negative pressure p less than or equal to 0.3 bar to the vacuum ring or the vacuum bag, (b5) the stack sequence is cooled to a temperature T of less than 70 °C, (b6) the vacuum ring or the vacuum bag is aerated and is removed, (c1) the stack sequence is heated to a temperature T of 40 °C to 120 °C, (c2) the stack sequence is pressed together between at least two opposing calender rollers (6.1,6.2) of a first calender unit over the entire width b of the stack sequence , wherein - the calender rollers (6.1,6.2) of the first calender unit press the stack sequence together in the edge region with a higher contact pressure than in the remaining region, and/or - in a subsequent process step (c3), an edge region of the stack sequence is pressed together between at least two additional opposing calender rollers (8.1,8.2) of a second calender unit . (a) a stack sequence of a substrate pane , at least one intermediate layer , and a cover pane is produced, (b1) a vacuum ring or a vacuum bag is placed around the stack sequence , (b2) the stack sequence is deaerated for a period t greater than or equal to 8 min and at a temperature T from 0 °C to 30 °C by application of a negative pressure p less than or equal to 0.3 bar to the vacuum ring or the vacuum bag, (b3) the stack sequence is heated at a negative pressure p less than or equal to 0.3 bar to a temperature T from 70 °C to 115 °C, (b4) the stack sequence is deaerated for a period t greater than or equal to 8 min by application of a negative pressure p less than or equal to 0.3 bar to the vacuum ring or the vacuum bag, (b5) the stack sequence is cooled to a temperature T of less than 70 °C, (b6) the vacuum ring or the vacuum bag is aerated and is removed, (c1) the stack sequence is heated to a temperature T of 40 °C to 120 °C, (c2) the stack sequence is pressed together between at least two opposing calender rollers (6.1,6.2) of a first calender unit over the entire width b of the stack sequence , - the calender rollers (6.1,6.2) of the first calender unit press the stack sequence together in the edge region with a higher contact pressure than in the remaining region, and/or - in a subsequent process step (c3), an edge region of the stack sequence is pressed together between at least two additional opposing calender rollers (8.1,8.2) of a second calender unit .
Glare-free headlamp for a motor vehicle with a variety of light units , wherein each of the light units has: (a) a light source element that is set up to emit light along a first optical axis (A) in the direction of a space (R), (b) a projection lens that is arranged in the direction of the emitted light behind the light source element and is set up to project the light, which is emitted by the light source element , under a spatial angle (Ω) into the space (R), and (c) a photodetector that is arranged in the direction of the emitted light in front of the projection lens and is set up to capture the light that is projected by the projection lens into the space (R) and is reflected by an object in the space (R) along a second optical axis (B) back to the projection lens , and wherein the headlamp is set up to stop emission of the light from a light source element if the emitted light is reflected back and is captured by the photodetector of the light unit with the light source element , characterised in that each of the projection lenses is set up to project light under a spatial angle (Ω) into the space (R), which distinguishes itself from the spatial angles (Ω) of the other projection lenses . (a) a light source element that is set up to emit light along a first optical axis (A) in the direction of a space (R), (b) a projection lens that is arranged in the direction of the emitted light behind the light source element and is set up to project the light, which is emitted by the light source element , under a spatial angle (Ω) into the space (R), and (c) a photodetector that is arranged in the direction of the emitted light in front of the projection lens and is set up to capture the light that is projected by the projection lens into the space (R) and is reflected by an object in the space (R) along a second optical axis (B) back to the projection lens ,
Hollow chamber frame made of metal , characterised in that a nanoceramic layer is applied onto a surface of the hollow chamber frame , wherein the thickness of the nanoceramic layer is 25 nm to 100 nm.
A computer-implemented method, comprising: using a computing unit to perform actions comprising: obtaining a plurality of one-dimensional A-scan data samples from an ultrasonic probe , each data sample representing ultrasonic signals received from a test material undergoing non-destructive testing, wherein each data sample indicates an amount of ultrasonic energy received from the test material at a time of occurrence; transforming the plurality of data samples into a three-dimensional space to provide a three-dimensional visualization of the ultrasonic signals without performing a volume reconstruction, wherein each of the plurality of data samples is rendered as a geometric shape representing an amplitude of the ultrasonic signal in the three-dimensional space; and displaying the plurality of geometric shapes. obtaining a plurality of one-dimensional A-scan data samples from an ultrasonic probe , each data sample representing ultrasonic signals received from a test material undergoing non-destructive testing, wherein each data sample indicates an amount of ultrasonic energy received from the test material at a time of occurrence; transforming the plurality of data samples into a three-dimensional space to provide a three-dimensional visualization of the ultrasonic signals without performing a volume reconstruction, wherein each of the plurality of data samples is rendered as a geometric shape representing an amplitude of the ultrasonic signal in the three-dimensional space; and displaying the plurality of geometric shapes.
A computer-implemented method comprising: authenticating a login credential of a user by a scheduler, wherein the login credential is included in an original service request of the user for a database service; determining the user has privileges for the original service request by the scheduler; creating a modified service request from the original service request by the scheduler based on a predefined role corresponding to the privileges of the user ; and forwarding, by the scheduler, the modified service request to a DBaaS, Database as a Service, platform , wherein an instance of database service can be assigned to the user in response to the modified service request, wherein authenticating the login credential of the user comprises authenticating the user by the scheduler and authenticating the scheduler by the DBaaS platform , and wherein authenticating the user by the scheduler comprises decrypting a cookie stored on the scheduler using a private key of the user . authenticating a login credential of a user by a scheduler, wherein the login credential is included in an original service request of the user for a database service; determining the user has privileges for the original service request by the scheduler; creating a modified service request from the original service request by the scheduler based on a predefined role corresponding to the privileges of the user ; and forwarding, by the scheduler, the modified service request to a DBaaS, Database as a Service, platform , wherein an instance of database service can be assigned to the user in response to the modified service request, wherein authenticating the login credential of the user comprises authenticating the user by the scheduler and authenticating the scheduler by the DBaaS platform , and wherein authenticating the user by the scheduler comprises decrypting a cookie stored on the scheduler using a private key of the user .
A packing arrangement for machining the interior of a pipe , - having a carrier extending along a longitudinal axis , said carrier having at least one first and one second longitudinal portion , in which the carrier is expandable in a radial direction (R) to the longitudinal axis , wherein due to the expandability of the longitudinal portions (8a,b) oriented in the radial direction (R), said longitudinal portions can be expanded in the pipe to be machined and are therefore pressed against an inner wall of the pipe when the packing arrangement is introduced into the pipe , wherein the packing arrangement contains a flexible and/or stretchable sleeve extending along the longitudinal axis , which surrounds the carrier radially outwards in the manner of a jacket at least in a chamber portion from the first up to the second longitudinal portion , wherein the sleeve and the carrier are designed to be impermeable to a pressure medium in the chamber portion , wherein the sleeve is squeezed tightly against the carrier by the longitudinal portions (8a,b) pressed against the inner wall and is sealed with respect to the carrier in the region of the longitudinal portions (8a,b) in the circumferential direction when the packing arrangement is introduced into the pipe , and the carrier has an outlet opening for the pressure medium which is open radially outwards between the first and second longitudinal portion , in order to fill a jacket region between the carrier and the sleeve with the pressure medium . - having a carrier extending along a longitudinal axis , said carrier having at least one first and one second longitudinal portion , in which the carrier is expandable in a radial direction (R) to the longitudinal axis , wherein due to the expandability of the longitudinal portions (8a,b) oriented in the radial direction (R), said longitudinal portions can be expanded in the pipe to be machined and are therefore pressed against an inner wall of the pipe when the packing arrangement is introduced into the pipe ,
A rotor for a rotating electrical device comprising: a rotor core that includes rotor salient poles provided at plural positions in a circumferential direction of the rotor core ; a rotor coil that is wound on each of the rotor salient poles ; a retaining member made of a non-magnetic material and preventing the rotor coil from falling out of the slot , the retaining member being supported by the rotor core , the retaining member including a body part including a plate-shaped leg and thin plate-shaped beams that are formed into one unit so as to extend from a radial outer end of the leg to the adjacent rotor salient poles , wherein an inner end of the leg is fixed in an outer periphery of the rotor yoke which is the bottom of the slot in the rotor core , wherein the end of the leg is formed to swell larger, to engaged in an engagement groove in the rotor yoke which has a shape conforming to the shape of the end of the leg , characterized in that an outer magnetic member is provided in proximity of an end of the beam in the circumferential direction; and a center magnetic member is embedded and secured in an outer periphery section of the leg . a rotor core that includes rotor salient poles provided at plural positions in a circumferential direction of the rotor core ; a rotor coil that is wound on each of the rotor salient poles ; a retaining member made of a non-magnetic material and preventing the rotor coil from falling out of the slot , the retaining member being supported by the rotor core , the retaining member including a body part including a plate-shaped leg and thin plate-shaped beams that are formed into one unit so as to extend from a radial outer end of the leg to the adjacent rotor salient poles , wherein an inner end of the leg is fixed in an outer periphery of the rotor yoke which is the bottom of the slot in the rotor core , wherein the end of the leg is formed to swell larger, to engaged in an engagement groove in the rotor yoke which has a shape conforming to the shape of the end of the leg , characterized in that an outer magnetic member is provided in proximity of an end of the beam in the circumferential direction; and a center magnetic member is embedded and secured in an outer periphery section of the leg .
Method for managing a power supply of the dynamic voltage-frequency scaling DVFS type, of a system on chip, the method comprising generating, by a non-secure environment (REE) of the system on chip, a request (Rk) to modify the DVFS power supply and managing a DVFS power supply control comprising: - generating, by a secure environment (TEE) of the system on chip, a secure instruction (IS) defining at least one authorised voltage-frequency operating point (OPPi) for the DVFS power supply; and - adjusting the DVFS power supply to an authorised operating point (OPPk), in response to the request (Rk) to modify the DVFS power supply. - generating, by a secure environment (TEE) of the system on chip, a secure instruction (IS) defining at least one authorised voltage-frequency operating point (OPPi) for the DVFS power supply; and - adjusting the DVFS power supply to an authorised operating point (OPPk), in response to the request (Rk) to modify the DVFS power supply.
Method for anonymously transmitting data (D) from a vehicle to a computer unit (R) coupled by data links to said vehicle, the vehicle authenticating itself in order to transmit the data (D), wherein - the vehicle authenticates itself as a client (A, B), by means of one or more authentication methods, with a token server (S), - the authentication and authorization (A/A) of the client (A, B) is checked by means of the token server (S), - if the token server (S) determines that the client (A, B) is not blocked, a currently valid fleet token (FT1 to FT3), which is identical for all clients (A, B) within a predetermined period of time, is sent to the vehicle as a client (A, B), - the vehicle waits for a random period of time (Z) within a configurable time interval before the vehicle uses the fleet token (FT1 to FT3) to transmit the data (D) to the computer unit (R), so that a correlation between the vehicle and the transmitted data (D) via a time measurement is prevented, wherein clients (A, B) are all vehicles of a vehicle fleet that are authorized to transmit data (D) to the computer unit. - the vehicle authenticates itself as a client (A, B), by means of one or more authentication methods, with a token server (S), - the authentication and authorization (A/A) of the client (A, B) is checked by means of the token server (S), - if the token server (S) determines that the client (A, B) is not blocked, a currently valid fleet token (FT1 to FT3), which is identical for all clients (A, B) within a predetermined period of time, is sent to the vehicle as a client (A, B), - the vehicle waits for a random period of time (Z) within a configurable time interval before the vehicle uses the fleet token (FT1 to FT3) to transmit the data (D) to the computer unit (R), so that a correlation between the vehicle and the transmitted data (D) via a time measurement is prevented, wherein clients (A, B) are all vehicles of a vehicle fleet that are authorized to transmit data (D) to the computer unit.
A device for measuring the concentricity of an internal toothing of a component , in particular a shaft, wherein the device having at least one determination segment for determining a concentricity deviation, comprising - a spindle unit comprising a tapping spindle having a gauge gearwheel arranged on a first end of the tapping spindle and intended for tapping the concentricity of the internal toothing of the component , and an output spindle for transmitting the tapped concentricity from the tapping spindle to a measuring unit , wherein the output spindle is arranged directly or indirectly on a second end of the tapping spindle that is situated opposite to the first end of the tapping spindle , and also - a spindle holder at least for holding and positioning the spindle unit , - an adjusting element at least for positioning at least the gauge gear wheel connected to the tapping spindle , and - the measuring unit for comparing the tapped concentricity with reference values. - a spindle unit comprising a tapping spindle having a gauge gearwheel arranged on a first end of the tapping spindle and intended for tapping the concentricity of the internal toothing of the component , and an output spindle for transmitting the tapped concentricity from the tapping spindle to a measuring unit , wherein the output spindle is arranged directly or indirectly on a second end of the tapping spindle that is situated opposite to the first end of the tapping spindle , and also - a spindle holder at least for holding and positioning the spindle unit , - an adjusting element at least for positioning at least the gauge gear wheel connected to the tapping spindle , and - the measuring unit for comparing the tapped concentricity with reference values.
Composition containing modified, chromate-deficient red mud with a mineral composition of - 10 to 50 % by weight of iron compounds, - 12 to 35 % by weight of aluminium compounds, - 5 to 17 % by weight of silicon compounds, - 2 to 10 % by weight of titanium dioxide, - 0,5 to 6 % by weight of calcium compounds, - 0 to 1 ppm of chromium(VI) compounds and - optionally, further unavoidable impurities, wherein the composition, in particular the modified, chromate-deficient red mud, contains a poorly soluble reducing agent for Cr(VI), the poorly soluble reducing agent for Cr(VI) having a solubility in water at pH 7 and 25°C of less than 1 g/l, the composition further comprising a pH buffer system configured to stabilize a pH range in which the poorly soluble reducing agent for Cr(VI) and the resulting Cr(III) has a solubility in water at 25°C of less than 1 g/l. - 10 to 50 % by weight of iron compounds, - 12 to 35 % by weight of aluminium compounds, - 5 to 17 % by weight of silicon compounds, - 2 to 10 % by weight of titanium dioxide, - 0,5 to 6 % by weight of calcium compounds, - 0 to 1 ppm of chromium(VI) compounds and - optionally, further unavoidable impurities, wherein the composition, in particular the modified, chromate-deficient red mud, contains a poorly soluble reducing agent for Cr(VI), the poorly soluble reducing agent for Cr(VI) having a solubility in water at pH 7 and 25°C of less than 1 g/l, the composition further comprising a pH buffer system configured to stabilize a pH range in which the poorly soluble reducing agent for Cr(VI) and the resulting Cr(III) has a solubility in water at 25°C of less than 1 g/l.
A method performed by a User Equipment, UE, in a wireless communication system, the method comprising: transmitting (S1301) a random access preamble, RAP, on a physical random access channel, PRACH, resource in a radio frame; calculating (S1303) a random access-radio network temporary identifier, RA-RNTI based on equation A herein below: RA-RNTI = 1 + t _ id + 10 ∗ f _ id + 60 ∗ SFN _ id mod Wmax / 10 wherein, - t_id is an index of a first subframe of the PRACH resource, - f_id is an index of a frequency resource within the first subframe of the PRACH resource, - SFN_id is an index of the first radio frame of the PRACH resource, and - Wmax is a number of subframes related to a maximum RAR window size; and monitoring (S1305) a physical downlink control channel, PDCCH, identified by the calculated RA-RNTI for random access response, RAR, reception during a RAR window. transmitting (S1301) a random access preamble, RAP, on a physical random access channel, PRACH, resource in a radio frame; calculating (S1303) a random access-radio network temporary identifier, RA-RNTI based on equation A herein below: RA-RNTI = 1 + t _ id + 10 ∗ f _ id + 60 ∗ SFN _ id mod Wmax / 10 wherein, - t_id is an index of a first subframe of the PRACH resource, - f_id is an index of a frequency resource within the first subframe of the PRACH resource, - SFN_id is an index of the first radio frame of the PRACH resource, and - Wmax is a number of subframes related to a maximum RAR window size; and - t_id is an index of a first subframe of the PRACH resource, - f_id is an index of a frequency resource within the first subframe of the PRACH resource, - SFN_id is an index of the first radio frame of the PRACH resource, and - Wmax is a number of subframes related to a maximum RAR window size; and monitoring (S1305) a physical downlink control channel, PDCCH, identified by the calculated RA-RNTI for random access response, RAR, reception during a RAR window.