mhurhangee/ep-ind-claims huggingface dataset:
Method for the laser machining of a workpiece that is made of a dielectric material and has at least one polished surface, in which the material is locally influenced at least on the polished surface by means of a laser beam in order to achieve a material removal or a physical or chemical modification of the material, characterised in that before the machining the at least one polished surface is connected to a polished substrate surface of an auxiliary substrate, which auxiliary substrate is at least partially transparent to the laser beam and is removed from the workpiece again after machining.
A process for the purification of levulinic acid, comprising: i) providing an aqueous solution comprising levulinic acid; ii) subjecting the aqueous solution of step (i) to an organic extraction to yield an organic solution and an aqueous solution; iii) subjecting the organic solution obtained in the previous step to an aqueous extraction to yield an aqueous solution, comprising levulinic acid, and an organic solution; and iv) subjecting the aqueous solution comprising levulinic acid obtained in step (iii) to a membrane separation to yield an aqueous solution comprising levulinic acid, and a residue. i) providing an aqueous solution comprising levulinic acid; ii) subjecting the aqueous solution of step (i) to an organic extraction to yield an organic solution and an aqueous solution; iii) subjecting the organic solution obtained in the previous step to an aqueous extraction to yield an aqueous solution, comprising levulinic acid, and an organic solution; and iv) subjecting the aqueous solution comprising levulinic acid obtained in step (iii) to a membrane separation to yield an aqueous solution comprising levulinic acid, and a residue.
A method of controlling fluid flow in a microfluidic network with a controller, the method comprising generating asymmetric fluid displacements in a microfluidic channel with first and second fluid actuators located asymmetrically with respect to the length of the channel on opposite sides of a center point of the channel within the channel, wherein the first fluid actuator is selectively activated while the second fluid actuator is not activated to generate a fluid flow in a first direction in the channel, or wherein the second fluid actuator is selectively activated while the first fluid actuator is not activated to generate a fluid flow in a second direction, opposite the first direction, in the channel, the selectively activated fluid actuator generating compressive and tensile fluid displacements that have different durations.
A method of transmitting data at a transmitter, the method comprising: generating, based on the data, an information sequence for a polar code; performing channel encoding for the information sequence based on the polar code; and transmitting the encoded information sequence, the information sequence includes data blocks 0 to N-1 related to the data and parity blocks 0 to N-1 in the order of data block 0, parity block 0, data block 1, parity block 1,..., data block N-1, parity block N-1, where N is an integer larger than 1, and the method is characterised in that: each parity block n of the parity blocks 0 to N-1 is generated based on bits included in data blocks 0 to n-1 and bits included in data block n only, among the data blocks 0 to N-1. generating, based on the data, an information sequence for a polar code; performing channel encoding for the information sequence based on the polar code; and transmitting the encoded information sequence, the information sequence includes data blocks 0 to N-1 related to the data and parity blocks 0 to N-1 in the order of data block 0, parity block 0, data block 1, parity block 1,..., data block N-1, parity block N-1, where N is an integer larger than 1, and the method is characterised in that: each parity block n of the parity blocks 0 to N-1 is generated based on bits included in data blocks 0 to n-1 and bits included in data block n only, among the data blocks 0 to N-1.
Fuel cell vehicle comprising a fuel cell unit, an electric drive unit, a thermal circuit and a fuel cell vehicle thermal system for thermal management of heat exchanged between an electrochemical fuel cell unit, the electric drive unit and the thermal circuit, the thermal circuit comprising: a fuel cell thermal loop having a pump for circulating a fuel cell coolant between a thermal fuel cell section for thermal conditioning of the fuel cell unit and a fuel cell heat exchanger; and a drive thermal loop having a pump for circulating a drive coolant between a thermal drive section for thermal conditioning of the electric drive unit and a drive heat exchanger; characterized by further comprising an ambient thermal loop having a pump for circulating an ambient coolant between at least the fuel cell heat exchanger, the drive heat exchanger and an ambient heat exchanger; wherein the fuel cell heat exchanger is a liquid to liquid heat exchanger arranged between the fuel cell thermal loop and the ambient thermal loop for exchanging heat between the fuel cell coolant and the ambient coolant; the drive heat exchanger is a liquid to liquid heat exchanger arranged between the drive thermal loop and the ambient thermal loop for exchanging heat between the drive coolant and the ambient coolant; and the ambient heat exchanger is a liquid to air heat exchanger arranged between the ambient thermal loop and an ambient air for exchanging heat between the ambient coolant and the ambient air. a fuel cell thermal loop having a pump for circulating a fuel cell coolant between a thermal fuel cell section for thermal conditioning of the fuel cell unit and a fuel cell heat exchanger; and a drive thermal loop having a pump for circulating a drive coolant between a thermal drive section for thermal conditioning of the electric drive unit and a drive heat exchanger; characterized by further comprising an ambient thermal loop having a pump for circulating an ambient coolant between at least the fuel cell heat exchanger, the drive heat exchanger and an ambient heat exchanger; wherein the fuel cell heat exchanger is a liquid to liquid heat exchanger arranged between the fuel cell thermal loop and the ambient thermal loop for exchanging heat between the fuel cell coolant and the ambient coolant; the drive heat exchanger is a liquid to liquid heat exchanger arranged between the drive thermal loop and the ambient thermal loop for exchanging heat between the drive coolant and the ambient coolant; and the ambient heat exchanger is a liquid to air heat exchanger arranged between the ambient thermal loop and an ambient air for exchanging heat between the ambient coolant and the ambient air.
Fabric tape (10, 10a) comprising a upper face and a lower face which extend along a plane identified by a first axis X and a second axis Y; said tape is able to be constrained to a covering of a seat which than is able to be constrained and tensioned on the body of the seat; said tape (10,10a) comprises a flexible stretching rope positioned in correspondence to a first side of the tape (10, 10a) and substantially oriented parallel with respect to said first axis of maximum extension of said tape (10, 10a); said flexible stretching rope enters and exits, alternatively from said two faces of the tape, from a plurality of equal-distanced eyelets of said tape (10, 10a); and is alternatively visible, for respective sections, on said two faces; said flexible stretching rope and said upper face of the tape (10, 10a) form a plurality of buttonholes; said tape (10, 10a) also comprises a tubular section, positioned parallel with respect to said axis, within which it is positioned a first cord partially visible in a plurality of first sections only on the upper face of the tape (10, 10a) which become first visual matching element of the exact position wherein the hooking elements are insertable in the buttonholes and said plurality of first sections are realized in a color different with respect to the tape (10,10a); said tubular section is positioned between said first side and a second side, at a distance from the first side lower than the distance from said second side, with respect to a second axis; said tape (10, 10a) also comprises a second visual matching elements positioned along said first axis, upon said upper face in correspondence to said second side realized with fabric fibers woven in a narrow way on said tape; said second visual matching element are positioned in correspondence to first sections in such a way as to be aligned with those ones along said second axis, or instead of said second visual matching elements there is a second tubular section,arranged parallel to the first axis within which there is a second cord partially visible in a plurality of second section.
A method (800, 1100) for identifying a visible-light communication encoding scheme, comprising: receiving a service request (804, 1104) from a mobile computing device; receiving an identification of an encoding scheme (808, 1108) from the mobile computing device, wherein the identification of the encoding scheme comprises at least one of camera parameters of the mobile computing device and a make and model of the mobile computing device; determining the encoding scheme (812, 1112) based on the at least one of camera parameters of the mobile computing device and a make and model of the mobile computing device; and generating a visible-light communication waveform using the encoding scheme (816, 1116) corresponding to the received identification. receiving a service request (804, 1104) from a mobile computing device; receiving an identification of an encoding scheme (808, 1108) from the mobile computing device, wherein the identification of the encoding scheme comprises at least one of camera parameters of the mobile computing device and a make and model of the mobile computing device; determining the encoding scheme (812, 1112) based on the at least one of camera parameters of the mobile computing device and a make and model of the mobile computing device; and generating a visible-light communication waveform using the encoding scheme (816, 1116) corresponding to the received identification.
A single-camera distance ranging method, using a mobile terminal with a camera being on a center position of the mobile terminal, comprising: a displaying and inputting step: the camera of the mobile terminal acquiring an image which contains a target object and displaying the image on a screen, and receiving a selection of the target object by a user; a tracking step: during a translation of the mobile terminal by the user towards the target object, recognizing and tracking a contour of the target object after receiving the selection of the target object by the user; a recording step: recording a translation distance of the mobile terminal and a ratio of a display width of the target object before the translation of the mobile terminal to a display width of the target object after the translation of the mobile terminal; and a calculating step: based on data recorded in the recording step, calculating a distance between the mobile terminal and the target object; wherein the method further comprises: a monitoring step: monitoring a posture of the mobile terminal during the translation of the mobile terminal towards the target object; when a rotation of the mobile terminal is not monitored, continuing to execute the tracking step; a judging step: when the rotation of the mobile terminal is monitored in the monitoring step, judging whether the rotation of the mobile terminal is valid, and when the rotation of the mobile terminal is valid, continuing to execute the tracking step; when the rotation of the mobile terminal is not valid, reporting that the distance ranging operation fails; a valid rotation comprises:, a rotation of the mobile terminal around the center position of the mobile terminal in a plane where the mobile terminal locates; wherein the plane where the mobile terminal locates refers to a plane being perpendicular to a horizontal plane and parallel to the target object; wherein in the monitoring step, the posture during the translation of the mobile terminal towards the target object is monitored by a three-axis gyro in the mobile terminal. a displaying and inputting step: the camera of the mobile terminal acquiring an image which contains a target object and displaying the image on a screen, and receiving a selection of the target object by a user; a tracking step: during a translation of the mobile terminal by the user towards the target object, recognizing and tracking a contour of the target object after receiving the selection of the target object by the user; a recording step: recording a translation distance of the mobile terminal and a ratio of a display width of the target object before the translation of the mobile terminal to a display width of the target object after the translation of the mobile terminal; and a calculating step: based on data recorded in the recording step, calculating a distance between the mobile terminal and the target object;
A fusion protein, comprising a growth hormone sequence selected from human growth hormone as shown in Table 1 and a sequence variant thereof that is at least 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, or 99% identical to the amino acid sequence of human growth hormone as shown in Table 1, wherein said GH is linked to an extended recombinant polypeptide (XTEN) of at least 200 amino acid residues, wherein the XTEN is characterized in that: (a) the XTEN sequence comprises at least 200 contiguous amino acids that exhibits at least 90% sequence identity to a comparable length of an amino acid sequence selected from the group consisting of AE912, AE288, AD576, AE576, AE624, AD836, AE864, AF864, AG864, AM875, AM923, and AM1318 as shown in Table 3; (b) the XTEN sequence lacks a predicted T-cell epitope when analyzed by TEPITOPE algorithm, wherein the TEPITOPE algorithm prediction for epitopes within the XTEN sequence is based on a score of -6 or greater; (c) it has a subsequence score of less than 10; and (d) the sum of glycine, alanine, serine, threonine, glutamate and proline residues constitutes more than about 90% of the total amino acid residues of the XTEN. (a) the XTEN sequence comprises at least 200 contiguous amino acids that exhibits at least 90% sequence identity to a comparable length of an amino acid sequence selected from the group consisting of AE912, AE288, AD576, AE576, AE624, AD836, AE864, AF864, AG864, AM875, AM923, and AM1318 as shown in Table 3; (b) the XTEN sequence lacks a predicted T-cell epitope when analyzed by TEPITOPE algorithm, wherein the TEPITOPE algorithm prediction for epitopes within the XTEN sequence is based on a score of -6 or greater; (c) it has a subsequence score of less than 10; and (d) the sum of glycine, alanine, serine, threonine, glutamate and proline residues constitutes more than about 90% of the total amino acid residues of the XTEN.
Method for producing an electrical component having a predefined setpoint value of an electrical parameter, comprising the following steps: a) providing a baseplate having a substrate, a first large-area electrode and a second large-area electrode, wherein the large-area electrodes (211', 221') are arranged on the main surface of the substrate, wherein the lateral dimensions of the baseplate are a multiple of the lateral dimensions (Lx, Ly) of a component region (11 - MN); b) measuring an actual value of the electrical parameter between the first large-area electrode and the second large-area electrode and calculating the cover area of a component region (11 - MN) assigned to the component to be produced, which cover area is necessary for achieving the setpoint value of the electrical parameter; c) singulating the baseplate, wherein the component region (11 - MN) is cut out from the baseplate in order to produce the component; characterized in that in order to form the first large-area electrode a first metallization layer is produced on the top side of the substrate, and in order to form the second large-area electrode a second metallization layer is produced on the underside of said substrate. a) providing a baseplate having a substrate, a first large-area electrode and a second large-area electrode, wherein the large-area electrodes (211', 221') are arranged on the main surface of the substrate, wherein the lateral dimensions of the baseplate are a multiple of the lateral dimensions (Lx, Ly) of a component region (11 - MN); b) measuring an actual value of the electrical parameter between the first large-area electrode and the second large-area electrode and calculating the cover area of a component region (11 - MN) assigned to the component to be produced, which cover area is necessary for achieving the setpoint value of the electrical parameter; c) singulating the baseplate, wherein the component region (11 - MN) is cut out from the baseplate in order to produce the component;
A method for an in-vehicle computing system (109, 204, 300), the method comprising: detecting a request to perform a driver-dependent function; where performing the driver-dependent function includes presenting an incoming notification that is received from an external device located outside of the vehicle; inferring an identity of the driver based on current driving behavior relative to one or more driver profiles, each of the one or more driver profiles generated using driver-specific past driving behavior; and selectively enabling performance of the driver-dependent function of the in-vehicle computing system (109, 204, 300) based on the inferred driver identity. detecting a request to perform a driver-dependent function; where performing the driver-dependent function includes presenting an incoming notification that is received from an external device located outside of the vehicle; inferring an identity of the driver based on current driving behavior relative to one or more driver profiles, each of the one or more driver profiles generated using driver-specific past driving behavior; and selectively enabling performance of the driver-dependent function of the in-vehicle computing system (109, 204, 300) based on the inferred driver identity.
A non-transitory machine-readable storage device storing instructions that, when executed by one or more processors of an electronic device, cause the one or more processors to perform operations comprising: performing a connection with an external electronic device; transmitting, based on the connection, information generated by the electronic device to the external electronic device so that the generated information is displayed on a display of the external electronic device; when the generated information is displayed on the external electronic device, providing an input interface on a display of the electronic device for controlling the information displayed on the display of the external electronic device, wherein the input interface comprises an application information area (910, 920, 930), an absolute coordinate area (712; 912, 922, 932) and a relative coordinate area (714; 912, 922, 932) both configured to sense touch input, and a key area configured to display input keys and receive key input; identifying at least one piece of context information associated with the electronic device, wherein the context information comprises information on an application that is being executed or is scheduled to be executed on the electronic device, key input information, and absolute and/or relative coordinate input information; and configuring and providing the input interface on the basis of the identified context information by dividing a display area of the electronic device into said areas and deploying the divided display area. performing a connection with an external electronic device; transmitting, based on the connection, information generated by the electronic device to the external electronic device so that the generated information is displayed on a display of the external electronic device; when the generated information is displayed on the external electronic device, providing an input interface on a display of the electronic device for controlling the information displayed on the display of the external electronic device, wherein the input interface comprises an application information area (910, 920, 930), an absolute coordinate area (712; 912, 922, 932) and a relative coordinate area (714; 912, 922, 932) both configured to sense touch input, and a key area configured to display input keys and receive key input; identifying at least one piece of context information associated with the electronic device, wherein the context information comprises information on an application that is being executed or is scheduled to be executed on the electronic device, key input information, and absolute and/or relative coordinate input information; and configuring and providing the input interface on the basis of the identified context information by dividing a display area of the electronic device into said areas and deploying the divided display area.
Use of a wireless switch, comprising: activating a request configuration state at an unconfigured wireless switch connected to a second network, wherein an unconfigured access point, AP, is also connected to the second network, the AP and the wireless switch being among a plurality of unconfigured network devices each having a different unique identifier that is encoded or otherwise represented by an electronic signature or digital data; sending from the wireless switch over a wide area network, WAN, to a wireless local area network, WLAN, management server connected to a first network, the first network being separated from the second network by the WAN, a request for a configuration data set; receiving at the wireless switch, from the WLAN management server, the configuration data set; loading the configuration data set into a non-volatile configuration storage within the wireless switch, thereby configuring the wireless switch; wherein, when the wireless switch is configured, the wireless switch provides sufficient switching functionality to enable traffic from the AP to the second network accessing network resources of a network services engine attached to the second network and for use at a station, associated with the second network, accessing said network resources of said network service engine through said AP without utilizing the WAN. activating a request configuration state at an unconfigured wireless switch connected to a second network, wherein an unconfigured access point, AP, is also connected to the second network, the AP and the wireless switch being among a plurality of unconfigured network devices each having a different unique identifier that is encoded or otherwise represented by an electronic signature or digital data; sending from the wireless switch over a wide area network, WAN, to a wireless local area network, WLAN, management server connected to a first network, the first network being separated from the second network by the WAN, a request for a configuration data set; receiving at the wireless switch, from the WLAN management server, the configuration data set; loading the configuration data set into a non-volatile configuration storage within the wireless switch, thereby configuring the wireless switch; wherein, when the wireless switch is configured, the wireless switch provides sufficient switching functionality to enable traffic from the AP to the second network accessing network resources of a network services engine attached to the second network and for use at a station, associated with the second network, accessing said network resources of said network service engine through said AP without utilizing the WAN.