mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting feature points associated to static objects in an image, the method comprising: - generating (S10) at least one 3D point cloud based on a plurality of 2D images from a moving monocular camera, - performing (S21) a semantic segmentation of the 3D point cloud to obtain a segmented 3D point cloud, - selecting 3D points of the segmented 3D point cloud that are associated to static objects, - projecting (S22) the selected 3D points to at least one of the plurality of 2D images, - detecting feature points within the 2D image which includes projected 3D points, characterised in that the step of detecting the feature points within the 2D image includes: - creating (S23) a grid of the 2D image which includes projected 3D points, the grid including a plurality of cells, wherein each of the cells include a plurality of pixels, - counting (S24) the projected 3D points included in each of the cells, evaluating the 3D point cloud, and - for any number of cells, where the count of the projected 3D points of the cell exceeds a threshold value, detecting (S31) feature points within that cell. - generating (S10) at least one 3D point cloud based on a plurality of 2D images from a moving monocular camera, - performing (S21) a semantic segmentation of the 3D point cloud to obtain a segmented 3D point cloud, - selecting 3D points of the segmented 3D point cloud that are associated to static objects, - projecting (S22) the selected 3D points to at least one of the plurality of 2D images, - detecting feature points within the 2D image which includes projected 3D points, - creating (S23) a grid of the 2D image which includes projected 3D points, the grid including a plurality of cells, wherein each of the cells include a plurality of pixels, - counting (S24) the projected 3D points included in each of the cells, evaluating the 3D point cloud, and - for any number of cells, where the count of the projected 3D points of the cell exceeds a threshold value, detecting (S31) feature points within that cell.
A method of operating a display device according to claim 3, the method comprising: sequentially outputting, by the gate driver of the display device, a plurality of gate signals (G1 to GN) to the gate lines (GL1 to GLN) respectively; outputting, by the data driver of the display device, data voltages to the data lines (DL1 to DLM); and controlling , by the signal controller of the display device ,the gate driver and the data driver; the gate driver delaying by a first gate delay value (X1) all of the gate signals corresponding to a P-th gate line group (GG2) of the gate line groups during a first frame, and delaying by a second gate delay value (X2) all of the gate signals corresponding to a Q-th gate line group (GG3) of the gate line groups during the first frame, wherein the second gate delay value (X2) is greater than the first gate delay value (X1) and wherein the gate lines of the P-th gate line group (GG2) are arranged closer to the data driver than the gate lines of the Q-th gate line group (GG3) ; the gate driver delaying by a third gate delay value (X1+a) all of the gate signals corresponding to the P-th gate line group (GG2) during a second frame, and delaying by a fourth gate delay value (X2+a) all of the gate signals corresponding to the Q-th gate line group (GG3) during the second frame, wherein the fourth gate delay value (X2+a) is greater than the third gate delay value (X1+a), the fourth gate delay value (X2+a) is greater than the second gate delay value (X2), the third gate delay value (X1+a) is greater than the first gate delay value (X1); the gate driver delaying by a fifth gate delay value (X1-a) all of the gate signals corresponding to the P-th gate line group (GG2) during a third frame, and delaying by a sixth gate delay value (X2-a) all of the gate signals corresponding to the Q-th gate line group (GG3) during the third frame, wherein the sixth gate delay value (X2-a) is greater than the fifth gate delay value (X1-a), the sixth gate delay value (X2-a) is less than the second gate delay value (X2), the fifth gate delay value (X1-a) is less than the first gate delay value (X1).
Use of tannins for improving the filmogenic properties and retention time period of a glycerol preparation for topical application on semi-permeable biological membranes, the tannins having the capacity to bind to glycerol so that the glycerol has filmogen quality.
A tank wall including a thermally insulating barrier and a sealing membrane resting on the thermally insulating barrier , the said tank wall being characterized in that the sealing membrane includes a corrugation having a curvilinear portion developed in a curvilinear direction (d1) and at least one curvilinear reinforcement device arranged inside the curvilinear portion , between the sealing membrane and the thermally insulating barrier , in such a manner as to reinforce said curvilinear portion , said curvilinear reinforcement device including a plurality of reinforcement sections that each have a profiled shape developed in a rectilinear direction (d2, d3, d4), the curvilinear reinforcement device further including a connection member connecting said reinforcement sections in such a manner as to keep them in a position in which, projected in a plane parallel to the tank wall , the rectilinear direction (d2, d3, d4) of each of the reinforcement sections is oriented tangentially to the curvilinear direction (d1).
A computer-implemented method for storing multiple applications in single sectors of smart card namespaces , the method comprising: storing, for each application stored in a smart card namespace, an application directory entry in a data memory block of a secure application directory in the smart card namespace, each application directory entry comprising: an application identifier (AID) for each corresponding software application stored in one or more data memory blocks of a sector of the smart card namespace; a starting memory block number for a starting memory block in the sector of the smart card namespace, wherein the starting memory block holds at least a part of a corresponding software application; and a size for the corresponding software application, the size defining a number of contiguous data memory blocks including the starting data memory block that store the entire corresponding software application. an application identifier (AID) for each corresponding software application stored in one or more data memory blocks of a sector of the smart card namespace; a starting memory block number for a starting memory block in the sector of the smart card namespace, wherein the starting memory block holds at least a part of a corresponding software application; and a size for the corresponding software application, the size defining a number of contiguous data memory blocks including the starting data memory block that store the entire corresponding software application.
A method for cutting substrates comprising printed images by way of an automatic cutting device provided with means for the correction of alignment errors, said method comprising the steps of: i) Printing a plurality of images (IM1, IM2) on a substrate (S); ii) Printing a longitudinal cutting mark (LM) close to an edge of said substrate (S) and parallel to edges of said images (IM1, IM2) in a longitudinal or feeding direction (F) and a plurality of transverse cutting marks (LM) perpendicular to said longitudinal cutting mark (LM), said transverse cutting marks (TM) being arranged between consecutive images (IM1, IM2) printed on said substrate (S); iii) Providing an automatic cutting device having a first optical unit configured for the detection of said transverse cutting marks (TM); iv) Feeding the substrate (S) into said automatic cutting device ; characterized in that said longitudinal cutting mark (LM) is printed such that it has a discontinuity (N) arranged upstream of each transverse cutting mark (TM) with respect to said feeding direction (F), said discontinuity (N) being spaced from the respective transverse cutting mark (TM) by a predefined known measure (d); in that the automatic cutting device is provided with a second optical unit configured for the detection of said discontinuities (N) in the longitudinal cutting mark (LM); and in that a control system of the automatic cutting device is configured such that, when the second optical unit detects the discontinuities (N) of the longitudinal cutting mark (LM), the first optical unit is selectively activated for the detection of transverse cut marks (TM) printed on the substrate (S). i) Printing a plurality of images (IM1, IM2) on a substrate (S); ii) Printing a longitudinal cutting mark (LM) close to an edge of said substrate (S) and parallel to edges of said images (IM1, IM2) in a longitudinal or feeding direction (F) and a plurality of transverse cutting marks (LM) perpendicular to said longitudinal cutting mark (LM), said transverse cutting marks (TM) being arranged between consecutive images (IM1, IM2) printed on said substrate (S); iii) Providing an automatic cutting device having a first optical unit configured for the detection of said transverse cutting marks (TM); iv) Feeding the substrate (S) into said automatic cutting device ;
A paging method, comprising: determining, by a mobility management network element, that user equipment, UE, in an idle state on a 3rd Generation Partnership Project, 3GPP, network side, has accessed a non-3GPP network, wherein an attach procedure on the 3GPP network and an attach procedure on the non-3GPP network have been completed by the UE; sending, by the mobility management network element, a downlink data notification message including an access identifier of the 3GPP network to the UE by using a non-3GPP network access gateway, for the UE to establish a data connection channel with the 3GPP network corresponding to the access identifier. determining, by a mobility management network element, that user equipment, UE, in an idle state on a 3rd Generation Partnership Project, 3GPP, network side, has accessed a non-3GPP network, wherein an attach procedure on the 3GPP network and an attach procedure on the non-3GPP network have been completed by the UE; sending, by the mobility management network element, a downlink data notification message including an access identifier of the 3GPP network to the UE by using a non-3GPP network access gateway, for the UE to establish a data connection channel with the 3GPP network corresponding to the access identifier.
A threaded connection for pipes or tubes comprising a pin and a box , the pin and the box each comprising a contact surface having a threaded portion and an unthreaded metal contact portion, the threaded connection for pipes or tubes comprising a solid lubricant coating layer on at least one of the contact surfaces of the pin and the box , and the solid lubricant coating layer containing: a resin, a solid lubricant powder, and characterized in that the solid lubricant coating layer further contains: Cr 2 O 3 in a range of 1.0 to 20.0 mass%. the pin and the box each comprising a contact surface having a threaded portion and an unthreaded metal contact portion, the threaded connection for pipes or tubes comprising a solid lubricant coating layer on at least one of the contact surfaces of the pin and the box , and the solid lubricant coating layer containing: a resin, a solid lubricant powder, and a resin, a solid lubricant powder, and characterized in that the solid lubricant coating layer further contains: Cr 2 O 3 in a range of 1.0 to 20.0 mass%.
A method for broadcast communication within a co-operative system (CS) comprising a plurality of communication units (A, B, C) arranged in vehicles, where said plurality of communication units (A, B, C) are equipped with a radio communication unit, which communication units (A, B, C) are adapted to execute a group of tasks repeatedly in a repetition cycle: • acquire raw data from at least one raw data collector, • process said raw data into an information package, and • broadcast of said information package to other communication units (A, B, C) using the same channel or frequency in the co-operative system (CS), wherein said repetition cycle lasts a predetermined time period from a start (SnA, SnB, SnC) of a repetition cycle, and said at least one raw data collector collects data from a global navigation satellite system (GNSS), wherein said raw data from the GNSS comprises a global timing information, to which said communication units (A, B, C) synchronise and wherein a timing of said execution of tasks is dependent of a global timing signal (TS) derived from the global timing information, characterised in, that an individual acquisition time (ATA, ATB, ATC) for acquiring raw data from the raw data collectors is set for each of the plurality of communication units (A, B, C), wherein the acquisition times are different from each other; and wherein the processing of said raw data into an information package is executed directly after the acquiring of said raw data and the broadcasting of said information package is executed directly after the processing of said raw data. • acquire raw data from at least one raw data collector, • process said raw data into an information package, and • broadcast of said information package to other communication units (A, B, C) using the same channel or frequency in the co-operative system (CS),
A method for enhancement of neighbor cell interference robustness between user equipment, UE, and neighborly base stations for Narrowband Internet-of-thing, NB-IoT, wherein a 1-frame narrowband reference signal , NRS, defined by the 3GPP NB-IoT standard, Release 15, TS 36.211 V15.4.0, from December 2018 providing phase reference for a demodulation of downlink channels between a base station and the UE is modified by generating a narrowband reference signal, NRS of 8-frame length which consists of 160 successive slots, resulting in a factor 8 longer pseudo-random sequence periodically repeated compared to the former 1-frame NRS.
A mobile communication system in which a mobile station apparatus (B) transmits, to a base station apparatus (A), uplink data using a physical uplink shared channel assigned by using an uplink data transmission permission signal, characterized in that the base station apparatus (A), is adapted to transmit by using the uplink data transmission permission signal, to the mobile station apparatus (B), a first indication for instructing the mobile station apparatus (B) to transmit reception quality information together with the uplink data using the physical uplink shared channel assigned by using the uplink data transmission permission signal, and is adapted to transmit by using the uplink data transmission permission signal, to the mobile station apparatus (B), a second indication for instructing the mobile station apparatus (B) to transmit the reception quality information without the uplink data using the physical uplink shared channel assigned by using the uplink data transmission permission signal, and the mobile station apparatus (B), is adapted to transmit, to the base station apparatus (A), the reception quality information together with the uplink data using the physical uplink shared channel assigned by using the uplink data transmission permission signal in a case that the first indication is received by using the uplink data transmission permission signal, and is adapted to transmit, to the base station apparatus (A), the reception quality information without the uplink data using the physical uplink shared channel assigned by using the uplink data transmission permission signal in a case that the second indication is received by using the uplink data transmission permission signal.
A method for detecting a fluid surface , comprising the following steps: providing at least one probe having an electric capacitance (C) with respect to its ambient; moving the probe into or out of a fluid ; charging the probe by applying a periodic first electric signal (S1) to the probe ; applying a periodic third electric signal (S3) to one or more probes arranged adjacent to the probe to which the first electric signal (S1) is applied simultaneously with applying the first electric signal (S1) to the probe , wherein the third electric signal (S3) is based on the first electric signal (S1); at least partially discharging the probe while not applying the first electric signal (S1) to the probe by connecting the probe to electric ground so as to obtain a discharging current; detecting a second electric signal (S2) based on the discharging current; analyzing the second electric signal (S2) or a signal derived from the second electric signal (S2) with respect to the capacitance (C) of the probe to which the first electric signal (S1) is applied; identifying the fluid surface of the fluid based on a change of the capacitance (C) of the probe to which the first electric signal (S1) is applied. providing at least one probe having an electric capacitance (C) with respect to its ambient; moving the probe into or out of a fluid ; charging the probe by applying a periodic first electric signal (S1) to the probe ; applying a periodic third electric signal (S3) to one or more probes arranged adjacent to the probe to which the first electric signal (S1) is applied simultaneously with applying the first electric signal (S1) to the probe , wherein the third electric signal (S3) is based on the first electric signal (S1); at least partially discharging the probe while not applying the first electric signal (S1) to the probe by connecting the probe to electric ground so as to obtain a discharging current; detecting a second electric signal (S2) based on the discharging current; analyzing the second electric signal (S2) or a signal derived from the second electric signal (S2) with respect to the capacitance (C) of the probe to which the first electric signal (S1) is applied; identifying the fluid surface of the fluid based on a change of the capacitance (C) of the probe to which the first electric signal (S1) is applied.
High-pressure container for taking a raw material sample containing oxygen-sensitive, such as anaerobic, microorganisms from a deposit , preferably a gas deposit, the high-pressure container comprising an inlet for feeding the raw material sample under pressure into a sample chamber of the high-pressure container and an outlet for discharging the raw material sample therefrom, the inlet being connectable to the deposit by means of a feed line and a directional control valve being assigned to the feed line , by means of which the feed line can be selectively connected on the one hand to a discharge for the raw material sample, bypassing the inlet , in order to flush the feed line with the raw material sample and on the other hand the feed line can be connected to the inlet in a flow-conducting manner in order to feed the raw material sample from the feed line via the inlet to the sample chamber , wherein the high-pressure container comprises a sample container and a lid which can be placed thereon, which together delimit or form the sample chamber , wherein the lid forms the inlet and the outlet for the raw material sample and the feed line and the directional control valve are fastened or can be fastened to the lid ; and wherein the directional control valve is designed as a three-way valve, which being switchable between three positions, namely a first position, in which the raw material from the deposit being guided under pressure to the discharge , a second position, in which the raw material from the deposit being guided under pressure to the sample chamber and a third position, in which the raw material being trapped in the sample chamber by cutting of both return connections of the raw material sample to the discharge or the deposit .
A sensor device with a pressure sensor for detecting a pressure of a fluid, wherein the pressure sensor is provided in a housing of the sensor device such that a pressure detection element is exposed to the fluid, the sensor device comprising: a first temperature sensor provided in the housing and configured to detect a temperature conducted from the fluid via the housing or the pressure sensor ; characterized in a second temperature sensor provided at a position that is more distant from the fluid than the first temperature sensor ; and a temperature calculator configured to calculate a temperature of the detection target from a temperature detected by the first temperature sensor and a temperature detected by the second temperature sensor , the sensor device being wherein the second temperature sensor is provided in contact with the housing and inside a portion of the housing which is not in contact with the fluid. a first temperature sensor provided in the housing and configured to detect a temperature conducted from the fluid via the housing or the pressure sensor ; characterized in a second temperature sensor provided at a position that is more distant from the fluid than the first temperature sensor ; and a temperature calculator configured to calculate a temperature of the detection target from a temperature detected by the first temperature sensor and a temperature detected by the second temperature sensor , the sensor device being wherein the second temperature sensor is provided in contact with the housing and inside a portion of the housing which is not in contact with the fluid.