mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing an endoscope insertion tube, wherein the insertion tube has a proximal passive flexible section and a distal angled section, the passive flexible section and the angled section are integrally formed and individual cuts (201, 202, 801, 802) are made in the flexible section, provided as a tube-like element, in such a way that adjacent individual cuts (201, 202, 801, 802) are equidistant from one another, characterized in that at a predefined number of the individual cuts (801, 802) that lie behind each other in longitudinal direction of the tube-like element, a single first short cut adjoins that is shorter than the other individual cuts (801, 802), opposite to the first short cut, a second short cut is formed, wherein the first short cut and the second short cut form a pair and lie on the same plane, a band portion of the material of the tube-like element between the first short cut and the adjacent other individual cut (801, 802) of the predefined number of the individual cuts (801, 802) that lie behind each other, is bend to the tube center of the tube-like element for forming a cable guide lug, and a band portion of the material of the tube-like element between the second short cut and the adjacent other individual cut (801, 802) of the predefined number of the individual cuts (801, 802) that lie behind each other, is bend to the tube center of the tube-like element for forming a cable guide lug. wherein the insertion tube has a proximal passive flexible section and a distal angled section, the passive flexible section and the angled section are integrally formed and individual cuts (201, 202, 801, 802) are made in the flexible section, provided as a tube-like element, in such a way that adjacent individual cuts (201, 202, 801, 802) are equidistant from one another, characterized in that at a predefined number of the individual cuts (801, 802) that lie behind each other in longitudinal direction of the tube-like element, a single first short cut adjoins that is shorter than the other individual cuts (801, 802), opposite to the first short cut, a second short cut is formed, wherein the first short cut and the second short cut form a pair and lie on the same plane, a band portion of the material of the tube-like element between the first short cut and the adjacent other individual cut (801, 802) of the predefined number of the individual cuts (801, 802) that lie behind each other, is bend to the tube center of the tube-like element for forming a cable guide lug, and a band portion of the material of the tube-like element between the second short cut and the adjacent other individual cut (801, 802) of the predefined number of the individual cuts (801, 802) that lie behind each other, is bend to the tube center of the tube-like element for forming a cable guide lug.
A method of operating a serial protocol interface in a communication device exchanging data (MOSI, MISO) over a communication link (121, 122, 123), wherein said exchanging data includes: - sending output data (MOSI) on said communication link, and - receiving input data (MISO) on said communication link, said input data (MISO) being synchronous with a clock signal (SCLK) generated at said communication device and propagated over said communication link, the method including: - initializing operation by exchanging data over said communication link (121, 122, 123) by sending output data (MOSI) on said communication link at a first data rate, - detecting a signal transition in said input data (MISO) received on said communication link, and - once said transition detected, exchanging data over said communication link (121, 122, 123) at a second data rate, higher than said first data rate, with said exchanging of data at a second data rate synchronized as a function of said signal transition, the method characterized in that it includes: - detecting a plurality of candidate signal transitions in said input data (MISO) received on said communication link at said first data rate, and - selecting a transition to start exchanging data over said communication link (121, 122, 123) at said second data rate as one of said candidate transitions having a higher margin (M1, M2) to either of a raising edge or a falling edge of said clock signal. - sending output data (MOSI) on said communication link, and - receiving input data (MISO) on said communication link, said input data (MISO) being synchronous with a clock signal (SCLK) generated at said communication device and propagated over said communication link, - initializing operation by exchanging data over said communication link (121, 122, 123) by sending output data (MOSI) on said communication link at a first data rate, - detecting a signal transition in said input data (MISO) received on said communication link, and - once said transition detected, exchanging data over said communication link (121, 122, 123) at a second data rate, higher than said first data rate, with said exchanging of data at a second data rate synchronized as a function of said signal transition, - detecting a plurality of candidate signal transitions in said input data (MISO) received on said communication link at said first data rate, and - selecting a transition to start exchanging data over said communication link (121, 122, 123) at said second data rate as one of said candidate transitions having a higher margin (M1, M2) to either of a raising edge or a falling edge of said clock signal.
Working aid comprising a stand, which has a longitudinal axis, wherein a stand element for setting the working aid down on the ground and a support for a workpiece are arranged on the stand, and the support comprises two first rotatable elements (112a, 112b), characterised in that there is a pivot element, on which a second rotatable element is arranged, wherein the second rotatable element is arranged so as to be pivotable, by means of the pivot element, from a rest position below the support surface of the first rotatable elements (112a, 112b) into a working position above the support surface of the first rotatable elements (112a, 112b).
A receiving apparatus comprising: an inverse matrix multiplying portion arranged to multiply first and second receiving signal points corresponding to first and second receiving signals, received by first and second receiving antennas, by an inverse matrix of a channel matrix based on known signals included in the first and second receiving signals to generate converted first and second receiving signal points; a first arithmetic portion and a second arithmetic portion; the first arithmetic portion arranged to determine one or more first sending signal candidate points based on the converted first receiving signal point, independently of the second arithmetic portion; the second arithmetic portion arranged to determine one or more second sending signal candidate points based on the converted second receiving signal point, independently of the first arithmetic portion; and a determining portion arranged to determine first and second sending signal points, corresponding to first and second sending signals sent from first and second sending antennas in a sending apparatus, from among the first and second sending signal candidate points so that a total distance based on at least a first distance regarding the first sending signal candidate point and a second distance regarding the second sending signal candidate point satisfies a given condition. an inverse matrix multiplying portion arranged to multiply first and second receiving signal points corresponding to first and second receiving signals, received by first and second receiving antennas, by an inverse matrix of a channel matrix based on known signals included in the first and second receiving signals to generate converted first and second receiving signal points; a first arithmetic portion and a second arithmetic portion; the first arithmetic portion arranged to determine one or more first sending signal candidate points based on the converted first receiving signal point, independently of the second arithmetic portion; the second arithmetic portion arranged to determine one or more second sending signal candidate points based on the converted second receiving signal point, independently of the first arithmetic portion; and a determining portion arranged to determine first and second sending signal points, corresponding to first and second sending signals sent from first and second sending antennas in a sending apparatus, from among the first and second sending signal candidate points so that a total distance based on at least a first distance regarding the first sending signal candidate point and a second distance regarding the second sending signal candidate point satisfies a given condition.
Computer implemented method for determining a plurality of output data, the method comprising the following steps carried out by computer hardware components: - acquiring sensor data using a radar sensor; - integrating the sensor data over time to obtain integrated data; - determining a first estimate based on the sensor data, the first estimate comprising angle estimates, the angle estimates comprising an angle estimate from Doppler with target motion and an angle estimate from beamvectors; - determining a second estimate based on the integrated data, the second estimate comprising an integrated angle estimate; - postprocessing the first estimate to obtain first postprocessed data, the postprocessing the first estimate comprising determining a stationary/ moving classification based on at least one of the angle estimates; - postprocessing the second estimate to obtain second postprocessed data, the postprocessing the second estimate comprising determining a stationary/ moving classification based on the integrated angle estimate; - determining first output data based on the first estimates and the second estimates, the first output data comprising freespace information which includes information about unoccupied environment; and - determining second output data based on the first postprocessed data and the second postprocessed data, the second output data comprising a radar cross section feature map. - acquiring sensor data using a radar sensor; - integrating the sensor data over time to obtain integrated data; - determining a first estimate based on the sensor data, the first estimate comprising angle estimates, the angle estimates comprising an angle estimate from Doppler with target motion and an angle estimate from beamvectors; - determining a second estimate based on the integrated data, the second estimate comprising an integrated angle estimate; - postprocessing the first estimate to obtain first postprocessed data, the postprocessing the first estimate comprising determining a stationary/ moving classification based on at least one of the angle estimates; - postprocessing the second estimate to obtain second postprocessed data, the postprocessing the second estimate comprising determining a stationary/ moving classification based on the integrated angle estimate; - determining first output data based on the first estimates and the second estimates, the first output data comprising freespace information which includes information about unoccupied environment; and - determining second output data based on the first postprocessed data and the second postprocessed data, the second output data comprising a radar cross section feature map.
A film comprising a polymer blend of: (a) 0.15 to 0.8 wt% of an LDPE having an MI of 0.1 to 0.6 dg/min; and (b) 99.2 to 99.85 wt% of an LLDPE produced with a single-site catalyst comprising a metallocene, and having a haze (HZ lldpe), dart impact (DI lldpe), MD-Tear (MDT lldpe), and a slice long chain branching index of at least 0.90 for any portion of the composition having a molecular weight of 100,000 or above, and having a composition distribution breadth index (CDBI) is from 65 to 85; wherein the film has a haze (HZ blend), a dart impact (DI blend), and an MD-Tear (MDT blend), and HZ blend = a*HZ lldpe, where a is 0.20 to 0.70; DI blend = b*DI lldpe, where b is 0.9 to 1.3; and MDT blend = c*MDT lldpe, where c is 0.8 to 1.1 Wherein: MD-Tear is measured according to ASTM D1922; Haze is measured according to ASTM D1003 Dart impact is measured according to ASTM D1709 slice long chain branching index is measured as a ratio of intrinsic viscosity of a given retention volume slice and the intrinsic viscosity of a reference linear polymer; distribution breadth index (CDBI) is determined by temperature rising elution fraction (TREF) analysis. (a) 0.15 to 0.8 wt% of an LDPE having an MI of 0.1 to 0.6 dg/min; and (b) 99.2 to 99.85 wt% of an LLDPE produced with a single-site catalyst comprising a metallocene, and having a haze (HZ lldpe), dart impact (DI lldpe), MD-Tear (MDT lldpe), and a slice long chain branching index of at least 0.90 for any portion of the composition having a molecular weight of 100,000 or above, and having a composition distribution breadth index (CDBI) is from 65 to 85; wherein the film has a haze (HZ blend), a dart impact (DI blend), and an MD-Tear (MDT blend), and HZ blend = a*HZ lldpe, where a is 0.20 to 0.70; DI blend = b*DI lldpe, where b is 0.9 to 1.3; and MDT blend = c*MDT lldpe, where c is 0.8 to 1.1 MD-Tear is measured according to ASTM D1922; Haze is measured according to ASTM D1003 Dart impact is measured according to ASTM D1709 slice long chain branching index is measured as a ratio of intrinsic viscosity of a given retention volume slice and the intrinsic viscosity of a reference linear polymer; distribution breadth index (CDBI) is determined by temperature rising elution fraction (TREF) analysis.
A method, implemented using a monitoring tool (90, 102) disposed between a Network Data Analytics Function, NWDAF, of a Service-Based Architecture, SBA, and a Network Repository Function, NRF, the method comprising steps of: obtaining parameters associated with User Plane, UP, traffic and Control Plane, CP, traffic from the SBA, of a 5G network, performing analytics on the obtained parameters to monitor Network Functions, NFs, associated with the 5G network, and providing results of the analytics to the NRF, via an interface (94, 106), to control NFs stored in a repository associated with the NRF, wherein the results include commands related to the control of the NFs. obtaining parameters associated with User Plane, UP, traffic and Control Plane, CP, traffic from the SBA, of a 5G network, performing analytics on the obtained parameters to monitor Network Functions, NFs, associated with the 5G network, and providing results of the analytics to the NRF, via an interface (94, 106), to control NFs stored in a repository associated with the NRF, wherein the results include commands related to the control of the NFs.
A medical device comprising a metallic substrate made of cobalt-based alloy comprising at least one of chromium and iron and having a cobalt-rich composition which covers as a layer the outermost surface of the metallic substrate, characterized in that within 10 nm from the external surface of the cobalt-rich composition: - the cobalt-atomic percent is at least 50 at% to the total amount of chromium and iron atoms; - being oxidized into at least one of Co and Co oxidized state is at least 90 at% to the total amount of cobalt atoms; and - cobalt atoms being at least one of cobalt monoxide (CoO) and cobalt (II,III) oxide (CoO•Co 2 O 3) is at least 55 at%, preferably at least 70at%, to the total amount of cobalt atoms in oxidized state. - the cobalt-atomic percent is at least 50 at% to the total amount of chromium and iron atoms; - being oxidized into at least one of Co and Co oxidized state is at least 90 at% to the total amount of cobalt atoms; and - cobalt atoms being at least one of cobalt monoxide (CoO) and cobalt (II,III) oxide (CoO•Co 2 O 3) is at least 55 at%, preferably at least 70at%, to the total amount of cobalt atoms in oxidized state.
Method for determining the sensor characteristics of the elements of an antenna array, whose N receiving channels are connected to an N-channel broadband receiver, upon incidence of M signals S 1...S M by means of calculating steering vectors for a signal S k with k ∈ {1...M}, comprising the following method steps: decomposing the received signals into B prescribable time or frequency segments, assigning stored measured data, which are suitable for calculating steering vectors, to the received signals decomposed into the B time or frequency segments, covariance matrices C being formed for each of the B time or frequency segments from a time sequence of T measurement frames of the respective N measurement signals of the broadband receiver, assigning a classification feature to the received signals S 1...S M decomposed into the B time or frequency segments, characterized in that in order to calculate an improved steering vector for a signal S k, there is selected in a first step a frequency interval FI in which the signal S k is the strongest signal, and the assignment to S k being performed with the aid of prescribable classification features, or the correlation of steering vectors determined by means of stored measured data, and in a second step there is selected from the frequency interval FI assigned to a signal S k that time or frequency segment B SK which has the least deviation from a 1-wave case, the steering vector for the signal S k being equated to a column of the covariance matrix C of the time or frequency segment B SK, or is alternatively equated to the eigenvector relating to the largest eigenvalue of the covariance matrix. decomposing the received signals into B prescribable time or frequency segments, assigning stored measured data, which are suitable for calculating steering vectors, to the received signals decomposed into the B time or frequency segments, covariance matrices C being formed for each of the B time or frequency segments from a time sequence of T measurement frames of the respective N measurement signals of the broadband receiver, assigning a classification feature to the received signals S 1...S M decomposed into the B time or frequency segments, characterized in that in order to calculate an improved steering vector for a signal S k, there is selected in a first step a frequency interval FI in which the signal S k is the strongest signal, and the assignment to S k being performed with the aid of prescribable classification features, or the correlation of steering vectors determined by means of stored measured data, and in a second step there is selected from the frequency interval FI assigned to a signal S k that time or frequency segment B SK which has the least deviation from a 1-wave case, the steering vector for the signal S k being equated to a column of the covariance matrix C of the time or frequency segment B SK, or is alternatively equated to the eigenvector relating to the largest eigenvalue of the covariance matrix.
Cage nut comprising a nut having a radially projecting flange with two side surfaces arranged in parallel on opposite sides, and a sleeve-like screw receptacle, a holding plate having a cover plate with limbs arranged in parallel on two opposite sides and folded at right angles, which is provided with a through opening, which is penetrated by the screw receptacle of the nut, as well as a connecting bush, which surrounds the screw receptacle of the nut and which has a first collar for abutment of the flange of the nut on one end and on the opposite end a second collar, which collars (22, 24) partially cover the cover plate of the holding plate on both sides in the area of the through opening, characterised in that the second collar is elastic as well as at least partially curved in the direction of the first collar, wherein the second collar is oversized with respect to the through opening in such a manner that it can be pressed through the through opening, after which it reverts to its original shape.
A system with aqueous, hydroalcoholic or acidulated water base which comprises at least one polysaccharide of natural origin with β-1,4-glucan structure selected from the group consisting of alginic acid, carrageenan, chitosan, hydroxyethylcellulose and a derivative thereof, and which furthermore comprises a mixture of plant fibers or particles coming from waste and a plasticizer with polyhydroxylated structure, said system being able to form a film once it has been sprayed on the soil.
A vibration isolation system for isolating a suspended platform (402;902) from a base (401;901) subject to a vibration input comprising: an exoskeleton for supporting the suspended platform relative to the base over a range of travel; a rotary actuator (600;900) comprising first and second rotors wherein both the first and second rotors are free to rotate relative to the exoskeleton, and; wherein the rotary actuator is free to translate relative to the suspended platform and the vibration isolation system base, the vibration isolation system further comprising a drive mechanism separate from the exoskeleton for applying output force from the rotary actuator between the suspended platform and the base, whereby the separate exoskeleton relieves the drive mechanism from having to resist extraneous loads that may arise in the system. an exoskeleton for supporting the suspended platform relative to the base over a range of travel; a rotary actuator (600;900) comprising first and second rotors wherein both the first and second rotors are free to rotate relative to the exoskeleton, and; wherein the rotary actuator is free to translate relative to the suspended platform and the vibration isolation system base, the vibration isolation system further comprising a drive mechanism separate from the exoskeleton for applying output force from the rotary actuator between the suspended platform and the base,
Thermal vehicle having a temperature-controllable, thermally insulated cell which is provided with - a housing (1; 101) having a housing wall (10; 110); - a thermally insulating wall (16; 116) which bounds a temperature-controllable interior space (14; 114) and has at least one thermally sealingly closable access opening (12; 112) to the interior space (14; 114); - an electrically operable temperature-control device (2; 102; 200) for temperature-control of the interior space (14; 114) and - an autonomous power supply device (3; 103; 203) for the temperature-control device (2; 102; 200), which is configured so that the power supply for the temperature-control device takes place independently of the vehicle resources in a self-sufficient and emission-free manner, - wherein the thermal vehicle (5; 105) is electrically drivable and has at least one electric drive machine and a drive power supply device (5'; 105') supplying the drive machine with electrical energy. - a housing (1; 101) having a housing wall (10; 110); - a thermally insulating wall (16; 116) which bounds a temperature-controllable interior space (14; 114) and has at least one thermally sealingly closable access opening (12; 112) to the interior space (14; 114); - an electrically operable temperature-control device (2; 102; 200) for temperature-control of the interior space (14; 114) and - an autonomous power supply device (3; 103; 203) for the temperature-control device (2; 102; 200), which is configured so that the power supply for the temperature-control device takes place independently of the vehicle resources in a self-sufficient and emission-free manner, - wherein the thermal vehicle (5; 105) is electrically drivable and has at least one electric drive machine and a drive power supply device (5'; 105') supplying the drive machine with electrical energy.