mhurhangee/ep-ind-claims huggingface dataset:
Device for operating a blind, the operating device comprising: - a winding drum carrying at least one cord (2, 5) connected to the blind, and - a mounting (9; 41) for this drum, produced in at least two parts (9a, 9b) which when assembled one to the other leave through holes (21a, 21b, 22) for the passage of the cords (2, 5), wherein each of these parts (9a, 9b) has a direct support function for the drum by direct contact of these at least two parts and the drum. - a winding drum carrying at least one cord (2, 5) connected to the blind, and - a mounting (9; 41) for this drum, produced in at least two parts (9a, 9b) which when assembled one to the other leave through holes (21a, 21b, 22) for the passage of the cords (2, 5), wherein each of these parts (9a, 9b) has a direct support function for the drum by direct contact of these at least two parts and the drum.
An information processing apparatus, comprising a control unit that controls a person detection unit on a basis of an irradiation direction in which an irradiation unit capable of irradiating image information irradiates the image information, the person detection unit being controlled to form a detection area in a direction opposite to the irradiation direction, wherein there is an angle between an optical axis of the detection area and an optical axis of the irradiation unit larger than 90°; wherein the information processing apparatus is configured to be arranged on a horizontal surface and the irradiation direction includes at least one of a downward direction, being a direction below a horizontal direction, or an upward direction, being a direction above the horizontal direction depending on the installation attitude of the information processing apparatus; an attitude detection unit configured to detect the installation attitude of the information processing apparatus; and wherein the control unit causes the irradiation unit to determine the installation attitude based upon the output from the attitude detection unit and to irradiate the image information in a case where the person detection unit detects a person or where a predetermined irradiation start operation is performed, and stops an operation of the person detection unit in a case where the irradiation direction is the downward direction. an attitude detection unit configured to detect the installation attitude of the information processing apparatus; and wherein the control unit causes the irradiation unit to determine the installation attitude based upon the output from the attitude detection unit and to irradiate the image information in a case where the person detection unit detects a person or where a predetermined irradiation start operation is performed, and stops an operation of the person detection unit in a case where the irradiation direction is the downward direction.
Optical multiplexing device (10, 10', 10a, 10b) destined to be coupled to an optical transmission line for transmitting a multiplexed signal comprising a plurality of multiplexed wavelength channels within a given waveband, the said optical multiplexing device comprising: - a first wavelength selective switch "WSS" (12, 26) comprising a plurality of input/output ports (121, 123, 125, 127, 261, 263, 265, 267), - a first optical amplifier having an output configured to be coupled to an input/output port (125, 265) of the first wavelength selective switch and configured for emitting amplified spontaneous emission signals on the given waveband, the first wavelength selective switch being configured for transmitting the amplified spontaneous emission signals on the idle wavelength channels of the multiplexed signal, wherein the optical multiplexing device also comprises: - a second wavelength selective switch (22, 26), - a second optical amplifier having: - an input configured to be coupled to an input/output port (127, 267) of the first wavelength selective switch (12, 26) and - an output configured to be coupled to an input/output port (225, 269) of the second wavelength selective switch (22, 26), the first wavelength selective switch (12, 26) being configured for transmitting the spontaneous emission signals received from the first optical amplifier toward the second optical amplifier and the second wavelength selective switch (22, 26) being configured for transmitting the amplified spontaneous emission signals received from the second optical amplifier toward the optical transmission line. - a first wavelength selective switch "WSS" (12, 26) comprising a plurality of input/output ports (121, 123, 125, 127, 261, 263, 265, 267), - a first optical amplifier having an output configured to be coupled to an input/output port (125, 265) of the first wavelength selective switch and configured for emitting amplified spontaneous emission signals on the given waveband, - a second wavelength selective switch (22, 26), - a second optical amplifier having: - an input configured to be coupled to an input/output port (127, 267) of the first wavelength selective switch (12, 26) and - an output configured to be coupled to an input/output port (225, 269) of the second wavelength selective switch (22, 26), the first wavelength selective switch (12, 26) being configured for transmitting the spontaneous emission signals received from the first optical amplifier toward the second optical amplifier and the second wavelength selective switch (22, 26) being configured for transmitting the amplified spontaneous emission signals received from the second optical amplifier toward the optical transmission line. - an input configured to be coupled to an input/output port (127, 267) of the first wavelength selective switch (12, 26) and - an output configured to be coupled to an input/output port (225, 269) of the second wavelength selective switch (22, 26),
A wireless communication terminal comprising: a processor which is configured for generating a plurality of channels by dividing at least part of a frequency band for ultra-wideband communications into a plurality of frequency sub-bands, a transmitter comprising a chaotic signal generator for generating a chaotic signal having a frequency band being divided into a number of channels in the ultra-wideband, wherein the transmitter is configured for transmitting the chaotic signal to a wireless communication device using one of the number of channels of the frequency band of the chaotic signal, a receiver which is configured for receiving the chaotic signal from the wireless communication device, a power sensor which is configured for detecting a power level of the chaotic signal received from the wireless communication device, a controller which is configured for controlling whether to change the channel among the number of channels of the frequency band of the chaotic signal according to the power level of the chaotic signal received from the wireless communication device, wherein the power sensor is further configured for applying the detected power level of the chaotic signal received from the wireless communication device to the controller, and a channel changer which is configured for changing the channel among the number of channels of the frequency band of the chaotic signal according to a control signal from the controller. a processor which is configured for generating a plurality of channels by dividing at least part of a frequency band for ultra-wideband communications into a plurality of frequency sub-bands, a transmitter comprising a chaotic signal generator for generating a chaotic signal having a frequency band being divided into a number of channels in the ultra-wideband, wherein the transmitter is configured for transmitting the chaotic signal to a wireless communication device using one of the number of channels of the frequency band of the chaotic signal, a receiver which is configured for receiving the chaotic signal from the wireless communication device, a power sensor which is configured for detecting a power level of the chaotic signal received from the wireless communication device, a controller which is configured for controlling whether to change the channel among the number of channels of the frequency band of the chaotic signal according to the power level of the chaotic signal received from the wireless communication device, wherein the power sensor is further configured for applying the detected power level of the chaotic signal received from the wireless communication device to the controller, and a channel changer which is configured for changing the channel among the number of channels of the frequency band of the chaotic signal according to a control signal from the controller.
A variable volume infusion port, comprising: a hollow body forming a reservoir, the hollow body including a base and an open top; a septum disposed across at least a portion of the open top; a hollow stem in fluid communication with the reservoir, the hollow stem projecting at least partially from the hollow body; and a flexible member disposed in the reservoir to provide a variable volume reservoir; a biasing element that is configured to bias the flexible member, in the absence of an insertion of an injection device into the reservoir, to a first position proximate the septum such that the reservoir contains a first fluid volume; at least a portion of the flexible member being displaceable by the insertion of the injection device into the reservoir to a second position distal from the septum such that the reservoir contains a second fluid volume that is greater than the first fluid volume, characterized in that the flexible member is sealed against at least a portion of the inner surface of the reservoir such that, in the second position, a portion of the flexible member is displaced distal from the septum with a curved shape. a hollow body forming a reservoir, the hollow body including a base and an open top; a septum disposed across at least a portion of the open top; a hollow stem in fluid communication with the reservoir, the hollow stem projecting at least partially from the hollow body; and a flexible member disposed in the reservoir to provide a variable volume reservoir; a biasing element that is configured to bias the flexible member, in the absence of an insertion of an injection device into the reservoir, to a first position proximate the septum such that the reservoir contains a first fluid volume; at least a portion of the flexible member being displaceable by the insertion of the injection device into the reservoir to a second position distal from the septum such that the reservoir contains a second fluid volume that is greater than the first fluid volume, characterized in that the flexible member is sealed against at least a portion of the inner surface of the reservoir such that, in the second position, a portion of the flexible member is displaced distal from the septum with a curved shape.
Aircraft provided with at least one exhaust duct for discharging gases from an engine, the exhaust duct being partially accommodated in an internal housing of the aircraft, the housing being separated from an external environment located outside the aircraft by at least one cowl, the cowl being movable relative to a load-bearing structure of the aircraft, the exhaust duct comprising an ejector section passing through a passage of the cowl without touching the cowl, with a space separating the ejector section from the cowl, the aircraft comprising at least one stabilisation system coupled to the exhaust duct, the stabilisation system comprising a stiffening ring rigidly connected to the exhaust duct and at least one fixture connecting the exhaust duct to the cowl.
A method for producing an implant, wherein particles of the group of ultra-high molecular weight polyethylene (UHMWPE) and/or high-density polyethylene (HDPE) and/or polypropylene are fused together layer by layer by means of a selective laser sintering method, characterized in that a heat treatment is carried out after the selective laser sintering such that pores of the implant to be produced remain unsealed to a surface of the implant or a heat treatment is carried out after the selective laser sintering such that the pores of the implant to be produced are sealed to a surface of the implant in partial areas only.
Method for at least partially compensating a latency (t L) when accelerating a motor vehicle, wherein, for carrying out a first acceleration procedure, an acceleration request is transmitted to an installation of the motor vehicle, and the installation accelerates the motor vehicle as a function of the acceleration request, wherein a first temporal point for initiating the first acceleration procedure is determined, wherein, prior to initiating the first acceleration procedure, an estimate (t s) for the latency (t L) between the transmission of the acceleration request and the acceleration of the motor vehicle is determined, wherein, for initiating the first acceleration procedure, the acceleration request is transmitted to the installation at a second temporal point which in relation to the first temporal point is earlier by the estimate (t s) for the latency (t L), characterized in that a travel trajectory for an autonomous driving procedure of the motor vehicle is determined, wherein the first temporal point is determined as a function of the determined travel trajectory, wherein the autonomous driving procedure represents a parking procedure of the motor vehicle into a parking bay, in particular wherein the motor vehicle during the parking procedure is guided on the determined travel trajectory.
Computer-implemented method of determining operational performance parameters of a device, in particular of a vehicle, with device mounted sensors and computer-implemented models (MDS, MD2), comprising the steps: (a) measuring a first parameter set during operation of the device using said sensors, (b) providing a computer-implemented supplemental model and determining a second parameter set by the supplemental model, (c) combining parameters of the first parameter set with at least one selected parameter of the second parameter set obtaining a hybrid parameter set, (d) providing the parameters of the hybrid parameter set to a Kalman-Filter-module, (e) the Kalman-Filter-module predicting a third parameter set by a second model being equivalent to the hybrid parameter set regarding the respective parameter types, (f) the Kalman-Filter-module comparing the parameters of the hybrid parameter set and the third parameter set, (g) the Kalman-Filter-module estimating an output parameter set, the method characterized in comprising: (i) determining a deviation between respectively one distinct parameter of the first parameter set and the equivalent parameter of said second parameter set, (ii) providing a correlation between said deviation values and covariance values for at least one parameter of said third parameter set, (iii) determining a covariance value from said correlation on basis of the determined deviation, (iv) forwarding said covariance value to said Kalman-Filter-module for estimating said output parameter set. (a) measuring a first parameter set during operation of the device using said sensors, (b) providing a computer-implemented supplemental model and determining a second parameter set by the supplemental model, (c) combining parameters of the first parameter set with at least one selected parameter of the second parameter set obtaining a hybrid parameter set, (d) providing the parameters of the hybrid parameter set to a Kalman-Filter-module, (e) the Kalman-Filter-module predicting a third parameter set by a second model being equivalent to the hybrid parameter set regarding the respective parameter types, (f) the Kalman-Filter-module comparing the parameters of the hybrid parameter set and the third parameter set, (g) the Kalman-Filter-module estimating an output parameter set, (i) determining a deviation between respectively one distinct parameter of the first parameter set and the equivalent parameter of said second parameter set, (ii) providing a correlation between said deviation values and covariance values for at least one parameter of said third parameter set, (iii) determining a covariance value from said correlation on basis of the determined deviation, (iv) forwarding said covariance value to said Kalman-Filter-module for estimating said output parameter set.
A method for the production of a library of antigen specific antigen binding molecules having a peptide domain structure represented by the following formula: FW1-CDR1-FW2-HV2-FW3a-HV4-FW3b-CDR3-FW4 comprising isolating RNA from a member of a species in the Elasmobranchii subclass; amplifying DNA sequences from RNA obtained in which encode antigen specific antigen binding molecules to create a database of DNA sequences encoding antigen specific binding molecules; selecting a DNA sequence from the database prepared in; amplifying DNA sequences encoding two or more contiguous peptide domains of FW1-CDR1-FW2-HV2-FW3a-HV4-FW3b-CDR3-FW4 wherein said two or more contiguous peptide domains when ligated encode an antigen specific antigen binding molecule of formula and where said two or more contiguous peptide domains are from at least two heterologous DNA sequences selected in in the presence of a plurality of heterologous oligomers complementary to CDR1 or CDR3 domains in sequences selected in to form a plurality of amplified DNA sequences encoding an antigen specific antigen binding molecule of formula, wherein said two or more contiguous peptide domains are FW1, CDR1-FW2-HV2-FW3a-HV4-FW3, and CDR3-FW4; ligating together said amplified DNA sequences encoding two or more contiguous peptide domains to form DNA sequences encoding an antigen specific binding molecule having the peptide domain structure of formula; cloning the amplified DNA obtained in into a display vector; and transforming a host with said display vector to produce a library of said antigen specific antigen binding molecules. isolating RNA from a member of a species in the Elasmobranchii subclass; amplifying DNA sequences from RNA obtained in which encode antigen specific antigen binding molecules to create a database of DNA sequences encoding antigen specific binding molecules; selecting a DNA sequence from the database prepared in; amplifying DNA sequences encoding two or more contiguous peptide domains of FW1-CDR1-FW2-HV2-FW3a-HV4-FW3b-CDR3-FW4 wherein said two or more contiguous peptide domains when ligated encode an antigen specific antigen binding molecule of formula and where said two or more contiguous peptide domains are from at least two heterologous DNA sequences selected in in the presence of a plurality of heterologous oligomers complementary to CDR1 or CDR3 domains in sequences selected in to form a plurality of amplified DNA sequences encoding an antigen specific antigen binding molecule of formula, wherein said two or more contiguous peptide domains are FW1, CDR1-FW2-HV2-FW3a-HV4-FW3, and CDR3-FW4; ligating together said amplified DNA sequences encoding two or more contiguous peptide domains to form DNA sequences encoding an antigen specific binding molecule having the peptide domain structure of formula; cloning the amplified DNA obtained in into a display vector; and transforming a host with said display vector to produce a library of said antigen specific antigen binding molecules.
A multi-degree of freedom spherical actuator, comprising: a spherical stator having a first axis of symmetry, a second axis of symmetry, and a third axis of symmetry, the first, second, and third axes of symmetry (108-1, 108-2, 108-3) disposed perpendicular to each other, the spherical stator comprising a magnetically permeable material; a first coil wound on the spherical stator about the first axis of symmetry; a second coil wound on the spherical stator about the second axis of symmetry; a third coil wound on the spherical stator about the third axis of symmetry; an armature spaced apart from, and surrounding at least a portion of, the spherical stator, the armature having an inner surface and being movable relative to the spherical stator; and a plurality of magnets coupled to, and extending from, the inner surface of the armature, each of the magnets spaced apart from the spherical stator, and each magnet configured such that magnetic flux from one of the magnets travels into the spherical stator on one side and out on another side to a different one of the magnets, wherein, when an electrical current is supplied to one or more of the first, second, and third coils (202-1, 202-2, 202-3), Lorentz force is generated between the coils (202-1, 202-2, 202-3) supplied with the electrical current and the magnets, to thereby generate a torque. a spherical stator having a first axis of symmetry, a second axis of symmetry, and a third axis of symmetry, the first, second, and third axes of symmetry (108-1, 108-2, 108-3) disposed perpendicular to each other, the spherical stator comprising a magnetically permeable material; a first coil wound on the spherical stator about the first axis of symmetry; a second coil wound on the spherical stator about the second axis of symmetry; a third coil wound on the spherical stator about the third axis of symmetry; an armature spaced apart from, and surrounding at least a portion of, the spherical stator, the armature having an inner surface and being movable relative to the spherical stator; and a plurality of magnets coupled to, and extending from, the inner surface of the armature, each of the magnets spaced apart from the spherical stator, and each magnet configured such that magnetic flux from one of the magnets travels into the spherical stator on one side and out on another side to a different one of the magnets, wherein, when an electrical current is supplied to one or more of the first, second, and third coils (202-1, 202-2, 202-3), Lorentz force is generated between the coils (202-1, 202-2, 202-3) supplied with the electrical current and the magnets, to thereby generate a torque.