mhurhangee/ep-ind-claims huggingface dataset:
A wireless communications system for a communication between a transmitter and a receiver each having a plurality of antennas, over a communications channel by multiplexing a signal, the system comprising: a reference signal sender which feeds back reference signals for respective antennas of the receiver from the receiver to the transmitter; a channel information acquirer which calculates, based on the reference signals received by the transmitter, a channel information matrix H whose elements represent transfer functions of respective communication sub-channels of the channel each of which links one of the antennas of the transmitter and one of the antennas of the receiver; an SVD unit which performs a singular value decomposition of the channel information matrix H to yield UDV H with U being a receive antenna weighting coefficient matrix and D representing a diagonal matrix of square roots of eigenvalues, so as to obtain a transmit antenna weighting coefficient matrix V whose entries represent weighting vectors for the respective antennas of the transmitter; and a signal sender which sends the components of a training signal from the respective antennas of the transmitter to the receiver with the components weighted by the transmit antenna weighting coefficient matrix V, wherein zero-forcing is applied in weighting the components of said training signal. a reference signal sender which feeds back reference signals for respective antennas of the receiver from the receiver to the transmitter; a channel information acquirer which calculates, based on the reference signals received by the transmitter, a channel information matrix H whose elements represent transfer functions of respective communication sub-channels of the channel each of which links one of the antennas of the transmitter and one of the antennas of the receiver; an SVD unit which performs a singular value decomposition of the channel information matrix H to yield UDV H with U being a receive antenna weighting coefficient matrix and D representing a diagonal matrix of square roots of eigenvalues, so as to obtain a transmit antenna weighting coefficient matrix V whose entries represent weighting vectors for the respective antennas of the transmitter; and a signal sender which sends the components of a training signal from the respective antennas of the transmitter to the receiver with the components weighted by the transmit antenna weighting coefficient matrix V, wherein zero-forcing is applied in weighting the components of said training signal.
A zoom lens consisting of: a first lens group having negative refractive power; a second lens group having positive refractive power; a third lens group having positive refractive power; and a fourth lens group having an iris on a side of the fourth lens group closest to the object side and positive refractive power, wherein the first lens group, the second lens group, the third lens group and the fourth lens group are arranged without inserting any other lenses in an order from an object side to an image side, wherein, while zooming from a wide angle position to a telephoto position, the first through fourth lens groups G4) are individually movable such that the interval between the first and second lens groups increases, the interval between the second and third lens groups decreases, and the interval between the third and fourth lens groups decreases, and focusing is performable by solely moving the third lens group. a first lens group having negative refractive power; a second lens group having positive refractive power; a third lens group having positive refractive power; and a fourth lens group having an iris on a side of the fourth lens group closest to the object side and positive refractive power, wherein the first lens group, the second lens group, the third lens group and the fourth lens group are arranged without inserting any other lenses in an order from an object side to an image side, wherein, while zooming from a wide angle position to a telephoto position, the first through fourth lens groups G4) are individually movable such that the interval between the first and second lens groups increases, the interval between the second and third lens groups decreases, and the interval between the third and fourth lens groups decreases, and focusing is performable by solely moving the third lens group.
A method of supplying and replenishing a laundry dosing system with one or more reservoirs providing one or more components for laundry, the method comprising: monitoring consumption of each of the components in the one or more reservoirs; automatically determining when each one or more reservoirs need replenishment from the monitoring; and replenishing one or more components in response to a monitoring result wherein the step of automatically determining when each of the one or more reservoirs need replenishment from the monitoring comprises: monitoring the amount of the component in each of the one or more reservoirs; analyzing whether the amount of component in each of the one or more reservoirs is below a certain threshold amount; and generating a replenishment signal associated with a specific reservoir when the component in that reservoir is below the threshold amount and characterized in that the method further comprises: analyzing whether the amount of component in each of the one or more reservoirs is below a second threshold amount; and generating a replenishment signal associated with a specific reservoir when the component in that reservoir is below the second threshold amount. monitoring consumption of each of the components in the one or more reservoirs; automatically determining when each one or more reservoirs need replenishment from the monitoring; and replenishing one or more components in response to a monitoring result wherein the step of automatically determining when each of the one or more reservoirs need replenishment from the monitoring comprises: monitoring the amount of the component in each of the one or more reservoirs; analyzing whether the amount of component in each of the one or more reservoirs is below a certain threshold amount; and generating a replenishment signal associated with a specific reservoir when the component in that reservoir is below the threshold amount and characterized in that the method further comprises: analyzing whether the amount of component in each of the one or more reservoirs is below a second threshold amount; and generating a replenishment signal associated with a specific reservoir when the component in that reservoir is below the second threshold amount. monitoring the amount of the component in each of the one or more reservoirs; analyzing whether the amount of component in each of the one or more reservoirs is below a certain threshold amount; and generating a replenishment signal associated with a specific reservoir when the component in that reservoir is below the threshold amount and characterized in that the method further comprises: analyzing whether the amount of component in each of the one or more reservoirs is below a second threshold amount; and generating a replenishment signal associated with a specific reservoir when the component in that reservoir is below the second threshold amount.
A method of operating a home-automation installation comprising elements including appliances (11, 12, 13, 14, 15, 16, 17, 18) fixed in a building (101, 102) and including a mobile unit for control of the appliances, the elements communicating on a home-automation network, each element being furnished with its own specific identifier and with an authentication key specific to the home-automation network, termed "common key", identical for all the elements and authenticating an element's membership of the home-automation network, characterized in that it comprises: - a step of locating the mobile control unit with the aid of a localization means (41, 33) included at least partially in the mobile control unit and delivering a position information, and then - a step of spotting using a spotting criterion using at least the position information to spot a particular appliance, in that the spotting step allows the identification of the particular appliance in a usage mode of the home-automation installation and allows the localization of the particular appliance in a configuration mode of the home-automation installation, in that the method comprises a configuration step in which the position of the particular appliance, determined during the spotting step on the basis of the localization of the mobile control unit, is recorded in a cartographic memory, in that an information of position of the mobile control unit is processed for identifying the particular appliance in a use mode, and in that position coordinates of the particular appliance are recorded in the cartographic memory in conjunction with the identifier of the particular appliance. characterized in that it comprises: - a step of locating the mobile control unit with the aid of a localization means (41, 33) included at least partially in the mobile control unit and delivering a position information, and then - a step of spotting using a spotting criterion using at least the position information to spot a particular appliance, - a step of locating the mobile control unit with the aid of a localization means (41, 33) included at least partially in the mobile control unit and delivering a position information, and then - a step of spotting using a spotting criterion using at least the position information to spot a particular appliance, in that the spotting step allows the identification of the particular appliance in a usage mode of the home-automation installation and allows the localization of the particular appliance in a configuration mode of the home-automation installation, in that the method comprises a configuration step in which the position of the particular appliance, determined during the spotting step on the basis of the localization of the mobile control unit, is recorded in a cartographic memory, in that an information of position of the mobile control unit is processed for identifying the particular appliance in a use mode, and in that position coordinates of the particular appliance are recorded in the cartographic memory in conjunction with the identifier of the particular appliance.
A rear face element (1, 1', 1") for a solar module formed from a material sheet that is shaped, cut into in some sections, in particular embossed and/or stamped, wherein some sections of the material sheet are arranged in a first plane and some sections are arranged in at least one second plane parallel to the first plane, and wherein the material sheet forms spacing elements in a transitional region from the first plane to the second plane in order to keep the first plane at a spacing distance from the second plane, and wherein at least one first material sheet section (11, 11') extends continuously, in particular in a linear manner, from a first lateral edge to an opposite second lateral edge of the material sheet in the first plane, wherein n first material sheet sections (11, 11'), where n = 1, 2, 3, 4, 5, 6, 7, 8, 9 or more, extend from a first side edge to an opposite second side edge of the material sheet in the first plane and/or m second material sheet sections (13, 13'), where m = 1, 2, 3, 4, 5, 6, 7, 8, 9 or more, extend from a third side edge of the material sheet to an opposite fourth side edge in the first plane, wherein the first and second material sheet sections (11, 11', 13, 13') extend at right angles to one another, and wherein the material sheet sections produced from the material sheet by shaping and cutting-in form openings in the rear face element at least in some sections, in those regions in which they do not lie in the same plane.
A method of forming a polymer substrate for a security sheet, comprising: providing first and second overlapping polymer layers (31, 37) each providing outwardly facing surfaces (31a, 37a), and a colour shifting element positioned between the first and second polymer layers adapted to provide a first optical effect to a viewer, wherein the first polymer layer comprises a region substantially transparent to visible light such that the colour shifting element is viewable through the first polymer layer, and; joining together the first and second polymer layers in order to generate a polymer substrate wherein, during the joining step, a surface relief is formed in the outwardly facing surface of the first layer, the surface relief being adapted to interact with light from the colour shifting element in order to modify the first optical effect to provide a second optical effect different from the first optical effect; characterised in that the surface relief comprises a microprismatic structure, wherein the microprismatic structure comprises a plurality of microprisms. joining together the first and second polymer layers in order to generate a polymer substrate wherein, during the joining step, a surface relief is formed in the outwardly facing surface of the first layer, the surface relief being adapted to interact with light from the colour shifting element in order to modify the first optical effect to provide a second optical effect different from the first optical effect; characterised in that the surface relief comprises a microprismatic structure, wherein the microprismatic structure comprises a plurality of microprisms.
Pharmaceutical composition, containing a) water, b) at least one topically applicable active agent, c) at least one carrier substance for the active agent, wherein the carrier substance is a substance forming a lamellar double membrane structure with water, d) at least one compound containing at least one functional group of the general formula I - CH 2 - N ⊕ - (CH 3) 3 (formula I), wherein this compound is selected from the group comprising betaine, acetylcholine, choline, glycerophosphocholine, phosphatidylcholine, lysophosphatidylcholine, carnitine, acylcarnitine and sphingomyeline, and/or S-adenosylmethionine, and e) at least one N-acyl-ethanolamine, f) wherein this composition further contains a lamellar double membrane structure such that it has a layer structure in which an upper layer of the carrier substance is oriented towards a lower layer of the carrier substance such that the hydrophilic residues of the carrier substance each point outwards to the aqueous phases surrounding the carrier substance layers, while the lipophilic residues of the carrier substance are oriented inwards towards each other, wherein the composition comprises layered double membranes, containing at least two double membranes which are mostly planar and each separated by at least one water layer, and the carrier substance contains a hydrogenated phospholipid having at least 60% by weight of hydrogenated phosphatidylcholine. a) water, b) at least one topically applicable active agent, c) at least one carrier substance for the active agent, wherein the carrier substance is a substance forming a lamellar double membrane structure with water, d) at least one compound containing at least one functional group of the general formula I - CH 2 - N ⊕ - (CH 3) 3 (formula I), wherein this compound is selected from the group comprising betaine, acetylcholine, choline, glycerophosphocholine, phosphatidylcholine, lysophosphatidylcholine, carnitine, acylcarnitine and sphingomyeline, and/or S-adenosylmethionine, and e) at least one N-acyl-ethanolamine, f) wherein this composition further contains a lamellar double membrane structure such that it has a layer structure in which an upper layer of the carrier substance is oriented towards a lower layer of the carrier substance such that the hydrophilic residues of the carrier substance each point outwards to the aqueous phases surrounding the carrier substance layers, while the lipophilic residues of the carrier substance are oriented inwards towards each other, wherein the composition comprises layered double membranes, containing at least two double membranes which are mostly planar and each separated by at least one water layer, and the carrier substance contains a hydrogenated phospholipid having at least 60% by weight of hydrogenated phosphatidylcholine.
A method, comprising: encoding, with a first encoder, a primary sub-picture of a frame of video to obtain an encoded primary sub-picture of the frame of video; encoding, with a second encoder, a first secondary sub-picture of the frame of video to obtain an encoded first secondary sub-picture of the frame of video; encoding, with a third encoder, a second secondary sub-picture of the frame of video to obtain an encoded second secondary sub-picture of the frame of video, wherein the second secondary sub-picture is different from the first secondary sub-picture; combining the encoded primary sub-picture with the encoded first secondary sub-picture to obtain a first video stream; combining the encoded primary sub-picture with the encoded second secondary sub-picture to obtain a second video stream; and transmitting the first and second video streams to respective recipients; characterized by further comprising calculating a combined bit rate based on a bit rate of the encoded primary sub-picture and a highest bit rate of the encoded first and second secondary sub-pictures, and adjusting a quantization parameter based on whether the combined bit rate is within an acceptable bit rate range for succeeding encodings performed by the first, second and third encoders. encoding, with a first encoder, a primary sub-picture of a frame of video to obtain an encoded primary sub-picture of the frame of video; encoding, with a second encoder, a first secondary sub-picture of the frame of video to obtain an encoded first secondary sub-picture of the frame of video; encoding, with a third encoder, a second secondary sub-picture of the frame of video to obtain an encoded second secondary sub-picture of the frame of video, wherein the second secondary sub-picture is different from the first secondary sub-picture; combining the encoded primary sub-picture with the encoded first secondary sub-picture to obtain a first video stream; combining the encoded primary sub-picture with the encoded second secondary sub-picture to obtain a second video stream; and transmitting the first and second video streams to respective recipients; characterized by further comprising calculating a combined bit rate based on a bit rate of the encoded primary sub-picture and a highest bit rate of the encoded first and second secondary sub-pictures, and adjusting a quantization parameter based on whether the combined bit rate is within an acceptable bit rate range for succeeding encodings performed by the first, second and third encoders.
A protection mechanism for a working vehicle, comprising: a roof provided above an operator's seat; a pillar which extends upward from a vehicle body and which supports the roof; a camera unit with a predetermined viewing direction; and a support stay which is connected to the pillar, which orients the viewing direction of the camera unit sideways, and which supports the camera unit below a peripheral portion of the roof, characterized in that the support stay includes a routing unit to route a transmission line from the pillar to the roof. a roof provided above an operator's seat; a pillar which extends upward from a vehicle body and which supports the roof; a camera unit with a predetermined viewing direction; and a support stay which is connected to the pillar, which orients the viewing direction of the camera unit sideways, and which supports the camera unit below a peripheral portion of the roof, characterized in that the support stay includes a routing unit to route a transmission line from the pillar to the roof.
A device comprising: an augmented-reality head-mounted display; and processing circuitry configured to: receive a planned flightpath of an unmanned aerial vehicle; determine a location of the UAV; determine a position and orientation of the AR HMD; output for display on the AR HMD a graphical element indicating the planned flightpath with respect to the location of the UAV; based on the location of the UAV and the position and orientation of the AR HMD, determine that the UAV is outside of a field of view of the AR HMD; in response to determining that the UAV is outside of the field of view of the AR HMD, present, on the AR HMD, an indication of a movement to bring the UAV within the field of view of the AR HMD; determine a location of an obstacle near the planned flightpath; and present, on the AR HMD, a graphical element indicating the location of the obstacle based on the orientation of the AR HMD. an augmented-reality head-mounted display; and processing circuitry configured to: receive a planned flightpath of an unmanned aerial vehicle; determine a location of the UAV; determine a position and orientation of the AR HMD; output for display on the AR HMD a graphical element indicating the planned flightpath with respect to the location of the UAV; based on the location of the UAV and the position and orientation of the AR HMD, determine that the UAV is outside of a field of view of the AR HMD; in response to determining that the UAV is outside of the field of view of the AR HMD, present, on the AR HMD, an indication of a movement to bring the UAV within the field of view of the AR HMD; determine a location of an obstacle near the planned flightpath; and present, on the AR HMD, a graphical element indicating the location of the obstacle based on the orientation of the AR HMD. receive a planned flightpath of an unmanned aerial vehicle; determine a location of the UAV; determine a position and orientation of the AR HMD; output for display on the AR HMD a graphical element indicating the planned flightpath with respect to the location of the UAV; based on the location of the UAV and the position and orientation of the AR HMD, determine that the UAV is outside of a field of view of the AR HMD; in response to determining that the UAV is outside of the field of view of the AR HMD, present, on the AR HMD, an indication of a movement to bring the UAV within the field of view of the AR HMD; determine a location of an obstacle near the planned flightpath; and present, on the AR HMD, a graphical element indicating the location of the obstacle based on the orientation of the AR HMD.
A compound having the formula: wherein X is a linking moiety, Y is an amino acid residue covalently coupled to a hydrophobic moiety, Z is a cell-penetrating peptide moiety, wherein the CPP moiety has a net positive charge and has an amino acid sequence with 50% or more residues having a guanidinium group, and m and n are independently 0 or 1, wherein (i) at least one of m and n is 1 and the amino acid residue is lysine, or (ii) m and n are 0, and Z 1 and/or Z 2 is a CPP that comprises an N-terminal-most lysine residue linked to a hydrophobic moiety. X is a linking moiety, Y is an amino acid residue covalently coupled to a hydrophobic moiety, Z is a cell-penetrating peptide moiety, wherein the CPP moiety has a net positive charge and has an amino acid sequence with 50% or more residues having a guanidinium group, and m and n are independently 0 or 1, wherein (i) at least one of m and n is 1 and the amino acid residue is lysine, or (ii) m and n are 0, and Z 1 and/or Z 2 is a CPP that comprises an N-terminal-most lysine residue linked to a hydrophobic moiety. (i) at least one of m and n is 1 and the amino acid residue is lysine, or (ii) m and n are 0, and Z 1 and/or Z 2 is a CPP that comprises an N-terminal-most lysine residue linked to a hydrophobic moiety.