mhurhangee/ep-ind-claims huggingface dataset:
A multi-spectral holographic security marker comprising an image plane volume hologram recorded to have a first replay frequency in a light-sensitive film data carrier; wherein the film data carrier comprises a polymeric material that is pressure-sensitive so that, depending on compression extent, the final replay frequency of the compressed recorded volume hologram is shifted away from the first replay frequency; wherein the image plane volume hologram recorded in the film data carrier comprises graphical data or a linear code or a matrix code containing security data; different areas of the film data carrier have been compressed after recordal of the volume hologram therein, with the result that each said different areas of the film data carrier that have undergone a same compression has a same replay frequency for the volume hologram recorded therein, with the different areas having boundaries which together form a security identification code or pattern which provides further security data; and a surface hologram is impressed, on the surface of the film carrier or on a surface coating thereon, over areas of the security marker in which the recorded volume hologram has the same replay frequency, with the boundaries of the surface hologram corresponding precisely with the boundaries of the said areas of the security marker in which the recorded volume hologram has said same replay frequency.
A rotary screen printing press, including: screen-plate supporting means for supporting a screen plate formed in a cylindrical shape; screen-plate engaging-disengaging means for moving the screen-plate supporting means between a print position and a retreat position; and squeegee supporting means for supporting a squeegee while the squeegee is engageable with and disengageable from an inner periphery of the screen plate; characterized in that the screen-plate supporting means includes a sub-frame supporting opposite ends of the screen plate in an axial direction, and the squeegee supporting means includes supporting plates supporting the squeegee swingably between a position at which the squeegee contacts the inner peripheral surface of the screen plate and a position at which the squeegee is separated from the inner peripheral surface of the screen plate, wherein the supporting plates are supported on the sub-frame in such a way that the squeegee supporting means is supported on the screen-plate supporting means. screen-plate supporting means for supporting a screen plate formed in a cylindrical shape; screen-plate engaging-disengaging means for moving the screen-plate supporting means between a print position and a retreat position; and squeegee supporting means for supporting a squeegee while the squeegee is engageable with and disengageable from an inner periphery of the screen plate; characterized in that the screen-plate supporting means includes a sub-frame supporting opposite ends of the screen plate in an axial direction, and the squeegee supporting means includes supporting plates supporting the squeegee swingably between a position at which the squeegee contacts the inner peripheral surface of the screen plate and a position at which the squeegee is separated from the inner peripheral surface of the screen plate, wherein the supporting plates are supported on the sub-frame in such a way that the squeegee supporting means is supported on the screen-plate supporting means.
A light output device (10, 50, 70), comprising: a first light source (12a, 52a, 72a); a second light source (12b, 52b, 72b); a partly transparent mirror (16, 56, 76), and collimating means (14a, 14b, 54a, 54b, 74) being adapted to at least partly collimate the light of the first and second light sources, such that during operation substantially all the at least partly collimated light of the first and second light sources is incident on the partly transparent mirror; said partly transparent mirror being arranged for, during operation, receiving substantially all the at least partly collimated light emitted by the first and second light sources, and reflecting part of the light emitted by the first light source and transmitting part of the light emitted by the second light source, and vice versa, such that the light from the first light source is completely superimposed onto the light from the second light source following reflection/transmission at the partly transparent mirror, characterized by: said collimating means comprising mirrorwise arranged portions corresponding to said first light source and said second light source, respectively, said first light source and said second light source being arranged on outer ends of said collimating means. a first light source (12a, 52a, 72a); a second light source (12b, 52b, 72b); a partly transparent mirror (16, 56, 76), and collimating means (14a, 14b, 54a, 54b, 74) being adapted to at least partly collimate the light of the first and second light sources, such that during operation substantially all the at least partly collimated light of the first and second light sources is incident on the partly transparent mirror; said partly transparent mirror being arranged for, during operation, receiving substantially all the at least partly collimated light emitted by the first and second light sources, and reflecting part of the light emitted by the first light source and transmitting part of the light emitted by the second light source, and vice versa, such that the light from the first light source is completely superimposed onto the light from the second light source following reflection/transmission at the partly transparent mirror, said collimating means comprising mirrorwise arranged portions corresponding to said first light source and said second light source, respectively, said first light source and said second light source being arranged on outer ends of said collimating means.
A method for network slicing for use in a slicer in a node, the method comprising: receiving scan reports from a plurality of access points, AP; partitioning a wireless communication network into clusters of APs for which scan reports are received, the APs being partitioned into clusters based on neighbor relationships, there being a first limit to a number of APs that can be in a cluster; segmenting the clusters into segments; wherein the APs in a segment are connected, the segmenting being performed according to a minimization of connectivity of APs in different segments, and there being a second limit to a number of APs that can be in a segment; and deleting an AP if the node does not receive a scan report from the deleted AP for a specified period of time, wherein the node is a self-organizing network, SON, manager node. receiving scan reports from a plurality of access points, AP; partitioning a wireless communication network into clusters of APs for which scan reports are received, the APs being partitioned into clusters based on neighbor relationships, there being a first limit to a number of APs that can be in a cluster; segmenting the clusters into segments; wherein the APs in a segment are connected, the segmenting being performed according to a minimization of connectivity of APs in different segments, and there being a second limit to a number of APs that can be in a segment; and deleting an AP if the node does not receive a scan report from the deleted AP for a specified period of time, wherein the node is a self-organizing network, SON, manager node.
Throttle valve connector for an internal combustion engine, comprising a primary channel which has an inlet opening and an outlet opening, a throttle valve which is centrically connected to a throttle valve shaft that is rotatably supported in the primary channel such that a throttle valve upper half and a throttle valve lower half are defined, and a first throttle valve stop device which is formed on an inner wall surface of the primary channel and against which a front face edge of the throttle valve upper half and a rear face edge of the throttle valve lower half rest in a first blocking position that closes the outlet opening, wherein the inner wall surface of the primary channel is formed with a second throttle valve stop means, against which a rear face edge of the throttle valve upper half and a front face edge of the throttle valve lower half rest in a second blocking position that closes the inlet opening, characterized in that the throttle valve stop means (331, 332) each have a cylindrical contour (34, 35) designed such that the throttle valve is adapted to be turned in a contactless manner along the contour (34, 35) towards a blocking position (101, 102) and, in the blocking position (101, 102), rests on a stop section (331a, 332b) of the contour (34, 35) by at least one edge (21a, 21b, 22a, 22b).
An optical device, comprising: two substrates (30, 44) in an opposite arrangement, each of which has a surrounding edge and a side surface (30a, 44a) at the surrounding edge; a wavelength conversion layer disposed between the substrates (30, 44), wherein the wavelength conversion layer is encapsulated by a moisture blocking layer (341, 342) in association with one of the substrates (30, 44); a light emitting unit disposed corresponding to the wavelength conversion layer and between the corresponding wavelength conversion layer and one of the substrates; a sealing element sealing the wavelength conversion layer and the light emitting unit between the substrates (30, 44), along the edges and in contact with the side surfaces (30a, 44a) of the substrates (30, 44); and a bank structure disposed on the one of the substrates (30, 44), characterised by the bank structure having an outer taper portion covered by the moisture blocking layer and an inner taper portion not covered by the moisture blocking layer, wherein the inner taper portion is closer to the wavelength conversion layer than the outer taper portion, and wherein an angle (θ2) of the outer taper portion is less than an angle of the inner taper portion. two substrates (30, 44) in an opposite arrangement, each of which has a surrounding edge and a side surface (30a, 44a) at the surrounding edge; a wavelength conversion layer disposed between the substrates (30, 44), wherein the wavelength conversion layer is encapsulated by a moisture blocking layer (341, 342) in association with one of the substrates (30, 44); a light emitting unit disposed corresponding to the wavelength conversion layer and between the corresponding wavelength conversion layer and one of the substrates; a sealing element sealing the wavelength conversion layer and the light emitting unit between the substrates (30, 44), along the edges and in contact with the side surfaces (30a, 44a) of the substrates (30, 44); and a bank structure disposed on the one of the substrates (30, 44), characterised by the bank structure having an outer taper portion covered by the moisture blocking layer and an inner taper portion not covered by the moisture blocking layer, wherein the inner taper portion is closer to the wavelength conversion layer than the outer taper portion, and wherein an angle (θ2) of the outer taper portion is less than an angle of the inner taper portion.
A method for the preparation of a glucagon peptide, comprising: a) Providing a liquid composition comprising a glucagon peptide and at least one unwanted component; b) Subjecting the composition to a first reversed phase high performance liquid chromatography (RP-HPLC) purification, wherein a hydrocarbon bonded silica is used as a stationary phase, an aqueous mobile phase comprising triethylammonium phosphate and acetonitrile is used, and elution is effected by gradually increasing the acetonitrile concentration within the mobile phase while collecting fractions containing the glucagon peptide; and c) Subjecting the pooled glucagon peptide containing fractions obtained in step b) to a second reversed phase HPLC purification, wherein a hydrocarbon bonded silica is used as a stationary phase, a mobile phase comprising acetic acid and acetonitrile is used, and elution is effected by gradually increasing the acetonitrile concentration within the mobile phase while collecting fractions containing the purified glucagon peptide. a) Providing a liquid composition comprising a glucagon peptide and at least one unwanted component; b) Subjecting the composition to a first reversed phase high performance liquid chromatography (RP-HPLC) purification, wherein a hydrocarbon bonded silica is used as a stationary phase, an aqueous mobile phase comprising triethylammonium phosphate and acetonitrile is used, and elution is effected by gradually increasing the acetonitrile concentration within the mobile phase while collecting fractions containing the glucagon peptide; and c) Subjecting the pooled glucagon peptide containing fractions obtained in step b) to a second reversed phase HPLC purification, wherein a hydrocarbon bonded silica is used as a stationary phase, a mobile phase comprising acetic acid and acetonitrile is used, and elution is effected by gradually increasing the acetonitrile concentration within the mobile phase while collecting fractions containing the purified glucagon peptide.
A terminal comprising: a receiving section configured to receive a system information including first information regarding a PUCCH resource and a downlink control information including second information regarding a PUCCH resource; and a control section configured to control a transmission of uplink control information based on the first information regarding a PUCCH resource and the second information regarding a PUCCH resource. a receiving section configured to receive a system information including first information regarding a PUCCH resource and a downlink control information including second information regarding a PUCCH resource; and a control section configured to control a transmission of uplink control information based on the first information regarding a PUCCH resource and the second information regarding a PUCCH resource.
A working machine comprising: a first generator having: a rotor to be rotated by power from a PTO shaft; a rotor coil provided to the rotor; and a stator coil to generate electricity when magnetizing current is applied to the rotor coil; and a working device to be operated by the electricity generated by the first generator, the working machine characterized by; a converter device (720, 850) to convert surplus electricity not consumed by the working device into the magnetizing current to be applied to the rotor coil a traveling vehicle with a prime mover to tow the working device, the traveling vehicle having: a second generator to generate electricity using power of the prime mover; and a first battery device to store electricity generated by the second generator, wherein the converter device has: a DC/DC converter to convert the inputted electricity into the magnetizing current; and a first switch to switch between: a first position to allow electricity of any one of the second generator and the first battery device to be outputted to the DC/DC converter; and a second position to allow the surplus electricity to be outputted to the DC/DC converter. a first generator having: a rotor to be rotated by power from a PTO shaft; a rotor coil provided to the rotor; and a stator coil to generate electricity when magnetizing current is applied to the rotor coil; and a working device to be operated by the electricity generated by the first generator, the working machine characterized by; a converter device (720, 850) to convert surplus electricity not consumed by the working device into the magnetizing current to be applied to the rotor coil a traveling vehicle with a prime mover to tow the working device, the traveling vehicle having: a second generator to generate electricity using power of the prime mover; and a first battery device to store electricity generated by the second generator, wherein the converter device has: a DC/DC converter to convert the inputted electricity into the magnetizing current; and a first switch to switch between: a first position to allow electricity of any one of the second generator and the first battery device to be outputted to the DC/DC converter; and a second position to allow the surplus electricity to be outputted to the DC/DC converter. a DC/DC converter to convert the inputted electricity into the magnetizing current; and a first switch to switch between: a first position to allow electricity of any one of the second generator and the first battery device to be outputted to the DC/DC converter; and a second position to allow the surplus electricity to be outputted to the DC/DC converter. a first position to allow electricity of any one of the second generator and the first battery device to be outputted to the DC/DC converter; and a second position to allow the surplus electricity to be outputted to the DC/DC converter.
Device arranged on a joining robot for storing and separating joining elements, comprising at least one separating module (11, 21) with a reservoir (12, 22) for joining elements, an orientation device (15, 25) for joining elements located in the reservoir (12, 22), a buffer section (16, 26) in which the oriented joining elements are lined up one behind the other, and an output device connected to the buffer section (16, 26), which output device is configured as a circular ring (18, 28) with two nests (19, 29) that are offset by 180° from one another and are each intended to receive an individual joining element from the buffer section (16, 26), characterised in that the output device has at opposite ends two hose outlets (17, 33) to two different joining tools of the joining robot.
A method of treating wood as a cellulosic material by bringing it into contact with at least one hydrophobin, wherein for the treatment there is used a composition comprising at least one hydrophobin and an aqueous solvent of which at least 50% by weight is water, and the composition penetrates beneath the surface of the cellulosic material.
A method for receiving, by a user equipment, UE, (100, 200) downlink signals in a wireless communication system, the method comprising: starting, by the UE (100, 200), a downlink, DL, discontinuous reception, DRX, retransmission timer for a DL hybrid automatic repeat and request, HARQ, process of the UE (100, 200), wherein the DL DRX retransmission timer specifies a maximum number of consecutive physical downlink control channel, PDCCH, subframes until a DL retransmission is received; and monitoring, by the UE (100, 200), a PDCCH, in a state in which the DL DRX retransmission timer for the DL HARQ process is running, and the method characterized by further comprising: stopping, by the UE (100, 200), the DL DRX retransmission timer for the DL HARQ process, when the UE (100, 200) receives a PDCCH that schedules a uplink, UL, transmission. starting, by the UE (100, 200), a downlink, DL, discontinuous reception, DRX, retransmission timer for a DL hybrid automatic repeat and request, HARQ, process of the UE (100, 200), wherein the DL DRX retransmission timer specifies a maximum number of consecutive physical downlink control channel, PDCCH, subframes until a DL retransmission is received; and monitoring, by the UE (100, 200), a PDCCH, in a state in which the DL DRX retransmission timer for the DL HARQ process is running, and the method characterized by further comprising: stopping, by the UE (100, 200), the DL DRX retransmission timer for the DL HARQ process, when the UE (100, 200) receives a PDCCH that schedules a uplink, UL, transmission.
A method for fault detection and recovery for concurrent odometry and mapping, the method comprising: modifying, at an electronic device, a three-dimensional representation of an environment of the electronic device based on first mapping data received from a motion tracking module, wherein the first mapping data is based on images captured from one or more visual sensors (114, 116) and non-visual data from one or more non-image sensors providing inertial sensor data; in response to receiving second mapping data from the motion tracking module after receiving an indication from the motion tracking module that a fault condition exists, wherein the fault condition comprises the electronic device changing direction at a higher rate than a rate at which the motion tracking module can generate accurate mapping data, omitting the second mapping data from the three-dimensional representation; and in response to receiving third mapping data from the motion tracking module after receiving an indication from the motion tracking module that the fault condition has resolved, modifying the three-dimensional representation based on the third mapping data. modifying, at an electronic device, a three-dimensional representation of an environment of the electronic device based on first mapping data received from a motion tracking module, wherein the first mapping data is based on images captured from one or more visual sensors (114, 116) and non-visual data from one or more non-image sensors providing inertial sensor data; in response to receiving second mapping data from the motion tracking module after receiving an indication from the motion tracking module that a fault condition exists, wherein the fault condition comprises the electronic device changing direction at a higher rate than a rate at which the motion tracking module can generate accurate mapping data, omitting the second mapping data from the three-dimensional representation; and in response to receiving third mapping data from the motion tracking module after receiving an indication from the motion tracking module that the fault condition has resolved, modifying the three-dimensional representation based on the third mapping data.