mhurhangee/ep-ind-claims huggingface dataset:
A backward tension applying mechanism for twisting paired electric wires, comprising: a pair of electric wire clamps and a pair of air cylinders which are designed to automatically release the fixing of the electric wires by the clamps; a pair of movable base plates to which the pair of electric wire clamps are respectively fixed; a common stationary base plate with which the pair of movable base plates are brought into engagement so as to be slidable independently from each other in a longitudinal direction of the electric wires along guide rails; and another pair of air cylinders which apply backward tension to connect the common stationary base plate with the pair of movable base plates. a pair of electric wire clamps and a pair of air cylinders which are designed to automatically release the fixing of the electric wires by the clamps; a pair of movable base plates to which the pair of electric wire clamps are respectively fixed; a common stationary base plate with which the pair of movable base plates are brought into engagement so as to be slidable independently from each other in a longitudinal direction of the electric wires along guide rails; and another pair of air cylinders which apply backward tension to connect the common stationary base plate with the pair of movable base plates.
A liquid laundry composition comprising: from 6% to 50%, by weight of the laundry composition, of a surfactant component, preferably from 15% to 35%, by weight of the laundry composition, of a surfactant component, characterized in that the surfactant component comprises; a) from 0.5% to 30%, preferably from 1% to 20%, by weight of the laundry composition, of an HLAS surfactant comprising alkyl benzene sulfonic acids, alkali metal or amine salts of C10-16 alkyl benzene sulfonic acids, or a combination thereof, wherein the HLAS surfactant comprises greater than 50% C12, preferably greater than 60%, preferably greater than 70% C12, more preferably greater than 75%, and b) a second surfactant, wherein the surfactant component comprises from 30% to 75% by weight of the HLAS surfactant, wherein the composition further comprises between 2% to 10% by weight of an alkyl ethoxylated sulfate surfactant. from 6% to 50%, by weight of the laundry composition, of a surfactant component, preferably from 15% to 35%, by weight of the laundry composition, of a surfactant component, characterized in that the surfactant component comprises; a) from 0.5% to 30%, preferably from 1% to 20%, by weight of the laundry composition, of an HLAS surfactant comprising alkyl benzene sulfonic acids, alkali metal or amine salts of C10-16 alkyl benzene sulfonic acids, or a combination thereof, wherein the HLAS surfactant comprises greater than 50% C12, preferably greater than 60%, preferably greater than 70% C12, more preferably greater than 75%, and b) a second surfactant, wherein the surfactant component comprises from 30% to 75% by weight of the HLAS surfactant, wherein the composition further comprises between 2% to 10% by weight of an alkyl ethoxylated sulfate surfactant.
A ceramic article having a composition comprising u (Al 2 O 3 -TiO 2) + v + w (3Al 2 O 3 -2SiO 2) + x (Al 2 O 3) + y (SiO 2) + z (1.1SrO-1.5Al 2 O 3 -13.6SiO 2 -TiO 2) + a (Fe 2 O 3 -TiO 2) + b (MgO-2TiO 2), where, R is SrO-Al 2 O 3 -2SiO 2 or 11.2SrO-10.9Al 2 O 3 -24.1SiO 2 -TiO 2, where u, v, w, x, y, z, a and b are weight fractions of each component such that (u+v+w+x+y+z+a+b=1), and 0.5 <u≤ 0.95, 0.01 <v≤ 0.5, 0.01 <w≤ 0.5, 0 <x≤ 0.5, 0 <y≤ 0.1, 0 <z≤ 0.5, 0 <a≤ 0.3, and 0 <b≤ 0.3.
A method of fault analysis for an electric network having a plurality of multi-phase buses, the method comprising: computing equivalent circuits for the multi-phase buses of interest, each equivalent circuit including an NxN impedance matrix (Z TE) where N corresponds to the number of phases of the multi-phase bus for which that equivalent circuit is computed; determining elements of the impedance matrices (Z TE) based on voltages resulting from a plurality of experimental current injection vectors (I X) and a factorized pre-fault admittance matrix (Y pre), the pre-fault admittance matrix (Y pre) representing nodal admittance of the multi-phase buses without faults; determining a fault current injection vector (I f) for each multi-phase bus and fault type of interest based on the equivalent circuit determined for that multi-phase bus; and determining a fault voltage vector (V f) for each multi-phase bus and fault type of interest based on the factorized pre-fault admittance matrix (Y pre) and the fault current injection vector (I f) determined for that multi-phase bus and fault type. computing equivalent circuits for the multi-phase buses of interest, each equivalent circuit including an NxN impedance matrix (Z TE) where N corresponds to the number of phases of the multi-phase bus for which that equivalent circuit is computed; determining elements of the impedance matrices (Z TE) based on voltages resulting from a plurality of experimental current injection vectors (I X) and a factorized pre-fault admittance matrix (Y pre), the pre-fault admittance matrix (Y pre) representing nodal admittance of the multi-phase buses without faults; determining a fault current injection vector (I f) for each multi-phase bus and fault type of interest based on the equivalent circuit determined for that multi-phase bus; and determining a fault voltage vector (V f) for each multi-phase bus and fault type of interest based on the factorized pre-fault admittance matrix (Y pre) and the fault current injection vector (I f) determined for that multi-phase bus and fault type.
Column for separating air by cryogenic distillation having one shell and at least five distillation sections (24, 25, 26, 27, 28, 29), each section being made up of a stack of cross-corrugated structured packing blocks, each block comprising a packet of rectangular corrugated plates, the at least five distillation sections comprising at least a first intermediate distillation section of the column surrounded by an auxiliary shell around which is delimited, in the radial direction of the column, a space divided into a lower section and an upper section, and a second intermediate distillation section being arranged such that, when the column is in use, the second intermediate section is above the first intermediate section, the intermediate sections being positioned in an intermediate portion of the column, the shell comprising a first opening in the space between the first and second intermediate sections and a second opening above the second intermediate section, the first and second openings being designed to be connected to a liquid inlet pipe, and, when the column is in use, the second opening being open, the packing is selected such that, when the column is in use, the capacity of the first intermediate section is greater than the capacity of at least one adjacent section, or than the capacity of the other sections of the column, and the at least five distillation sections comprising a third intermediate distillation section arranged such that, when the column is in use, the third intermediate section is above the second intermediate section, the second opening being in the space between the second and third intermediate sections and a third opening being in the space above the third section and being designed to be connected to a liquid inlet pipe, and when the column is in use, the third opening being closed off.
N -hydroxy-4-{2-[3-( N,N -dimethylaminomethyl) benzofuran-2-ylcarbonylamino] ethoxy} benzamide of formula I: or one of its addition salts with an acid or a pharmaceutically acceptable base, alone or in combination with surgical treatment, or chemotherapy, hormonal therapy, or radiotherapy, for use in treating cancer in the human patient, characterized in that it is administered for 4 consecutive days, this period being followed by 3 consecutive days without administration of the compound of formula I, it being understood that the chemotherapy treatment should not be with FOLFOX (oxaliplatin/folinic acid/5-fluorouracil).
A method performed by a first network entity where a secondary next generation node B, SgNB, and a target gNB are co-located, the method comprising: receiving, by the target gNB from an access and mobility management function, AMF, a handover request message for an inter-system handover of a user equipment, UE, from an evolved packet system, EPS, to a 5G system, 5GS, wherein the SgNB is associated with an evolved node B, eNB, in a dual connectivity, wherein the SgNB is used as a target gNB associated with the 5GS, and wherein the handover request message includes an SgNB UE X2 application protocol ID, SgNB UE X2AP ID for identifying a UE over X2 interface in the SgNB; transmitting, by the target gNB to the AMF, an acknowledge of the handover request message; and receiving, by the SgNB, downlink user plane, UP, data, wherein a data forwarding for the downlink UP data in a node-internal way for a bearer terminated at the SgNB is performed between the SgNB and the target gNB in case that the SgNB identifies the bearer as terminated at the SgNB, and wherein the SgNB UE X2AP ID is allocated at the SgNB. receiving, by the target gNB from an access and mobility management function, AMF, a handover request message for an inter-system handover of a user equipment, UE, from an evolved packet system, EPS, to a 5G system, 5GS, wherein the SgNB is associated with an evolved node B, eNB, in a dual connectivity, wherein the SgNB is used as a target gNB associated with the 5GS, and wherein the handover request message includes an SgNB UE X2 application protocol ID, SgNB UE X2AP ID for identifying a UE over X2 interface in the SgNB; transmitting, by the target gNB to the AMF, an acknowledge of the handover request message; and receiving, by the SgNB, downlink user plane, UP, data, wherein a data forwarding for the downlink UP data in a node-internal way for a bearer terminated at the SgNB is performed between the SgNB and the target gNB in case that the SgNB identifies the bearer as terminated at the SgNB, and wherein the SgNB UE X2AP ID is allocated at the SgNB.
A vehicle comprising: - a vehicle body; and - a vibration-to-electric energy converter by translating reciprocating motion of vibrating elements of the vehicle to circular motion of a driveshaft of an electric generator, fitted with at least one drive unit containing a toothed gearing and at least one freewheel, characterized in that it has a movable element that transmits vibrations to two ends of a drive chain, finished with fixing elements with nuts used for tension adjustments and with tensioning springs, one on each of the two ends of the drive chain, whereby the chain interacts with a cogwheel of at least one gearing, coupled via a freewheel with a second cogwheel of that gearing, connected by means of a first chain with a drive wheel of at least one electric generator, where both the axis of the gearing and the generator are fitted to a base constituting an immovable element which is a part of the body of the vehicle. - a vehicle body; and - a vibration-to-electric energy converter by translating reciprocating motion of vibrating elements of the vehicle to circular motion of a driveshaft of an electric generator, fitted with at least one drive unit containing a toothed gearing and at least one freewheel,
A material loading system, comprising: a receiving vehicle identification system configured to automatically identify a receiving vehicle (102, 122, 142) that receives material from a material loading vehicle; a fill data generation system configured to automatically generate a load count corresponding to the identified receiving vehicle (102, 122, 142), the load count being indicative of a number of times that the identified receiving vehicle (102, 122, 142) has been filled with material during a load count window; and an output generator configured to generate an output control signal to output the load count corresponding to the identified receiving vehicle (102, 122, 142); characterized by comprising a fill level detection system configured to automatically detect a fill level of the material in the identified receiving vehicle (102, 122, 142); and a weight generation system configured to automatically generate an estimated weight value indicative of an estimated weight of the material in the identified receiving vehicle (102, 122, 142) based on the identified receiving vehicle (102, 122, 142) and the detected fill level. a receiving vehicle identification system configured to automatically identify a receiving vehicle (102, 122, 142) that receives material from a material loading vehicle; a fill data generation system configured to automatically generate a load count corresponding to the identified receiving vehicle (102, 122, 142), the load count being indicative of a number of times that the identified receiving vehicle (102, 122, 142) has been filled with material during a load count window; and an output generator configured to generate an output control signal to output the load count corresponding to the identified receiving vehicle (102, 122, 142); characterized by comprising a fill level detection system configured to automatically detect a fill level of the material in the identified receiving vehicle (102, 122, 142); and a weight generation system configured to automatically generate an estimated weight value indicative of an estimated weight of the material in the identified receiving vehicle (102, 122, 142) based on the identified receiving vehicle (102, 122, 142) and the detected fill level.
Bellows (6, 28, 42), in particular for a vehicle connection gangway, with at least one textile layer (10, 30, 44), which has aramid fibres and/or mineral fibres (16, 37) and is embodied as at least one fire protection textile layer (18, 32), and a further textile layer, wherein the fire protection textile layer has an insulating layer former, which is embodied to foam up when exposed to heat, characterised in that the further textile layer is coated with a rubber-elastic coating, so that the bellows (6, 28, 42) has a fire resistance of at least 10 min, wherein the further textile layer is connected to the first-mentioned textile layer (10, 30, 44) to form a composite material.
A method for a base station, BS, operated in an unlicensed band, comprising: configuring a first energy detection threshold for a discovery signal and a second energy detection threshold for data; performing energy detection; transmitting the discovery signal to a user equipment in the unlicensed band if a detected energy based on the energy detection is less than the first energy detection threshold; and transmitting the data to the user equipment in the unlicensed band if the detected energy based on the energy detection is less than the second energy detection threshold, wherein the first energy detection threshold for the discovery signal is higher than the second energy detection threshold for the data. configuring a first energy detection threshold for a discovery signal and a second energy detection threshold for data; performing energy detection; transmitting the discovery signal to a user equipment in the unlicensed band if a detected energy based on the energy detection is less than the first energy detection threshold; and transmitting the data to the user equipment in the unlicensed band if the detected energy based on the energy detection is less than the second energy detection threshold, wherein the first energy detection threshold for the discovery signal is higher than the second energy detection threshold for the data.
An apparatus having an RFID reader and a holder (12, 18) for a roll, wherein the holder comprises an antenna which is connected to the RFID reader in order to read an RFID transponder of the roll held by the holder (12, 18) and thus to identify the roll, wherein the antenna comprises at least two linearly polarized individual antennas (24a-b) and a feed circuit which is connected to the individual antennas (24a-b), wherein the individual antennas (24a-b) are arranged relative to one another with a tilt of an internal angle and together form a circularly polarized antenna, wherein the antenna is arranged in an L-shaped housing (12, 22) that is the same as the holder, integrated into the holder, or fixed to the holder, and wherein the antenna has a free space in a region of the internal angle, characterized in that the legs of the L-shaped housing (12, 22) form the internal angle.
A method performed by a target evolved Node B for establishing S 1 signaling connections in an evolved network, characterized by comprising: Receiving, by the target eNodeB, a HANDOVER REQUEST message from a source eNodeB, wherein the HANDOVER REQUEST message carries an original mobility management entity, MME, communication context identifier; allocating, by the target eNodeB, a new eNodeB communication context identifier; and sending, by the target eNodeB, a HANDOVER COMPLETE message to an evolved packet core, EPC, wherein the HANDOVER COMPLETE message carries the original MME communication context identifier and the new eNodeB communication context identifier; wherein the HANDOVER REQUEST message further carries an eNodeB communication context identifier of the source eNodeB. Receiving, by the target eNodeB, a HANDOVER REQUEST message from a source eNodeB, wherein the HANDOVER REQUEST message carries an original mobility management entity, MME, communication context identifier; allocating, by the target eNodeB, a new eNodeB communication context identifier; and sending, by the target eNodeB, a HANDOVER COMPLETE message to an evolved packet core, EPC, wherein the HANDOVER COMPLETE message carries the original MME communication context identifier and the new eNodeB communication context identifier; wherein the HANDOVER REQUEST message further carries an eNodeB communication context identifier of the source eNodeB.
A near-eye display comprising: a light concentrating backlight comprising: a light guide (110,210) configured to guide light (104,204) along a length of the light guide; and a diffraction grating (120,220) at a surface of the light guide, the diffraction grating being configured to diffractively couple out a portion of the guided light from the light guide as diffractively coupled-out light and to concentrate the diffractively coupled-out light into an eyebox (108,208) located adjacent to and spaced apart from the light guide surface; and a light valve array located between the light guide and the eyebox, the light valve array being configured to modulate the diffractively coupled-out light to provide an image in the eyebox, wherein the image is configured to be viewed within the eyebox by a user. a light concentrating backlight comprising: a light guide (110,210) configured to guide light (104,204) along a length of the light guide; and a diffraction grating (120,220) at a surface of the light guide, the diffraction grating being configured to diffractively couple out a portion of the guided light from the light guide as diffractively coupled-out light and to concentrate the diffractively coupled-out light into an eyebox (108,208) located adjacent to and spaced apart from the light guide surface; and a light guide (110,210) configured to guide light (104,204) along a length of the light guide; and a diffraction grating (120,220) at a surface of the light guide, the diffraction grating being configured to diffractively couple out a portion of the guided light from the light guide as diffractively coupled-out light and to concentrate the diffractively coupled-out light into an eyebox (108,208) located adjacent to and spaced apart from the light guide surface; and a light valve array located between the light guide and the eyebox, the light valve array being configured to modulate the diffractively coupled-out light to provide an image in the eyebox, wherein the image is configured to be viewed within the eyebox by a user.
An optical encoder comprising: an optical signal splitter having an input and at least two outputs, the optical splitter being configured to split a coherent optical signal supplied to the input of the splitter into mutually coherent at least first and second optical signals at said at least first and second outputs, respectively, of the splitter, an optical signal combiner having at least first and second inputs and an output being configured to combine at least first and second mutually coherent optical signals supplied to said at least first and second optical combiner inputs, said optical combiner being such that said at least first and second mutually coherent optical signals interfere therein; an optical phase shifter having a predetermined fixed phase shift coupled in a first optical path between said at least second output of the optical splitter and said at least second input to the optical combiner; CHARACTERIZED IN THAT: the optical signal combiner is configured to yield a combined phase modulated optical signal at the combiner output, a first optical phase modulator is coupled in a second optical path between said first output of the optical splitter and said at least first input of the optical combiner, the first optical phase modulator being configured to be responsive to bits of a prescribed driving digital signal so that the phase of the supplied optical signal is modulated in binary fashion and has at least two phase states, and the optical signal combiner is configured to output a binary phase coded optical signal. an optical signal splitter having an input and at least two outputs, the optical splitter being configured to split a coherent optical signal supplied to the input of the splitter into mutually coherent at least first and second optical signals at said at least first and second outputs, respectively, of the splitter, an optical signal combiner having at least first and second inputs and an output being configured to combine at least first and second mutually coherent optical signals supplied to said at least first and second optical combiner inputs, said optical combiner being such that said at least first and second mutually coherent optical signals interfere therein; an optical phase shifter having a predetermined fixed phase shift coupled in a first optical path between said at least second output of the optical splitter and said at least second input to the optical combiner; the optical signal combiner is configured to yield a combined phase modulated optical signal at the combiner output, a first optical phase modulator is coupled in a second optical path between said first output of the optical splitter and said at least first input of the optical combiner, the first optical phase modulator being configured to be responsive to bits of a prescribed driving digital signal so that the phase of the supplied optical signal is modulated in binary fashion and has at least two phase states, and the optical signal combiner is configured to output a binary phase coded optical signal.