mhurhangee/ep-ind-claims huggingface dataset:
Method of manufacturing a folder consisting of, on one hand, a cover having two cover sides (2, 3), a back between the cover sides, and an adhesive fastened to the inside of the back, and, on the other hand, a bundle of sheets inserted between the two cover sides of the cover and one side edges of which are brought into abutment against the inside of the back and thereby the adhesive thereof, the adhesive being activated by an activation device of a machine for a predetermined time for the adhesion of the bundle of sheets to the inside of the back all while the same folder continuously or intermittently is fed through the machine by a conveying means (52, 53) adapted to a folder of a nominal width dimension (B nom), characterized in that said folder features an under-dimension in relation to the nominal width dimension (B nom) folder, and that said under-dimension folder is placed in a cassette (40, 55) having a dimension (B k) corresponding to said under-dimension and having an outer dimension corresponding to said nominal width dimension (B nom), which cassette (40, 55) is moved through the machine by said conveying means (52, 53) and in that the cassette (40, 55) is moved through the machine by the conveying means (52, 53) being provided with driver means (M n), which are brought into abutment either against at least one width means (46, 47, 48, 49) of the cassette or against the proper cassette having two separate cassette chambers (55 1, 55 2).
T-shaped steel section bar for a support structure for false ceilings or for supporting false ceilings, wherein the T-shaped steel section bar is made of a galvanized steel strip or sheet metal, characterized in that said sheet metal has a thickness equal to or lower than 0.25 mm and in that the steel presents the following combination of features: - maximum tensile strength Rm of from 500 to 1000 N/mm 2; and - elongation from 2% to 8%. - maximum tensile strength Rm of from 500 to 1000 N/mm 2; and - elongation from 2% to 8%.
A method for controlling total average transmission power of a radio base station, the method being performed by a control device, the method comprising: performing control of total average transmission power 〈 P tot 〉( t) of the radio base station according to a back-off power control loop, wherein, in the back-off power control loop, a setpoint value 〈 P tot 〉 ref of the total average transmission power is compared with a value of the total average transmission power 〈 P tot 〉( t), wherein the value of the total average transmission power 〈 P tot 〉( t) is computed over an averaging time T, characterized in that: control parameters of the back-off power control loop are scaled proportionally to the inverse of the averaging time T, and in that the control parameters pertain to a response time of the back-off power control loop. performing control of total average transmission power 〈 P tot 〉( t) of the radio base station according to a back-off power control loop, wherein, in the back-off power control loop, a setpoint value 〈 P tot 〉 ref of the total average transmission power is compared with a value of the total average transmission power 〈 P tot 〉( t), wherein the value of the total average transmission power 〈 P tot 〉( t) is computed over an averaging time T, characterized in that: control parameters of the back-off power control loop are scaled proportionally to the inverse of the averaging time T, and in that the control parameters pertain to a response time of the back-off power control loop. control parameters of the back-off power control loop are scaled proportionally to the inverse of the averaging time T, and in that the control parameters pertain to a response time of the back-off power control loop.
An electrically conducting articulating joint assembly for a lamp device, the electrically conducting articulating joint assembly comprising: a first contact element having a first contact plate and a first contact arm extending therefrom, said first contact element in juxtaposition with a first face; a second contact element having a second contact plate and a second contact arm extending therefrom, said second contact element in juxtaposition with a second face; and a pair of housing halves (72A, 72B), each said housing half attached to one said contact element; characterized in that the electrically articulating joint further comprises: a center element defined by first and second faces in relative spaced relation, said joint assembly further comprising an interlocking socket formed therein for releasably accepting an interlockable conducting peg, said socket defining openings to said first and second faces at a first end and a third opening at a second end. a first contact element having a first contact plate and a first contact arm extending therefrom, said first contact element in juxtaposition with a first face; a second contact element having a second contact plate and a second contact arm extending therefrom, said second contact element in juxtaposition with a second face; and a pair of housing halves (72A, 72B), each said housing half attached to one said contact element; characterized in that the electrically articulating joint further comprises: a center element defined by first and second faces in relative spaced relation, said joint assembly further comprising an interlocking socket formed therein for releasably accepting an interlockable conducting peg, said socket defining openings to said first and second faces at a first end and a third opening at a second end. a center element defined by first and second faces in relative spaced relation, said joint assembly further comprising an interlocking socket formed therein for releasably accepting an interlockable conducting peg, said socket defining openings to said first and second faces at a first end and a third opening at a second end.
A method for forming a laminate with elastic materials extruded thereon, the method comprising: receiving a first nonwoven web; extruding an elastic material onto the first nonwoven web such that the elastic material is directly applied to the first nonwoven web continuously in a machine direction and discontinuously in a cross direction to form an elastic laminate with one or more elastic strips on the first nonwoven web; and activating via stretching the elastic laminate only at the location of the one or more elastic strips, along the entire length of each of the elastic strips. receiving a first nonwoven web; extruding an elastic material onto the first nonwoven web such that the elastic material is directly applied to the first nonwoven web continuously in a machine direction and discontinuously in a cross direction to form an elastic laminate with one or more elastic strips on the first nonwoven web; and activating via stretching the elastic laminate only at the location of the one or more elastic strips, along the entire length of each of the elastic strips.
An electrochemical device comprising a coated article comprising; a substrate; and an electrically conductive composite coating comprising a layer comprising an electrically conductive coating material comprising elemental carbon and an azole-containing corrosion inhibitor; and a layer of tin and/or a binary or ternary alloy of tin with one or more of nickel, antimony, indium or gallium, said tin layer being directly deposited on the substrate and having the electrically conductive coating on top of it. a substrate; and an electrically conductive composite coating comprising a layer comprising an electrically conductive coating material comprising elemental carbon and an azole-containing corrosion inhibitor; and a layer of tin and/or a binary or ternary alloy of tin with one or more of nickel, antimony, indium or gallium, said tin layer being directly deposited on the substrate and having the electrically conductive coating on top of it.
An uplink resource scheduling method for a Non-Orthogonal Multiple Access NOMA system, applied to a wireless base station, said method comprising: generating group dedicated signaling respectively for mobile station groups managed by the wireless base station, wherein group dedicated signaling of each mobile station group indicates uplink resources allocated to the mobile station group; multiplexing the generated group dedicated signaling into different positions of a first channel and transmitting the multiplexed group dedicated signaling in a broadcasting manner; generating mobile station dedicated signaling for each mobile station in each of the mobile station groups, wherein the mobile station dedicated signaling at least includes group information indicating the mobile station group to which the mobile station belongs; and multiplexing the generated mobile station dedicated signaling into a second channel and transmitting the multiplexed mobile station dedicated signaling in a broadcasting manner. generating group dedicated signaling respectively for mobile station groups managed by the wireless base station, wherein group dedicated signaling of each mobile station group indicates uplink resources allocated to the mobile station group; multiplexing the generated group dedicated signaling into different positions of a first channel and transmitting the multiplexed group dedicated signaling in a broadcasting manner; generating mobile station dedicated signaling for each mobile station in each of the mobile station groups, wherein the mobile station dedicated signaling at least includes group information indicating the mobile station group to which the mobile station belongs; and multiplexing the generated mobile station dedicated signaling into a second channel and transmitting the multiplexed mobile station dedicated signaling in a broadcasting manner.
A surveying instrument, wherein a frame unit is supported so as to be capable of horizontal rotation by a horizontal rotation driving unit provided on a lower end portion of said frame unit, said horizontal rotation driving unit has a rotation shaft and an ultrasonic motor which horizontally rotates said frame unit via said rotation shaft, and said ultrasonic motor has an output shaft, a vibration generating component and a rotating plate, characterized in that said output shaft is attachably and detachably connected by a bolt to a lower end of said rotation shaft, said rotating plate is fixed to said output shaft, said vibration generating component is formed on an outer circumferential portion of said rotating plate, a stator (27, 32) in close contact with said vibration generating component via a predetermined friction torque T1 is rotatably provided on said output shaft, said stator is restricted on a rotation by a whirl-stop unit, ultrasonic vibration is generated in said vibration generating component and said output shaft is rotated by a relative rotation of said vibration generating component and said stator.
A molten steel treatment apparatus comprising: a main body having an inner space, an open top and a bottom having a tap hole defined therein; a fixed dam extending in a width-direction of the main body and installed in contact with both the bottom and length-direction both side walls of the main body; a control dam extending in the width-direction of the main body; stoppers installed respectively on the length-direction both side walls of the main body, wherein the fixed dam is disposed between the stoppers and the tap hole, and the stoppers are constructed to contact the control dam, a driving part for supporting the control dam in a movable and rotatable manner, wherein the driving part movably supports the control dam in a height direction and a longitudinal direction of the main body, and rotatably supports the control dam about an axis in the height direction of the main body. a main body having an inner space, an open top and a bottom having a tap hole defined therein; a fixed dam extending in a width-direction of the main body and installed in contact with both the bottom and length-direction both side walls of the main body; a control dam extending in the width-direction of the main body; stoppers installed respectively on the length-direction both side walls of the main body, wherein the fixed dam is disposed between the stoppers and the tap hole, and the stoppers are constructed to contact the control dam, a driving part for supporting the control dam in a movable and rotatable manner, wherein the driving part movably supports the control dam in a height direction and a longitudinal direction of the main body, and rotatably supports the control dam about an axis in the height direction of the main body.
A port number extension method, comprising: determining, by a first switch, bits for identifying the first switch in a Media Access Control, MAC, address of the first switch, wherein the MAC address is in an identifier, ID, of a specified bridge in a bridge protocol data unit, BPDU, packet being sent by the first switch; calculating, by the first switch, according to the bits for identifying the first switch, bits for port number extension in the MAC address; and combining, by the first switch, the bits for port number extension and original bits for specifying a port in the BPDU packet, to obtain new bits for specifying a port; wherein the calculating, by the first switch, according to the bits for identifying the first switch, bits for port number extension specifically comprises: selecting, in an order from a low-order bit to a high-order bit, bits before the bits for identifying the first switch as the bits for port number extension. determining, by a first switch, bits for identifying the first switch in a Media Access Control, MAC, address of the first switch, wherein the MAC address is in an identifier, ID, of a specified bridge in a bridge protocol data unit, BPDU, packet being sent by the first switch; calculating, by the first switch, according to the bits for identifying the first switch, bits for port number extension in the MAC address; and combining, by the first switch, the bits for port number extension and original bits for specifying a port in the BPDU packet, to obtain new bits for specifying a port; wherein the calculating, by the first switch, according to the bits for identifying the first switch, bits for port number extension specifically comprises: selecting, in an order from a low-order bit to a high-order bit, bits before the bits for identifying the first switch as the bits for port number extension. selecting, in an order from a low-order bit to a high-order bit, bits before the bits for identifying the first switch as the bits for port number extension.
An eNodeB of a multiple input multiple output, MIMO, system, comprising: a processor configured to execute instructions that cause transmission of downlink control information, DCI, that contains information regarding a number of transport blocks to be utilized by a user equipment, UE, and an index value; wherein the number of transport blocks and the index value together indicate to the UE which layer combination or associated combination of dedicated reference ports to utilize; wherein if the UE is from a first set of UEs corresponding to Release 8 UEs, the DCI is configured to carry an indication of precoding matrix indicator, PMI, and if the UE is from a second set of UEs corresponding to beyond Release 8 UEs, the DCI is configured to carry an indication of layers assigned to the UE. a processor configured to execute instructions that cause transmission of downlink control information, DCI, that contains information regarding a number of transport blocks to be utilized by a user equipment, UE, and an index value; wherein the number of transport blocks and the index value together indicate to the UE which layer combination or associated combination of dedicated reference ports to utilize;
A computer-implemented method of selecting actions to be performed by a mechanical agent interacting with a real-world environment, the method comprising, at each of a plurality of time steps: determining whether criteria for updating a hidden state of a slow updating recurrent neural network are satisfied at the time step, wherein the criteria are satisfied at less than all of the plurality of time steps; when the criteria are satisfied, processing a slow updating input comprising a hidden state of a fast updating recurrent neural network to update the hidden state of the slow updating recurrent neural network; receiving an observation characterizing a current state of the environment at the time step; processing a fast updating input for the time step comprising (i) the observation and (ii) the hidden state of the slow updating recurrent neural network using the fast updating recurrent neural network to update the hidden state of the fast updating recurrent neural network; and after updating the hidden state of the fast updating recurrent neural network: selecting an action to be performed in response to the observation using the hidden state of the fast recurrent neural network. determining whether criteria for updating a hidden state of a slow updating recurrent neural network are satisfied at the time step, wherein the criteria are satisfied at less than all of the plurality of time steps; when the criteria are satisfied, processing a slow updating input comprising a hidden state of a fast updating recurrent neural network to update the hidden state of the slow updating recurrent neural network; receiving an observation characterizing a current state of the environment at the time step; processing a fast updating input for the time step comprising (i) the observation and (ii) the hidden state of the slow updating recurrent neural network using the fast updating recurrent neural network to update the hidden state of the fast updating recurrent neural network; and after updating the hidden state of the fast updating recurrent neural network: selecting an action to be performed in response to the observation using the hidden state of the fast recurrent neural network.
A process for the production, enrichment and/or isolation of d-alpha-tocotrienol from a plant extract that comprises at least one non-alpha tocotrienol and that optionally comprises alpha-tocopherol and optionally comprises other tocols, non-tocols and/or organic impurities, comprising the steps of: 1a.) reacting the plant extract with suitable reagents which react with the one or more non-alpha-tocols to introduce a functional group in the free 5 and/or 7 position of the one or more non-alpha-tocols, wherein said functional group is an aminoalkyl; 1b.) separating the one or more non-alpha-tocols that have been functionalized in step from the alpha-tocotrienol and alpha tocopherol and other non-tocol compounds that may be present; 1c.) optionally further separating the alpha-tocotrienol in the mixture separated in step, from the optional alpha tocopherol and from optional other non-tocols; 1d.) chemically reacting the separated one or more non-alpha-tocols that have been functionalized from step to give alpha-tocotrienol; and 1e.) optionally combining the alpha-tocotrienol from step with the alpha-tocotrienol from step to give alpha-tocotrienol. 1a.) reacting the plant extract with suitable reagents which react with the one or more non-alpha-tocols to introduce a functional group in the free 5 and/or 7 position of the one or more non-alpha-tocols, wherein said functional group is an aminoalkyl; 1b.) separating the one or more non-alpha-tocols that have been functionalized in step from the alpha-tocotrienol and alpha tocopherol and other non-tocol compounds that may be present; 1c.) optionally further separating the alpha-tocotrienol in the mixture separated in step, from the optional alpha tocopherol and from optional other non-tocols; 1d.) chemically reacting the separated one or more non-alpha-tocols that have been functionalized from step to give alpha-tocotrienol; and 1e.) optionally combining the alpha-tocotrienol from step with the alpha-tocotrienol from step to give alpha-tocotrienol.
A multi-ply bath tissue comprising: a first ply providing a first surface of the bath tissue, the first ply including first and second layers, the first layer of the first ply forming the first surface, the first layer of the first ply including a temporary wet strength resin and the second layer of the first ply being substantially free from a temporary wet strength resin; a second ply providing a second surface of the bath tissue, the second ply including first and second layers, the first layer of the second ply forming the second surface, the first layer of the second ply including a temporary wet strength resin and the second layer of the second ply being substantially free from a temporary wet strength resin; and a third ply sandwiched between the first ply and the second ply, the third ply including only one layer and having a temporary wet strength resin throughout the one layer, wherein the bath tissue is free from regenerated cellulosic microfibers, wherein the bath tissue has a cross machine direction wet tensile strength of between 50 grams to 90 grams, and wherein the bath tissue has a wet abrasion lint area to CD wet tensile strength ratio of less than 0.3333 mm 2 /gram when the wet abrasion lint area is determined according to the Wet Abrasion Lint Test. a first ply providing a first surface of the bath tissue, the first ply including first and second layers, the first layer of the first ply forming the first surface, the first layer of the first ply including a temporary wet strength resin and the second layer of the first ply being substantially free from a temporary wet strength resin; a second ply providing a second surface of the bath tissue, the second ply including first and second layers, the first layer of the second ply forming the second surface, the first layer of the second ply including a temporary wet strength resin and the second layer of the second ply being substantially free from a temporary wet strength resin; and a third ply sandwiched between the first ply and the second ply, the third ply including only one layer and having a temporary wet strength resin throughout the one layer, wherein the bath tissue is free from regenerated cellulosic microfibers, wherein the bath tissue has a cross machine direction wet tensile strength of between 50 grams to 90 grams, and wherein the bath tissue has a wet abrasion lint area to CD wet tensile strength ratio of less than 0.3333 mm 2 /gram when the wet abrasion lint area is determined according to the Wet Abrasion Lint Test.