mhurhangee/ep-ind-claims huggingface dataset:
A method for automatically operating a continuous mining machine, the method comprising: performing an automated cutting operation without requiring manual interaction using a cutterhead included in an arm pivotably coupled to a movable platform (128, 130, 168); and stopping the automated cutting operation by (i) stopping at least one motor driving the cutterhead, (ii) operating a first actuator (136, 171, 172) to retract the platform (128, 130, 168) from a cutting face by a predetermined distance, and (iii) operating a second actuator (136, 171, 172) to swing the arm to a predetermined tramming position. performing an automated cutting operation without requiring manual interaction using a cutterhead included in an arm pivotably coupled to a movable platform (128, 130, 168); and stopping the automated cutting operation by (i) stopping at least one motor driving the cutterhead, (ii) operating a first actuator (136, 171, 172) to retract the platform (128, 130, 168) from a cutting face by a predetermined distance, and (iii) operating a second actuator (136, 171, 172) to swing the arm to a predetermined tramming position. (i) stopping at least one motor driving the cutterhead, (ii) operating a first actuator (136, 171, 172) to retract the platform (128, 130, 168) from a cutting face by a predetermined distance, and (iii) operating a second actuator (136, 171, 172) to swing the arm to a predetermined tramming position.
Process for the preparation of a master batch comprising at least one superplasticizer and from 0.1% to 25% by weight of carbon-based nanofillers, expressed with respect to the total weight of the master batch, comprising: (i) the introduction into a kneader and then the kneading of carbon-based nanofillers and of at least one superplasticizer, optionally in the presence of a water-soluble dispersing agent, in order to form a homogeneous mixture in the solid form or in the pasty composition form; (ii) the extrusion of said mixture in the solid form in order to obtain a master batch in the solid form; (iii) optionally the dispersion of said master batch in the solid form in a superplasticizer identical to or different from that of stage (i), or in a water-soluble dispersant, in order to obtain a master batch in the form of a pasty composition; (iv) optionally the introduction of the master batch in the form of a pasty composition obtained in stage (i) or in stage (iii) into a superplasticizer which is identical to or different from that of stage (i) or that of stage (iii), in order to obtain a master batch comprising from 0.1% to 2% by weight of carbon-based nanofillers. (i) the introduction into a kneader and then the kneading of carbon-based nanofillers and of at least one superplasticizer, optionally in the presence of a water-soluble dispersing agent, in order to form a homogeneous mixture in the solid form or in the pasty composition form; (ii) the extrusion of said mixture in the solid form in order to obtain a master batch in the solid form; (iii) optionally the dispersion of said master batch in the solid form in a superplasticizer identical to or different from that of stage (i), or in a water-soluble dispersant, in order to obtain a master batch in the form of a pasty composition; (iv) optionally the introduction of the master batch in the form of a pasty composition obtained in stage (i) or in stage (iii) into a superplasticizer which is identical to or different from that of stage (i) or that of stage (iii), in order to obtain a master batch comprising from 0.1% to 2% by weight of carbon-based nanofillers.
An access method of a user equipment, UE, the method comprising: receiving, by a first network device on a 3rd Generation Partnership Project, 3GPP, network by using a second network device on a non-3GPP network, an access request message from the UE, wherein the access request message comprises an identifier of the UE; generating, by the first network device, a first non-access stratum, NAS, verification code according to the identifier of the UE and to a NAS security context of the UE that is stored in the first network device; when the access request message comprises a second NAS verification code, detecting, by the first network device, whether the second NAS verification code is the same as the first NAS verification code, wherein the second NAS verification code is a verification code that is generated by the UE according to a NAS security context stored in the UE; and when the second NAS verification code is the same as the first NAS verification code, sending, by the first network device, an access key of the non-3GPP network to the second network device. receiving, by a first network device on a 3rd Generation Partnership Project, 3GPP, network by using a second network device on a non-3GPP network, an access request message from the UE, wherein the access request message comprises an identifier of the UE; generating, by the first network device, a first non-access stratum, NAS, verification code according to the identifier of the UE and to a NAS security context of the UE that is stored in the first network device; when the access request message comprises a second NAS verification code, detecting, by the first network device, whether the second NAS verification code is the same as the first NAS verification code, wherein the second NAS verification code is a verification code that is generated by the UE according to a NAS security context stored in the UE; and when the second NAS verification code is the same as the first NAS verification code, sending, by the first network device, an access key of the non-3GPP network to the second network device.
A puncture sealing agent comprising at least: a rubber latex solution; a short fiber; and a clay based viscosity improver, a length and a diameter of the short fiber, respectively, are in the ranges shown below: length: 0.05≤L≤10mm and diameter: 1≤D≤100μm, characterised in that the viscosity of the rubber latex solution after addition of the clay based viscosity improver thereto is from 3 to 6000 mPa·s in the range of +50 to -20°C, and the ratio (X/Y) of the specific gravity of the short fiber to the specific gravity of the rubber latex solution is in the range of 0.92 to 1.08. a rubber latex solution; a short fiber; and a clay based viscosity improver, a length and a diameter of the short fiber, respectively, are in the ranges shown below: length: 0.05≤L≤10mm and diameter: 1≤D≤100μm, characterised in that the viscosity of the rubber latex solution after addition of the clay based viscosity improver thereto is from 3 to 6000 mPa·s in the range of +50 to -20°C, and the ratio (X/Y) of the specific gravity of the short fiber to the specific gravity of the rubber latex solution is in the range of 0.92 to 1.08. length: 0.05≤L≤10mm and diameter: 1≤D≤100μm, characterised in that the viscosity of the rubber latex solution after addition of the clay based viscosity improver thereto is from 3 to 6000 mPa·s in the range of +50 to -20°C, and the ratio (X/Y) of the specific gravity of the short fiber to the specific gravity of the rubber latex solution is in the range of 0.92 to 1.08.
A roll cutter device comprising a roll unit composed of a pair of rolls (13, 15), at least one of the rolls being formed with a cutting blade (41, 42, 43), and adjustment means (12, 16) for adjusting an interaxial distance of the pair of rolls (13, 15), characterized in that a thin plate material is passed between the pair of rolls (13, 15), and a plurality of the roll units are provided in an axial direction of the rolls so that central axes of the rolls are on straight lines in the axial direction, a second roll unit being provided on the downstream side of the roll units in the passing direction of the sheet material, the second roll unit composed of a pair of second rolls (23, 25), at least one of the second rolls (23, 25) being formed with a second cutting blade, and second adjusting means for adjusting the distance between the axes of the pair of second rolls, the roll units and the second roll units are arranged zigzag in the width direction of the sheet material. a pair of rolls (13, 15), at least one of the rolls being formed with a cutting blade (41, 42, 43), and adjustment means (12, 16) for adjusting an interaxial distance of the pair of rolls (13, 15), characterized in that a thin plate material is passed between the pair of rolls (13, 15), and a plurality of the roll units are provided in an axial direction of the rolls so that central axes of the rolls are on straight lines in the axial direction, a second roll unit being provided on the downstream side of the roll units in the passing direction of the sheet material, the second roll unit composed of a pair of second rolls (23, 25), at least one of the second rolls (23, 25) being formed with a second cutting blade, and second adjusting means for adjusting the distance between the axes of the pair of second rolls, the roll units and the second roll units are arranged zigzag in the width direction of the sheet material.
A method of wireless communication, comprising: receiving, by a User Equipment, UE, from a base station, a reference signal configuration message, wherein the reference signal configuration message comprises a transmission sequence identifier identifying a multiplexing for one or more antenna ports assigned for transmission of one or more uplink reference signals by a plurality of LTEs, and wherein the multiplexing is one or both of frequency divisional multiplexing, FDM, and time division multiplexing, TDM, over an identified subframe; receiving, by the UE from the base station, a virtual cell identifier, ID, different from a physical cell identifier; configuring, by the UE, an uplink reference signal of the one or more uplink reference signals based on the reference signal configuration message and the virtual cell ID, wherein a number of OFDM symbols for carrying the uplink reference signal is configured; and transmitting, by the UE to the base station, the uplink reference signal in the identified subframe, wherein the uplink reference signal is identified by the base station according to the virtual cell ID. receiving, by a User Equipment, UE, from a base station, a reference signal configuration message, wherein the reference signal configuration message comprises a transmission sequence identifier identifying a multiplexing for one or more antenna ports assigned for transmission of one or more uplink reference signals by a plurality of LTEs, and wherein the multiplexing is one or both of frequency divisional multiplexing, FDM, and time division multiplexing, TDM, over an identified subframe; receiving, by the UE from the base station, a virtual cell identifier, ID, different from a physical cell identifier; configuring, by the UE, an uplink reference signal of the one or more uplink reference signals based on the reference signal configuration message and the virtual cell ID, wherein a number of OFDM symbols for carrying the uplink reference signal is configured; and transmitting, by the UE to the base station, the uplink reference signal in the identified subframe, wherein the uplink reference signal is identified by the base station according to the virtual cell ID.
Bellows with a first fastening region with a first diameter and with a second fastening region with a second diameter, the first diameter being smaller than the second diameter, and wherein the first fastening region comprises a binder seat region on its outer circumference, wherein on an inner circumference of the first fastening region at least a first and at least a second aeration means (20, 22) are axially spaced apart from one another arranged on said inner circumference which has a flat surface, and protrude above the surface of the inner circumference, wherein by fastening the first fastening region by means of a fastening means between axially spaced-apart first and second aeration means (20, 22), an area with a bead-like material displacement is formable, which can be brought into contact with a surface of a first machine part.
A wall mounting device (100, 200) for mounting a display apparatus on a wall, the wall mounting device comprising: a display apparatus coupling unit (110, 210) configured to be directly and fixedly coupled with a central portion between left and right sides of a rear surface of the display apparatus and including a plurality of locking parts vertically disposed; and a wall coupling unit (160, 260) fixedly coupled with the wall and including a plurality of supporting sections vertically disposed to support the plurality of locking parts; wherein each locking part is rotatably coupled with one of the supporting sections; and wherein the plurality of locking parts coupled with the supporting sections are aligned in the same direction along a rotation axis about which the display apparatus coupling unit (110, 210) is rotatable relative to the wall coupling unit (160, 260); and wherein the plurality of supporting sections comprises rotating pins (181, 231) aligned in the same direction along the rotation axis and configured to extend in the vertical direction along the rotation axis, characterized in that each locking part comprises a pin accommodating section having an open bottom to allow the rotating pin to advance from the bottom to top to be inserted and to be accommodated in the pin accommodating section. a display apparatus coupling unit (110, 210) configured to be directly and fixedly coupled with a central portion between left and right sides of a rear surface of the display apparatus and including a plurality of locking parts vertically disposed; and a wall coupling unit (160, 260) fixedly coupled with the wall and including a plurality of supporting sections vertically disposed to support the plurality of locking parts; wherein each locking part is rotatably coupled with one of the supporting sections; and wherein the plurality of locking parts coupled with the supporting sections are aligned in the same direction along a rotation axis about which the display apparatus coupling unit (110, 210) is rotatable relative to the wall coupling unit (160, 260); and wherein the plurality of supporting sections comprises rotating pins (181, 231) aligned in the same direction along the rotation axis and configured to extend in the vertical direction along the rotation axis, characterized in that each locking part comprises a pin accommodating section having an open bottom to allow the rotating pin to advance from the bottom to top to be inserted and to be accommodated in the pin accommodating section.
An apparatus for inflating and sealing packing cushions from preconfigured film material having a plurality of chambers, the apparatus comprising: a feed mechanism for feeding the film material along a path, the feed mechanism comprising a first belt which contacts a first surface of the film material in a first region, and a second belt laterally offset from the first belt such that the second belt contacts the first surface of the film material in a second region laterally offset from the first region; an inflation mechanism for injecting inflation gas into the chambers; and a sealing mechanism comprising a sealing element and a backing element, wherein the sealing element contacts the first surface of the film material in a sealing region located between the first region and the second region to form a longitudinal seal to trap inflation gas in the chambers. a feed mechanism for feeding the film material along a path, the feed mechanism comprising a first belt which contacts a first surface of the film material in a first region, and a second belt laterally offset from the first belt such that the second belt contacts the first surface of the film material in a second region laterally offset from the first region; an inflation mechanism for injecting inflation gas into the chambers; and a sealing mechanism comprising a sealing element and a backing element, wherein the sealing element contacts the first surface of the film material in a sealing region located between the first region and the second region to form a longitudinal seal to trap inflation gas in the chambers.
A compacted block of material constructed of one or more units consisting of matter comprising an ammonia-saturated material capable of reversibly desorbing and ad- or absorbing ammonia surrounded by a gas-permeable enclosure made of a flexible material, which forms a completely interconnected set of closed surfaces acting as heat transfer structures and has a thermal conductivity of at least five times the thermal conductivity of said ammonia-saturated material at -70°C to 250°C.
A peptide probe for Aβ protein, wherein the peptide probe is a peptide or peptide mimic that (i) consists of from 10 to 50 amino acid residues comprising an amino acid sequence that is a variant of a reference sequence having the sequence of SEQ ID NO:1, and (ii) is capable of adopting both a random coil/alpha-helix conformation and a β - sheet conformation, wherein the variant sequence comprises one or more amino acid substitutions relative to SEQ ID NO:1 that introduce a salt bridge into the variant sequence and are selected from the group consisting of G29H, G29R, G29K and G33E.
A method for wireless communications at a user equipment, UE, comprising: identifying a configuration to use to receive a set of repetitions of control information on a downlink control channel, each repetition of the set of repetitions comprising one or more symbol periods for an instance of the control information; receiving, in a first subset of repetitions of the set of repetitions according to a first set of parameter values of the configuration, a first set of demodulation reference signals for the control information; receiving, according to a second set of parameter values of the configuration, a second set of demodulation reference signals for the control information; receiving, in each repetition of the set of repetitions, the instance of the control information; and decoding the control information based at least in part on the first set of demodulation reference signals and the second set of demodulation reference signals. identifying a configuration to use to receive a set of repetitions of control information on a downlink control channel, each repetition of the set of repetitions comprising one or more symbol periods for an instance of the control information; receiving, in a first subset of repetitions of the set of repetitions according to a first set of parameter values of the configuration, a first set of demodulation reference signals for the control information; receiving, according to a second set of parameter values of the configuration, a second set of demodulation reference signals for the control information; receiving, in each repetition of the set of repetitions, the instance of the control information; and decoding the control information based at least in part on the first set of demodulation reference signals and the second set of demodulation reference signals.
A method of manufacturing a polarizing plastic lens, which comprises: a reversing step of reversing a convex surface shape into a concave surface shape by pressing a polarizing film that has been curved surface processed; a casting mold assembling step of assembling a casting mold having a cavity within which the reversed polarizing film is positioned with the reversed polarizing film, an upper mold, a lower mold, and a sealing member that maintains a spacing between the upper mold and the lower mold; and a polymerizing and curing step of casting a curable composition into the cavity, and polymerizing and curing the curable composition that has been cast to provide a polarizing plastic lens within which the reversed polarizing film is positioned. a reversing step of reversing a convex surface shape into a concave surface shape by pressing a polarizing film that has been curved surface processed; a casting mold assembling step of assembling a casting mold having a cavity within which the reversed polarizing film is positioned with the reversed polarizing film, an upper mold, a lower mold, and a sealing member that maintains a spacing between the upper mold and the lower mold; and a polymerizing and curing step of casting a curable composition into the cavity, and polymerizing and curing the curable composition that has been cast to provide a polarizing plastic lens within which the reversed polarizing film is positioned.
A power converter comprising: voltage varying means for varying an applied voltage to a predetermined voltage; commutating means for performing a commutation operation for allowing a current flowing through the voltage varying means to flow through a second path; smoothing means for smoothing a voltage related to outputs of the voltage varying means and the commutating means to produce power and supplying the power to a load side; and control means for performing control related to voltage varying by the voltage varying means and controlling the commutation operation of the commutating means on the basis of at least one of a voltage and a current related to the voltage varying means wherein the commutating means includes commutation operation means for performing the commutation operation in accordance with an instruction from the control means, and a commutation rectifier that rectifies a current related to commutation from the voltage varying means, and wherein the commutation operation means includes an insulating transformer that allows a secondary winding on the second path to be applied with a voltage on the basis of a voltage applied to a primary winding such that the commutation operation is performed, and a transformer driving device that controls application of the voltage to the primary winding of the insulating transformer in accordance with an instruction from the control means. voltage varying means for varying an applied voltage to a predetermined voltage; commutating means for performing a commutation operation for allowing a current flowing through the voltage varying means to flow through a second path; smoothing means for smoothing a voltage related to outputs of the voltage varying means and the commutating means to produce power and supplying the power to a load side; and control means for performing control related to voltage varying by the voltage varying means and controlling the commutation operation of the commutating means on the basis of at least one of a voltage and a current related to the voltage varying means wherein the commutating means includes commutation operation means for performing the commutation operation in accordance with an instruction from the control means, and a commutation rectifier that rectifies a current related to commutation from the voltage varying means, and commutation operation means for performing the commutation operation in accordance with an instruction from the control means, and a commutation rectifier that rectifies a current related to commutation from the voltage varying means, and wherein the commutation operation means includes an insulating transformer that allows a secondary winding on the second path to be applied with a voltage on the basis of a voltage applied to a primary winding such that the commutation operation is performed, and a transformer driving device that controls application of the voltage to the primary winding of the insulating transformer in accordance with an instruction from the control means.