mhurhangee/ep-ind-claims huggingface dataset:
A system for generating and maintaining a magnetic field with a field reversed configuration comprising a confinement chamber, first and second diametrically opposed FRC formation sections coupled to the confinement chamber, first and second divertors coupled to the first and second formation sections, one or more of a plurality of plasma guns, one or more biasing electrodes and first and second mirror plugs, wherein the plurality of plasma guns includes first and second axial plasma guns operably coupled to the first and second divertors, the first and second formation sections and the confinement chamber, wherein the one or more biasing electrodes being positioned within one or more of the confinement chamber, the first and second formation sections, and the first and second divertors, and wherein the first and second mirror plugs are positioned between the first and second formation sections and the first and second divertors, a gettering system coupled to the confinement chamber and the first and second divertors, a plurality of neutral atom beam injectors (600, 615) coupled to the confinement chamber adjacent a midplane of the confinement chamber, and a magnetic system comprising a plurality of quasi-dc coils (432, 434, 436 and positioned around the confinement chamber, the first and second formation sections, and the first and second divertors, first and second set of quasi-dc mirror coils (432, 434, 436 and 444) positioned between the confinement chamber and the first and second formation sections, characterised in that the plurality of neutral atom beam injector (600,615) are oriented to inject neutral atom beams toward the mid-plane at an angle within the range 15° - 25° less than normal to a longitudinal axis of the confinement chamber, wherein the system is configured such that upon formation by the system of an FRC about a plasma within the confinement chamber, the FRC plasma is maintained in spaced relation to the wall of the confinement chamber and at or about a constant value without decay while beams of fast neutral atoms are injected from the plurality of neutral beam injectors into the FRC plasma at an angle within the range 15° to 25° less than normal to the longitudinal axis of the confinement chamber and towards the mid-plane of the confinement chamber.
A stannate fluorescent material, having a formula: A 2-x SnO 4:Eu x O 4 SnO 2 @M y wherein A is selected from the group consisting of Ca, Sr, and Ba; M is at least one metal nanoparticles selected from the group consisting of Ag, Au, Pt, Pd, and Cu; 0 < x ≤ 0.05; y is a mole ratio of M to Sn, and 0<y≤1×10 -2; @ represents coating, in the stannate fluorescent material, M serves as a core, SnO 2 serves as an intermediate layer shell, and A 2-x SnO 4:Eu x serves as an outer layer shell. wherein A is selected from the group consisting of Ca, Sr, and Ba; M is at least one metal nanoparticles selected from the group consisting of Ag, Au, Pt, Pd, and Cu; 0 < x ≤ 0.05; y is a mole ratio of M to Sn, and 0<y≤1×10 -2; @ represents coating, in the stannate fluorescent material, M serves as a core, SnO 2 serves as an intermediate layer shell, and A 2-x SnO 4:Eu x serves as an outer layer shell.
Adhesive composition comprising: A.1) at least 4% by weight of one or more polysilylated polymers having a number-average molecular weight (Mn) of at least 6000 g/mol and selected from polymers comprising a polyether-type and/or polyurethane-type main chain and at least two hydrolysable silylated end groups, said silylated end groups being attached to the main chain of the polymer by a urethane function or ether function (referred to as a connecting group), A.2) at least 13% by weight of one or more monosilylated polymers having a number-average molecular weight (Mn) of at least 1000 g/mol and selected from polymers comprising a polyether-type and/or polyurethane-type main chain and a hydrolysable silylated end group, said silylated end group being attached to the main chain of the polymer by a urethane function or ether function (referred to as a connecting group), B) at least 25% by weight of one or more tackifying resins having (in each case) a hydroxyl value of less than or equal to 100, and C) at least 0.2% of one or more crosslinking catalysts, the % contents by weight being expressed relative to the total weight of the adhesive composition, and the sum total of the contents of all the ingredients of the adhesive composition being equal to 100%. A.1) at least 4% by weight of one or more polysilylated polymers having a number-average molecular weight (Mn) of at least 6000 g/mol and selected from polymers comprising a polyether-type and/or polyurethane-type main chain and at least two hydrolysable silylated end groups, said silylated end groups being attached to the main chain of the polymer by a urethane function or ether function (referred to as a connecting group), A.2) at least 13% by weight of one or more monosilylated polymers having a number-average molecular weight (Mn) of at least 1000 g/mol and selected from polymers comprising a polyether-type and/or polyurethane-type main chain and a hydrolysable silylated end group, said silylated end group being attached to the main chain of the polymer by a urethane function or ether function (referred to as a connecting group), B) at least 25% by weight of one or more tackifying resins having (in each case) a hydroxyl value of less than or equal to 100, and C) at least 0.2% of one or more crosslinking catalysts,
A bending device that bends a workpiece, the bending device comprising: a bending mechanism that includes a bending die and a clamping die which can rotate around the bending die, the bending mechanism clamping the longitudinal workpiece with the bending die and the clamping die, and bending the workpiece by rotating the clamping die; a fixing table on which a chuck mechanism that grips the workpiece is mounted; an articulated robot to which the bending mechanism is attached; and a control unit that controls the articulated robot, the bending mechanism and the chuck mechanism, wherein the bending device moves the bending mechanism by the articulated robot, and rotates the clamping die by the bending mechanism to bend the workpiece, characterized in that the control unit includes a first control unit that controls the articulated robot to twist the bending mechanism holding the workpiece around a longitudinal axis of the workpiece, when a twisting angle is within a preset twisting angle range, and a second control unit, when the twisting angle exceeds the preset twisting angle range, first controls the articulated robot to twist the bending mechanism holding the workpiece around the longitudinal axis of the workpiece within the preset twisting angle range, and then thereafter, with a change of holding the workpiece, causes the first control unit to perform the twisting. a bending mechanism that includes a bending die and a clamping die which can rotate around the bending die, the bending mechanism clamping the longitudinal workpiece with the bending die and the clamping die, and bending the workpiece by rotating the clamping die; a fixing table on which a chuck mechanism that grips the workpiece is mounted; an articulated robot to which the bending mechanism is attached; and a control unit that controls the articulated robot, the bending mechanism and the chuck mechanism, wherein the bending device moves the bending mechanism by the articulated robot, and rotates the clamping die by the bending mechanism to bend the workpiece, characterized in that the control unit includes a first control unit that controls the articulated robot to twist the bending mechanism holding the workpiece around a longitudinal axis of the workpiece, when a twisting angle is within a preset twisting angle range, and a second control unit, when the twisting angle exceeds the preset twisting angle range, first controls the articulated robot to twist the bending mechanism holding the workpiece around the longitudinal axis of the workpiece within the preset twisting angle range, and then thereafter, with a change of holding the workpiece, causes the first control unit to perform the twisting.
Mixing machine, comprising a drive unit (3, 3.1) supported by a frame, with a drive shaft which can be fitted with at least one mixing tool and comprising a mixing container (7, 7.1), wherein, for the mixing of mixing material present in the mixing container (7, 7.1), the drive shaft projects into the interior of the mixing container with a drive shaft section carrying at least one mixing tool, wherein the mixing container (7, 7.1) comprises on its upper side an opening, which can be closed by a lid, for filling and removing mixed material, and a base located opposite this opening, wherein the mixing container (7, 7.1) can be detached from the drive unit, and comprises on the base side a connection contour, provided by a through-passage in the base (24, 24.1), for bringing the mixing container (7, 7.1) into engagement with a complementary connection contour (18, 18.1) of the drive unit (3, 3.1), wherein the drive shaft engages in a sealed manner through the drive-side connection contour (18, 18.1) of the drive unit (3, 3.1) and the connection contour on the mixing container side is configured as a female connection contour by means of a base through-passage (24, 24.1) provided with a shoulder, and the connection contour on the drive unit side is configured as a male connection contour, with a disk (18, 18.1) provided in a stepped format and, in the direction towards the mixing container (7, 7.1), complementary to the geometry of the floor through-passage (24, 24.1), of which the section, which is smaller in diameter, fills the base through-passage (24, 24.1) and forms with its upper side a part of the base of the mixing container (7, 7.1), both of the said complementary connection contours (18, 24; 18.1, 24.1), when in engagement with one another, are sealed against one another, and wherein tensioning means (33, 47) are provided, with which the mixing container (7, 7.1), when brought into engagement with its connection contour (24, 24.1) with the connection container (18, 18.1) on the drive unit side, can be tensioned together with the drive unit (3, 3.1) or the frame supporting the drive unit (3, 3.1).
Method for breaking up ore, characterized in that the ore is loaded respectively at least once with coherent NIR radiation, non-coherent NIR radiation, at least one electrical alternating field with a frequency greater than 300 GHz, at least one magnetic alternating field with a frequency greater than 300 GHz, at least one electromagnetic alternating field with a frequency greater than 300 GHz, or a combination thereof, by means of a device for generating the radiation, the at least one alternating field, or the radiation and the at least one alternating field, wherein ore mineral, ore minerals, absorbing components, or ore mineral and absorbing components of the ore absorbs or absorb energy from the radiation, the alternating field, or the radiation and the alternating field and the lode matter does not absorb, or absorb only minimally, this energy so that, by means of the thus resulting stresses, cracks are generated in the ore or the ore splits apart.
A dog clutch communicating and interrupting power on a center axis of a shaft member, comprising: a sleeve disposed on the shaft member, wherein a groove is formed in an outer circumferential surface of the shaft member in parallel to the center axis, wherein the sleeve includes a coupling member and a plurality of protruding parts coupled together by the coupling member around the center axis at intervals in between and protruding from an end face of the coupling member in the axial direction, characterized in that the protruding parts include a first tooth and a second tooth different in the length of axial protrusion from the end face, wherein the first tooth is longer in axial protrusion from the end face than the second tooth, and wherein a tooth parallel to the center axis and fit into the groove is formed at least on inner surfaces of the first tooth, and the tooth is absent on inner surfaces of the second tooth. a sleeve disposed on the shaft member, wherein a groove is formed in an outer circumferential surface of the shaft member in parallel to the center axis, wherein the sleeve includes a coupling member and a plurality of protruding parts coupled together by the coupling member around the center axis at intervals in between and protruding from an end face of the coupling member in the axial direction, characterized in that the protruding parts include a first tooth and a second tooth different in the length of axial protrusion from the end face, wherein the first tooth is longer in axial protrusion from the end face than the second tooth, and wherein a tooth parallel to the center axis and fit into the groove is formed at least on inner surfaces of the first tooth, and the tooth is absent on inner surfaces of the second tooth.
A method for processing a stereo signal, the method comprising: obtaining a center channel signal by up-mixing the stereo signal; generating a filtered center channel signal by applying one or more peak filters and one or more notch filters to the center channel signal; and generating a binaural signal based on the filtered center channel signal; obtaining a left channel signal and a right channel signal by up-mixing the stereo signal; convolving the stereo signal with a local reverberation to obtain a convolved stereo signal; processing the left channel signal and the right channel signal according to two pairs of head related transfer functions, to obtain a processed left channel signal and a processed right channel signal; and processing the filtered center channel signal according to a pair of head related transfer functions, to obtain a processed center channel signal; wherein the generating the binaural signal based on the filtered center channel signal comprises: generating a left signal of the binaural signal based on the processed left channel signal, the convolved stereo signal and the processed center channel signal, generating a right signal of the binaural signal based on the processed right channel signal, the convolved stereo signal and the processed center channel signal. obtaining a center channel signal by up-mixing the stereo signal; generating a filtered center channel signal by applying one or more peak filters and one or more notch filters to the center channel signal; and generating a binaural signal based on the filtered center channel signal; obtaining a left channel signal and a right channel signal by up-mixing the stereo signal; convolving the stereo signal with a local reverberation to obtain a convolved stereo signal; processing the left channel signal and the right channel signal according to two pairs of head related transfer functions, to obtain a processed left channel signal and a processed right channel signal; and convolving the stereo signal with a local reverberation to obtain a convolved stereo signal; processing the left channel signal and the right channel signal according to two pairs of head related transfer functions, to obtain a processed left channel signal and a processed right channel signal; and processing the filtered center channel signal according to a pair of head related transfer functions, to obtain a processed center channel signal; wherein the generating the binaural signal based on the filtered center channel signal comprises: generating a left signal of the binaural signal based on the processed left channel signal, the convolved stereo signal and the processed center channel signal, generating a right signal of the binaural signal based on the processed right channel signal, the convolved stereo signal and the processed center channel signal. generating a left signal of the binaural signal based on the processed left channel signal, the convolved stereo signal and the processed center channel signal, generating a right signal of the binaural signal based on the processed right channel signal, the convolved stereo signal and the processed center channel signal.
A method for monitoring urea concentration in a urea solution stored in a tank of a SCR system, said system comprising a pump driven by a motor and the pressure of the pump is controlled by a controller, wherein the method comprises the steps of: - measuring a parameter value characteristic of the energy transmitted by the motor to the pump; - determining a urea concentration value based upon the parameter value characteristic of the energy transmitted by the motor to the pump. - measuring a parameter value characteristic of the energy transmitted by the motor to the pump; - determining a urea concentration value based upon the parameter value characteristic of the energy transmitted by the motor to the pump.
A three-dimensional shaping device comprising: a melting unit configured to melt a material into a shaping material; and a nozzle configured to discharge the shaping material supplied from the melting unit toward a stage, wherein the melting unit includes a flat screw configured to rotate about a rotation axis and having a groove forming surface in which a groove to which the material is supplied is formed; a heating unit configured to heat the material supplied to the groove; a barrel having a facing surface that faces the groove forming surface and provided with a communication hole that communicates the facing surface with the nozzle; a discharge amount adjustment mechanism provided in the communication hole and configured to adjust a flow rate of the shaping material discharged from the nozzle; the heating unit is disposed in the barrel, and a shortest distance between the heating unit and the communication hole of the barrel is shorter than a shortest distance between the heating unit and an outer peripheral edge of the flat screw in a direction perpendicular to the rotation axis of the flat screw, characterized in that the three dimensional shaping device further includes a cooling unit, and a shortest distance between the cooling unit and the communication hole of the barrel is longer than a shortest distance between the cooling unit and the outer peripheral edge of the flat screw in the direction perpendicular to the rotation axis of the flat screw. a melting unit configured to melt a material into a shaping material; and a nozzle configured to discharge the shaping material supplied from the melting unit toward a stage, wherein the melting unit includes a flat screw configured to rotate about a rotation axis and having a groove forming surface in which a groove to which the material is supplied is formed; a heating unit configured to heat the material supplied to the groove; a barrel having a facing surface that faces the groove forming surface and provided with a communication hole that communicates the facing surface with the nozzle; a discharge amount adjustment mechanism provided in the communication hole and configured to adjust a flow rate of the shaping material discharged from the nozzle; the heating unit is disposed in the barrel, and a shortest distance between the heating unit and the communication hole of the barrel is shorter than a shortest distance between the heating unit and an outer peripheral edge of the flat screw in a direction perpendicular to the rotation axis of the flat screw,
A crossbar memory array, comprising: a first array of nanowires (105; 610) of a first material; a second array of nanowires (130; 605) of a different second material oriented at an angle with the first array; and a plurality of non-crystalline silicon nanostructures (101; 625), each intersection of the first array and the second array including one of the non-crystalline silicon nanostructures (101; 625) disposed between a nanowire (105; 610) of the first material and a nanowire (130; 605) of the second material to form a resistive memory cell, characterized in that at least one of the plurality of non-crystalline silicon nanostructures is a nanoscale pillar (101; 625) providing a contact point between the first and second arrays at exactly one intersection. a first array of nanowires (105; 610) of a first material; a second array of nanowires (130; 605) of a different second material oriented at an angle with the first array; and a plurality of non-crystalline silicon nanostructures (101; 625), each intersection of the first array and the second array including one of the non-crystalline silicon nanostructures (101; 625) disposed between a nanowire (105; 610) of the first material and a nanowire (130; 605) of the second material to form a resistive memory cell, characterized in that at least one of the plurality of non-crystalline silicon nanostructures is a nanoscale pillar (101; 625) providing a contact point between the first and second arrays at exactly one intersection.
A punch tool with an expanded portion, comprising: a fixed punch including an inclined portion inclined with respect to a vertical direction; a movable punch provided on the fixed punch so as to be able to move up and down in a direction along the inclined portion and including an expanded portion projecting toward an outside in a lateral direction; an interlocking member configured to interlock with a relative ascending and descending motion of the movable punch with respect to the fixed punch; an operation member provided on the fixed punch so as to be movable in the lateral direction, the operation member being configured to move in the lateral direction by means of a moving motion of an external operation member, the operation member being configured to perform the relative ascending and descending motion of the movable punch; and an urging member configured to urge the operation member toward an inside in the lateral direction, characterized in that the operation member includes an abutting element capable of being abutted with the interlocking member, the urging member is configured to urge the operation member toward the inside in the lateral direction such that the abutting element is abutted with the interlocking member, and the movable punch is configured to move toward the inside in the lateral direction while moving down relatively to the fixed punch due to a self-weight thereof when the operation member is moved toward the outside in the lateral direction against an urging force of the urging member by means of the moving motion of the external operation member. a fixed punch including an inclined portion inclined with respect to a vertical direction; a movable punch provided on the fixed punch so as to be able to move up and down in a direction along the inclined portion and including an expanded portion projecting toward an outside in a lateral direction; an interlocking member configured to interlock with a relative ascending and descending motion of the movable punch with respect to the fixed punch; an operation member provided on the fixed punch so as to be movable in the lateral direction, the operation member being configured to move in the lateral direction by means of a moving motion of an external operation member, the operation member being configured to perform the relative ascending and descending motion of the movable punch; and an urging member configured to urge the operation member toward an inside in the lateral direction, characterized in that the operation member includes an abutting element capable of being abutted with the interlocking member, the urging member is configured to urge the operation member toward the inside in the lateral direction such that the abutting element is abutted with the interlocking member, and the movable punch is configured to move toward the inside in the lateral direction while moving down relatively to the fixed punch due to a self-weight thereof when the operation member is moved toward the outside in the lateral direction against an urging force of the urging member by means of the moving motion of the external operation member.