mhurhangee/patent-ind-claim-en huggingface dataset:
A conveyor belt comprising: an upper cover rubber comprising: a wear resistance layer ; and an impact resistance layer ; the wear resistance layer and the impact resistance layer being layered in this order from an outer peripheral side of the conveyor belt ; a lower cover rubber ; and a core embedded between the upper cover rubber and the lower cover rubber ; wherein the wear resistance layer exhibits good wear resistance as compared with the other portions; wherein the impact resistance layer exhibits good impact resistance as compared with the other portions; characterized in that , the wear resistance layer has a loss coefficient of from 0.03 to 0.25 and a loss elastic coefficient of from 0.20 MPa to 6.50 MPa at 20°C, the impact resistance layer has a loss coefficient of from 0.15 to 0.70 and a loss elastic coefficient of from 1.5 MPa to 30.0 MPa at 20°C, a layer thickness of each of the wear resistance layer and the impact resistance layer is from 2.0 mm to 30.0 mm, wherein the loss coefficient and the loss elastic coefficient are obtained by measuring strip-shaped test pieces, cut out from vulcanized rubber sheets of which the wear resistance layer and the impact resistance layer are formed, using a viscoelastic spectrometer specified by JIS K 6394, and wherein the measurement is performed under conditions of the test pieces being at 10% initial strain and subjected to a vibration at ±2% amplitude and a frequency of 10 Hz at a measurement temperature of 20°C. a wear resistance layer ; and an impact resistance layer ; a lower cover rubber ; and a core embedded between the upper cover rubber and the lower cover rubber ; wherein the wear resistance layer has a loss coefficient of from 0.03 to 0.25 and a loss elastic coefficient of from 0.20 MPa to 6.50 MPa at 20°C, the impact resistance layer has a loss coefficient of from 0.15 to 0.70 and a loss elastic coefficient of from 1.5 MPa to 30.0 MPa at 20°C, a layer thickness of each of the wear resistance layer and the impact resistance layer is from 2.0 mm to 30.0 mm, wherein the loss coefficient and the loss elastic coefficient are obtained by measuring strip-shaped test pieces, cut out from vulcanized rubber sheets of which the wear resistance layer and the impact resistance layer are formed, using a viscoelastic spectrometer specified by JIS K 6394, and wherein the measurement is performed under conditions of the test pieces being at 10% initial strain and subjected to a vibration at ±2% amplitude and a frequency of 10 Hz at a measurement temperature of 20°C.
An article of footwear having an upper and a sole structure secured to the upper , the sole structure comprising: a midsole formed from a foamed polymer material and positioned adjacent to the upper ; an elevated plate structure formed from a substantially non-foamed material that is embedded in the midsole , wherein the elevated plate structure includes: an upper plate having an upper surface and an opposite lower surface; a doubled legs extending downward from the lower surface of the upper plate and engage a lower plate that (i) is oriented generally parallel with the upper plate and (ii) is configured to provide support for receiving downward impacts transmitted through the doubled legs ; and at least one impact-attenuating member , wherein the doubled legs extend as posts within the impact-attenuating member and the doubled legs are integrated with and extend through a central portion of the impact-attenuating member ; and an outsole disposed at a bottom portion of the article of footwear opposite the upper , the outsole being configured to engage the ground during use. a midsole formed from a foamed polymer material and positioned adjacent to the upper ; an elevated plate structure formed from a substantially non-foamed material that is embedded in the midsole , wherein the elevated plate structure includes: an upper plate having an upper surface and an opposite lower surface; a doubled legs extending downward from the lower surface of the upper plate and engage a lower plate that (i) is oriented generally parallel with the upper plate and (ii) is configured to provide support for receiving downward impacts transmitted through the doubled legs ; and at least one impact-attenuating member , wherein the doubled legs extend as posts within the impact-attenuating member and the doubled legs are integrated with and extend through a central portion of the impact-attenuating member ; and an outsole disposed at a bottom portion of the article of footwear opposite the upper , the outsole being configured to engage the ground during use. an upper plate having an upper surface and an opposite lower surface; a doubled legs extending downward from the lower surface of the upper plate and engage a lower plate that (i) is oriented generally parallel with the upper plate and (ii) is configured to provide support for receiving downward impacts transmitted through the doubled legs ; and at least one impact-attenuating member , wherein the doubled legs extend as posts within the impact-attenuating member and the doubled legs are integrated with and extend through a central portion of the impact-attenuating member ; and an outsole disposed at a bottom portion of the article of footwear opposite the upper , the outsole being configured to engage the ground during use.
An electric grinder, comprising a shell , a motor assembly , a grinding assembly and a dust cover , wherein said motor assembly and said grinding assembly are provided in said shell , an opening is provided at one end of said shell , said dust cover is rotatably connected to said shell , said dust cover comprises a cover and a counterweight part , and said dust cover can open or close the opening of said shell under the gravity of said counterweight part , wherein when the opening faces up, the dust cover can close and engage with the opening automatically, characterized in that said counterweight part comprises a cavity and a counterweight block , and said counterweight block is located in said cavity .
An electrical junction box configured such that an electric or electronic component is mounted thereon, the electrical junction box comprising: a case having an accommodation recess ; a housing configured such that the electric or electronic component is held therein and configured to be attached in the accommodation recess ; and a cable configured to be drawn into the accommodation recess , wherein the housing includes a path restricting wall configured to restrict a wiring direction of the cable , wherein the path restricting wall is provided in a vicinity of an inner side surface of the case below a cable introduction portion to which a cable lead-in member in the case is attached and the cable is drawn into the case , wherein the path restricting wall is provided on a back side, which is a rear position with respect to fastening portions of a positive electrode bus bar and the negative electrode bus bar that are engaged with engagement grooves of the housing . a case having an accommodation recess ; a housing configured such that the electric or electronic component is held therein and configured to be attached in the accommodation recess ; and a cable configured to be drawn into the accommodation recess , wherein the housing includes a path restricting wall configured to restrict a wiring direction of the cable , wherein the path restricting wall is provided in a vicinity of an inner side surface of the case below a cable introduction portion to which a cable lead-in member in the case is attached and the cable is drawn into the case , wherein the path restricting wall is provided on a back side, which is a rear position with respect to fastening portions of a positive electrode bus bar and the negative electrode bus bar that are engaged with engagement grooves of the housing .
A table saw assembly comprising: a drop arm assembly rotatably supporting an arbor shaft and movable between a first drop arm position and a second drop arm position; an actuating device configured to transfer a force to the drop arm assembly when the drop arm assembly is at the first drop arm assembly position; a capacitive sensing system configured to sense an unsafe condition; a control system configured to control the actuating device to transfer the force to the drop arm assembly when the unsafe condition is sensed; a motor operably connected to the arbor shaft through a gear ; and a gear housing which houses the gear , the gear housing formed from a non-conductive material, wherein the gear housing extends over a fan mounted on a power shaft of the motor ; wherein the power shaft defines a power shaft axis; and the gear housing further comprises a plurality of radial vents , the radial vents configured to vent air driven by the fan radially outwardly from the axis. a drop arm assembly rotatably supporting an arbor shaft and movable between a first drop arm position and a second drop arm position; an actuating device configured to transfer a force to the drop arm assembly when the drop arm assembly is at the first drop arm assembly position; a capacitive sensing system configured to sense an unsafe condition; a control system configured to control the actuating device to transfer the force to the drop arm assembly when the unsafe condition is sensed; a motor operably connected to the arbor shaft through a gear ; and a gear housing which houses the gear , the gear housing formed from a non-conductive material, wherein the gear housing extends over a fan mounted on a power shaft of the motor ; wherein the power shaft defines a power shaft axis; and the gear housing further comprises a plurality of radial vents , the radial vents configured to vent air driven by the fan radially outwardly from the axis.
A medical device system (100; 200; 500) for treating a cancerous tissue , comprising: an electric field generating circuit configured to generate one or more electric fields at or near a site of the cancerous tissue ; a control circuitry in communication with the electric field generating circuit , the control circuitry configured to control delivery of the one or more electric fields from the electric field generating circuit to the site of the cancerous tissue ; wherein the control circuitry causes the electric field generating circuit to generate one or more electric fields at frequencies selected from a range of between 10 kHz to 1 MHz; and an implantable lead comprising: a lead body comprising a proximal end and a distal end , the lead body comprising a first electrical conductor disposed within the lead body; and a first electrode coupled to the lead body, the first electrode in electrical communication with the first electrical conductor , wherein the first electrical conductor forms part of an electrical circuit by which the electric fields from the electric field generating circuit are delivered to the site of the cancerous tissue ; and the first electrode comprising a conductive coil filar (844; 950; 1156; 1266; 1576; 1686) disposed around the lead body. an electric field generating circuit configured to generate one or more electric fields at or near a site of the cancerous tissue ; a control circuitry in communication with the electric field generating circuit , the control circuitry configured to control delivery of the one or more electric fields from the electric field generating circuit to the site of the cancerous tissue ; wherein the control circuitry causes the electric field generating circuit to generate one or more electric fields at frequencies selected from a range of between 10 kHz to 1 MHz; and an implantable lead comprising: a lead body comprising a proximal end and a distal end , the lead body comprising a first electrical conductor disposed within the lead body; and a first electrode coupled to the lead body, the first electrode in electrical communication with the first electrical conductor , wherein the first electrical conductor forms part of an electrical circuit by which the electric fields from the electric field generating circuit are delivered to the site of the cancerous tissue ; and the first electrode comprising a conductive coil filar (844; 950; 1156; 1266; 1576; 1686) disposed around the lead body.
A feeding device comprising: a blowing unit that floats a plurality of stacked media (P) by blowing air (G1) to side end portions of the media (P) and that has a first blowing unit which blows the air (G1) from a defined region (R1) to the media (P) and a second blowing unit which blows the air (G1) from a changing region (R2) to the media (P); a feeding unit that feeds the floating media (P); and a control unit that has a control mode in which the first blowing unit and the second blowing unit simultaneously perform air blowing on the media (P), wherein the blowing unit has a blowing pipe of the air (G1), a first blowing port , which is the first blowing unit , and a second blowing port , which is the second blowing unit , both of which configure an outlet unit of the blowing pipe , the feeding device being characterized in that : the blowing unit has a moving member that configures the outlet unit of the blowing pipe and that is movable in an up-down direction, and the first blowing port and the second blowing port are provided in the moving member . a blowing unit that floats a plurality of stacked media (P) by blowing air (G1) to side end portions of the media (P) and that has a first blowing unit which blows the air (G1) from a defined region (R1) to the media (P) and a second blowing unit which blows the air (G1) from a changing region (R2) to the media (P); a feeding unit that feeds the floating media (P); and a control unit that has a control mode in which the first blowing unit and the second blowing unit simultaneously perform air blowing on the media (P), wherein the blowing unit has a blowing pipe of the air (G1), a first blowing port , which is the first blowing unit , and a second blowing port , which is the second blowing unit , both of which configure an outlet unit of the blowing pipe , the feeding device being characterized in that : the blowing unit has a moving member that configures the outlet unit of the blowing pipe and that is movable in an up-down direction, and the first blowing port and the second blowing port are provided in the moving member . the blowing unit has a moving member that configures the outlet unit of the blowing pipe and that is movable in an up-down direction, and the first blowing port and the second blowing port are provided in the moving member .
Arrangement for a gradual shutoff of potential for direct-current applications in high voltage technology, with at least one fitting body , electrically insulating film and electrically conductive regions , wherein the electrically conductive regions are arranged between layers of the electrically insulating film , and at least portions of the electrical insulating film being arranged around the at least one fitting body , characterized in that multiple electrical contacts to an electrically conductive area are formed via openings in the outer layer of the film . with at least one fitting body , electrically insulating film and electrically conductive regions , wherein the electrically conductive regions are arranged between layers of the electrically insulating film , and at least portions of the electrical insulating film being arranged around the at least one fitting body , characterized in that multiple electrical contacts to an electrically conductive area are formed via openings in the outer layer of the film .
Method for producing a printed circuit board with at least one optoelectronic component, having the following steps: a) Applying a transparently curable adhesive layer to a carrier layer , b) Placing at least one optoelectronic component with an optically relevant side of the component on the adhesive layer , c) Curing the adhesive layer to form a window element , d) Embedding the component in a printed circuit board composite, e) Structuring the carrier layer in order to at least partially expose the window element and for contacting the component . a) Applying a transparently curable adhesive layer to a carrier layer , b) Placing at least one optoelectronic component with an optically relevant side of the component on the adhesive layer , c) Curing the adhesive layer to form a window element , d) Embedding the component in a printed circuit board composite, e) Structuring the carrier layer in order to at least partially expose the window element and for contacting the component .
A method for transmitting data performed by a terminal in a mobile communication system, the method comprising: receiving, from a base station , first control information in a first time point, the first control information instructs the terminal to transmit a first uplink data in a fourth time point; receiving, from the base station , second control information in a second time point after the first time point, the second control information instructs the terminal to transmit a second uplink data in a third time point before the fourth time point; transmitting, to the base station , the second uplink data in third time point based on the second control information; determining a transmission power of the first uplink data corresponding to the first control information based on a transmission power of the second uplink data. receiving, from a base station , first control information in a first time point, the first control information instructs the terminal to transmit a first uplink data in a fourth time point; receiving, from the base station , second control information in a second time point after the first time point, the second control information instructs the terminal to transmit a second uplink data in a third time point before the fourth time point; transmitting, to the base station , the second uplink data in third time point based on the second control information; determining a transmission power of the first uplink data corresponding to the first control information based on a transmission power of the second uplink data.
An electric hub drive comprising: a housing ; a rotary drive transmission system comprising an input shaft , and output shaft, and a torque transfer arrangement to effect a rotational coupling between the input shaft and the output shaft mounted within the housing; an electric motor having a motor rotor for driving the input shaft mounted within the housing, a braking assembly including a braking formation positioned within the housing; wherein the braking formation is coupled to be rotationally driven by the drive transmission system, and, characterised in that :- the drive transmission system includes a gearing assembly configured to reduce a higher input shaft angular velocity to a lower output shaft angular velocity and the braking formation is coupled to be rotationally driven by a part of the gearing assembly having an angular velocity greater than that of the output shaft, and the motor rotor is interposed between the braking formation and the gearing assembly . a housing ; a rotary drive transmission system comprising an input shaft , and output shaft, and a torque transfer arrangement to effect a rotational coupling between the input shaft and the output shaft mounted within the housing; an electric motor having a motor rotor for driving the input shaft mounted within the housing, a braking assembly including a braking formation positioned within the housing; wherein the braking formation is coupled to be rotationally driven by the drive transmission system, and, characterised in that :- the drive transmission system includes a gearing assembly configured to reduce a higher input shaft angular velocity to a lower output shaft angular velocity and the braking formation is coupled to be rotationally driven by a part of the gearing assembly having an angular velocity greater than that of the output shaft, and the motor rotor is interposed between the braking formation and the gearing assembly .
An apparatus comprising: a non-planar fin having first, second, and third portions intersecting with each other at a common portion, each having major and minor axes and each being monolithic with each other; wherein (a) the major axes of the first, second, and third portions are parallel with each other, (b) the major axes of the first and second portions are non-collinear with each other, (c) each of the first, second, and third portions includes a node of at least one finFET transistor (120, 230-231) selected from the group comprising source , drain, and channel . (a) the major axes of the first, second, and third portions are parallel with each other, (b) the major axes of the first and second portions are non-collinear with each other, (c) each of the first, second, and third portions includes a node of at least one finFET transistor (120, 230-231) selected from the group comprising source , drain, and channel .
A layered silicate having interlayer cations, wherein the interlayer cations comprise a) inorganic monovalent cations comprising at least one of Na + , K + , and Li + , and b) organic cations comprising at least one protonated amino acid, wherein the molar ratio of the inorganic monovalent cations a) to organic cations b) is in the range of 0.20 : 0.80 to 0.80 : 0.20. a) inorganic monovalent cations comprising at least one of Na + , K + , and Li + , and b) organic cations comprising at least one protonated amino acid,
Exhaust gas flap, especially for the exhaust gas stream of an internal combustion engine, comprising a flap tube , a flap diaphragm , which is carried in the interior of the flap tube on a pivot shaft rotatable about a pivot axis (A), and which comprises two flap diaphragm parts with an identical design and comprising a mounting area enclosing the pivot shaft , wherein each flap diaphragm part comprises a flap wing and a mounting area section of the mounting area of the flap diaphragm adapted with a curved configuration adapted to an outer contour of the pivot shaft , enclosing the pivot shaft in some areas of its outer circumference at opposed circumferential areas, wherein the mounting area sections of the flap diaphragm parts together form the mounting area of the flap diaphragm , and wherein the flap diaphragm parts are mounted in said mounting area sections at said pivot shaft , wherein a wing stop is provided at the inner circumference of the flap tube in association with each flap wing , wherein a respective recess is provided in both axial end areas of the mounting area sections of each of both flap diaphragm parts , wherein a circumferential end area of the wing stop associated to the flap wing of the other flap diaphragm part is received in each recess .