mhurhangee/ep-ind-claims huggingface dataset:
A carton (5; 205; 305; 505; 605) for containing a plurality of articles, the carton comprising: a plurality of panels (15, 17, 23, 29) that extends at least partially around an interior of the carton, the plurality of panels comprising a top panel, a bottom panel, a first side panel, and a second side panel; an article protection insert (165; 210; 310; 454; 504; 607) comprising a plurality of features (166, 167, 173, 181; 213, 241, 243; 325; 512, 520, 522; 625, 627, 635, 637) for engaging a respective article of the plurality of articles; and at least one access feature in the top panel for positioning the article protection insert (165; 210; 310; 454; 504; 607) to a position wherein the features (166, 167, 173, 181; 213, 241, 243; 325; 512, 520, 522; 625, 627, 635, 637) engage at least one article of the plurality of articles, characterized in that the article engaging features (166, 167, 173, 181; 213, 241, 243; 325; 512, 520, 522; 625, 627, 635, 637) comprise at least one opening (166; 213; 325; 512; 625) in the article protection insert (165; 210; 310; 454; 504; 607), the at least one opening (166; 213; 325; 512; 625) receiving at least a portion of an article of the plurality of articles. a plurality of panels (15, 17, 23, 29) that extends at least partially around an interior of the carton, the plurality of panels comprising a top panel, a bottom panel, a first side panel, and a second side panel; an article protection insert (165; 210; 310; 454; 504; 607) comprising a plurality of features (166, 167, 173, 181; 213, 241, 243; 325; 512, 520, 522; 625, 627, 635, 637) for engaging a respective article of the plurality of articles; and at least one access feature in the top panel for positioning the article protection insert (165; 210; 310; 454; 504; 607) to a position wherein the features (166, 167, 173, 181; 213, 241, 243; 325; 512, 520, 522; 625, 627, 635, 637) engage at least one article of the plurality of articles, characterized in that the article engaging features (166, 167, 173, 181; 213, 241, 243; 325; 512, 520, 522; 625, 627, 635, 637) comprise at least one opening (166; 213; 325; 512; 625) in the article protection insert (165; 210; 310; 454; 504; 607), the at least one opening (166; 213; 325; 512; 625) receiving at least a portion of an article of the plurality of articles.
A milking apparatus, comprising: a) a milking claw having teat cups, each teat cup in fluid communication with a cup conduit; b) claw conduit in fluid communication with said cup conduits; c) an electrical probe positioned to contact milk as it flows through the apparatus during milking; characterized in that the milking apparatus further comprises: d) means for supplying AC current to said probe at a frequency of greater than 60 megahertz; e) means for measuring the shift in the phase angle between the voltage and current signals while AC current is applied to said probe that results from the milk. a) a milking claw having teat cups, each teat cup in fluid communication with a cup conduit; b) claw conduit in fluid communication with said cup conduits; c) an electrical probe positioned to contact milk as it flows through the apparatus during milking; characterized in that the milking apparatus further comprises: d) means for supplying AC current to said probe at a frequency of greater than 60 megahertz; e) means for measuring the shift in the phase angle between the voltage and current signals while AC current is applied to said probe that results from the milk. d) means for supplying AC current to said probe at a frequency of greater than 60 megahertz; e) means for measuring the shift in the phase angle between the voltage and current signals while AC current is applied to said probe that results from the milk.
A transistor, comprising: a channel layer (C1, C2) including an oxide semiconductor; a source (S1, S2) and a drain (D1, D2) respectively contacting opposing ends of the channel layer; a gate (G1, G2) corresponding to the channel layer; a gate insulating layer (GI1, GI2) between the channel layer and the gate; a first passivation layer (P11, P21) covering the source, the drain, the gate, the gate insulating layer and the channel layer, said first passivation layer excluding fluorine; and a second passivation layer (P12, P22) including at least one selected from the group consisting of an F-doped silicon oxide layer, an F-doped silicon nitride layer, an F-doped silicon oxynitride layer and combinations thereof on the first passivation layer. a channel layer (C1, C2) including an oxide semiconductor; a source (S1, S2) and a drain (D1, D2) respectively contacting opposing ends of the channel layer; a gate (G1, G2) corresponding to the channel layer; a gate insulating layer (GI1, GI2) between the channel layer and the gate; a first passivation layer (P11, P21) covering the source, the drain, the gate, the gate insulating layer and the channel layer, said first passivation layer excluding fluorine; and a second passivation layer (P12, P22) including at least one selected from the group consisting of an F-doped silicon oxide layer, an F-doped silicon nitride layer, an F-doped silicon oxynitride layer and combinations thereof on the first passivation layer.
A method, comprising: determining whether a discrepancy exists between scheduling headroom for a cell computable by a first device and scheduling headroom for the cell computable by a second device; determining one or more load measurements for the cell that the second device bases its computation of the scheduling headroom on if it is determined that the discrepancy exists; modifying the one or more load measurements; and calculating the scheduling headroom based on the modified one or more load measurements. determining whether a discrepancy exists between scheduling headroom for a cell computable by a first device and scheduling headroom for the cell computable by a second device; determining one or more load measurements for the cell that the second device bases its computation of the scheduling headroom on if it is determined that the discrepancy exists; modifying the one or more load measurements; and calculating the scheduling headroom based on the modified one or more load measurements.
A single-mode high power SMHP fiber laser system comprising: a multimode MM active fiber with a core having a bottleneck-shaped cross-section, the core being configured to support substantially only a fundamental mode at a desired wavelength, wherein the multimode MM active fiber has a step-index profile which is provided with a dip extending into a central core area and configured to controllably transform the Gaussian field profile of the excited fundamental mode into a ring field profile of this fundamental mode as the fundamental mode propagates along the core; and a pump unit operative to generate a pump beam which is coupled into the MM active fiber outputting a radiation substantially in the amplified fundamental mode. a multimode MM active fiber with a core having a bottleneck-shaped cross-section, the core being configured to support substantially only a fundamental mode at a desired wavelength, wherein the multimode MM active fiber has a step-index profile which is provided with a dip extending into a central core area and configured to controllably transform the Gaussian field profile of the excited fundamental mode into a ring field profile of this fundamental mode as the fundamental mode propagates along the core; and a pump unit operative to generate a pump beam which is coupled into the MM active fiber outputting a radiation substantially in the amplified fundamental mode.
Apparatus for cooling and purifying a flow of air, comprising a tower for cooling by direct contact with water, two purification bottles (3A, 3B) each having a vertical axis, a conduit for sending water to the cooling tower, the tower being disposed between the two bottles, a conduit for sending air to the cooling tower and a conduit for sending cooled air from the tower to the purification bottles, and an assembly of valves and pipes for connecting the two bottles to the cooling tower, characterised in that it comprises a building, the assembly being situated inside the building and the two bottles and the tower being outside the building, the two bottles and the assembly being placed on either side of a wall of the building, the bottles being placed along the wall, on the same side of the wall as the tower.
A printing apparatus comprising: a plurality of base color ink containers, (40, 40') each for containing a different base color ink; and a custom color ink container for containing a custom color ink, the printing apparatus being configured to: supply any of the base color inks from the respective base color ink container of the plurality of base color ink containers to the custom color ink container to create a combination of any of the base color inks within the custom color ink container; mix the custom color ink for the custom color ink container using the combination of any of the base color inks supplied from the respective base color ink containers of the plurality of base color ink containers; print any of the base color inks from the respective base color ink container of the plurality of base color ink containers to a print medium, for providing a respective base color image on the print medium; and print the custom color ink from the custom color ink container to the print medium to provide a custom color image on the print medium. a plurality of base color ink containers, (40, 40') each for containing a different base color ink; and a custom color ink container for containing a custom color ink, the printing apparatus being configured to: supply any of the base color inks from the respective base color ink container of the plurality of base color ink containers to the custom color ink container to create a combination of any of the base color inks within the custom color ink container; mix the custom color ink for the custom color ink container using the combination of any of the base color inks supplied from the respective base color ink containers of the plurality of base color ink containers; print any of the base color inks from the respective base color ink container of the plurality of base color ink containers to a print medium, for providing a respective base color image on the print medium; and print the custom color ink from the custom color ink container to the print medium to provide a custom color image on the print medium. supply any of the base color inks from the respective base color ink container of the plurality of base color ink containers to the custom color ink container to create a combination of any of the base color inks within the custom color ink container; mix the custom color ink for the custom color ink container using the combination of any of the base color inks supplied from the respective base color ink containers of the plurality of base color ink containers; print any of the base color inks from the respective base color ink container of the plurality of base color ink containers to a print medium, for providing a respective base color image on the print medium; and print the custom color ink from the custom color ink container to the print medium to provide a custom color image on the print medium.
A base stock composition having a number average molecular weight (M n) of 700 g/mol to 2500 g/mol, a weight average molecular weight (M w) of 1000 g/mol to 4000 g/mol, a polydispersity (M w / M n) of 1.3 to 1.6, a sulfur content of 0.03 wt% or less, an aromatics content of 10 wt% or less, a kinematic viscosity at 100°C of 20 cSt to 35 cSt, a kinematic viscosity at 40°C of 150 cSt to 400 cSt, and a viscosity index of 120 - 145.
A method for producing a joint in a surface covering: (i) applying individual elements of a surface covering to a surface so that a gap is formed between the individual elements of the surface covering; (ii) optionally wetting the individual elements of the surface covering with water; (iii) introducing a composition into the gap between the individual elements of the surface covering; (iv) optionally rinsing the area of the individual elements of the surface covering with water; and (v) curing the composition; wherein the composition comprises a plurality of water-insoluble particles; and a copolymer obtainable by polymerization of dicyclopentadiene or cyclopentadiene and an ester of an unsaturated fatty acid. (i) applying individual elements of a surface covering to a surface so that a gap is formed between the individual elements of the surface covering; (ii) optionally wetting the individual elements of the surface covering with water; (iii) introducing a composition into the gap between the individual elements of the surface covering; (iv) optionally rinsing the area of the individual elements of the surface covering with water; and (v) curing the composition; wherein the composition comprises a plurality of water-insoluble particles; and a copolymer obtainable by polymerization of dicyclopentadiene or cyclopentadiene and an ester of an unsaturated fatty acid. wherein the composition comprises a plurality of water-insoluble particles; and a copolymer obtainable by polymerization of dicyclopentadiene or cyclopentadiene and an ester of an unsaturated fatty acid.
A pneumatic motorcycle tire comprising: a carcass extending between a pair of bead cores, a tread reinforcing cord layer arranged on an outer side of the carcass in a tire radial direction, and a tread rubber arranged on the outer side of the tread reinforcing cord layer in the tire radial direction, the tread rubber forming a ground contacting surface including a crown ground contacting surface for contacting with the ground during straight running, and a pair of shoulder ground contacting surfaces for contacting with the ground during cornering, wherein the tread rubber comprises a base rubber layer and a pair of shoulder rubber layers, the base rubber layer comprises a cover portion covering at least the tread reinforcing cord layer over an entire width thereof and a convex portion protruding radially outwardly from the cover portion so as to form the crown ground contacting surface, the shoulder rubber layers are arranged on the radially outer side of the cover portion so as to form the shoulder ground contacting surfaces, and the base rubber layer is made of a first rubber composition having larger hardness than the shoulder rubber layers, characterized in that the shoulder rubber layers are made of a second rubber composition containing larger amount of oil component than the base rubber layer. a carcass extending between a pair of bead cores, a tread reinforcing cord layer arranged on an outer side of the carcass in a tire radial direction, and a tread rubber arranged on the outer side of the tread reinforcing cord layer in the tire radial direction, the tread rubber forming a ground contacting surface including a crown ground contacting surface for contacting with the ground during straight running, and a pair of shoulder ground contacting surfaces for contacting with the ground during cornering, wherein the tread rubber comprises a base rubber layer and a pair of shoulder rubber layers, the base rubber layer comprises a cover portion covering at least the tread reinforcing cord layer over an entire width thereof and a convex portion protruding radially outwardly from the cover portion so as to form the crown ground contacting surface, the shoulder rubber layers are arranged on the radially outer side of the cover portion so as to form the shoulder ground contacting surfaces, and the base rubber layer is made of a first rubber composition having larger hardness than the shoulder rubber layers, characterized in that the shoulder rubber layers are made of a second rubber composition containing larger amount of oil component than the base rubber layer.
An ocean bottom seismic node, comprising: at least one seismic sensor with associated electronics, a primary oscillator for timing sensor signals, a memory, a power source for supplying electric power to the system, a switch, a processor for receiving sensor signals and storing them in the memory, a further oscillator wherein the seismic node is characterized by: the processor being configured to repeatedly control the frequency calibration of the primary oscillator using a frequency calibration value based on a frequency provided by the further oscillator, and to repeatedly calculate the frequency calibration value, the further oscillator being a reference oscillator of an atomic or another high quality type, the switch being configured for turning the reference oscillator on and off. at least one seismic sensor with associated electronics, a primary oscillator for timing sensor signals, a memory, a power source for supplying electric power to the system, a switch, a processor for receiving sensor signals and storing them in the memory, a further oscillator wherein the seismic node is characterized by: the processor being configured to repeatedly control the frequency calibration of the primary oscillator using a frequency calibration value based on a frequency provided by the further oscillator, and to repeatedly calculate the frequency calibration value, the further oscillator being a reference oscillator of an atomic or another high quality type, the switch being configured for turning the reference oscillator on and off. the processor being configured to repeatedly control the frequency calibration of the primary oscillator using a frequency calibration value based on a frequency provided by the further oscillator, and to repeatedly calculate the frequency calibration value, the further oscillator being a reference oscillator of an atomic or another high quality type, the switch being configured for turning the reference oscillator on and off.
An electronic cigarette, comprising: a cartridge comprising a liquid reservoir chamber and at least one liquid outlet for communicating the internal of the liquid reservoir chamber with the outside; an atomizer device comprising a liquid reservoir room and at least one liquid inlet for communicating the internal of the liquid reservoir room with the outside; wherein the cartridge is mounted to the atomizer device, and is capable of rotating relatively to the atomizer device between a first position A and a second position B; when the cartridge is located at the first position A, the at least one liquid outlet aligns with the at least one liquid inlet, to communicate the liquid reservoir chamber with the liquid reservoir room; when the cartridge is located at the second position B, the at least one liquid outlet misaligns with the at least one liquid inlet, to disconnect the liquid reservoir chamber with the liquid reservoir room. a cartridge comprising a liquid reservoir chamber and at least one liquid outlet for communicating the internal of the liquid reservoir chamber with the outside; an atomizer device comprising a liquid reservoir room and at least one liquid inlet for communicating the internal of the liquid reservoir room with the outside; wherein the cartridge is mounted to the atomizer device, and is capable of rotating relatively to the atomizer device between a first position A and a second position B; when the cartridge is located at the first position A, the at least one liquid outlet aligns with the at least one liquid inlet, to communicate the liquid reservoir chamber with the liquid reservoir room; when the cartridge is located at the second position B, the at least one liquid outlet misaligns with the at least one liquid inlet, to disconnect the liquid reservoir chamber with the liquid reservoir room.
A motor drive device that drives a motor, the motor drive device comprising: a rectifier circuit to enable an alternating-current voltage to be rectified by respective rectification systems of full-wave rectification and voltage doubler rectification, and to output a direct-current voltage; an inverter circuit to convert the direct-current voltage into an alternating-current voltage and to output the alternating-current voltage to the motor; a switching unit to perform switching between the full-wave rectification and the voltage doubler rectification; and a control unit, characterized in that inverter circuit being capable of switching a state between a driving state in which the direct-current voltage is applied and the motor is driven and a standby state in which the direct-current voltage is applied and the motor is stopped being driven, and the control unit controls the switching unit on a basis of a voltage value of the alternating-current voltage, the state of the inverter circuit, and an external input signal input to the motor drive device from an instrument outside the motor drive device or information on an integrated operation time of a device including the motor drive device indicated by internal data stored in the control unit. a rectifier circuit to enable an alternating-current voltage to be rectified by respective rectification systems of full-wave rectification and voltage doubler rectification, and to output a direct-current voltage; an inverter circuit to convert the direct-current voltage into an alternating-current voltage and to output the alternating-current voltage to the motor; a switching unit to perform switching between the full-wave rectification and the voltage doubler rectification; and a control unit, characterized in that inverter circuit being capable of switching a state between a driving state in which the direct-current voltage is applied and the motor is driven and a standby state in which the direct-current voltage is applied and the motor is stopped being driven, and the control unit controls the switching unit on a basis of a voltage value of the alternating-current voltage, the state of the inverter circuit, and an external input signal input to the motor drive device from an instrument outside the motor drive device or information on an integrated operation time of a device including the motor drive device indicated by internal data stored in the control unit. characterized in that inverter circuit being capable of switching a state between a driving state in which the direct-current voltage is applied and the motor is driven and a standby state in which the direct-current voltage is applied and the motor is stopped being driven, and the control unit controls the switching unit on a basis of a voltage value of the alternating-current voltage, the state of the inverter circuit, and an external input signal input to the motor drive device from an instrument outside the motor drive device or information on an integrated operation time of a device including the motor drive device indicated by internal data stored in the control unit.
In combination, a plastic label attached to an outer surface of a rubber-based vehicular tire by a pressure sensitive adhesive, said pressure sensitive adhesive being attached to an exposed surface of an inner surface layer of said label, said tire including one or more materials capable of migrating through a label and providing visible stains on an outer exposed surface thereof, and characterized in that: said inner surface layer of said label including a hydroxyl functionalized polyether amine resin preventing the material exuded from the tire from migrating through the label thickness to provide visible staining of said outer exposed surface of said label and said label having a multilayer structure, the core layer thereof comprising one of: a) high crystalline polypropylene having intermolecular stereoregularity greater than 93%; or b) conventional polypropylene having intermolecular stereoregularity no greater than 93% and hard resin. a) high crystalline polypropylene having intermolecular stereoregularity greater than 93%; or b) conventional polypropylene having intermolecular stereoregularity no greater than 93% and hard resin.