mhurhangee/ep-ind-claims huggingface dataset:
Rubber mixture comprising at least one rubber and at least one low-PAH-content carbon black, characterized in that the low-PAH-content carbon black has an iodine number of from 17 to 75 mg/g, an STSA surface area of from 36 to 64 m 2 /g, an iodine number:STSA surface area ratio > 1.06 mg/m 2, an OAN number of from 60 to 160 ml/100 g, a COAN number of from 40 to 110 ml/100 g, a mode greater than 100 nm and benzo(a)pyrene content < 2 ppm. an iodine number of from 17 to 75 mg/g, an STSA surface area of from 36 to 64 m 2 /g, an iodine number:STSA surface area ratio > 1.06 mg/m 2, an OAN number of from 60 to 160 ml/100 g, a COAN number of from 40 to 110 ml/100 g, a mode greater than 100 nm and benzo(a)pyrene content < 2 ppm.
A workpiece supporting device comprising: a base stand; a shoe that is disposed on at least one place in a circumferential direction of a workpiece, which is rotationally driven using a rotary drive device, to be in sliding contact with a circumferential surface of the workpiece; and a supporting body that supports the shoe with respect to the base stand, wherein the supporting body includes a compliant structure portion which tilts the shoe in accordance with tilting of the workpiece with respect to the base stand, characterized in that the compliant structure portion is configured of an anisotropic elastic portion in which deflection rigidity in an axial direction of the workpiece is smaller than deflection rigidity in the circumferential direction of the workpiece. a base stand; a shoe that is disposed on at least one place in a circumferential direction of a workpiece, which is rotationally driven using a rotary drive device, to be in sliding contact with a circumferential surface of the workpiece; and a supporting body that supports the shoe with respect to the base stand, wherein the supporting body includes a compliant structure portion which tilts the shoe in accordance with tilting of the workpiece with respect to the base stand, characterized in that the compliant structure portion is configured of an anisotropic elastic portion in which deflection rigidity in an axial direction of the workpiece is smaller than deflection rigidity in the circumferential direction of the workpiece.
A surface-modified metal, at least partially having a treated surface, the treated surface being obtained by treating a surface of a metal with a silane coupling agent, followed by adsorbing a hydrogen abstraction type photopolymerization initiator onto the surface and then polymerizing a monomer in the presence of an alkali metal salt.
An air conditioner with an indoor unit and an outdoor unit, the air conditioner comprising: a compressor included in the outdoor unit; an expansion valve of the outdoor unit; a discharge temperature sensor that detects a discharge temperature of a refrigerant discharged from the compressor; a suction temperature sensor that detects a suction temperature of a refrigerant sucked by the compressor; a saturated vapor temperature sensor that detects a saturated vapor temperature of the refrigerant; a control unit that executes a first control process of adjusting a throttle of the expansion valve so that the discharge temperature of the compressor becomes a predetermined target value when the discharge temperature of the refrigerant discharged by the compressor is equal to or higher than a threshold temperature and executes a second control process of adjusting the throttle of the expansion valve to maintain super heat of the refrigerant at a constant value when the discharge temperature of the compressor is lower than the threshold temperature, wherein the super heat of the refrigerant is calculated as a difference of the suction temperature of the refrigerant sucked by the compressor and the saturated temperature of the refrigerant, characterized in that the control unit changes the threshold temperature according to the saturated vapor temperature of the refrigerant. an expansion valve of the outdoor unit; a discharge temperature sensor that detects a discharge temperature of a refrigerant discharged from the compressor; a suction temperature sensor that detects a suction temperature of a refrigerant sucked by the compressor; a saturated vapor temperature sensor that detects a saturated vapor temperature of the refrigerant; a control unit that executes a first control process of adjusting a throttle of the expansion valve so that the discharge temperature of the compressor becomes a predetermined target value when the discharge temperature of the refrigerant discharged by the compressor is equal to or higher than a threshold temperature and executes a second control process of adjusting the throttle of the expansion valve to maintain super heat of the refrigerant at a constant value when the discharge temperature of the compressor is lower than the threshold temperature, wherein the super heat of the refrigerant is calculated as a difference of the suction temperature of the refrigerant sucked by the compressor and the saturated temperature of the refrigerant, characterized in that the control unit changes the threshold temperature according to the saturated vapor temperature of the refrigerant.
A client node, comprising: a first radio configured to use a first radio access technology and a second radio configured to use a second different radio access technology; processing logic configured to monitor and manage the state machines of said first and second radios (604, 606), said processing logic configured to: place said first radio in an active operative mode; place said second radio in a reduced functionality operative mode; monitor control messages for said second radio received via said first radio while said second radio is in said reduced functionality operative mode; and maintain context information for first and second state machines associated with said first and second radio access technologies, respectively, and in response to a change in the state machine associated with said second radio, use said first radio to send an uplink message to a network node or suppress the transmission of an uplink message. a first radio configured to use a first radio access technology and a second radio configured to use a second different radio access technology; processing logic configured to monitor and manage the state machines of said first and second radios (604, 606), said processing logic configured to: place said first radio in an active operative mode; place said second radio in a reduced functionality operative mode; monitor control messages for said second radio received via said first radio while said second radio is in said reduced functionality operative mode; and maintain context information for first and second state machines associated with said first and second radio access technologies, respectively, and in response to a change in the state machine associated with said second radio, use said first radio to send an uplink message to a network node or suppress the transmission of an uplink message. place said first radio in an active operative mode; place said second radio in a reduced functionality operative mode; monitor control messages for said second radio received via said first radio while said second radio is in said reduced functionality operative mode; and maintain context information for first and second state machines associated with said first and second radio access technologies, respectively, and in response to a change in the state machine associated with said second radio, use said first radio to send an uplink message to a network node or suppress the transmission of an uplink message.
Strawberry growing tray comprising an upper face and at least one row of cup-shaped recesses, as well as a ridge extending along the row and extending upwards with respect to said upper face, CHARACTERIZED IN THAT the ridge extends with constant contour over the entire length of the tray, and has a side face for guiding scissors or cutting knife, offering support in transverse direction; wherein all ridges have the same orientation.
A pneumatic tire comprising: an inner liner layer formed from a thermoplastic resin or a thermoplastic elastomer composition obtained by blending a thermoplastic resin with an elastomer, the inner liner layer being disposed on an inner side of a carcass layer; a tie rubber layer disposed between the inner liner layer and the carcass layer; and a coating rubber layer disposed on a bead portion to protect a base surface of the bead portion; the coating rubber layer and the inner liner layer being disposed in a manner such that the coating rubber layer and the inner liner layer overlap each other; a rubber composition in at least a region of the coating rubber layer where the coating rubber layer and the inner liner layer overlap contains: a rubber component, a condensation product of a compound represented by Formula below and formaldehyde, a methylene donor, and a vulcanizing agent; a compounded amount of the condensation product being from 0.5 to 20 parts by mass relative to 100 parts by mass of the rubber component; and a proportion of a compounded amount of the methylene donor to the compounded amount of the condensation product being from 0.5 to 10; wherein, R 1, R 2, R 3, R 4, and R 5 are hydrogen, a hydroxyl group, or an alkyl group having from 1 to 8 carbons. an inner liner layer formed from a thermoplastic resin or a thermoplastic elastomer composition obtained by blending a thermoplastic resin with an elastomer, the inner liner layer being disposed on an inner side of a carcass layer; a tie rubber layer disposed between the inner liner layer and the carcass layer; and a coating rubber layer disposed on a bead portion to protect a base surface of the bead portion; a rubber component, a condensation product of a compound represented by Formula below and formaldehyde, a methylene donor, and a vulcanizing agent; a compounded amount of the condensation product being from 0.5 to 20 parts by mass relative to 100 parts by mass of the rubber component; and a proportion of a compounded amount of the methylene donor to the compounded amount of the condensation product being from 0.5 to 10;
Oil-free compressor with an oil circuit for lubrication and cooling of the oil-free compressor, the oil-free compressor comprising a motor with a variable speed and a compressor element driven by said motor, - whereby this oil circuit is provided with an oil reservoir with oil and a rotary oil pump configured to drive oil from the oil reservoir through an inlet channel upstream the rotary oil pump to the compressor element and/or the motor via an oil pipe; - whereby this rotary oil pump is provided with a rotor mounted on a rotation shaft, whereby this rotary oil pump has a swept volume, and whereby this rotary oil pump is driven by the motor of the compressor element; - whereby the oil circuit is further provided with a return pipe configured to guide oil from the compressor element and/or the motor back to the oil reservoir; - whereby the oil circuit is further provided with a bypass pipe and a pressure-actuated bypass valve which are configured to directly guide a portion of the oil between the rotary oil pump and the compressor element and/or the motor back to the oil reservoir without this portion of the oil passing through the compressor element and/or the motor during its way back to the oil reservoir; and - whereby the oil circuit is further provided with an oil cooler, characterised in that the oil cooler is placed in the bypass pipe, that the bypass valve is placed in the oil pipe, that the inlet channel is provided with a dam with a height that is higher than a height of a centreline of the rotation shaft of the rotary oil pump reduced with a smallest diameter of the rotor of the rotary oil pump divided by two, and that the oil circuit is provided with a sensor configured to register whether oil is present between the:rotary oil pump and the dam. - whereby this oil circuit is provided with an oil reservoir with oil and a rotary oil pump configured to drive oil from the oil reservoir through an inlet channel upstream the rotary oil pump to the compressor element and/or the motor via an oil pipe; - whereby this rotary oil pump is provided with a rotor mounted on a rotation shaft, whereby this rotary oil pump has a swept volume, and whereby this rotary oil pump is driven by the motor of the compressor element; - whereby the oil circuit is further provided with a return pipe configured to guide oil from the compressor element and/or the motor back to the oil reservoir; - whereby the oil circuit is further provided with a bypass pipe and a pressure-actuated bypass valve which are configured to directly guide a portion of the oil between the rotary oil pump and the compressor element and/or the motor back to the oil reservoir without this portion of the oil passing through the compressor element and/or the motor during its way back to the oil reservoir; and - whereby the oil circuit is further provided with an oil cooler,
A method of identifying proximate mobile devices (1, 2), the method comprising the steps of: • recording, in each mobile device, an audio signal so as to produce respective audio samples, • detecting, in each mobile device, an identifier of a type that can be perceived by the human senses, • using said detecting as a trigger for a comparison of the audio samples from the mobile devices, • deciding that the devices are proximate only if the respective audio samples are sufficiently similar and • using said identifier for selecting mobile devices (1, 2) that detected the same identifier, characterized by • determining an audio background of the detected identifier, the comparison comprising comparing the audio samples from the audio background of the identifier in a common interval defined relative to the trigger, and • deciding that the mobile devices are proximate only if a measure of similarity of the respective audio samples from the background in the common time interval exceeds a threshold. • recording, in each mobile device, an audio signal so as to produce respective audio samples, • detecting, in each mobile device, an identifier of a type that can be perceived by the human senses, • using said detecting as a trigger for a comparison of the audio samples from the mobile devices, • deciding that the devices are proximate only if the respective audio samples are sufficiently similar and • using said identifier for selecting mobile devices (1, 2) that detected the same identifier, • determining an audio background of the detected identifier, the comparison comprising comparing the audio samples from the audio background of the identifier in a common interval defined relative to the trigger, and • deciding that the mobile devices are proximate only if a measure of similarity of the respective audio samples from the background in the common time interval exceeds a threshold.
An industrial two-layer fabric which includes one upper surface side fabric constituted by upper surface side warps (2U, 4U, 6U, 8U) and upper surface side wefts (1'U, 2'U, 3'U, 4'U, 5'U, 6'U, 7'U, 8'U), one lower surface side fabric constituted by lower surface side warps (2L, 4L, 6L, 8L) and lower surface side wefts (1'L, 2'L, 3'L, 4'L, 5'L, 6'L, 7'L, 8'L), and binding yarns cooperating with the upper surface side warp to form the surface structure on the upper surface side fabric and constituted by pairs of an upper surface side warp (1Ub, 3Ub, 5Ub, 7Ub) serving as a warp fabric yarn-contact binding yarn and a lower surface side warp (1Lb, 3Lb, 5Lb, 7Lb) serving as a warp fabric yarn-contact binding yarn, wherein the upper surface side warp serving as the warp fabric yarn-contact binding yarn is not woven into the upper surface side weft (5'U, 6'U) at one or more points of a complete structure into which an upper surface side warp would be woven, and extends toward the lower surface side instead and is woven into the lower surface side weft (5'L) at the lower surface side, and then, extends toward the upper surface side to be woven into other upper surface side weft (6'U), wherein the lower surface side warp is not woven into the lower surface side weft (5'L) at a point where the upper surface side warp serving as the warp fabric yarn-contact binding yarn is woven into the lower surface side weft (5'L) at the lower surface side, and extends toward the upper surface side instead to be woven into the upper surface side wefts (5'U, 6'U) into which the upper surface side warp is not woven, at the upper surface side, and then extends toward the lower surface side to be woven into other lower surface side weft, wherein the upper surface side warp forms a first joint loop (WSBL) and is turned back to be woven into the lower surface side weft (3'L, 7'L) on the lower surface side into which the lower surface side warp would be woven, and then, is woven into the lower surface side weft (3'L) on the lower surface side, wherein on the opposite end portion of the industrial two-layer fabric, the upper surface side warp forms a second joint loop (WSBL) and is turned back to be woven into the lower surface side wefts (3'L, 7'L) on the lower surface side into which the lower surface side warp would be woven, wherein the warps form knuckles and wherein each of the first joint loop (WSBL) and the second joint loop (WSBL) includes a warp opposite the upper surface side warp which is turned back to be woven into the lower surface side wefts (3'L, 7'L) on the lower surface side into which the lower surface side warp would be woven and wherein the upper surface side warp which is turned back and the warp opposite to it form a pair, wherein the number of knuckles in the longitudinal structure of one of the warps forming a pair, is the same as that of the other of the warps forming the pair, and distances between the knuckles of one of the warps forming a pair are the same as those distances between the knuckles of the other of the warps forming the pair.
Solid-state image sensing apparatus, comprising: a pixel which includes a photoelectric conversion device, a charge voltage conversion part for generating a voltage of a size which corresponded to an amount of electric charges, a transfer gate for connecting said photoelectric conversion device to said charge voltage conversion part when a transfer pulse was supplied, a reset gate for connecting said charge voltage conversion part to a predetermined electric potential point when a reset pulse was supplied, and a buffer part for outputting a voltage of said charge voltage conversion part. a first signal path for supplying said transfer pulse to said transfer gate after said reset pulse was supplied to said reset gate, and for processing a voltage which said buffer part outputs subsequent to said transfer pulse, as a first light detection voltage by said photoelectric conversion device, and a second signal path for processing an output voltage of said buffer part before said reset pulse is supplied to said reset gate, as a second light detection voltage by said photoelectric conversion device, and characterised in that: said reset gate is configured in order to operate in the sub-threshold region, which allows the second light detection voltage to correspond to the logarithm of the value of the current overflowing the charge voltage conversion part. a pixel which includes a photoelectric conversion device, a charge voltage conversion part for generating a voltage of a size which corresponded to an amount of electric charges, a transfer gate for connecting said photoelectric conversion device to said charge voltage conversion part when a transfer pulse was supplied, a reset gate for connecting said charge voltage conversion part to a predetermined electric potential point when a reset pulse was supplied, and a buffer part for outputting a voltage of said charge voltage conversion part. a first signal path for supplying said transfer pulse to said transfer gate after said reset pulse was supplied to said reset gate, and for processing a voltage which said buffer part outputs subsequent to said transfer pulse, as a first light detection voltage by said photoelectric conversion device, and a second signal path for processing an output voltage of said buffer part before said reset pulse is supplied to said reset gate, as a second light detection voltage by said photoelectric conversion device, and characterised in that: said reset gate is configured in order to operate in the sub-threshold region, which allows the second light detection voltage to correspond to the logarithm of the value of the current overflowing the charge voltage conversion part. said reset gate is configured in order to operate in the sub-threshold region, which allows the second light detection voltage to correspond to the logarithm of the value of the current overflowing the charge voltage conversion part.
A packing box for holding articles, the packing box comprising opposing first and second side panels (10, 20) and opposing third and fourth side panels (30, 40), each side panel having opposing first and second flank sides (11, 21, 31, 41, 12, 22, 32, 42) and opposing first and second end sides (13, 23, 33, 43, 14, 24, 34, 44), a flank side of one side panel being connected to a flank side of an adjacent side panel so as to determine a circumference of the packing box, the first and second side panels (10, 20) each with their first flank side (11, 21) being connected to a respective flank side (31, 32) of the third side panel, and the first and second side panels (10, 20) each with their second flank side (12, 22) being connected to a respective flank side (42, 41) of the fourth side panel, the first end sides (13, 23, 33, 43) of the first, second, third and fourth side panels corresponding to a first end of the packing box and comprising first flaps (15, 25, 35, 45) that are configured for closing the first end of the packing box, and the second end sides (14, 24, 34, 44) of the first, second, third and fourth side panels corresponding to a second end of the packing box and comprising second flaps (16, 26, 36, 46) that are configured for closing the second end of the packing box, wherein the first flap of the third side panel has opposing sides associated with the first and second side panels (10, 20), which opposing sides are or can be attached to the first and second side panels such that the first flap of the third side panel partly closes the first end of the packing box, and characterized in that tear lines (51a, 52a) are provided in at least the first and second side panels (10, 20) so as to allow removing a part of the first and second side panels (10, 20) and at least part of the fourth side panel together with the first flaps (15, 25, 45) of the first, second and fourth side panels so as to leave a display case part of the packing box.
Method for changing removable carrier units (8a', 8b') with flat packaging material, particularly packaging film, wound an supply rolls within a packaging machine, the packaging machine being equipped with devices for at least partially wrapping piece goods, containers, article groups, etc. with flat packaging material (10, 10'), in which method removable carrier units (8a, 8b) with new supply rolls are fed in a series one after the other to a work area of a handling device, the work area of which extends into of least one position of the operation position of the removable carrier unit (8a', 8b') equipped with a supply roll which is arranged within the packaging machine, whereby removable carrier units (8a', 8b') located within the packaging machine and used up supply rolls are replaced with new removable carrier units (8a, 8b) with in each case a new supply roll, wherein respective removable carrier units (8a, 8b) with new supply rolls are inserted alternately in at least two different installation positions (EB1, EB2) within the packaging machine and the flat packaging material of which is connected to the packaging material still located within the packaging machine.