mhurhangee/ep-ind-claims huggingface dataset:
A speaker or microphone module, comprising: an acoustic membrane which faces a cavity; wherein the speaker and microphone module is operable to: determine liquid is in the cavity; and attempt to drive the liquid from the cavity by producing at least one tone; characterized by further comprising: at least one vent located in an acoustic path of the speaker or microphone module, wherein the at least one vent is a pressure vent that equalises pressure on a first side of the acoustic membrane with pressure on a second side of the acoustic membrane; and the speaker or microphone module is further operable to: determine the liquid is still present in the cavity after producing the at least one tone; and attempt to drive the liquid from the cavity by producing at least one modified tone. an acoustic membrane which faces a cavity; wherein the speaker and microphone module is operable to: determine liquid is in the cavity; and attempt to drive the liquid from the cavity by producing at least one tone; determine liquid is in the cavity; and attempt to drive the liquid from the cavity by producing at least one tone; characterized by further comprising: at least one vent located in an acoustic path of the speaker or microphone module, wherein the at least one vent is a pressure vent that equalises pressure on a first side of the acoustic membrane with pressure on a second side of the acoustic membrane; and the speaker or microphone module is further operable to: determine the liquid is still present in the cavity after producing the at least one tone; and attempt to drive the liquid from the cavity by producing at least one modified tone. at least one vent located in an acoustic path of the speaker or microphone module, wherein the at least one vent is a pressure vent that equalises pressure on a first side of the acoustic membrane with pressure on a second side of the acoustic membrane; and the speaker or microphone module is further operable to: determine the liquid is still present in the cavity after producing the at least one tone; and attempt to drive the liquid from the cavity by producing at least one modified tone.
A continuous casting machine for continuous casting of a metal in which equipment is installed for continuous soft reduction by pinch rolls (2a,2b) during continuous casting of a slab having a rectangular transverse cross section when the solid fraction at a center in the direction of thickness f s is at least in a range of 0.1-0.9, and the reduction ratio in the direction of the slab thickness is within 1% per meter of length in the direction of casting, the equipment being for continuously impacting both of the opposing sides of a narrow side of the slab in a direction of slab width in at least one site where a solid fraction at the center of the slab in the direction of thickness f s is within a range of 0.1-0.9 at a vibration frequency of impact of 4-12 Hz, and an impact energy of 30-150 J, the equipment comprising: a block for impacting a narrow side of the slab; an impact device for transmitting generated periodic impact to the block; and a position control device for setting the distance between the block and the narrow side of the slab, the position control device having a structure enabling setting of a gap between a front end of the block and the narrow side of the slab at a pull-back position of the block based on a result of detection of a pushing position of the block on the narrow side of the slab, or a structure for setting a gap between the slab and the front end of the block by pushing a guide against the slab, characterized in that the block has a structure that enables it to uniformly impact at least the narrow side of the slab as a single unit using an impact plate disposed between two sets of paired pinch rolls (2a,2b) disposed adjacent to each other in a soft reduction zone formed by a set of paired pinch rolls (2a,2b) in a plurality of sets of paired pinch rolls (2a,2b). a block for impacting a narrow side of the slab; an impact device for transmitting generated periodic impact to the block; and a position control device for setting the distance between the block and the narrow side of the slab, the position control device having a structure enabling setting of a gap between a front end of the block and the narrow side of the slab at a pull-back position of the block based on a result of detection of a pushing position of the block on the narrow side of the slab, or a structure for setting a gap between the slab and the front end of the block by pushing a guide against the slab, characterized in that the block has a structure that enables it to uniformly impact at least the narrow side of the slab as a single unit using an impact plate disposed between two sets of paired pinch rolls (2a,2b) disposed adjacent to each other in a soft reduction zone formed by a set of paired pinch rolls (2a,2b) in a plurality of sets of paired pinch rolls (2a,2b).
Device for handling waste collection containers, the device comprising a coupling head which comprises a head structure arranged to be attached to the distal end of a crane arm comprised in a waste collection vehicle, said head structure comprising: a first holding member having first movable elements operated by means of first operating means, said first movable elements being movable between a handle gripping position and a handle release position and for being coupled to a mushroom-shaped handle (2, 2') fixed on an outer surface of a container and for holding up said container through said handle (2, 2'), each of said first movable elements having a flat surface adapted for being placed in contact with a corresponding flat surface of the mushroom-shaped handle (2, 2') in their handle gripping position; said first operating means being controlled by means of a control unit; characterized in that the first movable elements, between the handle gripping position and the handle release position, are also movable to an overload position wherein the first movable elements are into geometric interference with the mushroom-shaped handle (2, 2'), and in that the first operating means comprise resilient elements configured to move a first movable element from the handle gripping position to the overload position when a force exerted by the container handle (2, 2') exceeds a threshold. a first holding member having first movable elements operated by means of first operating means, said first movable elements being movable between a handle gripping position and a handle release position and for being coupled to a mushroom-shaped handle (2, 2') fixed on an outer surface of a container and for holding up said container through said handle (2, 2'), each of said first movable elements having a flat surface adapted for being placed in contact with a corresponding flat surface of the mushroom-shaped handle (2, 2') in their handle gripping position; said first operating means being controlled by means of a control unit; characterized in that the first movable elements, between the handle gripping position and the handle release position, are also movable to an overload position wherein the first movable elements are into geometric interference with the mushroom-shaped handle (2, 2'), and in that the first operating means comprise resilient elements configured to move a first movable element from the handle gripping position to the overload position when a force exerted by the container handle (2, 2') exceeds a threshold.
Polymer composite comprising (a) propylene copolymer composition having a comonomer content in the range of 2.5 to 10 wt.-%, the comonomers are C 5 to C 12 α-olefins, and (b) a low-crystalline polymer having a melting temperature (measured by DSC according to the method described in the experimental part) of below 120 °C, wherein further said polymer composite has (i) a melting temperature (measured by DSC according to the method described in the experimental part) of at least 140 °C, (ii) a heat sealing initiation temperature (measured by the method described in the experimental part)of not more than 110 °C, and (iii) preferably the polymer composite comprises 5 to 50 wt.-% based on the total amount of polymer composite of low-crystalline polymer. (a) propylene copolymer composition having a comonomer content in the range of 2.5 to 10 wt.-%, the comonomers are C 5 to C 12 α-olefins, and (b) a low-crystalline polymer having a melting temperature (measured by DSC according to the method described in the experimental part) of below 120 °C, (i) a melting temperature (measured by DSC according to the method described in the experimental part) of at least 140 °C, (ii) a heat sealing initiation temperature (measured by the method described in the experimental part)of not more than 110 °C, and (iii) preferably the polymer composite comprises 5 to 50 wt.-% based on the total amount of polymer composite of low-crystalline polymer.
Heat-energy exchange device comprising a first and a second plate heat exchanger, each plate heat exchanger (100, 200) being configured to allow exchanges of heat energy between at least two heat transfer fluids at different temperatures, said exchange device moreover comprising a distribution member sandwiched between the first and second plate heat exchangers, said distribution member comprising a series of channels (31, 32, 33, 34, 35, 36, 37, 38) made within it, said channels (31, 32, 33, 34, 35, 36, 37, 38) connecting heat transfer fluid inlets and outlets of the first and second plate heat exchangers to connection ports (31a, 32a, 33a, 34a, 35a, 36a, 37a, 38a) disposed on said distribution member, the distribution member comprising a heat transfer fluid intake connection port (31a, 33a, 35a, 37a) connected to a heat transfer fluid inlet (101a, 201a, 201a, 202a) of one of the plate heat exchangers (100, 200), characterized in that the distribution member comprises a heat transfer fluid expansion device secured to said heat transfer fluid intake connection port (31a, 33a, 35a, 37a).
A tapping applicator comprising: a stationary part consisting of a casing, an insulating spool provided on the bottom of the casing, and a coil which winds around the insulating spool; a vibrating part consisting of a magnet inserted to move up and down along a hollow of the insulating spool, a vibrating plate integrated into the magnet in the top of the magnet, and a puff which is vibrated by vibrations of the vibrating plate; and a power supply which supplies an alternating current power source to the coil, wherein the puff is NBR puff or flocking puff. a stationary part consisting of a casing, an insulating spool provided on the bottom of the casing, and a coil which winds around the insulating spool; a vibrating part consisting of a magnet inserted to move up and down along a hollow of the insulating spool, a vibrating plate integrated into the magnet in the top of the magnet, and a puff which is vibrated by vibrations of the vibrating plate; and a power supply which supplies an alternating current power source to the coil, wherein the puff is NBR puff or flocking puff.
Process for obtaining a mixture of a C 4 -C 8 alkyl monoether of disaccharide and/or of saccharide derivative and of C 9 -C 18 alkyl monoether of saccharide and/or of saccharide derivative, said saccharide derivative being an alkyl glycoside or alkylated saccharide and/or hydrogenated saccharide and/or dehydrated saccharide, the process comprising: a) a first step of acetalization or of trans-acetalization of a saccharide, of a saccharide derivative or of mixtures thereof by a C 4 -C 8 aliphatic aldehyde or the acetal thereof, b) a consecutive or simultaneous second step of acetalization or of trans-acetalization of the product obtained in a), of the saccharide, of the saccharide derivative or of mixtures thereof, by a C 9 to C 18 aliphatic aldehyde or the acetal thereof, c) a step of catalytic hydrogenolysis of the saccharide acetals and/or saccharide derivative acetals obtained in b), and d) a step of recovery of a mixture of C 4 -C 8 alkyl monoether of saccharide and/or of saccharide derivative and of C 9 -C 18 alkyl monoether of saccharide and/or of saccharide derivative. a) a first step of acetalization or of trans-acetalization of a saccharide, of a saccharide derivative or of mixtures thereof by a C 4 -C 8 aliphatic aldehyde or the acetal thereof, b) a consecutive or simultaneous second step of acetalization or of trans-acetalization of the product obtained in a), of the saccharide, of the saccharide derivative or of mixtures thereof, by a C 9 to C 18 aliphatic aldehyde or the acetal thereof, c) a step of catalytic hydrogenolysis of the saccharide acetals and/or saccharide derivative acetals obtained in b), and d) a step of recovery of a mixture of C 4 -C 8 alkyl monoether of saccharide and/or of saccharide derivative and of C 9 -C 18 alkyl monoether of saccharide and/or of saccharide derivative.
A method for finishing a front of an eyeglasses frame, comprising the following steps: - coupling at least one protective cap to at least one zone of the surface of the front; - first treatment of the surface of the front with abrasive elements; - rinsing the front; - second treatment of the surface of the front with abrasive elements, characterized in that the at least one cap comprises at least one first protective member resistant to a rinsing liquid, in order to keep a first part of the zone covered even during the second treatment, and at least one second protective member which is soluble on contact with the rinsing liquid so as to leave uncovered a second part of the zone of the front during the second treatment. - coupling at least one protective cap to at least one zone of the surface of the front; - first treatment of the surface of the front with abrasive elements; - rinsing the front; - second treatment of the surface of the front with abrasive elements,
An inkjet printing device comprising: an ink storage unit configured to store an ink; an ejection head configured to eject the ink to form a print layer; and a heating unit configured to heat a material to be printed, wherein the ink is an aqueous clear ink including a resin and water, the inkjet printing device has a low gloss printing mode that is a printing mode for imparting low gloss, and a high gloss printing mode that is a printing mode for imparting high gloss, the heating unit is configured to heat to satisfy the following formula T matte >T gloss, where T matte (degrees Celsius) is a temperature of a low gloss printing region of the material to be printed where the low gloss printing region is printed with the low gloss printing mode when the aqueous clear ink is deposited on the material to be printed, and T gloss (degrees Celsius) is a temperature of a high gloss printing region of the material to be printed where the high gloss printing region is printed with the high gloss printing mode when the aqueous clear ink is deposited on the material to be printed, and characterized in that a printing rate D gloss in the high gloss printing mode is greater than a printing rate D matte in the low gloss printing mode. an ink storage unit configured to store an ink; an ejection head configured to eject the ink to form a print layer; and a heating unit configured to heat a material to be printed, wherein the ink is an aqueous clear ink including a resin and water, the inkjet printing device has a low gloss printing mode that is a printing mode for imparting low gloss, and a high gloss printing mode that is a printing mode for imparting high gloss, the heating unit is configured to heat to satisfy the following formula T matte >T gloss, where T matte (degrees Celsius) is a temperature of a low gloss printing region of the material to be printed where the low gloss printing region is printed with the low gloss printing mode when the aqueous clear ink is deposited on the material to be printed, and T gloss (degrees Celsius) is a temperature of a high gloss printing region of the material to be printed where the high gloss printing region is printed with the high gloss printing mode when the aqueous clear ink is deposited on the material to be printed, and characterized in that a printing rate D gloss in the high gloss printing mode is greater than a printing rate D matte in the low gloss printing mode.
A backlight unit of a display apparatus, the backlight unit comprising: a display housing; a light source which is arranged along an inner circumference of the display housing; a light guide plate through which light of the light source is transmitted, and which forms surface light; an optical sheet which is disposed on an upper side of the light guide plate to upwardly diffuse the light of the light source transmitted through the light guide plate; a plurality of first fixing units, each of which fix locations of the light guide plate and the optical sheet in the display housing; a plurality of second fixing units which support only the light guide plate; and a support frame which is connected to the display housing to fix the optical sheet to the display housing provisionally, and has a window formed on a surface corresponding to the light guide plate to allow light to pass therethrough, wherein the light source, the light guide plate, the first fixing units, and the second fixing units are disposed between the display housing and the support frame, wherein the plurality of first fixing units are disposed symmetrically on an upper side and a lower side of the light guide plate, and wherein each first fixing unit comprises a first fixing projection comprising; a first portion which supports the optical sheet; and a second portion which supports the light guide plate, characterized in that: a diameter of the first portion is smaller than a diameter of the second portion. a display housing; a light source which is arranged along an inner circumference of the display housing; a light guide plate through which light of the light source is transmitted, and which forms surface light; an optical sheet which is disposed on an upper side of the light guide plate to upwardly diffuse the light of the light source transmitted through the light guide plate; a plurality of first fixing units, each of which fix locations of the light guide plate and the optical sheet in the display housing; a plurality of second fixing units which support only the light guide plate; and a support frame which is connected to the display housing to fix the optical sheet to the display housing provisionally, and has a window formed on a surface corresponding to the light guide plate to allow light to pass therethrough, wherein the light source, the light guide plate, the first fixing units, and the second fixing units are disposed between the display housing and the support frame, wherein the plurality of first fixing units are disposed symmetrically on an upper side and a lower side of the light guide plate, and wherein each first fixing unit comprises a first fixing projection comprising; a first portion which supports the optical sheet; and a second portion which supports the light guide plate, characterized in that: a diameter of the first portion is smaller than a diameter of the second portion. a diameter of the first portion is smaller than a diameter of the second portion.
A method for resource allocation in a communications system, comprising: determining, in a network apparatus, PUCCH format 1a/1b resources for HARQ-ACK for time division duplex signalling based on an index of the first enhanced control channel element used for transmission of a corresponding EPDCCH downlink assignment in a downlink subframe, a subframe index m being a relative index of the downlink subframe in which the EPDCCH downlink assignment is transmitted, and one or more configured parameters, said method characterized in that a dynamic offset modifier is one of the one or more configured parameters and wherein the dynamic offset modifier is applied such that the dynamic offset modifier depends on the subframe index m, wherein multiple sets of dynamic offset modifiers are defined to be a matrix C with ( M- 1) columns and N rows, N corresponding to the number of options to perform dynamic switching, M being the number of downlink subframes associated with an uplink subframe for HARQ-ACK feedback, and the subframe index m is used as one factor to determine the value of the dynamic offset modifier k (n, m), where n is an index of dynamic switching option signalled as downlink control information DCI via EPDCCH. determining, in a network apparatus, PUCCH format 1a/1b resources for HARQ-ACK for time division duplex signalling based on an index of the first enhanced control channel element used for transmission of a corresponding EPDCCH downlink assignment in a downlink subframe, a subframe index m being a relative index of the downlink subframe in which the EPDCCH downlink assignment is transmitted, and one or more configured parameters, said method characterized in that a dynamic offset modifier is one of the one or more configured parameters and wherein the dynamic offset modifier is applied such that the dynamic offset modifier depends on the subframe index m, wherein multiple sets of dynamic offset modifiers are defined to be a matrix C with ( M- 1) columns and N rows, N corresponding to the number of options to perform dynamic switching, M being the number of downlink subframes associated with an uplink subframe for HARQ-ACK feedback, and the subframe index m is used as one factor to determine the value of the dynamic offset modifier k (n, m), where n is an index of dynamic switching option signalled as downlink control information DCI via EPDCCH.
A method for interconnecting a coaxial connector with a solid outer conductor coaxial cable, comprising the steps of: providing a monolithic connector body with a bore; inserting a leading end of the outer conductor of the coaxial cable into the bore, and characterized by laser welding a circumferential seam between the outer conductor and the bore sidewall of the connector body, from the connector end through the connector body, wherein the leading end of the coaxial cable is inserted into the bore until the outer conductor is generally flush with an edge of a shoulder of a connection interface at a connector end of the connector; the circumferential seam parallel to a longitudinal axis of the connector; the method further including the step of providing an overbody of polymeric material upon an outer diameter of the connector body, the overbody extending from the cable end of the connector body, an inner diameter of the overbody extending from the cable end of the connector body provided as a friction surface dimensioned for an interference fit upon an outer diameter of a jacket of the coaxial cable; and further including the step of rotating the connector with respect to the coaxial cable to form a friction weld between the overbody and the jacket of the coaxial cable. providing a monolithic connector body with a bore; inserting a leading end of the outer conductor of the coaxial cable into the bore, and characterized by laser welding a circumferential seam between the outer conductor and the bore sidewall of the connector body, from the connector end through the connector body,
A metallic glass formed of a zirconium-base alloy comprising a Zr, b Be, c Cu, d Ni, e Al and f Nb, where a, b, c, d, e and f are weight percentages which add to a total of 100 wt%, wherein: a is in the range of 74 wt% to 76 wt%, b is in the range of 1 wt% to 4 wt%, c is in the range of 9 wt% to 12 wt%, d is in the range of 6 wt% to 8 wt%, e is in the range of 2 wt% to 4 wt% and f is in the range of 1 wt% to 2 wt%. a is in the range of 74 wt% to 76 wt%, b is in the range of 1 wt% to 4 wt%, c is in the range of 9 wt% to 12 wt%, d is in the range of 6 wt% to 8 wt%, e is in the range of 2 wt% to 4 wt% and f is in the range of 1 wt% to 2 wt%.