mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a fine emulsion sausage comprising the steps of: a) coextruding a casing paste comprising (i) alginate and (ii) a sparingly soluble calcium compound; and an emulsion filling to form a co-extruded product; b) contacting such co-extruded product with a solution comprising calcium ions, thereby causing the alginate to gel to form a coated sausage; and c) drying such coated sausage between 50 and 90°; characterised in that the sausage is dried at a relative humidity of less than 15% in a chamber. a) coextruding a casing paste comprising (i) alginate and (ii) a sparingly soluble calcium compound; and an emulsion filling to form a co-extruded product; b) contacting such co-extruded product with a solution comprising calcium ions, thereby causing the alginate to gel to form a coated sausage; and c) drying such coated sausage between 50 and 90°;
A method for encoding by an encoder, comprising: identifying a plurality of channel instances of a channel associated with transmission of a vector comprising a first plurality of information bits, wherein the channel is recursively polarized by being partitioned or grouped into sectors or groups such that each group includes one or more channel instances; allocating the first plurality of information bits among the one or more groups based at least in part on a reliability metric associated with the channel; performing an encoding operation to encode the vector based at least in part on the allocation of the first plurality of information bits among the one or more groups and a size of at least one of the one or more groups; and transmitting the encoded vector using the plurality of channel instances; further comprising: storing a base sequence corresponding to a given group size and a given location of the given group; and determining one or more information bit locations for a group based at least in part on a number of information bits allocated to the group and the associated base sequence. identifying a plurality of channel instances of a channel associated with transmission of a vector comprising a first plurality of information bits, wherein the channel is recursively polarized by being partitioned or grouped into sectors or groups such that each group includes one or more channel instances; allocating the first plurality of information bits among the one or more groups based at least in part on a reliability metric associated with the channel; performing an encoding operation to encode the vector based at least in part on the allocation of the first plurality of information bits among the one or more groups and a size of at least one of the one or more groups; and transmitting the encoded vector using the plurality of channel instances; further comprising: storing a base sequence corresponding to a given group size and a given location of the given group; and determining one or more information bit locations for a group based at least in part on a number of information bits allocated to the group and the associated base sequence. storing a base sequence corresponding to a given group size and a given location of the given group; and determining one or more information bit locations for a group based at least in part on a number of information bits allocated to the group and the associated base sequence.
Device for the machining - in particular the simultaneous machining - of multiple wheelsets (20A, 20B) of a rail vehicle, comprising: - a first underfloor wheelset lathe for reprofiling wheels and brake discs from a first wheelset of a rail vehicle, - a second underfloor wheelset lathe for reprofiling wheels and brake discs from a second wheelset of a rail vehicle, - a third underfloor wheelset lathe for reprofiling wheels and brake discs from a third wheelset of a rail vehicle, and - a fourth underfloor wheelset lathe for reprofiling wheels and brake discs from a fourth wheelset of a rail vehicle, - wherein a second rail support is arranged between the third underfloor wheelset lathe and the fourth underfloor wheelset lathe, - wherein the distance between the second underfloor wheelset lathe and the first underfloor wheelset lathe is adjustable, and - wherein the distance between the third underfloor wheelset lathe and the first underfloor wheelset lathe is adjustable and/or - wherein the distance between the fourth underfloor wheelset lathe and the first underfloor wheelset lathe is adjustable, characterised in that the second rail support is displaceable relative to the third underfloor wheelset lathe and/or relative to the fourth underfloor wheelset lathe. - a first underfloor wheelset lathe for reprofiling wheels and brake discs from a first wheelset of a rail vehicle, - a second underfloor wheelset lathe for reprofiling wheels and brake discs from a second wheelset of a rail vehicle, - a third underfloor wheelset lathe for reprofiling wheels and brake discs from a third wheelset of a rail vehicle, and - a fourth underfloor wheelset lathe for reprofiling wheels and brake discs from a fourth wheelset of a rail vehicle, - wherein a second rail support is arranged between the third underfloor wheelset lathe and the fourth underfloor wheelset lathe, - wherein the distance between the second underfloor wheelset lathe and the first underfloor wheelset lathe is adjustable, and - wherein the distance between the third underfloor wheelset lathe and the first underfloor wheelset lathe is adjustable and/or - wherein the distance between the fourth underfloor wheelset lathe and the first underfloor wheelset lathe is adjustable, characterised in that
A method implemented by a switch in a Software Defined Networking, SDN network to trace packets in the SDN network, where the switch includes a packet processing pipeline that includes a plurality of flow tables, the method comprising: receiving a first packet; determining, at a first flow table of the packet processing pipeline, whether the first packet is to be traced; sending a copy of the first packet to an SDN controller for tracing purposes and directing the first packet to a second flow table of the packet processing pipeline in response to a determination by the switch at the first flow table that the first packet is to be traced; receiving, from the SDN controller, a second packet and an indication that the second packet is to be directed to a third flow table, wherein the second packet is a trace packet that the switch previously sent to the SDN controller at the third flow table; determining, at the first flow table, whether the second packet is to be traced; setting a first field associated with the second packet to indicate that tracing is disabled for the second packet in response to a determination at the first flow table that the second packet is to be traced; and directing the second packet to the third flow table, wherein a second field associated with the second packet is set to indicate that tracing is enabled for the second packet so as to allow the trace packet to resume processing from where it was previously sent to the SDN controller. receiving a first packet; determining, at a first flow table of the packet processing pipeline, whether the first packet is to be traced; sending a copy of the first packet to an SDN controller for tracing purposes and directing the first packet to a second flow table of the packet processing pipeline in response to a determination by the switch at the first flow table that the first packet is to be traced; receiving, from the SDN controller, a second packet and an indication that the second packet is to be directed to a third flow table, wherein the second packet is a trace packet that the switch previously sent to the SDN controller at the third flow table; determining, at the first flow table, whether the second packet is to be traced; setting a first field associated with the second packet to indicate that tracing is disabled for the second packet in response to a determination at the first flow table that the second packet is to be traced; and directing the second packet to the third flow table, wherein a second field associated with the second packet is set to indicate that tracing is enabled for the second packet so as to allow the trace packet to resume processing from where it was previously sent to the SDN controller.
A turbine engine system (20;200), comprising: at least one hydrogen fuel tank; a core flow path heat exchanger in a core flow path; and a compressor section, a combustor section having a burner, and a turbine section, each section located in the core flow path, wherein the core flow path heat exchanger is arranged in the core flow path downstream of the combustor section, wherein hydrogen fuel is supplied from the at least one hydrogen fuel tank through a hydrogen fuel supply line, passing through the core flow path heat exchanger and then supplied into the burner for combustion, characterised in that the core flow path heat exchanger comprises: a radially outward plenum assembly; a radially inward plenum assembly; and a plurality of heat transfer tubes extending from the radially inward plenum assembly to the radially outward plenum assembly across the core flow path. at least one hydrogen fuel tank; a core flow path heat exchanger in a core flow path; and a compressor section, a combustor section having a burner, and a turbine section, each section located in the core flow path, wherein the core flow path heat exchanger is arranged in the core flow path downstream of the combustor section, wherein hydrogen fuel is supplied from the at least one hydrogen fuel tank through a hydrogen fuel supply line, passing through the core flow path heat exchanger and then supplied into the burner for combustion, a radially outward plenum assembly; a radially inward plenum assembly; and a plurality of heat transfer tubes extending from the radially inward plenum assembly to the radially outward plenum assembly across the core flow path.
A stoker-type incinerator comprising: a stoker configured to burn an object to be incinerated while being conveyed; a combustion gas channel configured to guide combustion gas generated due to combustion of the object to be incinerated upward; a primary combustion air supply unit configured to supply primary combustion air to the stoker; a recirculated exhaust gas supply unit configured to allow exhaust gas resulting from treating the combustion gas that has circulated through the combustion gas channel to reflux to the combustion gas channel via a plurality of recirculated exhaust gas nozzles provided on the combustion gas channel and to supply the exhaust gas as recirculated exhaust gas; and a secondary combustion air supply unit configured to supply secondary combustion air to the combustion gas channel via secondary combustion air nozzles provided on the combustion gas channel and on a downstream side, in a circulation direction of the combustion gas, of the recirculated exhaust gas nozzles on the combustion gas channel, wherein the recirculated exhaust gas nozzles are directed to supply the recirculated exhaust gas along a conveyance direction of the object to be incinerated, the secondary combustion air nozzles are directed to supply secondary combustion air along the conveyance direction of the object to be incinerated, and the stoker-type incinerator being characterized in that the secondary combustion air nozzles and the recirculated exhaust gas nozzles are arranged at different positions in a plan view, being alternately arranged in the plan view. a stoker configured to burn an object to be incinerated while being conveyed; a combustion gas channel configured to guide combustion gas generated due to combustion of the object to be incinerated upward; a primary combustion air supply unit configured to supply primary combustion air to the stoker; a recirculated exhaust gas supply unit configured to allow exhaust gas resulting from treating the combustion gas that has circulated through the combustion gas channel to reflux to the combustion gas channel via a plurality of recirculated exhaust gas nozzles provided on the combustion gas channel and to supply the exhaust gas as recirculated exhaust gas; and a secondary combustion air supply unit configured to supply secondary combustion air to the combustion gas channel via secondary combustion air nozzles provided on the combustion gas channel and on a downstream side, in a circulation direction of the combustion gas, of the recirculated exhaust gas nozzles on the combustion gas channel, wherein the recirculated exhaust gas nozzles are directed to supply the recirculated exhaust gas along a conveyance direction of the object to be incinerated, the secondary combustion air nozzles are directed to supply secondary combustion air along the conveyance direction of the object to be incinerated, and the stoker-type incinerator being characterized in that the secondary combustion air nozzles and the recirculated exhaust gas nozzles are arranged at different positions in a plan view, being alternately arranged in the plan view.
Process for removing condensation from an oxygenator crossed by a flow of venous blood and provided with a hollow - capillary membrane, the process comprising the step of: a) feeding a flow of working gas to said hollow capillaries, at a first pressure value (P1 g), for the removal of carbon dioxide from the blood and/ or the oxygenation thereof; b) assigning a constant value to, or detecting, the pressure value (P v) of the flow of venous blood; c) causing at least one pressure peak (P2g) in the flow of working gas fed to the hollow capillaries, taking care of observing the condition P1 g < P2 g < P v. a) feeding a flow of working gas to said hollow capillaries, at a first pressure value (P1 g), for the removal of carbon dioxide from the blood and/ or the oxygenation thereof; b) assigning a constant value to, or detecting, the pressure value (P v) of the flow of venous blood; c) causing at least one pressure peak (P2g) in the flow of working gas fed to the hollow capillaries, taking care of observing the condition P1 g < P2 g < P v.
A method for manufacturing packaging, the container of which is made from a sheet of flat cardboard that is pre-cut and pre-grooved, each container being made in three dimensions with a bottom and side walls (3, 4, 5, 6) by folding, the inside of the volume of the container then being coated with a plasticized film by thermoforming, the method including: - automated loading of the sheets at a predetermined rate into at least one thermoforming mold cavity; - thermoforming the film in the containers at a rate synchronized to the loading rate; - preforming said sheets prior to loading into each thermoforming cavity; characterized in that the automated loading includes: - picking up at least one pre-cut and pre-grooved flat sheet using means for recovering the sheets from at least one stack of said sheets, and immobilizing the sheets on said recovery means; - transferring each sheet using transfer means to means for supplying at least one thermoforming mold cavity, and immobilizing and preforming the sheets in said supply means. - automated loading of the sheets at a predetermined rate into at least one thermoforming mold cavity; - thermoforming the film in the containers at a rate synchronized to the loading rate; - preforming said sheets prior to loading into each thermoforming cavity; characterized in that the automated loading includes: - picking up at least one pre-cut and pre-grooved flat sheet using means for recovering the sheets from at least one stack of said sheets, and immobilizing the sheets on said recovery means; - transferring each sheet using transfer means to means for supplying at least one thermoforming mold cavity, and immobilizing and preforming the sheets in said supply means. - picking up at least one pre-cut and pre-grooved flat sheet using means for recovering the sheets from at least one stack of said sheets, and immobilizing the sheets on said recovery means; - transferring each sheet using transfer means to means for supplying at least one thermoforming mold cavity, and immobilizing and preforming the sheets in said supply means.
A therapeutically effective amount of a miR-135, a precursor thereof or a nucleic acid molecule encoding said miR-135 or said precursor thereof for use in treating a bipolar disorder in a subject in need thereof.
A method of converting a subsea laying system of a surface vessel from a laying mode to an abandonment or recovery mode, the method comprising: clamping at least one tubular sleeve in at least one clamp (26, 30) of the laying system; and running a wire longitudinally through the or each clamped sleeve (26, 30) to suspend an elongate subsea element during abandonment or recovery. clamping at least one tubular sleeve in at least one clamp (26, 30) of the laying system; and running a wire longitudinally through the or each clamped sleeve (26, 30) to suspend an elongate subsea element during abandonment or recovery.
A gas-permeable film (1, 1A, 1B, 10, 10A) comprising: a gas-permeable section for gas permeation that is provided to a base plastic film of a prescribed thickness, wherein the gas-permeable section is a non-penetrating recession having a top opening (3a, 109a, 212a) and a bottom (3c, 109c, 212c), and the recession is formed such that a thickness decreases gradually from the top opening towards the bottom with the bottom being thinnest, and wherein the bottom of the recession protrudes outwards from a surface of the base plastic film, and wherein the recession is formed as a slit (3, 5, 109, 212) having a U-shaped or V-shaped sectional shape, and wherein the recession is formed from a discontinuous slit group (3L, 109L, 212L) wherein a plurality of slits are arranged at a prescribed interval. a gas-permeable section for gas permeation that is provided to a base plastic film of a prescribed thickness, wherein the gas-permeable section is a non-penetrating recession having a top opening (3a, 109a, 212a) and a bottom (3c, 109c, 212c), and the recession is formed such that a thickness decreases gradually from the top opening towards the bottom with the bottom being thinnest, and wherein the bottom of the recession protrudes outwards from a surface of the base plastic film, and wherein the recession is formed as a slit (3, 5, 109, 212) having a U-shaped or V-shaped sectional shape, and wherein the recession is formed from a discontinuous slit group (3L, 109L, 212L) wherein a plurality of slits are arranged at a prescribed interval.
A device for RF skin treatment, comprising: an active electrode arranged on an operational side of the device and having a first skin contact surface for contact with a skin of a user, which first skin contact surface has a largest cross-sectional dimension smaller than or equal to 2 mm; a return electrode arranged on the operational side of the device and having a second skin contact surface for contact with the skin of the user, an area of the second skin contact surface being at least five times larger than an area of the first skin contact surface; an RF generator arranged to supply an RF treatment voltage between the active electrode and the return electrode so as to heat a skin region below the active electrode, characterized in that the RF treatment voltage has a frequency in a range of 100 MHz - 3 GHz. an active electrode arranged on an operational side of the device and having a first skin contact surface for contact with a skin of a user, which first skin contact surface has a largest cross-sectional dimension smaller than or equal to 2 mm; a return electrode arranged on the operational side of the device and having a second skin contact surface for contact with the skin of the user, an area of the second skin contact surface being at least five times larger than an area of the first skin contact surface; an RF generator arranged to supply an RF treatment voltage between the active electrode and the return electrode so as to heat a skin region below the active electrode, characterized in that the RF treatment voltage has a frequency in a range of 100 MHz - 3 GHz.
An indoor unit of an air conditioner comprising: an insulated control power source adapted to generate a low control voltage from an output voltage of an alternating-current power source; a high-voltage power source operable to generate a high voltage from the low control voltage; a high-voltage generating device to which the high voltage is applied; an electronic components box made of a metal and accommodating at least the control power source therein; characterized by comprising: a first resistor operable to electrically connect a secondary side ground of the control power source on a side of the high-voltage generating device to the electronic components box; and a second resistor operable to electrically connect a primary side ground of the control power source on a side of the alternating-current power source to the secondary side ground; wherein the primary side ground is grounded via a grounded wire of the alternating-current power source. an insulated control power source adapted to generate a low control voltage from an output voltage of an alternating-current power source; a high-voltage power source operable to generate a high voltage from the low control voltage; a high-voltage generating device to which the high voltage is applied; an electronic components box made of a metal and accommodating at least the control power source therein; a first resistor operable to electrically connect a secondary side ground of the control power source on a side of the high-voltage generating device to the electronic components box; and a second resistor operable to electrically connect a primary side ground of the control power source on a side of the alternating-current power source to the secondary side ground; wherein the primary side ground is grounded via a grounded wire of the alternating-current power source.
A vehicle suspension comprising a quadrangular frame with a pair of arms (2, 3) attached thereto, where the ends of said arms are configured to be connected to the hubs of the respective wheels, characterized in that said suspension comprises two pairs of arms (2, 3) - a pair of identical transverse arms and a pair of identical longitudinal arms with the ends of the longitudinal arms configured to be connected to the hubs of the respective wheels, each arm (2, 3) is rotatably attached by its central zone to the central portion of the corresponding side of a quadrangular frame through rubber-metal joint, the arms (2, 3) contact surfaces are cylindrical, they are adapted for mechanical coupling of arms (2, 3) to each other and are oriented as follows: longitudinal left and right arms have their contact surfaces oriented upwards, while transverse front and back arms have their contact surfaces oriented downwards, contact surfaces of each arm (2, 3) are tangent to the plane extending through the axis of rotation of the arm (2, 3) and are located on one side of it, while each side of the quadrangular frame rests upon the hubs of two wheels through the corresponding arm (2, 3).