mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of ethanol from a cellulosic or lignocellulosic biomass, comprising at least: a) a step for thermochemical pre-treatment of a cellulosic or lignocellulosic substrate; b) an optional step for washing the pre-treated substrate and for adjusting the pH; c) a step for enzymatic hydrolysis of the pre-treated substrate, optionally washed, using cellulolytic and/or hemicellulolytic enzymes producing a hydrolysate and a water-insoluble residue; d) a step for ethanolic fermentation of the hexoses contained in the hydrolysate obtained from step c) into ethanol by an alcoholigenic microorganism and for obtaining an ex-hexose ethanolic liquor; e) an extraction step comprising: e1) separating and purifying the ethanol obtained from step d); e2) separating a solid cake containing the insoluble residue and obtaining stillage that contain-non fermented pentoses; f) a step for ethanolic fermentation of the pentoses contained in the stillage with a pentose-fermenting microorganism and for obtaining an ex-pentose ethanolic liquor; in which at least a portion of the ex-pentose ethanolic liquor obtained in step f) is recycled upstream of at least one of the enzymatic hydrolysis and/or alcoholic fermentation steps. a) a step for thermochemical pre-treatment of a cellulosic or lignocellulosic substrate; b) an optional step for washing the pre-treated substrate and for adjusting the pH; c) a step for enzymatic hydrolysis of the pre-treated substrate, optionally washed, using cellulolytic and/or hemicellulolytic enzymes producing a hydrolysate and a water-insoluble residue; d) a step for ethanolic fermentation of the hexoses contained in the hydrolysate obtained from step c) into ethanol by an alcoholigenic microorganism and for obtaining an ex-hexose ethanolic liquor; e) an extraction step comprising: e1) separating and purifying the ethanol obtained from step d); e2) separating a solid cake containing the insoluble residue and obtaining stillage that contain-non fermented pentoses; e1) separating and purifying the ethanol obtained from step d); e2) separating a solid cake containing the insoluble residue and obtaining stillage that contain-non fermented pentoses; f) a step for ethanolic fermentation of the pentoses contained in the stillage with a pentose-fermenting microorganism and for obtaining an ex-pentose ethanolic liquor; in which at least a portion of the ex-pentose ethanolic liquor obtained in step f) is recycled upstream of at least one of the enzymatic hydrolysis and/or alcoholic fermentation steps.
A Ga 2 O 3 -based semiconductor element, comprising: a β-Ga 2 O 3 substrate comprising a first conductivity type; a β-Ga 2 O 3 single crystal film formed on a main surface of the β-Ga 2 O 3 substrate which is rotated by not less than 50° and not more than 90° with respect to the plane of the β-Ga 2 O 3 substrate directly or via another layer; a source electrode (22a, 22b, 32) formed on the β-Ga 2 O 3 single crystal film; a drain electrode (25, 35) formed on a surface of the β-Ga 2 O 3 substrate opposite to the β-Ga 2 O 3 single crystal film; a contact region (23a, 23b; 33a, 33b) formed in the β-Ga 2 O 3 single crystal film, connected to the source electrode (22a, 22b, 32) and comprising the first conductivity type; and a gate electrode (21, 31) that is formed on the β-Ga 2 O 3 single crystal film or formed via a gate insulating film in a trench formed in the β-Ga 2 O 3 single crystal film. a β-Ga 2 O 3 substrate comprising a first conductivity type; a β-Ga 2 O 3 single crystal film formed on a main surface of the β-Ga 2 O 3 substrate which is rotated by not less than 50° and not more than 90° with respect to the plane of the β-Ga 2 O 3 substrate directly or via another layer; a source electrode (22a, 22b, 32) formed on the β-Ga 2 O 3 single crystal film; a drain electrode (25, 35) formed on a surface of the β-Ga 2 O 3 substrate opposite to the β-Ga 2 O 3 single crystal film; a contact region (23a, 23b; 33a, 33b) formed in the β-Ga 2 O 3 single crystal film, connected to the source electrode (22a, 22b, 32) and comprising the first conductivity type; and a gate electrode (21, 31) that is formed on the β-Ga 2 O 3 single crystal film or formed via a gate insulating film in a trench formed in the β-Ga 2 O 3 single crystal film.
A data processing apparatus (10, 11, 12) comprising a processing unit configured to multiplex video and audio components into Internet protocol, IP, packets, multiplex a stream of IP packets into Type, Length, Value, TLV, packets, generate a transmission frame from the TLV packets, process the transmission frame to be transmitted via broadcasting, via recording medium, or via communication over a network, and add identification information for identifying a transmission format of the transmission frame, wherein the transmission format of the transmission frame is one of a plurality of transmission formats available for transmission of the transmission frame, wherein the processing unit is configured to convert the transmission frame into files of a predetermined format and record the files of the predetermined format in the recoding medium for transmission via the recoding medium, wherein the processing unit is configured to obtain the files of the predetermined format from the recoding medium and transmit via broadcasting, wherein the processing unit is configured to process the transmission frame to generate a test stream including packets of a predetermined format and transmit the test stream via the network. wherein the processing unit is configured to convert the transmission frame into files of a predetermined format and record the files of the predetermined format in the recoding medium for transmission via the recoding medium, wherein the processing unit is configured to obtain the files of the predetermined format from the recoding medium and transmit via broadcasting, wherein the processing unit is configured to process the transmission frame to generate a test stream including packets of a predetermined format and transmit the test stream via the network.
Composition capable of abating combustion of a Li-ion battery, comprising liquid fluoropolyether and at least one combustion abatement agent being other than fluoropolymer and additionally containing a Lewis acid as a decomposition catalyst.
Electrical interconnection device configured to establish an equipotential connection between a section of cable tray (2; 102) and a section of electric cable, comprising a first accommodation (7; 107) configured to receive a first portion of a warp wire (3; 103) and/or of a weft wire (4; 104) of said section of cable tray (2; 102) and a second accommodation (8; 108) configured to receive a portion of said section of electric cable; said device being characterized in that it is formed by an elastic metal clip (6; 106) comprising a first flexible tab (15; 115) configured to come to project into said first accommodation (7; 107) and thereby act on said first portion of warp wire and/or of weft wire of said section of cable tray (2; 102) when it is received in said first accommodation, as well as a second flexible tab (16; 116) configured to come to project into said second accommodation (8; 108) and thereby act on said portion of said section of electric cable (2; 102) when it is received in said second accommodation, said first flexible tab and second flexible tab making it possible to define respectively first and second accommodations of variable sizes; said elastic metal clip (6; 106) having the general shape of an S, having a first main wall (10; 110), an inside wall (13; 113) extending from a first end of said main wall (10; 110) and defining with the latter said first accommodation (7; 107), an outside wall (14; 114) extending from a second end of said main wall (10; 110), which is an opposite end to its first end, and defining with that main wall (10; 110) said second accommodation (8; 108); said first flexible tab (15; 115) being provided in said inside wall (13; 113) and said second flexible tab (16; 116) being provided in said outside wall (14;114); said first flexible tab (15; 115) being made by cutting into said inside wall (13; 113) and/or said second flexible tab (16; 116) being made by cutting into said outside wall (14; 114); characterized in that said inside wall (13; 113) has two flexible arms remote from each other and each having a curved portion extending from said first end of said main wall (10; 110) and a straight portion prolonging said curved portion and extending facing opposite said main wall (10; 110), as well as a joining portion connecting the two said flexible arms by their respective straight portions, said first flexible tab (15; 115) projecting from said joining portion which extends between the two said flexible arms; and/or said outside wall (14; 114) has two flexible arms remote from each other and each having a curved portion extending from said second end of said main wall (10; 110) and a straight portion prolonging said curved portion and extending facing opposite said main wall (10; 110), as well as a joining portion connecting the two said flexible arms by their respective straight portions, said second flexible tab (16; 116) projecting from said joining portion which extends between the two said flexible arms.
Use of a self-adhesive plastic film on an overflowed surface, with at least one predetermined main direction of flow, wherein the plastic film is planar, has a peripheral border, is provided with adhesive on one side and is adhesively attached on the overflowed surface in such a way that the overflow of the surface in at least one predetermined main direction of flow impinges on a wavy edge of the plastic film, characterized in that, to reduce the erosion of the plastic film, the border of the plastic film is designed at least in some portions as an edge that is wavy in the plane of the film, wherein the wave form has an amplitude of 1 cm to 10 cm and a wave length of 1 cm to 10 cm.
A Matrix-Assisted Laser Absorption Ionization (MALDI) ion source comprising: a target plate having a front surface on a front side, a rear surface on a rear side, and at least one sample receiving channel extending from an opening in the rear surface to an opening in the front surface for receiving a liquid sample, wherein each channel has a volume of ≥ 1 μL, wherein for any given channel the opening on the rear side of the target plate has a larger area than the opening on the front side of the target plate; a laser for ionising a liquid sample on or in the target plate, wherein the laser is a pulsed laser set up and configured to have a pulsed repetition rate of ≥ 30 Hz, or is a continuous laser; and at least one sample supply capillary connected to the opening in the rear side of the target plate of the at least one channel for delivering a liquid sample into the channel even when the laser is being fired at the front side of the target plate. a target plate having a front surface on a front side, a rear surface on a rear side, and at least one sample receiving channel extending from an opening in the rear surface to an opening in the front surface for receiving a liquid sample, wherein each channel has a volume of ≥ 1 μL, wherein for any given channel the opening on the rear side of the target plate has a larger area than the opening on the front side of the target plate; a laser for ionising a liquid sample on or in the target plate, wherein the laser is a pulsed laser set up and configured to have a pulsed repetition rate of ≥ 30 Hz, or is a continuous laser; and at least one sample supply capillary connected to the opening in the rear side of the target plate of the at least one channel for delivering a liquid sample into the channel even when the laser is being fired at the front side of the target plate.
Process for producing an electrode for a secondary electrochemical cell, comprising the steps of - provision of a precursor material for an electrically non-conducting solid electrolyte material, - mixing of the precursor material with an electrochemical active material, - compaction of the mixture of the precursor material and the electrochemical active material, - sintering of the compacted mixture of the precursor material and the electrochemical active material to give a sintered composite having a plate-like structure, - application of the precursor material to a first side of the plate-like structure and compaction of the precursor material on the plate-like structure to give an applied layer of precursor material on the plate-like structure, - sintering of the plate-like structure and the applied layer of precursor material, - vapour-deposition of a metal foil on a second side of the plate-like structure. - provision of a precursor material for an electrically non-conducting solid electrolyte material, - mixing of the precursor material with an electrochemical active material, - compaction of the mixture of the precursor material and the electrochemical active material, - sintering of the compacted mixture of the precursor material and the electrochemical active material to give a sintered composite having a plate-like structure, - application of the precursor material to a first side of the plate-like structure and compaction of the precursor material on the plate-like structure to give an applied layer of precursor material on the plate-like structure, - sintering of the plate-like structure and the applied layer of precursor material, - vapour-deposition of a metal foil on a second side of the plate-like structure.
A cartridge - having at least one reception chamber, which extends in the longitudinal direction, for a medium to be dispensed; and - having a head part, a base part and a cartridge wall which bound the reception chamber, - wherein the head part has an outlet for the medium; - wherein the cartridge wall is designed as a film; - wherein the head part and the base part are designed as respective fixed shape parts; - wherein the head part is sealingly and non-releasably connected to the cartridge wall; and - wherein a protective film is provided at the end of the reception chamber bounded by the head part and sealingly closes the reception chamber at this end. - having at least one reception chamber, which extends in the longitudinal direction, for a medium to be dispensed; and - having a head part, a base part and a cartridge wall which bound the reception chamber, - wherein the head part has an outlet for the medium; - wherein the cartridge wall is designed as a film; - wherein the head part and the base part are designed as respective fixed shape parts; - wherein the head part is sealingly and non-releasably connected to the cartridge wall; and - wherein a protective film is provided at the end of the reception chamber bounded by the head part and sealingly closes the reception chamber at this end.
A method of transmission power control performed by a user equipment, UE, in a wireless communication system, the method comprising: performing wide area network, WAN, transmission in a first subframe of a first carrier; and performing sidelink transmission in a second subframe of a second carrier, wherein the WAN transmission is transmission to a network and the sidelink transmission is transmission to another UE, and wherein when the first subframe and the second subframe overlap in time, a maximum output power for both the WAN transmission in the first subframe and the sidelink transmission in the second subframe is determined on the basis of a maximum output power for the first subframe of the first carrier. performing wide area network, WAN, transmission in a first subframe of a first carrier; and performing sidelink transmission in a second subframe of a second carrier, wherein the WAN transmission is transmission to a network and the sidelink transmission is transmission to another UE, and wherein when the first subframe and the second subframe overlap in time, a maximum output power for both the WAN transmission in the first subframe and the sidelink transmission in the second subframe is determined on the basis of a maximum output power for the first subframe of the first carrier.
A production method of a melt-blown nonwoven fabric containing a cyclic olefinic resin, the production method including at least: a melting step of melting a resin composition containing at least the cyclic olefinic resin by heating in a supply portion to obtain a resin melt; a kneading step of introducing the resin melt to a kneading portion and kneading the resin melt in the kneading portion by rotation of a screw under heating to obtain a resin-kneaded material; a discharging step of discharging the resin-kneaded material with air from a nozzle; and a collecting step of collecting a fibrous material discharged from the nozzle on a collection surface to obtain a web, wherein the resin melt introduced to the kneading portion has a viscosity η of 8 to 20 Pa·s (80 to 200 poise) under the condition of shear rate r = 1200 sec -1 at the temperature in the supply portion. a melting step of melting a resin composition containing at least the cyclic olefinic resin by heating in a supply portion to obtain a resin melt; a kneading step of introducing the resin melt to a kneading portion and kneading the resin melt in the kneading portion by rotation of a screw under heating to obtain a resin-kneaded material; a discharging step of discharging the resin-kneaded material with air from a nozzle; and a collecting step of collecting a fibrous material discharged from the nozzle on a collection surface to obtain a web, wherein the resin melt introduced to the kneading portion has a viscosity η of 8 to 20 Pa·s (80 to 200 poise) under the condition of shear rate r = 1200 sec -1 at the temperature in the supply portion.
A red cell collection assembly comprising: a red cell collection container, a red cell flow conduit extending from the red cell collection container for connection to an outlet tube of a collection container, and a tubing branch extending between the red cell collection container and the red cell flow conduit, which tubing branch forms a tubing loop with the red cell flow conduit, which tubing loop is cooperative with a pump for circulating red cell preservative solution from the red cell collection container into the red cell flow conduit, for promoting mixing of the red blood cells with the red cell preservative solution, and a processing container located in fluid flow communication with the red cell flow conduit, wherein the processing container is connected to and in fluid communication with the red cell flow conduit upstream of a junction between the tubing branch and the red cell flow conduit. a red cell collection container, a red cell flow conduit extending from the red cell collection container for connection to an outlet tube of a collection container, and a tubing branch extending between the red cell collection container and the red cell flow conduit, which tubing branch forms a tubing loop with the red cell flow conduit, which tubing loop is cooperative with a pump for circulating red cell preservative solution from the red cell collection container into the red cell flow conduit, for promoting mixing of the red blood cells with the red cell preservative solution, and a processing container located in fluid flow communication with the red cell flow conduit, wherein the processing container is connected to and in fluid communication with the red cell flow conduit upstream of a junction between the tubing branch and the red cell flow conduit.
A method of controlling media delivery performed by a content server providing a Moving Picture Experts Group Media Transport, MMT, package in a multimedia transport network, the method comprising: transmitting composition information, CI, on media assets within the MMT package to be transmitted, to an electronic device, wherein each of the media assets comprises at least one media processing unit, MPU, being independently decodable and fragmented into a plurality of media fragment units, MFUs; receiving a feedback message including information on the network condition of the electronic device; identifying one or more MFUs from the media package to be dropped based on the network condition, on priority information indicating a relative priority of an MFU against other MFUs within one MPU and on a dependency counter indicating a number of other MFUs which should be decoded dependently on a specific MFU; and packetizing the remaining MFUs except for the one or more dropped MFUs to MMT packets for transmitting and transmitting them. transmitting composition information, CI, on media assets within the MMT package to be transmitted, to an electronic device, wherein each of the media assets comprises at least one media processing unit, MPU, being independently decodable and fragmented into a plurality of media fragment units, MFUs; receiving a feedback message including information on the network condition of the electronic device; identifying one or more MFUs from the media package to be dropped based on the network condition, on priority information indicating a relative priority of an MFU against other MFUs within one MPU and on a dependency counter indicating a number of other MFUs which should be decoded dependently on a specific MFU; and packetizing the remaining MFUs except for the one or more dropped MFUs to MMT packets for transmitting and transmitting them.
A process for the preparation of immunoglobulins for treatment or prophylaxis of an enteric disease caused by E. coli bacteria in a human subject, comprising (a) separating at least O antigen O78 from bacterial cell walls or wall fragments by shear, (b) removing the cell walls or cell wall fragments by centrifugation, (c) preparing a vaccine formulation comprising the O antigen O78 being separated from bacterial cell walls or cell wall fragments, (d) immunising a non-human host animal with the vaccine of step (c) to thereby induce the host animal to produce hyperimmune colostrum comprising the immunoglobulins. (a) separating at least O antigen O78 from bacterial cell walls or wall fragments by shear, (b) removing the cell walls or cell wall fragments by centrifugation, (c) preparing a vaccine formulation comprising the O antigen O78 being separated from bacterial cell walls or cell wall fragments, (d) immunising a non-human host animal with the vaccine of step (c) to thereby induce the host animal to produce hyperimmune colostrum comprising the immunoglobulins.
Method for call party-controlled avoidance of voicemail redirection comprising the following steps: a) initiating a first call from a call party's system to a called party's system; b) initiating a timer to calculate a timer value (t) once the first call has reached the called party's system and is ringing; c) terminating the timer once a connection with a voicemail of the called party's system is established; d) storing the timer value (t) in the call party's system resulting in a stored timer value (t s); e) initiating a second call from the call party's system to the called party's system; f) activating the stored timer value (t s) once the second call has reached the called party's system until the stored timer value (t s) expires; and g) disconnecting the second call to avoid redirection to voicemail of the called party's system. a) initiating a first call from a call party's system to a called party's system; b) initiating a timer to calculate a timer value (t) once the first call has reached the called party's system and is ringing; c) terminating the timer once a connection with a voicemail of the called party's system is established; d) storing the timer value (t) in the call party's system resulting in a stored timer value (t s); e) initiating a second call from the call party's system to the called party's system; f) activating the stored timer value (t s) once the second call has reached the called party's system until the stored timer value (t s) expires; and g) disconnecting the second call to avoid redirection to voicemail of the called party's system.