mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising, with a sender computing system : sending, via an unreliable protocol, a stream of data packets to at least one recipient device over a network , the stream of data packets including source packets and forward error correction, FEC, packets, wherein the source packets include audio source packets and video source packets; during said sending, receiving one or more feedback reports from the at least one recipient device, each said periodic feedback report characterizing packet loss during a respective period of time; and during said sending, adjusting a rate at which said data packets are sent in the stream in response to at least one of said feedback reports, wherein said adjusting the rate comprises increasing an FEC rate at which the FEC packets are sent while maintaining a source rate at which the source packets are sent in response to a particular one of the feedback reports which characterizes the packet loss as within an acceptable level, wherein the particular one of the feedback reports which indicates the packet loss as within the acceptable level indicates the packet loss as steady relative to a prior one of the feedback reports, and wherein said increasing an FEC rate at which the FEC packets are sent includes increasing both an FEC audio rate at which the FEC audio packets are sent and an FEC video rate at which the FEC video packets are sent, wherein said increasing both the FEC audio rate and the FEC video rate includes increasing the FEC audio rate by a greater degree than the FEC video rate. sending, via an unreliable protocol, a stream of data packets to at least one recipient device over a network , the stream of data packets including source packets and forward error correction, FEC, packets, wherein the source packets include audio source packets and video source packets; during said sending, receiving one or more feedback reports from the at least one recipient device, each said periodic feedback report characterizing packet loss during a respective period of time; and during said sending, adjusting a rate at which said data packets are sent in the stream in response to at least one of said feedback reports, wherein said adjusting the rate comprises increasing an FEC rate at which the FEC packets are sent while maintaining a source rate at which the source packets are sent in response to a particular one of the feedback reports which characterizes the packet loss as within an acceptable level, wherein the particular one of the feedback reports which indicates the packet loss as within the acceptable level indicates the packet loss as steady relative to a prior one of the feedback reports, and wherein said increasing an FEC rate at which the FEC packets are sent includes increasing both an FEC audio rate at which the FEC audio packets are sent and an FEC video rate at which the FEC video packets are sent, wherein said increasing both the FEC audio rate and the FEC video rate includes increasing the FEC audio rate by a greater degree than the FEC video rate.
A process for the production of biuret from urea comprising: a) ammonia and carbon dioxide are reacted in a synthesis section at a synthesis pressure to form urea and obtaining a reaction effluent containing urea, water and unconverted reagents; b) said reaction effluent is processed in a recovery section to recover unconverted reagents contained therein; c) a urea aqueous solution , withdrawn from the recovery section, is processed to remove water and obtain a concentrated urea melt ; said urea aqueous solution containing no more than 100 ppm by weight, preferably no more than 50 ppm by weight, of formaldehyde; d) said urea melt is processed under biuret-forming conditions to decompose urea into biuret and ammonia and obtain a high-biuret urea melt ; e) said high-biuret urea melt is diluted with water or with an aqueous stream obtaining a solution ; f) the solution obtained at step e) is subject to a process of crystallization including precipitation of a solid phase containing biuret and obtaining a slurry including precipitated solid phase and a mother liquor; g) the slurry obtained at step f) is processed to obtain a biuret-containing solid product and a mother liquor . a) ammonia and carbon dioxide are reacted in a synthesis section at a synthesis pressure to form urea and obtaining a reaction effluent containing urea, water and unconverted reagents; b) said reaction effluent is processed in a recovery section to recover unconverted reagents contained therein; c) a urea aqueous solution , withdrawn from the recovery section, is processed to remove water and obtain a concentrated urea melt ; said urea aqueous solution containing no more than 100 ppm by weight, preferably no more than 50 ppm by weight, of formaldehyde; d) said urea melt is processed under biuret-forming conditions to decompose urea into biuret and ammonia and obtain a high-biuret urea melt ; e) said high-biuret urea melt is diluted with water or with an aqueous stream obtaining a solution ; f) the solution obtained at step e) is subject to a process of crystallization including precipitation of a solid phase containing biuret and obtaining a slurry including precipitated solid phase and a mother liquor; g) the slurry obtained at step f) is processed to obtain a biuret-containing solid product and a mother liquor .
Filtration method by means of a membrane filter press comprised of an assembly of elements forming filtration chambers , collecting chambers and compression chambers ; a flexible membrane separating a filtration chamber from the next compression chamber so that each compression chamber is delimited on one side by the flexible membrane and on the other side by the wall of the element it is attached to; each filtration chamber being delimited by the flexible membrane on one side and by a filter medium on the other side; wherein the method comprises one or more filtration cycles; each cycle comprising at least following steps: a) suction of the gas contained in each compression chamber so as to position the flexible membrane against the wall of the element it is attached to; b) progressive feeding of each filtration chamber with the suspension to be filtered; c) gradual filtration through the filter medium , formation of a filter cake and collecting the filtrate in the collecting chamber ; d) filling the filtration chambers with a sparging liquid; e) sparging the filter cake with the sparging fluid; f) filling the compression chambers with a compression gas in such a way that the membranes are pressed against the filter cakes ; g) discharging and removal of the sparged filter cakes. a) suction of the gas contained in each compression chamber so as to position the flexible membrane against the wall of the element it is attached to; b) progressive feeding of each filtration chamber with the suspension to be filtered; c) gradual filtration through the filter medium , formation of a filter cake and collecting the filtrate in the collecting chamber ; d) filling the filtration chambers with a sparging liquid; e) sparging the filter cake with the sparging fluid; f) filling the compression chambers with a compression gas in such a way that the membranes are pressed against the filter cakes ; g) discharging and removal of the sparged filter cakes.
A method performed by a network node for deciding a feedback option of a message sent between the network node and a User Equipment, UE, in a wireless communication network , which message comprises a first data , which is punctured by a second data , wherein the first data is sent in a slot of a radio bearer, wherein the second data is sent a mini-slot of the radio bearer, and wherein the mini-slot is smaller than the slot, the method comprising: deciding a feedback option for feedback that is to be sent to the sender of the message, which deciding is based on any one or more out of: slot control resource capacity, mini-slot control resource capacity and requirements of the radio bearer, and wherein the feedback option relate to any one out of: only a slot based channel is used for feedback of both the first data and the second data, a mini-slot based channel is used for feedback of the second data and a slot based channel is used for feedback of the first data, and only a mini-slot based channel is used for feedback of both the first data and the second data, wherein the feedback is related to any one or more out of: Hybrid Automatic Repeat Request, HARQ, a Negative Acknowledgement, NACK, a NACK with a UL grant for retransmission, reTX, an Acknowledgement, ACK, and absenteeism of an ACK or mandatory ACK. deciding a feedback option for feedback that is to be sent to the sender of the message, which deciding is based on any one or more out of: slot control resource capacity, mini-slot control resource capacity and requirements of the radio bearer, and wherein the feedback option relate to any one out of: only a slot based channel is used for feedback of both the first data and the second data, a mini-slot based channel is used for feedback of the second data and a slot based channel is used for feedback of the first data, and only a mini-slot based channel is used for feedback of both the first data and the second data, only a slot based channel is used for feedback of both the first data and the second data, a mini-slot based channel is used for feedback of the second data and a slot based channel is used for feedback of the first data, and only a mini-slot based channel is used for feedback of both the first data and the second data, wherein the feedback is related to any one or more out of: Hybrid Automatic Repeat Request, HARQ, a Negative Acknowledgement, NACK, a NACK with a UL grant for retransmission, reTX, an Acknowledgement, ACK, and absenteeism of an ACK or mandatory ACK. Hybrid Automatic Repeat Request, HARQ, a Negative Acknowledgement, NACK, a NACK with a UL grant for retransmission, reTX, an Acknowledgement, ACK, and absenteeism of an ACK or mandatory ACK.
A cartridge for a vaporizer device, the cartridge comprising: a reservoir configured to hold a vaporizable material ; and a heating element configured to heat the vaporizable material , the heating element comprising: a capillary structure including a plurality of rigid portions , wherein pairs of the plurality of rigid portions are spaced apart from one another to define a capillary gap therebetween, the capillary gap configured to draw the vaporizable material from the reservoir to a heater region of the heating element to be heated, and an aerosol being generated by the heating of the vaporizable material drawn to the heater region of the heating element , wherein the plurality of rigid portions of the capillary structure comprises an upper rigid portion ; and a lower rigid portion , characterized in that the lower rigid portion is integrally formed with the upper rigid portion and spaced apart from the upper rigid portion by a span that defines the capillary gap, and wherein the heating element forms a single rigid portion that is folded to define the upper rigid portion and the lower rigid portion . a reservoir configured to hold a vaporizable material ; and a heating element configured to heat the vaporizable material , the heating element comprising: a capillary structure including a plurality of rigid portions , wherein pairs of the plurality of rigid portions are spaced apart from one another to define a capillary gap therebetween, the capillary gap configured to draw the vaporizable material from the reservoir to a heater region of the heating element to be heated, and an aerosol being generated by the heating of the vaporizable material drawn to the heater region of the heating element , a capillary structure including a plurality of rigid portions , wherein pairs of the plurality of rigid portions are spaced apart from one another to define a capillary gap therebetween, the capillary gap configured to draw the vaporizable material from the reservoir to a heater region of the heating element to be heated, and an aerosol being generated by the heating of the vaporizable material drawn to the heater region of the heating element , wherein the plurality of rigid portions of the capillary structure comprises an upper rigid portion ; and a lower rigid portion , characterized in that the lower rigid portion is integrally formed with the upper rigid portion and spaced apart from the upper rigid portion by a span that defines the capillary gap, and wherein the heating element forms a single rigid portion that is folded to define the upper rigid portion and the lower rigid portion .
An electric work machine comprising: an electric motor ; a battery unit that stores electric power for driving the electric motor; a hydraulic oil tank that contains hydraulic oil; and a hydraulic pump that is driven by the electric motor and is connected to the hydraulic oil tank, wherein the electric motor, the hydraulic pump, and the hydraulic oil tank are arranged below the battery unit on a machine body frame and are arranged side by side in a lateral direction of the machine body frame, characterized in that the electric motor and the hydraulic oil tank are respectively arranged on one side and another side in the lateral direction on the machine body frame .
An insert-molded article (A) comprising a metal component and a resin component , the metal component having a shape including a flat plate-shaped part , the flat plate-shaped part having a through-hole or a blind hole formed therein, the resin component having a shape including a covering part that covers a surface (E) of the flat plate-shaped part , the covering part having a surface in which a gate mark (B) is present, wherein the through-hole or the blind hole formed in the flat plate-shaped part of the metal component is located opposite to the gate mark , and the resin component has a filler part (H) with which the through-hole or the blind hole is filled. the metal component having a shape including a flat plate-shaped part , the flat plate-shaped part having a through-hole or a blind hole formed therein, the resin component having a shape including a covering part that covers a surface (E) of the flat plate-shaped part , the covering part having a surface in which a gate mark (B) is present, wherein the through-hole or the blind hole formed in the flat plate-shaped part of the metal component is located opposite to the gate mark , and the resin component has a filler part (H) with which the through-hole or the blind hole is filled.
A method for automatically assigning sequential identification values to a plurality of networked nodes including a host controller operatively interconnected with a plurality of client controllers by a shared, multi-drop communications bus , the host controller being further operatively interconnected with a first controller of the plurality of client controllers by an initial segment of a daisy-chained, point-to-point communications bus , and each previous controller of the plurality of client controllers being operatively connected to a subsequent controller of the plurality of client controllers by another segment of the point-to-point communications bus , the method being characterized in that it comprises the steps of: issuing , via the host controller, a token to a first controller of the plurality of client controllers via the point-to-point communications bus ; querying , via the host controller, the plurality of client controllers via the multi-drop communications bus , and receiving, via the host controller, from a client controller having the token, a reply via the multi-drop communications bus ; associating , via the host controller, the replying client controller with a sequential identification value; acknowledging , via the host controller, the association to the replying client controller via the multi-drop communications bus ; commanding , via the host controller and multi-drop communications bus , passing of the token to a subsequent controller of the plurality of client controllers via the point-to-point communications bus ; and repeating the querying, associating, acknowledging, and commanding steps. issuing , via the host controller, a token to a first controller of the plurality of client controllers via the point-to-point communications bus ; querying , via the host controller, the plurality of client controllers via the multi-drop communications bus , and receiving, via the host controller, from a client controller having the token, a reply via the multi-drop communications bus ; associating , via the host controller, the replying client controller with a sequential identification value; acknowledging , via the host controller, the association to the replying client controller via the multi-drop communications bus ; commanding , via the host controller and multi-drop communications bus , passing of the token to a subsequent controller of the plurality of client controllers via the point-to-point communications bus ; and repeating the querying, associating, acknowledging, and commanding steps.
A multiple stream sampler comprising: a housing; a first inlet for receiving a first online fluid stream therethrough and leading to a sampling chamber in the housing; a first sampling outlet , the first sampling outlet fluidly connected with the first inlet ; a conduit , preferably a sampling needle, positioned within the sampling chamber , with a second sampling inlet proximate the top of the conduit, the conduit continuing beneath the sampling chamber to the bottom of the housing, where the conduit terminates at a second sampling outlet , a discharge chamber within the housing, the discharge chamber fluidly connected with the first inlet and the second inlet; a vial receptacle within the sampling chamber ; a housing cover for the housing; the multiple stream sampler being characterized in that it further comprises a housing cover position switch wherein the housing cover position switch is configured to detect a position of the housing cover , wherein a sealed vial may be inserted into the sampling chamber through the vial receptacle when the cover is opened; a relay ; and the housing cover position switch being attached to the relay , said relay being configured to transmit the state of the housing cover position switch to a valve . a housing; a first inlet for receiving a first online fluid stream therethrough and leading to a sampling chamber in the housing; a first sampling outlet , the first sampling outlet fluidly connected with the first inlet ; a conduit , preferably a sampling needle, positioned within the sampling chamber , with a second sampling inlet proximate the top of the conduit, the conduit continuing beneath the sampling chamber to the bottom of the housing, where the conduit terminates at a second sampling outlet , a discharge chamber within the housing, the discharge chamber fluidly connected with the first inlet and the second inlet; a vial receptacle within the sampling chamber ; a housing cover for the housing; the multiple stream sampler being characterized in that it further comprises a housing cover position switch wherein the housing cover position switch is configured to detect a position of the housing cover , wherein a sealed vial may be inserted into the sampling chamber through the vial receptacle when the cover is opened; a relay ; and the housing cover position switch being attached to the relay , said relay being configured to transmit the state of the housing cover position switch to a valve .
An earphone comprising: a vibration conductor adapted to conduct vibration to a contact part of the ear cartilage; and a vibration source for the vibration conductor, characterized in that the vibration conductor has a spherical shape. a vibration conductor adapted to conduct vibration to a contact part of the ear cartilage; and a vibration source for the vibration conductor, characterized in that the vibration conductor has a spherical shape.
A Cell-Permeable (CP)-truncated SOCS3 recombinant protein, which comprises a truncated SOCS3 protein consisting of a SH2 domain of SOCS3 protein, and an advanced macromolecule transduction domain (aMTD) fused to one end or both ends of the truncated SOCS3 protein, wherein the truncated SOCS3 protein consists of an amino acid sequence of SEQ ID NO: 816, and the aMTD consists of an amino acid sequence of SEQ ID NO: 121, and wherein the CP-truncated SOCS3 recombinant protein further comprises one or more solubilization domain (SD)(s) fused to the end(s) of one or more of the truncated SOCS3 protein and the aMTD, and the SD(s) consist of an amino acid sequence independently selected from SEQ ID NO: 799 and 804, optionally wherein the SD(s) are encoded by a polynucleotide sequence independently selected from SEQ ID NO: 806 and 811.
The use of a porous Metal-Organic Framework (MOF) material, for the removal of low concentrations of acetic acid from indoor air, comprising an average pore size of 0.4 to 0.6 nm and a hydrophobic core formed by a metal oxide and/or hydroxide network connected by linkers, said linkers being selected from the group comprising: - C 6 -C 24 aromatic polycarboxylate linkers, such as benzyl or naphtyl di-, tri- or tetracarboxylate, - C 6 -C 16 polycarboxylate aliphatic linkers; and - di-, tri- or tetracarboxylate or carboxylic acid aliphatic linkers, for example from the group consisting of fumarate, succinate, glutarate, muconate, adipate; the linkers bearing apolar fluorinated groups, e.g. -(CF 2 ) n -CF 3 groups, n being an integer from 0 to 5, preferably 0 or 3, and/or apolar C 1 -C 20 preferably C 1 -C 4 alkyl groups, e.g. -CH 3 or -CH 2 -CH 3 , grafted directly to the linkers and pointing within the pores of the MOF; wherein the MOF average pore size is determined based on nitrogen gas adsorption-desorption isotherms at -196°C. - C 6 -C 24 aromatic polycarboxylate linkers, such as benzyl or naphtyl di-, tri- or tetracarboxylate, - C 6 -C 16 polycarboxylate aliphatic linkers; and - di-, tri- or tetracarboxylate or carboxylic acid aliphatic linkers, for example from the group consisting of fumarate, succinate, glutarate, muconate, adipate;
Middle door retraction device with a housing in which a driving element is adjustable between a first parked position (14; 16) secured in a non-positive and/or positive-locking manner and a resting position , and between a second parked position (16; 14) secured in a non-positive and/or positive-locking manner and said resting position , with a damping device and with an energy storage device charged when the driving element is located in the parked position (14; 16) and discharged when the driving element is located in the resting position , wherein the driving element can be coupled with a transfer slide , which can be moved linearly in the housing depending on the direction of the stroke, characterized in that - the damping device is supported in the single-piece transfer slide and has two piston rods (114; 144) pointing in opposite directions, which can be alternatively stressed when retracting by fitting closely against the housing or by being connected to the same, and - in that the energy storage device is part of an energy storage assembly that can be supported on the housing and on the transfer slide depending on the direction of the stroke. - the damping device is supported in the single-piece transfer slide and has two piston rods (114; 144) pointing in opposite directions, which can be alternatively stressed when retracting by fitting closely against the housing or by being connected to the same, and - in that the energy storage device is part of an energy storage assembly that can be supported on the housing and on the transfer slide depending on the direction of the stroke.