mhurhangee/ep-ind-claims huggingface dataset:
Method for separating yeast from yeast-containing liquids, in particular beverages, comprising the steps: - conducting a yeast-containing unfiltrate to be filtered through a depth filter medium of food-grade plastics material, characterised by - conducting the unfiltrate through the depth filter medium without the addition of a filter aid, - regenerating and cleaning the depth filter medium by -- flushing the depth filter medium with water until the filtrate is foam-free, -- alkali flushing the depth filter medium for regeneration thereof, and -- acid flushing the depth filter medium for neutralisation. - conducting a yeast-containing unfiltrate to be filtered through a depth filter medium of food-grade plastics material, characterised by - conducting the unfiltrate through the depth filter medium without the addition of a filter aid, - regenerating and cleaning the depth filter medium by -- flushing the depth filter medium with water until the filtrate is foam-free, -- alkali flushing the depth filter medium for regeneration thereof, and -- acid flushing the depth filter medium for neutralisation. -- flushing the depth filter medium with water until the filtrate is foam-free, -- alkali flushing the depth filter medium for regeneration thereof, and -- acid flushing the depth filter medium for neutralisation.
A device for detecting a fixation of a stylus, comprising: a first support; a switch assembly arranged on the first support; a magnet assembly wherein a side of the magnet assembly being away from the first support is used to adsorb the stylus; and an elastic assembly, characterized in that the switch assembly comprises a micro switch, the micro switch comprises a triggering button, the triggering button of the micro switch is arranged facing the magnet assembly, and the magnet assembly comprises a triggering part; the magnet assembly is movably connected with the first support, and the elastic assembly is arranged at a movable joint between the magnet assembly and the first support; when the device detects the stylus, the magnet assembly is away from the first support under an action of an adsorption force of the stylus, and the triggering part does not contact with the triggering button; when the device does not detect the stylus, the elastic assembly causes the magnet assembly and the first support to be in a bonding state, and the triggering part contacts with the triggering button. a first support; a switch assembly arranged on the first support; a magnet assembly wherein a side of the magnet assembly being away from the first support is used to adsorb the stylus; and an elastic assembly, characterized in that the switch assembly comprises a micro switch, the micro switch comprises a triggering button, the triggering button of the micro switch is arranged facing the magnet assembly, and the magnet assembly comprises a triggering part; the magnet assembly is movably connected with the first support, and the elastic assembly is arranged at a movable joint between the magnet assembly and the first support; when the device detects the stylus, the magnet assembly is away from the first support under an action of an adsorption force of the stylus, and the triggering part does not contact with the triggering button; when the device does not detect the stylus, the elastic assembly causes the magnet assembly and the first support to be in a bonding state, and the triggering part contacts with the triggering button.
A communication control method, comprising: receiving, by a first user equipment (1101, 1401, 1601), a first message sent by a second user equipment (1102, 1402, 1602); acquiring receive power P2 of the first message; acquiring power parameter information of the second user equipment (1102, 1402, 1602), the power parameter information being indicated by a frequency resource for transmitting the first message; obtaining a path loss value PLa according to the power parameter information of the second user equipment (1102, 1402, 1602) and the receive power P2 of the first message; and determining, according to the path loss value PLa, whether direct communication is allowed between the first user equipment (1101, 1401, 1601) and the second user equipment (1102, 1402, 1602). receiving, by a first user equipment (1101, 1401, 1601), a first message sent by a second user equipment (1102, 1402, 1602); acquiring receive power P2 of the first message; acquiring power parameter information of the second user equipment (1102, 1402, 1602), the power parameter information being indicated by a frequency resource for transmitting the first message; obtaining a path loss value PLa according to the power parameter information of the second user equipment (1102, 1402, 1602) and the receive power P2 of the first message; and determining, according to the path loss value PLa, whether direct communication is allowed between the first user equipment (1101, 1401, 1601) and the second user equipment (1102, 1402, 1602).
An endoscope system characterized in comprising: an image information obtaining section for obtaining image information by imaging an observation object; a biological function information calculating section for calculating biological function information of said observation object based on said image information; a first image generating section (87, 88) for producing a biological function information image that images said biological function information; an emphasized image generating section for producing an emphasized image which expresses the reliability of said biological function information by the brightness, in said emphasized image, a bright part within an abnormal area in which a calculation result of said biological function information calculating section is likely to be abnormal in said biological function information image being further brightened for emphasis without changing a color of said biological function information image; and a display section for displaying said emphasized image. an image information obtaining section for obtaining image information by imaging an observation object; a biological function information calculating section for calculating biological function information of said observation object based on said image information; a first image generating section (87, 88) for producing a biological function information image that images said biological function information; an emphasized image generating section for producing an emphasized image which expresses the reliability of said biological function information by the brightness, in said emphasized image, a bright part within an abnormal area in which a calculation result of said biological function information calculating section is likely to be abnormal in said biological function information image being further brightened for emphasis without changing a color of said biological function information image; and a display section for displaying said emphasized image.
A computer-implemented method, comprising: obtaining, by a first computing device, an audio input signal for an audio communication session with a second computing device using audio data captured by a microphone of the first computing device; analyzing, by the first computing device, the audio input signal to detect a speech input by a first user associated with the first computing device; determining, by the first computing device, a detection period duration from when the audio input signal was obtained until the analyzing has completed; transmitting, from the first computing device and to the second computing device, (i) a portion of the audio input signal beginning at a start of the speech input and (ii) the detection period duration; in response to receiving, at the second computing device, the portion of the audio input signal and the detection period duration, accelerating playback, by the second computing device, of the portion of the audio input signal to compensate for the detection period duration; analyzing, by the first computing device, the audio input signal to detect an end of the speech input by the first user; and terminating transmission, from the first computing device to the second computing device, of the portion of the audio input signal at a point corresponding to the detected end of the speech input by the first user. obtaining, by a first computing device, an audio input signal for an audio communication session with a second computing device using audio data captured by a microphone of the first computing device; analyzing, by the first computing device, the audio input signal to detect a speech input by a first user associated with the first computing device; determining, by the first computing device, a detection period duration from when the audio input signal was obtained until the analyzing has completed; transmitting, from the first computing device and to the second computing device, (i) a portion of the audio input signal beginning at a start of the speech input and (ii) the detection period duration; in response to receiving, at the second computing device, the portion of the audio input signal and the detection period duration, accelerating playback, by the second computing device, of the portion of the audio input signal to compensate for the detection period duration; analyzing, by the first computing device, the audio input signal to detect an end of the speech input by the first user; and terminating transmission, from the first computing device to the second computing device, of the portion of the audio input signal at a point corresponding to the detected end of the speech input by the first user.
An optical system (40, 55, 65) comprising a housing (41, 56, 66) with an opening (57, 67) extending in an axial direction (z) and at least one membrane (42, 43, 59, 68) arranged across the opening (57, 67), defining at an inside of the housing (41, 56, 66) at least one chamber (44, 45, 46, 60, 78, 79) filled with a constant amount (V, V1, V2) of a fluid, wherein the at least one membrane (42, 43, 59, 68) comprises an optically active and an optically passive section (80, 81, 64) and at least one actuator (11, 12) to influence a geometry of the optically active section of the at least one membrane (42, 43, 59, 68) by relocation of the fluid, thereby changing optical characteristics of the optical system (40, 55, 65), wherein the optically active and the optically passive section (80, 81, 64) of the at least one membrane (42, 43, 59, 68) are attached to at least one annular holding frame (47, 48, 61, 69), wherein the actuator is interconnected to the at least one annular holding frame (47, 48, 61, 69) to displace the at least one annular holding frame (47, 48, 61, 69) in said axial direction (z) with respect to said housing (41, 56, 66), wherein said at least one membrane (42, 43, 59, 68) is arranged in said opening (57, 67) of said housing (41, 56, 66) in a stretched and/or prestretched manner under tension and/or wherein said at least one membrane (42, 43, 59, 68) is attached in an elastically stretched manner to said at least one annular holding frame (47, 48, 61, 69), wherein said at least one actuator comprises a fixedly arranged first support and a second support arranged rotatably with respect to the first support about a centre axis (z), wherein said at least one actuator is structured such that by rotating the second support with respect to the first support, the annular holding frame (47, 48, 61, 69) is displaced in said axial direction (z) and thereby said at least one membrane (42, 43, 59, 68) is deformed wherein said fixedly arranged first support comprises an axially arranged first notch and wherein a helically shaped second notch is arranged in said second support, and wherein said annular holding frame (47, 48, 61, 69) comprises radial pins, each of which engages said axially arranged first notch and said helically shaped second notch.
A method of manufacturing a microfluidic arrangement, comprising: providing a continuous body of a first liquid in direct contact with a substrate; providing a second liquid in direct contact with the continuous body of first liquid, the second liquid covering the continuous body of first liquid; and causing the second liquid to move through the first liquid and into contact with the substrate along all of a selected path on the surface of the substrate, thereby displacing first liquid that was initially in contact with all of the selected path away from the selected path, the selected path being such that one or more walls of second liquid are formed that modify a shape of the continuous body of first liquid, wherein: the first liquid is aqueous, and the second liquid is immiscible with the first liquid; the method being characterized in that: the second liquid is treated, prior to the providing of the second liquid in direct contact with the continuous body of first liquid and prior to the second liquid being caused to move through the first liquid, by flowing a gas through the second liquid and thereby increasing a level of saturation of the second liquid. providing a continuous body of a first liquid in direct contact with a substrate; providing a second liquid in direct contact with the continuous body of first liquid, the second liquid covering the continuous body of first liquid; and causing the second liquid to move through the first liquid and into contact with the substrate along all of a selected path on the surface of the substrate, thereby displacing first liquid that was initially in contact with all of the selected path away from the selected path, the selected path being such that one or more walls of second liquid are formed that modify a shape of the continuous body of first liquid, wherein: the first liquid is aqueous, and the second liquid is immiscible with the first liquid; the method being characterized in that: the second liquid is treated, prior to the providing of the second liquid in direct contact with the continuous body of first liquid and prior to the second liquid being caused to move through the first liquid, by flowing a gas through the second liquid and thereby increasing a level of saturation of the second liquid.
A chimeric molecule comprising a supercharged protein or peptide, an antimicrobial peptide, selected from the group consisting of aurein 1.2 and citropin 1.3, which selectively disrupts the endosomal membrane without disrupting the mammalian cell membrane, and one or more gene editing agents comprising transcriptional activators, transcriptional repressors, recombinases, nucleases, DNA-binding proteins or nucleic acids which are conjugated to each other, fused, linked, translated, or attached via a linker.
A surgical device comprising: a closure assembly including: a latch unit comprising: a hook latch, having a home position, and a bias member; a movement unit including a bar that is movable relative to the latch unit so that the bar is movable in a prescribed motion into contact with the latch unit to create a locked state; and wherein the bar moves into contact with the hook latch driving the hook latch in a first direction, away relative to the home position, and the hook latch is movable by the bar in a second direction relative to the home position, characterized in that the latch unit further comprises a forward bias constraint and a rearward bias constraint, and that the bias member extends between the forward bias constraint and the rearward bias constraint so that the bias member has a pre-load when the hook latch is in the home position, so that a loading of the bias member is increased from the pre-load when the hook latch is moved in either the first direction away from the home position or the second direction away from the home position. a closure assembly including: a latch unit comprising: a hook latch, having a home position, and a bias member; a movement unit including a bar that is movable relative to the latch unit so that the bar is movable in a prescribed motion into contact with the latch unit to create a locked state; and a latch unit comprising: a hook latch, having a home position, and a bias member; a hook latch, having a home position, and a bias member; a movement unit including a bar that is movable relative to the latch unit so that the bar is movable in a prescribed motion into contact with the latch unit to create a locked state; and wherein the bar moves into contact with the hook latch driving the hook latch in a first direction, away relative to the home position, and the hook latch is movable by the bar in a second direction relative to the home position, characterized in that the latch unit further comprises a forward bias constraint and a rearward bias constraint, and that the bias member extends between the forward bias constraint and the rearward bias constraint so that the bias member has a pre-load when the hook latch is in the home position, so that a loading of the bias member is increased from the pre-load when the hook latch is moved in either the first direction away from the home position or the second direction away from the home position.
A method comprising: in response to receiving a first layer two "L2" data message, by a first provider edge "PE" router included in an Ethernet segment of a Provider-Backbone Bridging Ethernet Virtual Private Network "PBB-EVPN" and from a first customer edge "CE" router single-homed to the first PE router, performing L2 learning of a Customer MAC "C-MAC" address included in the first L2 data message; sending, by the first PE router and to at least one other PE router (10B, 10E) included in the Ethernet segment, an L2 control message, the L2 control message comprising the C-MAC address and a first Bridging MAC "B-MAC" address that is not configured at the at least one other PE router, the L2 control message causing the at least one other PE router to learn the reachability of the C-MAC address through the first B-MAC address of the first PE router, where the learning is based at least in part on the first PE router and the at least one other PE router each being configured for a common second B-MAC address associated with the Ethernet segment; and in response to receiving, by the first PE router and from the at least one other PE router in the Ethernet segment, a second L2 data message as unicast traffic that includes as a destination the C-MAC address, forwarding the second L2 data message to the first CE router. in response to receiving a first layer two "L2" data message, by a first provider edge "PE" router included in an Ethernet segment of a Provider-Backbone Bridging Ethernet Virtual Private Network "PBB-EVPN" and from a first customer edge "CE" router single-homed to the first PE router, performing L2 learning of a Customer MAC "C-MAC" address included in the first L2 data message; sending, by the first PE router and to at least one other PE router (10B, 10E) included in the Ethernet segment, an L2 control message, the L2 control message comprising the C-MAC address and a first Bridging MAC "B-MAC" address that is not configured at the at least one other PE router, the L2 control message causing the at least one other PE router to learn the reachability of the C-MAC address through the first B-MAC address of the first PE router, where the learning is based at least in part on the first PE router and the at least one other PE router each being configured for a common second B-MAC address associated with the Ethernet segment; and in response to receiving, by the first PE router and from the at least one other PE router in the Ethernet segment, a second L2 data message as unicast traffic that includes as a destination the C-MAC address, forwarding the second L2 data message to the first CE router.
A method of controlling a conference call between multiple terminal devices (EA, EB, EC) in a packet-oriented communication network, wherein a conference control signaling is transmitted via a packet-oriented transport protocol between a first one of the terminal devices and a communication server (IP-PBX) of the communication network and the set-up of package oriented media channels (MKA, MKB, MKC) between the terminal devices (EA, EB, EC) and a packet-oriented conference mixing device is initiated by the communication server (IP-PBX) depending on the conference control signaling, characterised in that the conference control signaling - is circuit-oriented, - is processed by a circuit-oriented conference module of the communication server, and - is converted into control messages for the terminal devices (EA, EB, EC) by a conversion device of a switching control of the communication server (IP-PBX) coupled to the circuit-oriented conference module. - is circuit-oriented, - is processed by a circuit-oriented conference module of the communication server, and - is converted into control messages for the terminal devices (EA, EB, EC) by a conversion device of a switching control of the communication server (IP-PBX) coupled to the circuit-oriented conference module.
A cosmetic container including an impregnation member having a surface intaglio-patterned by laser beam machining, wherein an intaglio-pattern part having an intaglio pattern and maintaining an open cell structure is formed, the intaglio pattern being formed as the surface of the impregnation member is burned by a laser, and the impregnation member having the intaglio-pattern part formed on the surface thereof is impregnated with cosmetic material.
A data transmission method, comprising: a) receiving, by a network device (103, 104), an Ethernet frame, wherein the Ethernet frame comprises, in the following order: a destination media access control, MAC, address, a source MAC address, a cut-through forwarding frame tag including a second Ethernet type and a first cyclic redundancy check, CRC code, a first Ethernet type, a payload, and a frame check sequence, FCS, carrying a second CRC code, a parameter required for generating the first CRC code comprises the destination MAC address, and a parameter required for generating the second CRC code comprises the destination MAC address, the source MAC address, the first CRC code, the first Ethernet type and the payload; b) checking (S204a), by the network device (103, 104), the destination MAC address based on the first CRC code, to determine whether an error occurs in the destination MAC address; and c) forwarding, by the network device (103, 104), the Ethernet frame based on the destination MAC address if the network device (103, 104) determines that no error occurs in the destination MAC address. a) receiving, by a network device (103, 104), an Ethernet frame, wherein the Ethernet frame comprises, in the following order: a destination media access control, MAC, address, a source MAC address, a cut-through forwarding frame tag including a second Ethernet type and a first cyclic redundancy check, CRC code, a first Ethernet type, a payload, and a frame check sequence, FCS, carrying a second CRC code, a parameter required for generating the first CRC code comprises the destination MAC address, and a parameter required for generating the second CRC code comprises the destination MAC address, the source MAC address, the first CRC code, the first Ethernet type and the payload; b) checking (S204a), by the network device (103, 104), the destination MAC address based on the first CRC code, to determine whether an error occurs in the destination MAC address; and c) forwarding, by the network device (103, 104), the Ethernet frame based on the destination MAC address if the network device (103, 104) determines that no error occurs in the destination MAC address.