mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a microfluidic substrate (250,250-1,250-2)having a channel (300,300-1,300-2, 324) for transporting fluid, a first side of the microfluidic substrate having a plurality of apertures (306-1,306-2,306-3) through which fluid enters the channel; a plurality of fluidic nozzles (130-1,130-2,130-3,184) disposed adjacent the first side of the microfluidic substrate, each fluidic nozzle having a fluid-egress end in alignment with and facing one of the apertures in the first side of the microfluidic substrate, wherein an elastic modulus of each fluidic nozzle is lower than an elastic modulus of the microfluidic substrate; and a clamping assembly that, in a closed state, clamps the fluid-egress ends of the fluidic nozzles flush against the first side of the microfluidic substrate with sufficient pressure to establish a leakproof fluidic pathway between each fluidic nozzle and the aperture with which the fluidic nozzle is in alignment, wherein, in an open state of the clamping assembly, the microfluidic substrate floats freely to self level during transition to the closed state. a microfluidic substrate (250,250-1,250-2)having a channel (300,300-1,300-2, 324) for transporting fluid, a first side of the microfluidic substrate having a plurality of apertures (306-1,306-2,306-3) through which fluid enters the channel; a plurality of fluidic nozzles (130-1,130-2,130-3,184) disposed adjacent the first side of the microfluidic substrate, each fluidic nozzle having a fluid-egress end in alignment with and facing one of the apertures in the first side of the microfluidic substrate, wherein an elastic modulus of each fluidic nozzle is lower than an elastic modulus of the microfluidic substrate; and a clamping assembly that, in a closed state, clamps the fluid-egress ends of the fluidic nozzles flush against the first side of the microfluidic substrate with sufficient pressure to establish a leakproof fluidic pathway between each fluidic nozzle and the aperture with which the fluidic nozzle is in alignment, wherein, in an open state of the clamping assembly, the microfluidic substrate floats freely to self level during transition to the closed state.
Internal wheel housing , in particular a rear internal wheel housing , of a motor vehicle , the internal wheel housing comprising a securing surface , in particular a flat or substantially flat securing surface , for at least partially securing a speaker module , in particular a bass box, characterized in that the internal wheel housing comprises an opening made in the securing surface , in particular an opening in the form of an oblong hole centered or substantially centered in the securing surface .
A video playing method, comprising: receiving (S201) a video playing request input by a user, and starting playing a video that is requested; pausing (S202) the playing when the playing of the video reaches a playing starting time of a target video content, wherein the target video content is of a higher video rating than a preset video rating of the user, wherein the video rating of the target video content indicates an impact of the target video content, and the preset video rating of the user indicates that the user is capable of accepting a video content with a video rating lower than or equal to the preset video rating, and that a video content with a video rating higher than the preset video rating is not suitable for the user to watch; and displaying (S203) prompt information to the user, wherein the prompt information is used to prompt the user that the target video content to be played is not suitable for the user to watch; wherein before starting playing the video that is requested, the method further comprises: determining whether the target video content is comprised in the video; and determining the playing starting time of the target video content in the video, and executing the step of pausing the playing when the playing of the video reaches the playing starting time of the target video content, if the target video content is comprised in the video. receiving (S201) a video playing request input by a user, and starting playing a video that is requested; pausing (S202) the playing when the playing of the video reaches a playing starting time of a target video content, wherein the target video content is of a higher video rating than a preset video rating of the user, wherein the video rating of the target video content indicates an impact of the target video content, and the preset video rating of the user indicates that the user is capable of accepting a video content with a video rating lower than or equal to the preset video rating, and that a video content with a video rating higher than the preset video rating is not suitable for the user to watch; and displaying (S203) prompt information to the user, wherein the prompt information is used to prompt the user that the target video content to be played is not suitable for the user to watch; wherein before starting playing the video that is requested, the method further comprises: determining whether the target video content is comprised in the video; and determining the playing starting time of the target video content in the video, and executing the step of pausing the playing when the playing of the video reaches the playing starting time of the target video content, if the target video content is comprised in the video. determining whether the target video content is comprised in the video; and determining the playing starting time of the target video content in the video, and executing the step of pausing the playing when the playing of the video reaches the playing starting time of the target video content, if the target video content is comprised in the video.
A method for wireless communication, the method being performed by a spectrum controller and comprising: receiving , from at least one first tier system, an indication of unused first tier spectrum resources to determine second tier spectrum resources available for use by at least one second tier system; allocating the second tier spectrum resources to the at least one second tier system; characterized in that the method further comprises receiving, from the at least one second tier system after allocating the second tier spectrum resources, an indication of unused second tier spectrum resources determined from the allocated second tier spectrum resources; determining third tier spectrum resources available for use by at least one third tier system based at least in part on the unused second tier spectrum resources; and allocating the third tier spectrum resources to the at least one third tier system. receiving , from at least one first tier system, an indication of unused first tier spectrum resources to determine second tier spectrum resources available for use by at least one second tier system; allocating the second tier spectrum resources to the at least one second tier system; characterized in that the method further comprises receiving, from the at least one second tier system after allocating the second tier spectrum resources, an indication of unused second tier spectrum resources determined from the allocated second tier spectrum resources; determining third tier spectrum resources available for use by at least one third tier system based at least in part on the unused second tier spectrum resources; and allocating the third tier spectrum resources to the at least one third tier system.
Method for initializing a bus system comprising a master module (M) and bus subscribers (S1, S2, S3, S4) arranged in series, said method comprising the chronologically successive method steps: wherein in a first method step the master module (M) invites the bus subscribers (S1, S2, S3, S4) to register with the master module (M), wherein in a second method step a first bus subscriber (S1) arranged downstream of the master module (M) registers with the master module (M), characterized in that in a third method step the first bus subscriber (S1) waits a predefined period of time to see whether a second bus subscriber (S2) arranged downstream of the first bus subscriber (S1) registers with the master module (M), wherein in a fourth method step the first bus subscriber (S1) closes the bus system, in particular wherein the first data line is short-circuited with the second data line by the last bus subscriber in order to close the bus system, if no second bus subscriber (S2) registers with the master module (M) within the predefined period of time, or wherein in a fourth method step, in particular an alternative fourth method step, a second bus subscriber (S2) registers with the master module (M) within the predefined period of time and waits a further predefined period of time to see whether a third bus subscriber (S3) arranged downstream of the second bus subscriber (S2) registers with the master module (M), and the second bus subscriber (S2) closes the bus system if no third bus subscriber (S3) registers with the master module (M) within the further predefined period of time. wherein in a first method step the master module (M) invites the bus subscribers (S1, S2, S3, S4) to register with the master module (M), wherein in a second method step a first bus subscriber (S1) arranged downstream of the master module (M) registers with the master module (M), characterized in that in a third method step the first bus subscriber (S1) waits a predefined period of time to see whether a second bus subscriber (S2) arranged downstream of the first bus subscriber (S1) registers with the master module (M), wherein in a fourth method step the first bus subscriber (S1) closes the bus system, in particular wherein the first data line is short-circuited with the second data line by the last bus subscriber in order to close the bus system, if no second bus subscriber (S2) registers with the master module (M) within the predefined period of time, or wherein in a fourth method step, in particular an alternative fourth method step, a second bus subscriber (S2) registers with the master module (M) within the predefined period of time and waits a further predefined period of time to see whether a third bus subscriber (S3) arranged downstream of the second bus subscriber (S2) registers with the master module (M), and the second bus subscriber (S2) closes the bus system if no third bus subscriber (S3) registers with the master module (M) within the further predefined period of time.
Sheath for a prestressed cable, comprising a tubular sheath body having an internal volume able to receive reinforcements of the prestressed cable and a filling product and at least one vent between the internal volume of the sheath and the exterior of the sheath, characterised in that the vent includes a filtering element permeable to air and impermeable to the filling product.
A nanoemulsion suitable for selective labeling of cancerous lesions and for effective delivery of a cancer cell-targeting staining agent to cancerous lesions comprising: - 70 % by weight to 80 % by weight of an oil component, based on the total weight of the nanoemulsion; - 5 % by weight to 15 % by weight of a surfactant, based on the total weight of the nanoemulsion and - 10 % by weight to 20 % by weight of an aqueous component, based on the total weight of the nanoemulsion, wherein the oil component is soybean oil, wherein the surfactant is a co-surfactant comprising Tween ® 80 and Span ® 80, wherein the aqueous component comprises a water-soluble active ingredient which is a water-soluble stain or a water-soluble drug; an alginate; and a hyaluronic acid, and wherein the nanoemulsion has an average particle size of 200 nm or less. - 70 % by weight to 80 % by weight of an oil component, based on the total weight of the nanoemulsion; - 5 % by weight to 15 % by weight of a surfactant, based on the total weight of the nanoemulsion and - 10 % by weight to 20 % by weight of an aqueous component, based on the total weight of the nanoemulsion, wherein the oil component is soybean oil, wherein the surfactant is a co-surfactant comprising Tween ® 80 and Span ® 80, wherein the aqueous component comprises a water-soluble active ingredient which is a water-soluble stain or a water-soluble drug; an alginate; and a hyaluronic acid, and wherein the nanoemulsion has an average particle size of 200 nm or less. wherein the oil component is soybean oil, wherein the surfactant is a co-surfactant comprising Tween ® 80 and Span ® 80, wherein the aqueous component comprises a water-soluble active ingredient which is a water-soluble stain or a water-soluble drug; an alginate; and a hyaluronic acid, and wherein the nanoemulsion has an average particle size of 200 nm or less.
A method for controlling communication of audio and/or video streams in a Universal Serial Bus, USB, system, comprising: receiving variably-sized packets containing audio and/or video data at a USB driver in a first processor; assembling packets of uniform-size at the first processor based on the variably sized packets received, wherein assembling packets of uniform size comprises calculating a size of the packets of uniform size using a USB bus frequency and a number of samples per variably sized packet; and passing the packets of uniform size to a second processor , wherein said second processor is an application processor wherein said packets of uniform size are useable by applications at an application layer in a protocol stack of the second processor. receiving variably-sized packets containing audio and/or video data at a USB driver in a first processor; assembling packets of uniform-size at the first processor based on the variably sized packets received, wherein assembling packets of uniform size comprises calculating a size of the packets of uniform size using a USB bus frequency and a number of samples per variably sized packet; and passing the packets of uniform size to a second processor , wherein said second processor is an application processor wherein said packets of uniform size are useable by applications at an application layer in a protocol stack of the second processor.
A method by a communications controller for transmitting a packet to a wireless device in a wideband Long Term Evolution, LTE, system, comprising: signaling , by the communications controller, an uplink/downlink, UL/DL, configuration to the wireless device, wherein the UL/DL configuration indicates a quantity of uplink microframes in a group of microframes , wherein each subframe comprises a plurality of microframes , and wherein the group of microframes comprises a consecutive sequence of downlink microframes and a consecutive sequence of uplink microframes , and wherein each micro frame contains one or more orthogonal frequency division multiplex, OFDM, symbols ; transmitting , by the communications controller, the packet to the wireless device in one downlink microframe of the consecutive sequence of downlink microframes ; and receiving , by the communications controller, an acknowledgement of the packet in an uplink microframe , wherein the uplink microframe is determined in accordance with the one downlink microframe and the UL/DL configuration, and wherein the acknowledgement is received in a same subframe as a subframe utilized for transmitting the packet to the wireless device. signaling , by the communications controller, an uplink/downlink, UL/DL, configuration to the wireless device, wherein the UL/DL configuration indicates a quantity of uplink microframes in a group of microframes , wherein each subframe comprises a plurality of microframes , and wherein the group of microframes comprises a consecutive sequence of downlink microframes and a consecutive sequence of uplink microframes , and wherein each micro frame contains one or more orthogonal frequency division multiplex, OFDM, symbols ; transmitting , by the communications controller, the packet to the wireless device in one downlink microframe of the consecutive sequence of downlink microframes ; and receiving , by the communications controller, an acknowledgement of the packet in an uplink microframe , wherein the uplink microframe is determined in accordance with the one downlink microframe and the UL/DL configuration, and wherein the acknowledgement is received in a same subframe as a subframe utilized for transmitting the packet to the wireless device.
An inorganic EL element comprising: an anode ; a hole transporting layer ; a light emitting layer ; an electron transporting layer ; and a cathode , the anode , the hole transporting layer , the light emitting layer , the electron transporting layer , and the cathode being stacked, wherein the hole transporting layer is an oxide film, the light emitting layer is an oxide film, and the electron transporting layer is an oxide film. an anode ; a hole transporting layer ; a light emitting layer ; an electron transporting layer ; and a cathode , the anode , the hole transporting layer , the light emitting layer , the electron transporting layer , and the cathode being stacked, wherein the hole transporting layer is an oxide film, the light emitting layer is an oxide film, and the electron transporting layer is an oxide film.
An exhaust system for an internal combustion engine ; the exhaust system comprises: an end chamber having a first inlet opening and a second inlet opening , which are separate from and independent of one another, and an outlet opening , through which exhaust gases are released into the atmosphere; an exhaust duct , which originates from the internal combustion engine and leads to the first inlet opening of the end chamber ; a silencer device , which has an outlet opening , which directly leads to the second inlet opening of the end chamber ; a bypass duct , which originates from the exhaust duct in the area of a bifurcation and ends in an inlet opening of the silencer device ; and an adjustment valve , which can be electronically controlled, is arranged along the exhaust duct downstream of the bifurcation where the bypass duct originates and is designed to adjust the exhaust gas flow towards the first inlet opening of the end chamber ; the end chamber has at least one movable partition , which can be moved to different positions so as to change the width and/or the shape of the outlet opening ; and there are: a motor-driven actuator device , which is configured to actively move the movable partition and can be electronically controlled; and a control unit , which is configured to change, by controlling the actuator device , the position of the movable partition and to change a position of the adjustment valve . an end chamber having a first inlet opening and a second inlet opening , which are separate from and independent of one another, and an outlet opening , through which exhaust gases are released into the atmosphere; an exhaust duct , which originates from the internal combustion engine and leads to the first inlet opening of the end chamber ; a silencer device , which has an outlet opening , which directly leads to the second inlet opening of the end chamber ; a bypass duct , which originates from the exhaust duct in the area of a bifurcation and ends in an inlet opening of the silencer device ; and an adjustment valve , which can be electronically controlled, is arranged along the exhaust duct downstream of the bifurcation where the bypass duct originates and is designed to adjust the exhaust gas flow towards the first inlet opening of the end chamber ; the end chamber has at least one movable partition , which can be moved to different positions so as to change the width and/or the shape of the outlet opening ; and there are: a motor-driven actuator device , which is configured to actively move the movable partition and can be electronically controlled; and a control unit , which is configured to change, by controlling the actuator device , the position of the movable partition and to change a position of the adjustment valve .
A method performed by a base station to support network entry of a mobile station in a communication system, the method comprising: transmitting , to the mobile station, system information comprising random access configuration over each of a plurality of downlink, DL, transmission beams; receiving , from the mobile station, an initial random access signal based on the random access configuration, wherein the initial random access signal indicates a preferred DL beam from among the plurality of DL transmission beams; and transmitting a random access acknowledge signal in response to the initial random access signal based on the indicated preferred DL beam to the mobile station. transmitting , to the mobile station, system information comprising random access configuration over each of a plurality of downlink, DL, transmission beams; receiving , from the mobile station, an initial random access signal based on the random access configuration, wherein the initial random access signal indicates a preferred DL beam from among the plurality of DL transmission beams; and transmitting a random access acknowledge signal in response to the initial random access signal based on the indicated preferred DL beam to the mobile station.
A monitoring device for a weaving machine , which monitoring device comprises at least one camera apparatus and a weft-thread beat-up device , wherein the weft-thread beat-up device comprises a reed and/or a batten , and the reed and/or the batten extend in a longitudinal direction (LA1, LA2) of the weft-thread beat-up device characterised in that , the at least one camera apparatus is fastened to the weft-thread beat-up device such that in the event of a movement of the weft-thread beat-up device during a weaving process, the at least one camera apparatus has no movement other than a co-movement with the weft-thread beat-up device , wherein the at least one camera apparatus is equipped with at least one image sensor, which comprises a plurality of light-sensitive sensor elements, in each case disposed next to each other, in order to record an image of warp threads in the form of a plurality of pixels disposed next to each other, wherein the pixels are disposed at least in a row extending substantially parallel to the longitudinal direction (LA1, LA2) of the weft-thread beat-up device . which monitoring device comprises at least one camera apparatus and a weft-thread beat-up device , wherein the weft-thread beat-up device comprises a reed and/or a batten , and the reed and/or the batten extend in a longitudinal direction (LA1, LA2) of the weft-thread beat-up device characterised in that , the at least one camera apparatus is fastened to the weft-thread beat-up device such that in the event of a movement of the weft-thread beat-up device during a weaving process, the at least one camera apparatus has no movement other than a co-movement with the weft-thread beat-up device , wherein the at least one camera apparatus is equipped with at least one image sensor, which comprises a plurality of light-sensitive sensor elements, in each case disposed next to each other, in order to record an image of warp threads in the form of a plurality of pixels disposed next to each other, wherein the pixels are disposed at least in a row extending substantially parallel to the longitudinal direction (LA1, LA2) of the weft-thread beat-up device .