mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting or quantifying circulating tumor cells (CTCs) in a biological sample from a subject, and optionally for isolating said CTCs from the biological sample, comprising detecting the expression of CD321 by circulating non-hematopoietic cells in the biological sample, wherein the expression of CD321 by a circulating non-hematopoietic cell identifies said cell as a circulating tumor cell, and optionally isolating the CD321 expressing CTCs from the biological sample.
A turret for a pulverizer , said turret comprising: an inlet at a bottom of said turret; a plurality of outlets at a top of said turret in fluid communication with a corresponding number of coal outlet pipes ; a generally frusto-conical shaped body; and a plurality of static vanes arranged interior to the body and extending inwardly from an interior sidewall of the body; wherein the vanes are configured to guide a swirling flow of solid particles as they enter the body, and to divide the swirling flow into a plurality of controlled flows that are communicated to the coal outlet pipes. an inlet at a bottom of said turret; a plurality of outlets at a top of said turret in fluid communication with a corresponding number of coal outlet pipes ; a generally frusto-conical shaped body; and a plurality of static vanes arranged interior to the body and extending inwardly from an interior sidewall of the body; wherein the vanes are configured to guide a swirling flow of solid particles as they enter the body, and to divide the swirling flow into a plurality of controlled flows that are communicated to the coal outlet pipes.
A display screen , comprising a plurality of display modules and a plurality of optical structures , the plurality of display modules and the plurality of optical structures being closely arranged, wherein each of the optical structures is arranged corresponding to one of the display modules, and is arranged on a side of a light-emitting surface of the display module; adjacent two display modules are arranged close to each other, and optical structures on adjacent two display modules are arranged close to each other; each of the display modules comprises a display area and a black edge area arranged around the display area, black edge areas of adjacent two display modules are spliced together to form a seam ; each of the optical structures comprises a first surface and a second surface disposed opposite to each other, and the second surface of the optical structure is attached to the display module; one end of the first surface of the optical structure close to the seam is a first arc surface , and the first arc surface is configured to refract light emitted from the display area of the display module, and then distribute the refracted light in a front-view area corresponding to the seam, wherein one end of the second surface of the optical structure close to the seam is a second arc surface , and light emitted from the display area of the display module is reflected by the second arc surface to supplement light in a non-front-view area corresponding to the seam, wherein the first arc surface is a convex arc surface configuration and the second arc surface is a concave arc surface configuration. each of the display modules comprises a display area and a black edge area arranged around the display area, black edge areas of adjacent two display modules are spliced together to form a seam ; each of the optical structures comprises a first surface and a second surface disposed opposite to each other, and the second surface of the optical structure is attached to the display module; one end of the first surface of the optical structure close to the seam is a first arc surface , and the first arc surface is configured to refract light emitted from the display area of the display module, and then distribute the refracted light in a front-view area corresponding to the seam, wherein one end of the second surface of the optical structure close to the seam is a second arc surface , and light emitted from the display area of the display module is reflected by the second arc surface to supplement light in a non-front-view area corresponding to the seam, wherein the first arc surface is a convex arc surface configuration and the second arc surface is a concave arc surface configuration.
Body structure for a vehicle, having a body pillar , in particular B pillar, which is constructed from a vehicle-interior sheet-metal inner part and from a vehicle-exterior sheet-metal outer part that form a hollow support having a cross-sectionally closed hollow profile running in the vertical direction (z) of the vehicle, wherein functional elements ) of a seatbelt system can be mounted on the hollow support of the body pillar , wherein the body pillar has a module support which can be provided as a preassembly unit which is separate from the vehicle body and on which the functional elements of the seatbelt system and/or a pillar trim can be preassembled, and in that the module support together with the functional elements and/or pillar trim already preassembled thereon can be joined to the sheet-metal inner part of the hollow support at at least one pillar-side attachment point (S1, S2), in particular by an adhesive connection and/or screw connection, in an assembly process step (ZSB), characterized in that the module support and the sheet-metal inner part have a positioning aid (P) by means of which the module support can be correctly positioned in advance in a screw-in position (SP) on the sheet-metal inner part during the assembly, in which screw-in position (SP) the module support can be screwed to the sheet-metal inner part , wherein the positioning aid (P) has at least one keyhole-like positioning opening in the sheet-metal inner part , the positioning opening consisting of a cross-sectionally large insertion region and a cross-sectionally small region adjoining the latter downwards in the vehicle, and in that the positioning aid (P) has a positioning bolt which interacts therewith, protrudes from a base surface of the module support and has a widened bolt head which is spaced apart from the assembly surface of the module support by a clear annular gap (r) which is greater than the sheet-metal thickness of the sheet-metal inner part , and in that , during the positioning in advance, first of all the module support is inserted with its positioning bolt into the insertion region of the sheet-metal inner part positioning opening and is subsequently moved downwards in the vehicle under the action of gravity until the positioning bolt rests on a bottom edge of the positioning opening and an edge region of the positioning opening projects in a form-fitting manner into the annular gap (r) on the module-support side.
A method for obtaining a lipase variant, comprising introducing into a parent lipase, substitutions corresponding to: a) G91A+D96G+T231R+N233R; b) T37R+N39R+G91A+D96G+T231 R+N233R; c) G91A+D96G+G225R+T231R+N233R; or d) G91A+D96G+A150G+T231R+N233R of the mature polypeptide of SEQ ID NO: 2, wherein the variant is a polypeptide comprising an amino acid sequence with at least 90% identity, but less than 100% with the mature polypeptide of SEQ ID NO: 2, has lipase activity, and in comparison with the parent lipase has improved performance in the presence of an organic catalyst selected from the group consisting of organic catalysts having the following formulae: a) b) c) mixtures thereof, wherein each R1 is independently a branched alkyl group containing from 3 to 24 carbons or a linear alkyl group containing from 1 to 24 carbons; and recovering the variant. a) G91A+D96G+T231R+N233R; b) T37R+N39R+G91A+D96G+T231 R+N233R; c) G91A+D96G+G225R+T231R+N233R; or d) G91A+D96G+A150G+T231R+N233R of the mature polypeptide of SEQ ID NO: 2, wherein the variant is a polypeptide comprising an amino acid sequence with at least 90% identity, but less than 100% with the mature polypeptide of SEQ ID NO: 2, has lipase activity, and in comparison with the parent lipase has improved performance in the presence of an organic catalyst selected from the group consisting of organic catalysts having the following formulae: a) b) c) mixtures thereof, wherein each R1 is independently a branched alkyl group containing from 3 to 24 carbons or a linear alkyl group containing from 1 to 24 carbons; and recovering the variant. a) b) c) mixtures thereof,
A method of transferring data in a wireless network, comprising: contending for and reserving a transmit opportunity; determining that some or usable portion of the transmission opportunity will remain once the data is transmitted, wherein the remainder of the transmission opportunity is transferred or handed off to another station; transmitting a quality of service frame using a high throughput device, wherein the quality of service frame comprises a high-throughput control field that is set to identify a transmit opportunity handoff, wherein the handoff: is transmitted as part of or separate from the data being transmitted in the quality of service frame, and the high-throughput control field carries information relevant only to high-throughput devices; and wherein the high-throughput devices are enhanced over legacy devices, and the high-throughput control field is used only by high-throughput devices; and wherein the legacy devices are compliant with a wireless standard selected from the group consisting of 802.11a, 802.11e, 802.11i, and 802.11g. contending for and reserving a transmit opportunity; determining that some or usable portion of the transmission opportunity will remain once the data is transmitted, wherein the remainder of the transmission opportunity is transferred or handed off to another station; transmitting a quality of service frame using a high throughput device, wherein the quality of service frame comprises a high-throughput control field that is set to identify a transmit opportunity handoff, wherein the handoff: is transmitted as part of or separate from the data being transmitted in the quality of service frame, and the high-throughput control field carries information relevant only to high-throughput devices; and wherein the high-throughput devices are enhanced over legacy devices, and the high-throughput control field is used only by high-throughput devices; and wherein the legacy devices are compliant with a wireless standard selected from the group consisting of 802.11a, 802.11e, 802.11i, and 802.11g.
Segmented core for moulding of an impeller , especially a pump impeller, comprising at least three segments , wherein each two adjacent segments define and delimit the space for a blade of the impeller to be formed, wherein all segments of the at least three segments are identical and each segment of the at least three segments has connecting means for connecting the segment with the adjacent segments .
A method for producing titanium carbonitride powder, the method comprising the steps of: a mixing step for contacting per each mole of titanium dioxide (TiO 2 ), more than 2 moles to 6 moles or less of calcium (Ca) and 0.2 moles to 2.5 moles of carbon (C) under an inert atmosphere, the carbon being activated carbon or carbon black; a synthesis step for reacting the resultant mixture from the mixing step by heating under a nitrogen atmosphere at a pressure from 49,033.25Pa (0.5 kgf/cm 2) ) to 980,665Pa (10kgf/cm 2) ) at a temperature of 600 - 1500 °C; and a washing step for removing calcium oxide (CaO) by washing the mixture with water after the completion of the synthesis step.
A method for quenching coke in a quench tower , comprising: receiving a train car containing an amount of coke to be quenched, wherein the train car is received through an opening in the quench tower ; starting a suppression action to suppress an amount of dust, wherein the suppressing comprises disposing an amount of liquid in the quench tower via one or more baffle spray nozzles ; starting a quenching action to quench the amount of coke in the train car , wherein starting the quenching action comprises disposing an amount of liquid onto the amount of coke using one or more quench spray nozzles (355a-355c, 360a-360c, 365a-365c); stopping the suppression action, wherein stopping the suppression action comprises discontinuing disposing an amount of liquid in the quench tower via one or more baffle spray nozzles ; stopping the quenching action, wherein stopping the quenching action comprises discontinuing disposing an amount of liquid onto the amount of coke using the one or more quench spray nozzles (355a-355c, 360a-360c, 365a-365c); and transporting the train car out of the quench tower , wherein the train car is transported through an opening in the quench tower , characterised in that at least one of the one or more quench spray nozzles (355a-355c, 360a-360c, 365a-365c) begins disposing an amount of liquid onto a left side region and a right side region of the amount of coke before a different at least one of the one or more quench spray nozzles (355a-355c, 360a-360c, 365a-365c) begins disposing an amount of liquid onto a centre region of the amount of coke. receiving a train car containing an amount of coke to be quenched, wherein the train car is received through an opening in the quench tower ; starting a suppression action to suppress an amount of dust, wherein the suppressing comprises disposing an amount of liquid in the quench tower via one or more baffle spray nozzles ; starting a quenching action to quench the amount of coke in the train car , wherein starting the quenching action comprises disposing an amount of liquid onto the amount of coke using one or more quench spray nozzles (355a-355c, 360a-360c, 365a-365c); stopping the suppression action, wherein stopping the suppression action comprises discontinuing disposing an amount of liquid in the quench tower via one or more baffle spray nozzles ; stopping the quenching action, wherein stopping the quenching action comprises discontinuing disposing an amount of liquid onto the amount of coke using the one or more quench spray nozzles (355a-355c, 360a-360c, 365a-365c); and transporting the train car out of the quench tower , wherein the train car is transported through an opening in the quench tower ,
An automatically moving floor treatment appliance comprising a floor treatment element for acting on a surface to be treated, and a control device for controlling the floor treatment element , characterized in that the control device is embodied to automatically control the floor treatment element as a function of environmental data stored in an external storage device and relating to an air quality.
A seal system for a gas turbine engine , comprising: a fairing ; a finger seal retention unit attached to the fairing , the finger seal retention unit comprising a channel defining an opening between the fairing and the finger seal retention unit ; and a finger seal comprising a tab corresponding to the channel of the finger seal retention unit ; characterised in that the channel comprises a first opening end and a second opening end , and in that the finger seal is removably attached to the finger seal retention unit by the tab being inserted into the first opening end , extending through the second opening end , and being bent around and over the finger seal retention unit , such that the finger seal is attached to the finger seal retention unit without fasteners. a fairing ; a finger seal retention unit attached to the fairing , the finger seal retention unit comprising a channel defining an opening between the fairing and the finger seal retention unit ; and a finger seal comprising a tab corresponding to the channel of the finger seal retention unit ; characterised in that the channel comprises a first opening end and a second opening end , and in that the finger seal is removably attached to the finger seal retention unit by the tab being inserted into the first opening end , extending through the second opening end , and being bent around and over the finger seal retention unit , such that the finger seal is attached to the finger seal retention unit without fasteners.
A system for nondestructively sampling intracellular material, the system comprising: a cell culture chamber having an upper region and a lower region; a nanostraw substrate positioned over the lower region, wherein the substrate comprises a plurality of sample regions; a plurality of nanostraws extending through the nanostraw substrate in each sample region, wherein each nanostraw has an outer diameter configured to support a cell without penetrating the cell's cell membrane; a plurality of sample material collectors, wherein each sample material collector corresponds to one sample region of the plurality of sample regions; a first electrode in the upper region; a second electrode in the lower region; and a controller coupled to the first electrode and the second electrode and configured to apply a pulsed voltage through the plurality of nanostraws of between about 1 V and 100V, a pulse width of between about 10 microseconds and 50 milliseconds for a duration of between 1 second and 300 seconds. a cell culture chamber having an upper region and a lower region; a nanostraw substrate positioned over the lower region, wherein the substrate comprises a plurality of sample regions; a plurality of nanostraws extending through the nanostraw substrate in each sample region, wherein each nanostraw has an outer diameter configured to support a cell without penetrating the cell's cell membrane; a plurality of sample material collectors, wherein each sample material collector corresponds to one sample region of the plurality of sample regions; a first electrode in the upper region; a second electrode in the lower region; and a controller coupled to the first electrode and the second electrode and configured to apply a pulsed voltage through the plurality of nanostraws of between about 1 V and 100V, a pulse width of between about 10 microseconds and 50 milliseconds for a duration of between 1 second and 300 seconds.
A waveguide device , comprising: a substrate comprising an electro-optical material with a first refractive index; a waveguide formed in the electro-optical material , the waveguide comprising a plurality of tracks ; a plurality of electrodes formed in a vicinity of the waveguide ; wherein the tracks comprise a second refractive index smaller than the first refractive index, are parallel to each other with a common direction (z) defining a direction (z) of the waveguide , and form an arrangement in a plane perpendicular to the direction (z) of the waveguide ; and wherein the arrangement comprises at least 40 equilateral triangles of identical side lengths, wherein all three corners of each of the equilateral triangles each coincide with a different track of the plurality of tracks in the plane perpendicular to the direction (z) of the waveguide ; wherein the waveguide comprises a core ; wherein the core is defined by a first interruption of the arrangement of the tracks comprising the equilateral triangles in the plane perpendicular to the direction (z) of the waveguide ; and wherein the waveguide comprises an asymmetric cladding thickness (t, t'), such that a section of the waveguide with a minimum thickness (t') is arranged between the core and an electrode of the plurality of electrodes , in particular between the core and the nearest electrode . a substrate comprising an electro-optical material with a first refractive index; a waveguide formed in the electro-optical material , the waveguide comprising a plurality of tracks ; a plurality of electrodes formed in a vicinity of the waveguide ; wherein the tracks comprise a second refractive index smaller than the first refractive index, are parallel to each other with a common direction (z) defining a direction (z) of the waveguide , and form an arrangement in a plane perpendicular to the direction (z) of the waveguide ; and wherein the arrangement comprises at least 40 equilateral triangles of identical side lengths, wherein all three corners of each of the equilateral triangles each coincide with a different track of the plurality of tracks in the plane perpendicular to the direction (z) of the waveguide ; wherein the waveguide comprises a core ; wherein the core is defined by a first interruption of the arrangement of the tracks comprising the equilateral triangles in the plane perpendicular to the direction (z) of the waveguide ; and wherein the waveguide comprises an asymmetric cladding thickness (t, t'), such that a section of the waveguide with a minimum thickness (t') is arranged between the core and an electrode of the plurality of electrodes , in particular between the core and the nearest electrode .
A roller bearing in particular for a vacuum pump with at least one inner ring , at least one outer ring and roller elements wherein the roller bearing comprises at least one dynamic sealing element and at least one outlet channel , which is formed as an outlet channel forming a connection between a volume delimited by the sealing element and a feedback provided outside the roller bearing , characterised in that the dynamic sealing element has a splash edge arranged on an outer face of the inner ring .
Arrangement of a carrier part , a top part and a cover of a switching device with components of an electronics system that are integrated in the arrangement, wherein the carrier part has at least one pair of contacts , for receiving an electrical fuse or a disconnecting blade, wherein the fuse or the disconnecting blade can be inserted into the contacts of the carrier part or can be removed from the contacts , for the purpose of switching the switching device , wherein the cover serves to store the electrical fuse or the disconnecting blade, wherein the cover is mounted in the top part such that it can move between a first end position and a second end position, wherein in the second end position the fuse which can be stored in the cover or the disconnecting blade which can be stored in the cover is inserted into the contacts , and in the first end position the electrical fuse or the disconnecting blade is removed from the contacts , wherein the top part can be mechanically connected to the carrier part , wherein a first component of the electronics system is mounted in the carrier part , characterized in that a second component of the electronics system is mounted in the top part , wherein the first component has a first connecting device , wherein the first connecting device is mounted in the carrier part , wherein the second component has a second connecting device , wherein the second connecting device is mounted in the top part , wherein the first connecting device and the second connecting device can be electrically and/or optically coupled to one another, for establishing an electrical and/or optical connection between the first component and the second component by electrically and/or optically coupling the first connecting device to the second connecting device when the carrier part and the top part are mechanically connected.
A method for a wireless communication device operating in a wireless communication system, the method comprising: starting a timer related to a downlink, DL, bandwidth part, BWP, based on an active BWP for a serving cell being switched to the DL BWP; transmitting uplink, UL, data on one of UL semi-persistent scheduling, SPS, resources configured in a UL BWP related to the DL BWP; and restarting the timer related to the DL BWP based on the UL data being transmitted on the UL SPS resource. starting a timer related to a downlink, DL, bandwidth part, BWP, based on an active BWP for a serving cell being switched to the DL BWP; transmitting uplink, UL, data on one of UL semi-persistent scheduling, SPS, resources configured in a UL BWP related to the DL BWP; and restarting the timer related to the DL BWP based on the UL data being transmitted on the UL SPS resource.