mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sizing a DNA molecule, comprising the following steps of: providing a DNA sizing device, comprising: a cover substrate; a substrate disposed on the cover substrate and comprising a first hole and a second hole; and a first slit-like channel disposed between the cover substrate and the substrate, wherein two ends of the first slit-like channel respectively connects to the first hole and the second hole; loading a sample comprising a DNA molecule to the first slit-like channel through the first hole, wherein the DNA molecule moves in a direction from the first hole to the second hole; detecting and recording an intensity and an area of the DNA molecule; and analyzing the intensity and the area to obtain a size of the DNA molecule. providing a DNA sizing device, comprising: a cover substrate; a substrate disposed on the cover substrate and comprising a first hole and a second hole; and a first slit-like channel disposed between the cover substrate and the substrate, wherein two ends of the first slit-like channel respectively connects to the first hole and the second hole; a cover substrate; a substrate disposed on the cover substrate and comprising a first hole and a second hole; and a first slit-like channel disposed between the cover substrate and the substrate, wherein two ends of the first slit-like channel respectively connects to the first hole and the second hole; loading a sample comprising a DNA molecule to the first slit-like channel through the first hole, wherein the DNA molecule moves in a direction from the first hole to the second hole; detecting and recording an intensity and an area of the DNA molecule; and analyzing the intensity and the area to obtain a size of the DNA molecule.
A pipelay vessel , comprising two pipe string manufacturing lines and a firing line , wherein the pipe string manufacturing lines are designed for simultaneously handling two different pipe outer diameters for use as an inner pipe and an outer pipe respectively and each comprises one or more workstations for the fabrication of multi-length strings from single joints, wherein the vessel further comprises a pipe-in-pipe assembly workstation for assembling the inner pipe and the outer pipe in a pipe-in-pipe configuration, the pipe-in-pipe assembly station being arranged to assemble inner and outer pipe strings on the firing line or parallel and adjacent to the firing line, such that a distance between the firing line and the pipe-in-pipe assembly station is less than 5 meters.
A method for transmitting a time-sensitive networking, TSN, frame by a user plane function, UPF, in a mobile communication network configured to support a fully-distributed TSN model, the method comprising: establishing (1.) a packet data unit, PDU, session with a user equipment, UE, communicating with a first TSN node; synchronizing (2.) the first TSN node and a second TSN node; interpreting a first frame received from the first TSN node through the UE, wherein the interpreting of the first frame comprises identifying TSN data and control information and extracting the control information from the first frame; converting the control information of the first frame into a message for transmission in the mobile communication network, and transmitting, to a TSN application function, AF, the message; receiving (6c.), from the TSN AF through a session management function, SMF, of the mobile communication network, a session modification message for a quality of service, QoS, required by the first frame; receiving (7b.), from the TSN AF through the SMF, a parameter update message including at least one of a talker status, a listener status, and an accumulated latency value, wherein the talker status records a status according to whether there is a talker and the listener status indicates whether there is a listener, wherein the talker is the first TSN node and the listener is the second TSN node, and wherein the parameter update message is generated in the TSN AF or the UPF; generating a second frame reflecting the parameter update message; and transmitting (8.) the generated second frame to the second TSN node. establishing (1.) a packet data unit, PDU, session with a user equipment, UE, communicating with a first TSN node; synchronizing (2.) the first TSN node and a second TSN node; interpreting a first frame received from the first TSN node through the UE, wherein the interpreting of the first frame comprises identifying TSN data and control information and extracting the control information from the first frame; converting the control information of the first frame into a message for transmission in the mobile communication network, and transmitting, to a TSN application function, AF, the message; receiving (6c.), from the TSN AF through a session management function, SMF, of the mobile communication network, a session modification message for a quality of service, QoS, required by the first frame; receiving (7b.), from the TSN AF through the SMF, a parameter update message including at least one of a talker status, a listener status, and an accumulated latency value, wherein the talker status records a status according to whether there is a talker and the listener status indicates whether there is a listener, wherein the talker is the first TSN node and the listener is the second TSN node, and wherein the parameter update message is generated in the TSN AF or the UPF; generating a second frame reflecting the parameter update message; and transmitting (8.) the generated second frame to the second TSN node.
A method for operating a first electronic device , the method comprising the steps of: in response to a processor of the first electronic device detecting a gesture performed with a second electronic device , receiving via a communication interface information from a content provided by the second electronic device ; in response to receiving the information, the processor executing an application in response to the information from the content; and in response to executing the application, the processor performing a function for extending the content in the application executed on the first electronic device without a user input, wherein the function is performed in response to an activity executed in the second electronic device while the gesture is performed. in response to a processor of the first electronic device detecting a gesture performed with a second electronic device , receiving via a communication interface information from a content provided by the second electronic device ; in response to receiving the information, the processor executing an application in response to the information from the content; and in response to executing the application, the processor performing a function for extending the content in the application executed on the first electronic device without a user input, wherein the function is performed in response to an activity executed in the second electronic device while the gesture is performed.
A method, performed by a network node , for reducing a higher layer signaling overhead in multi antenna wireless communication systems, wherein the network node operates in a communication network, which communication network is adapted to wirelessly serve a network device via a Radio Access, RA, node, wherein the method comprises: - obtaining information from the network device , which information comprises a category of the network device and a number of layers supported by the network device , - determining a length of a codebook subset restriction based on the category of the network device and the number of layers supported by the network device comprised in the information obtained from the network device , and - sending a codebook subset restriction bit map to the network device , according to the determined length of the codebook subset restriction. - obtaining information from the network device , which information comprises a category of the network device and a number of layers supported by the network device , - determining a length of a codebook subset restriction based on the category of the network device and the number of layers supported by the network device comprised in the information obtained from the network device , and - sending a codebook subset restriction bit map to the network device , according to the determined length of the codebook subset restriction.
A method for displaying information to a pilot in a cockpit or on a flight deck, comprising: calculating an optimum initial pitch angle of an airplane on a runway , wherein the optimum initial pitch angle is associated with an optimum V 2 /V s ratio, wherein the optimum V 2 /V s ratio is determined by combining both climb and field weight limitations and the optimum initial pitch angle is associated with a maximum takeoff weight; and displaying symbology representing an initial pitch target corresponding to the optimum initial pitch angle on a display screen during takeoff. calculating an optimum initial pitch angle of an airplane on a runway , wherein the optimum initial pitch angle is associated with an optimum V 2 /V s ratio, wherein the optimum V 2 /V s ratio is determined by combining both climb and field weight limitations and the optimum initial pitch angle is associated with a maximum takeoff weight; and displaying symbology representing an initial pitch target corresponding to the optimum initial pitch angle on a display screen during takeoff.
A method for carrying out a heat-consuming process, wherein the total energy required averaged over a year for the heat-consuming process originates from at least two different energy sources, where one of the energy sources is an electric energy source whose power varies in the range from 0 to 100% of the total power required and where the excess power, which is defined as the power which is offered on the power market at significantly below its production costs or at prices which, based on its energy content, are lower than for a fossil fuel having the same calorific value or at no cost or even at negative prices, is used without intermediate storage or prior equalization/compensation in a power station in the heat-consuming process, and three different energy modes can individually provide the total power required for the heat-consuming process: (i) exclusively electric energy, (ii) a mixture of electric energy and at least one further nonelectric energy source or (iii) exclusively nonelectric energy, where a change of the energy sources/energy modes occurs while carrying out the heat-consuming process and the changeover time in which the change from one energy mode to another energy mode is completed is not more than 30 minutes, where the nonelectric energy source is supplied by oxidative processes and the thermal energy drawn with a power fluctuating over time from the electric energy source for the heat-consuming process is provided by means of inductive or resistive processes, plasma processes, heating by means of electrically conductive heating elements/contact areas or by means of microwaves, where the two or more energy sources are connected in series or in parallel.
A device for dispensing a compound , wherein a movable support is arranged in a device housing in order to act upon the compound , wherein a rotary handle furthermore is provided in order to move the support between a lower starting position and a maximally extended upper position of the support , wherein said rotary handle has a spindle that is rotatable about a longitudinal axis (x) extending in the moving direction (r) of the support , wherein a spindle nut furthermore is provided on the support , wherein the spindle nut furthermore has in the direction of the longitudinal axis (x) a length (b) that is equal to or greater than the distance (a) between the lower starting position and the maximally extended upper position in the moving direction (r) of the support , wherein the spindle nut is realized in the form of an elongate sleeve that downwardly protrudes beyond the support opposite to the moving direction (r) by a length (c) corresponding to a multiple of the spindle outside diameter (d), and wherein the support has a central region , which is assigned to the spindle nut and/or the spindle , characterized in that the spindle nut is closed on its face side, and in that the spindle nut upwardly protrudes beyond the central region of the support in the moving direction (r) of the support .
An applicator for applying a cosmetic product to the eyelashes and/or eyebrows, comprising an applicator member extending along a longitudinal axis (X) and comprising: - at least two branches joined together at their two ends and defining a cavity between them, - a plurality of bridges of material , notably between 2 and 8 bridges of material , each extending between the two branches into the cavity and joining these two branches together, and each bearing at least two spikes arranged one after the other in the longitudinal direction. - at least two branches joined together at their two ends and defining a cavity between them, - a plurality of bridges of material , notably between 2 and 8 bridges of material , each extending between the two branches into the cavity and joining these two branches together, and each bearing at least two spikes arranged one after the other in the longitudinal direction.
A biopsy needle device (100; 200), comprising: a cannula (120; 220) comprising a distal end configured to sever a collapsed tissue sample; a trocar (140; 240) disposed within the cannula comprising a notch (157; 257) comprising a channel (158; 258) configured to receive and to retain the collapsed tissue sample; and a stylet (160; 260) disposed within the trocar comprising a distal end configured to dislodge the collapsed tissue sample from the channel, wherein the distal end of the stylet comprises a bevel . a cannula (120; 220) comprising a distal end configured to sever a collapsed tissue sample; a trocar (140; 240) disposed within the cannula comprising a notch (157; 257) comprising a channel (158; 258) configured to receive and to retain the collapsed tissue sample; and a stylet (160; 260) disposed within the trocar comprising a distal end configured to dislodge the collapsed tissue sample from the channel, wherein the distal end of the stylet comprises a bevel .
A head guard comprising a first head guard portion intended to cooperate at least partially with an external rigid body , and a second head guard portion intended to cooperate with a roof (T); said head guard being deformable and comprising an outer support layer which is semi-rigid and deformable, said outer support layer having an adhesion face directed towards the roof (T) on which is deposited an inner adhesion layer consisting of a material configured to adhere to the roof (T), such as the adhesion layer of the second head guard portion intended to cooperate with the roof (T) is covered at least partially with a temporary protective film , this temporary protective film being intended to be detached from the adhesion layer , characterized in that the adhesion layer of the first head guard portion is covered at least partially with a permanent passivation layer , the permanent passivation layer being extensible and being irreversibly fastened to the adhesion layer .
Pane, comprising: - a substrate , - an electrically conductive structure on a region of the substrate , - a layer of a leadfree solder material on a region of the electrically conductive structure , - at least one electrical connection element , which contains a chromium-containing steel with a proportion of chromium greater than or equal to 10.5 wt.-%, - at least two soldering points of the connection element on the solder material , wherein - the soldering points form at least one contact surface between the connection element and the electrically conductive structure , and - the shape of the contact surface has at least one segment of an oval, of an ellipse, or of a circle with a central angle α of at least 90°. - a substrate , - an electrically conductive structure on a region of the substrate , - a layer of a leadfree solder material on a region of the electrically conductive structure , - at least one electrical connection element , which contains a chromium-containing steel with a proportion of chromium greater than or equal to 10.5 wt.-%, - at least two soldering points of the connection element on the solder material , wherein - the soldering points form at least one contact surface between the connection element and the electrically conductive structure , and - the shape of the contact surface has at least one segment of an oval, of an ellipse, or of a circle with a central angle α of at least 90°.
A thermal management system comprising: a sublimator having a porous plate ; a water feed line connected with the sublimator for delivering feed water to the porous plate, wherein the sublimator is operable to freeze and sublime the feed water using the porous plate; and an adsorbent bed in the water feed line, the adsorbent bed configured to substantially remove organic compounds from the feed water that are capable of forming an adherent layer on the porous plate, wherein the adsorbent bed includes first and second adsorbent media , the first and second adsorbent media are different with regard to adsorption capability of at least two of abietic acid, sodium dodecyl benzene sulfonate (SDBS), acrylic acid oligomers, or n-butyl benzene sulfonamide (NBBS), and the adsorbent bed includes, by volume of a total amount of the first and second adsorbent media, from 40% to 60% of the first adsorbent media and from 60% to 40% of the second adsorbent media; wherein the first adsorbent media is synthetic activated carbon and the second adsorbent media is natural activated carbon, wherein synthetic activated carbon is formed by controlled pyrolysis of a polymer precursor and natural activated carbon is formed by controlled pyrolysis of naturally occurring materials. a sublimator having a porous plate ; a water feed line connected with the sublimator for delivering feed water to the porous plate, wherein the sublimator is operable to freeze and sublime the feed water using the porous plate; and an adsorbent bed in the water feed line, the adsorbent bed configured to substantially remove organic compounds from the feed water that are capable of forming an adherent layer on the porous plate, wherein the adsorbent bed includes first and second adsorbent media , the first and second adsorbent media are different with regard to adsorption capability of at least two of abietic acid, sodium dodecyl benzene sulfonate (SDBS), acrylic acid oligomers, or n-butyl benzene sulfonamide (NBBS), and the adsorbent bed includes, by volume of a total amount of the first and second adsorbent media, from 40% to 60% of the first adsorbent media and from 60% to 40% of the second adsorbent media; wherein the first adsorbent media is synthetic activated carbon and the second adsorbent media is natural activated carbon, wherein synthetic activated carbon is formed by controlled pyrolysis of a polymer precursor and natural activated carbon is formed by controlled pyrolysis of naturally occurring materials.
A method of preparing a lithium thiophosphate comprising at least one step for the preparation of a solution S1 at a temperature T1 comprised from -200°C to 10°C, said solution S1 comprising a solvent and at least P species under the form of (PS 4 ) 3- , Li species under the form of Li + , and remaining sulfur under the form of polysulfide, followed by a step for removing at least a portion of the solvent from said solution S1 to obtain lithium thiophosphate.
A multi-band antenna comprising a first band radiating element (1, 101-108), comprising: at least one first band dipole that has a first dipole arm (3, 301-308) and a second dipole arm (4, 401-408), wherein each of the first and second dipole arms (3, 301-308, 4, 401-408) includes a central conductor and a plurality of arm segments (6, 601-607) arranged around the central conductor , and wherein the number of arm segments (6, 601-607) included in the first dipole arm (3, 301-308) is greater than the number of the arm segments (6, 601-607) included in the second dipole arm (4, 401-408), wherein at least some of the arm segments (6, 601-607) comprise a hollow electrical conductor that is connected at one end to the central conductor and disconnected at another end from the central conductor , wherein the central conductor comprises a plurality of radially extending protrusions spaced apart from each other, thereby dividing the central conductor into a plurality of electrically conducting segments , the hollow electrical conductors and the central conductor being connected on the protrusions , characterised in that : in the second dipole arm (4, 401-408), at least two adjacent protrusions of the plurality of protrusions are electrically connected through said hollow electrical conductors . at least one first band dipole that has a first dipole arm (3, 301-308) and a second dipole arm (4, 401-408), wherein each of the first and second dipole arms (3, 301-308, 4, 401-408) includes a central conductor and a plurality of arm segments (6, 601-607) arranged around the central conductor , and wherein the number of arm segments (6, 601-607) included in the first dipole arm (3, 301-308) is greater than the number of the arm segments (6, 601-607) included in the second dipole arm (4, 401-408), wherein at least some of the arm segments (6, 601-607) comprise a hollow electrical conductor that is connected at one end to the central conductor and disconnected at another end from the central conductor , wherein the central conductor comprises a plurality of radially extending protrusions spaced apart from each other, thereby dividing the central conductor into a plurality of electrically conducting segments , the hollow electrical conductors and the central conductor being connected on the protrusions , characterised in that : in the second dipole arm (4, 401-408), at least two adjacent protrusions of the plurality of protrusions are electrically connected through said hollow electrical conductors .