mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: a) hybridizing genomic DNA to an adaptor, wherein the adaptor comprises: a double stranded region containing a nucleotide sequence for subsequent enzymatic processing; and a single stranded region comprising a 5' overhang; wherein the 5' overhang hybridizes to the genomic DNA to produce a substrate for a flap endonuclease; b) cleaving said substrate using said flap endonuclease to produce a product comprising said adaptor and a flap endonuclease-generated fragment of said genomic DNA that is hybridized to said 5' overhang and ligatable to the recessed end of said double stranded region; c) ligating the recessed end of said double stranded region to said fragment to produce an adaptor-ligated DNA; d) denaturing said adaptor-ligated DNA; e) intramolecularly ligating the ends of said adaptor-ligated DNA to produce a circular DNA molecule; and f) enzymatically processing said circular DNA molecule using an oligonucleotide that hybridizes to said adaptor and an enzyme. a) hybridizing genomic DNA to an adaptor, wherein the adaptor comprises: a double stranded region containing a nucleotide sequence for subsequent enzymatic processing; and a single stranded region comprising a 5' overhang; wherein the 5' overhang hybridizes to the genomic DNA to produce a substrate for a flap endonuclease; a double stranded region containing a nucleotide sequence for subsequent enzymatic processing; and a single stranded region comprising a 5' overhang; wherein the 5' overhang hybridizes to the genomic DNA to produce a substrate for a flap endonuclease; b) cleaving said substrate using said flap endonuclease to produce a product comprising said adaptor and a flap endonuclease-generated fragment of said genomic DNA that is hybridized to said 5' overhang and ligatable to the recessed end of said double stranded region; c) ligating the recessed end of said double stranded region to said fragment to produce an adaptor-ligated DNA; d) denaturing said adaptor-ligated DNA; e) intramolecularly ligating the ends of said adaptor-ligated DNA to produce a circular DNA molecule; and f) enzymatically processing said circular DNA molecule using an oligonucleotide that hybridizes to said adaptor and an enzyme.
A periprosthetic distal femur bone plate comprising: a head portion ; and a shaft portion including an upper surface , a lower surface , a central longitudinal axis, an outer periphery surface , and a proximal end positioned opposite the head portion , the proximal end defining a leading edge ; wherein the leading edge further comprises a concave surface defining an inwardly arcuate or curved leading surface, wherein the shaft portion further comprises a chamfer extending from the leading edge , wherein the chamfer includes an arcuate or curved configuration approximating the inwardly arcuate or curved leading surface. a head portion ; and a shaft portion including an upper surface , a lower surface , a central longitudinal axis, an outer periphery surface , and a proximal end positioned opposite the head portion , the proximal end defining a leading edge ; wherein the leading edge further comprises a concave surface defining an inwardly arcuate or curved leading surface, wherein the shaft portion further comprises a chamfer extending from the leading edge , wherein the chamfer includes an arcuate or curved configuration approximating the inwardly arcuate or curved leading surface.
A continuous wrapping material for wrapping agricultural produce into round bales comprising: a plurality of wrapping units , each one of said plurality of wrapping units comprises a predetermined length of base wrapping material that extends in a longitudinal direction and terminates with a leading edge at one end thereof and a trailing edge at an opposing end thereof, said leading edge and said trailing edge both extend a predetermined length in a width direction that is transverse to said longitudinal direction and terminate at opposing lateral edges, said each one of said plurality of wrapping units also includes a first surface and an opposing second surface , said each one of said plurality of wrapping units is serially connected to at least another one of said plurality of wrapping units at least one of the corresponding leading and trailing edges forming a continuous wrapping material; and a first plurality of discrete spaced-apart adhesive areas disposed on said first surface of said each one of said plurality of wrapping units and a second plurality of discrete spaced- apart adhesive areas disposed on said second surface of said each one of said plurality of wrapping units; characterised in that each adhesive area of said first plurality of discrete adhesive areas is longitudinally spaced from the at least one other adhesive area and each adhesive area of said second plurality of discrete adhesive areas is longitudinally spaced from the at least one other adhesive area and said first plurality of discrete adhesive areas are longitudinally spaced from the second plurality of discrete adhesive areas so that, when the continuous wrapping material is rolled onto a roll core none of the first plurality of adhesive areas comes into face-to-face contact with any one or more of said second plurality of adhesive areas and when each wrapping unit is wrapped around an item each one of the first plurality of discrete adhesive areas comes into face-to-face contact with a corresponding one of the second plurality of discrete adhesive areas.
A capacitive point source sensor for detecting presence of a liquid, the capacitive point source sensor comprising: a main body having a sensor end and an outer end , the main body being configured to be coupled to and at least partially inserted through a container of the liquid; two conductive contacts located on the sensor end of the main body and separated by a gap; an insulator enclosing the two conductive contacts; two leads each coupled to one of the two conductive contacts and extending through the main body, characterized in that the sensor end is configured to be flush with an inner surface of the container and in that a first lead of the two leads is configured to receive an alternating current, AC, signal and to transmit the AC signal to a first conductive contact of the two conductive contacts such that capacitance between the two conductive contacts can be determined based on an amplitude of an electrical signal received by a second lead of the two leads via a second conductive contact of the two conductive contacts, the capacitance corresponding to the presence of the liquid. a main body having a sensor end and an outer end , the main body being configured to be coupled to and at least partially inserted through a container of the liquid; two conductive contacts located on the sensor end of the main body and separated by a gap; an insulator enclosing the two conductive contacts; two leads each coupled to one of the two conductive contacts and extending through the main body, characterized in that the sensor end is configured to be flush with an inner surface of the container and in that a first lead of the two leads is configured to receive an alternating current, AC, signal and to transmit the AC signal to a first conductive contact of the two conductive contacts such that capacitance between the two conductive contacts can be determined based on an amplitude of an electrical signal received by a second lead of the two leads via a second conductive contact of the two conductive contacts, the capacitance corresponding to the presence of the liquid.
A method , comprising: generating , at a mobile device, a first device security certificate, the first device security certificate including a representation of an identifier of the mobile device and a representation of a device key; transmitting , by the mobile device, the first device security certificate to an authentication server; receiving , at the mobile device, a server security certificate from the authentication server in response to a successful authentication Z of the mobile device by the authentication server, the successful authentication being performed by successfully validating the first device security certificate by the authentication server, the server security certificate including a representation of a server key in a signature of the server security certificate, the server key corresponding to the device key and to a representation of a shared secret stored on the mobile device and known by the authentication server; validating, at the mobile device, the server security certificate by examining the signature of the server security certificate; establishing , by the mobile device, a secure connection with the authentication server based on the device security certificate and the server security certificate; and enrolling , at the mobile device, at least one second device security certificate for formal communication over the secure connection. generating , at a mobile device, a first device security certificate, the first device security certificate including a representation of an identifier of the mobile device and a representation of a device key; transmitting , by the mobile device, the first device security certificate to an authentication server; receiving , at the mobile device, a server security certificate from the authentication server in response to a successful authentication Z of the mobile device by the authentication server, the successful authentication being performed by successfully validating the first device security certificate by the authentication server, the server security certificate including a representation of a server key in a signature of the server security certificate, the server key corresponding to the device key and to a representation of a shared secret stored on the mobile device and known by the authentication server; validating, at the mobile device, the server security certificate by examining the signature of the server security certificate; establishing , by the mobile device, a secure connection with the authentication server based on the device security certificate and the server security certificate; and enrolling , at the mobile device, at least one second device security certificate for formal communication over the secure connection.
A method of a User Equipment device, UE, the method comprising: monitoring for Downlink Control Information, DCI, outside a Discontinuous Reception, DRX, DRX Active Time, wherein the DCI comprises a waveform indicator; determining a waveform type for a next occurring DRX Active Time; and receiving a downlink transmission on a physical downlink channel during the next occurring DRX Active Time using the determined waveform. monitoring for Downlink Control Information, DCI, outside a Discontinuous Reception, DRX, DRX Active Time, wherein the DCI comprises a waveform indicator; determining a waveform type for a next occurring DRX Active Time; and receiving a downlink transmission on a physical downlink channel during the next occurring DRX Active Time using the determined waveform.
An apparatus for regulating a multi-phase fluid stream flowing from a subterranean geological formation, the apparatus comprising: a conduit defining a flow path for the fluid stream flowing from the subterranean geological formation towards a ground surface, the conduit further defining a first restriction having a throat portion , and the conduit further defining a first return path ; wherein the first return path includes an inlet positioned downstream of the first restriction and an outlet positioned upstream of the inlet of the first return path; wherein the outlet comprises a plurality of return ports extending between the first return path and the throat portion ; and wherein the first return path is sized and configured to permit at least a portion of the fluid stream to flow from the inlet to the outlet when the fluid stream flows through the apparatus thereby reducing a gas volume fraction of the fluid stream flowing downstream of the apparatus as compared to a gas volume fraction of the fluid stream upstream of the first restriction . a conduit defining a flow path for the fluid stream flowing from the subterranean geological formation towards a ground surface, the conduit further defining a first restriction having a throat portion , and the conduit further defining a first return path ; wherein the first return path includes an inlet positioned downstream of the first restriction and an outlet positioned upstream of the inlet of the first return path; wherein the outlet comprises a plurality of return ports extending between the first return path and the throat portion ; wherein the first return path includes an inlet positioned downstream of the first restriction and an outlet positioned upstream of the inlet of the first return path; wherein the outlet comprises a plurality of return ports extending between the first return path and the throat portion ; and wherein the first return path is sized and configured to permit at least a portion of the fluid stream to flow from the inlet to the outlet when the fluid stream flows through the apparatus thereby reducing a gas volume fraction of the fluid stream flowing downstream of the apparatus as compared to a gas volume fraction of the fluid stream upstream of the first restriction .
A current collector , comprising: an insulation layer and at least one conductive layer , wherein the insulation layer is used to support the conductive layer , and the at least one conductive layer is used to support an electrode active material layer and is located above at least one surface of the insulation layer , wherein the insulation layer has a density smaller than a density of the conductive layer , and wherein a metal protective layer is arranged on a surface of one conductive layer of the at least one conductive layer facing away from the insulation layer , characterized in that the insulation layer has a thickness of D1 satisfying: 1 μm ≤ D1 ≤ 10 μm, the insulation layer has a tensile strength at 25°C and measured according to GB/T 1040.3-2006 greater than or equal to 150 MPa, the insulation layer has a thermal shrinkage at 200 °C of smaller than or equal to 1.5%, and the insulation layer has an elongation at break at 25 °C measured according to the description of 16% to 120%, a metal oxide protective layer is arranged on a surface of the one conductive layer of the at least one conductive layer facing towards the insulation layer , and a material of the metal oxide protective layer is at least one of aluminum oxide, cobalt oxide, chromium oxide, and nickel oxide, and the metal protective layer has a thickness of D3, the metal oxide protective layer has a thickness of D3', and 1/2 D3≤D3'≤4/5 D3.
A method comprising: obtaining, by a service peering exchange executed by one or more computing devices, using service discovery, service endpoint data describing a service endpoint of a second customer network that executes an application; generating, by the service peering exchange , in response to the obtaining, an association from a service exchange endpoint of the service peering exchange to the service endpoint of the second customer network that executes the application, wherein the service exchange endpoint comprises a combination of a network layer address and a transport layer port of the one or more computing devices; receiving, by the service peering exchange at the service exchange endpoint, an incoming service request from a first customer network, wherein the incoming service request is destined to the network layer address and the transport layer port of the to the service exchange endpoint, and wherein the incoming service request can invoke an application programming interface of the application; outputting, by the service peering exchange in response to receiving the incoming service request and based at least on the association, an outgoing service request destined to the service endpoint of the second customer network that executes the application, wherein the outgoing service request can invoke the application programming interface of the application. obtaining, by a service peering exchange executed by one or more computing devices, using service discovery, service endpoint data describing a service endpoint of a second customer network that executes an application; generating, by the service peering exchange , in response to the obtaining, an association from a service exchange endpoint of the service peering exchange to the service endpoint of the second customer network that executes the application, wherein the service exchange endpoint comprises a combination of a network layer address and a transport layer port of the one or more computing devices; receiving, by the service peering exchange at the service exchange endpoint, an incoming service request from a first customer network, wherein the incoming service request is destined to the network layer address and the transport layer port of the to the service exchange endpoint, and wherein the incoming service request can invoke an application programming interface of the application; outputting, by the service peering exchange in response to receiving the incoming service request and based at least on the association, an outgoing service request destined to the service endpoint of the second customer network that executes the application, wherein the outgoing service request can invoke the application programming interface of the application.
A floor section , comprising: a plurality of grid members lying spaced-apart and parallel to a first horizontal axis, each of the plurality of grid members including: first and second cold-formed steel beams lying parallel to each other and coupled together; a plate lying in a horizontal plane and extending over top surfaces of the first and second beams ; a plurality of subfloor rails lying parallel to a second horizontal axis, perpendicular to the first horizontal axis, each of the plurality of subfloor rails being rigidly coupled to each of the plurality of grid members ; characterised by : the plate having a plurality of threaded apertures configured to receive respective fasteners to couple a plurality of floor panels to said plate , such that the plurality of floor panels can be repeatedly removed and replaced; and the floor section further comprising a plurality of cross members lying spaced-apart and parallel to the second horizontal axis, each positioned to extend between two adjacent ones of the plurality of grid members , top surfaces of each of the plurality of cross members being coplanar with top surfaces of the plates of each of the plurality of grid members . first and second cold-formed steel beams lying parallel to each other and coupled together; a plate lying in a horizontal plane and extending over top surfaces of the first and second beams ; a plurality of subfloor rails lying parallel to a second horizontal axis, perpendicular to the first horizontal axis, each of the plurality of subfloor rails being rigidly coupled to each of the plurality of grid members ; characterised by : the plate having a plurality of threaded apertures configured to receive respective fasteners to couple a plurality of floor panels to said plate , such that the plurality of floor panels can be repeatedly removed and replaced; and the floor section further comprising a plurality of cross members lying spaced-apart and parallel to the second horizontal axis, each positioned to extend between two adjacent ones of the plurality of grid members , top surfaces of each of the plurality of cross members being coplanar with top surfaces of the plates of each of the plurality of grid members . the plate having a plurality of threaded apertures configured to receive respective fasteners to couple a plurality of floor panels to said plate , such that the plurality of floor panels can be repeatedly removed and replaced; and the floor section further comprising a plurality of cross members lying spaced-apart and parallel to the second horizontal axis, each positioned to extend between two adjacent ones of the plurality of grid members , top surfaces of each of the plurality of cross members being coplanar with top surfaces of the plates of each of the plurality of grid members .
A method for thermocompression bonding, comprising the steps of: preheating a resin member wherein the resin member is a chip component for use to manufacture a microfluidic chip, using an infrared radiation section ; and subjecting the resin member to thermocompression bonding using a heating section and a pressurization section, wherein in the heating section, - a resin material of the resin member having a melting point like a crystalline resin is heated not to reach the melting point, or - a resin material of the resin member not having a melting point like a noncrystalline resin is heated not to reach the glass transition point. preheating a resin member wherein the resin member is a chip component for use to manufacture a microfluidic chip, using an infrared radiation section ; and subjecting the resin member to thermocompression bonding using a heating section and a pressurization section, wherein in the heating section, - a resin material of the resin member having a melting point like a crystalline resin is heated not to reach the melting point, or - a resin material of the resin member not having a melting point like a noncrystalline resin is heated not to reach the glass transition point. - a resin material of the resin member having a melting point like a crystalline resin is heated not to reach the melting point, or - a resin material of the resin member not having a melting point like a noncrystalline resin is heated not to reach the glass transition point.
A method for reading symbols forming a code, said symbols each being marked on one face of a number of glass sheets in proximity to the same edge face of the glass sheets, the glass sheets being arranged in a stack, the method comprising: - acquiring, with a camera , at least one image via said edge face of the glass sheets, the observation direction being non-perpendicular and inclined relative to said edge face of each of the glass sheets the code of which must be read with said image; and - an image processing step in which the acquired image is processed by a processor programmed to extract information present in at least one code visible in the image and having to be read, the observation angle α between the observation direction and the normal to the edge face of the glass sheet having to be read being chosen such that Aspect ratio = cos α × tan arcsin sin α n glass is at least 0,2. - acquiring, with a camera , at least one image via said edge face of the glass sheets, the observation direction being non-perpendicular and inclined relative to said edge face of each of the glass sheets the code of which must be read with said image; and - an image processing step in which the acquired image is processed by a processor programmed to extract information present in at least one code visible in the image and having to be read,