mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for linking a native node and a foreign node comprising: generating , by a processor , a native node and a foreign node , wherein: the native node comprises a proxy data structure , wherein the proxy data structure is defined with a native protocol and represents information of a proxy device in a native namespace , the foreign node comprises a foreign data structure , wherein the foreign data structure is defined with a foreign protocol and represents information of a foreign device in a foreign namespace , and the proxy data structure comprises translation variables (420a,...,420e) that correspond to variables (425a,...,425e) of the foreign data structure; and linking the native node and the foreign node in the native namespace and the foreign namespace by a translation function that automatically converts information between the foreign data structure and the proxy data structure using protocol specific structure converting functions , wherein the translation variables in the proxy data structure are generated by the protocol specific structure converting functions. generating , by a processor , a native node and a foreign node , wherein: the native node comprises a proxy data structure , wherein the proxy data structure is defined with a native protocol and represents information of a proxy device in a native namespace , the foreign node comprises a foreign data structure , wherein the foreign data structure is defined with a foreign protocol and represents information of a foreign device in a foreign namespace , and the proxy data structure comprises translation variables (420a,...,420e) that correspond to variables (425a,...,425e) of the foreign data structure; and the native node comprises a proxy data structure , wherein the proxy data structure is defined with a native protocol and represents information of a proxy device in a native namespace , the foreign node comprises a foreign data structure , wherein the foreign data structure is defined with a foreign protocol and represents information of a foreign device in a foreign namespace , and the proxy data structure comprises translation variables (420a,...,420e) that correspond to variables (425a,...,425e) of the foreign data structure; and linking the native node and the foreign node in the native namespace and the foreign namespace by a translation function that automatically converts information between the foreign data structure and the proxy data structure using protocol specific structure converting functions , wherein the translation variables in the proxy data structure are generated by the protocol specific structure converting functions.
A process for preparing Lubiprostone, comprising the steps of: coupling a cyclopentenone of Formula 1: wherein R 1 is C 1-7 -alkyl, aryl or aralkyl, each of which is unsubstituted or substituted by C 1-4 -alkyl, nitro, halogen or alkoxy; and P 1 is a protective group for hydroxyl group, with a cuprate derived from a compound of Formula 2a: wherein P 2 is a protective group for hydroxyl group; and X is Cl, Br or I, to form a compound of Formula 3: wherein R 1 , P 1 and P 2 are as defined above; removing the P 2 group and oxidizing the hydroxyl group in ω-side chain to form a compound of Formula 5: wherein R 1 and P 1 are as defined above; and removing the P 1 and R 1 groups. coupling a cyclopentenone of Formula 1: wherein R 1 is C 1-7 -alkyl, aryl or aralkyl, each of which is unsubstituted or substituted by C 1-4 -alkyl, nitro, halogen or alkoxy; and P 1 is a protective group for hydroxyl group, with a cuprate derived from a compound of Formula 2a: wherein P 2 is a protective group for hydroxyl group; and X is Cl, Br or I, to form a compound of Formula 3: wherein R 1 , P 1 and P 2 are as defined above; removing the P 2 group and oxidizing the hydroxyl group in ω-side chain to form a compound of Formula 5: wherein R 1 and P 1 are as defined above; and removing the P 1 and R 1 groups.
An electrode for a rechargeable energy storage device, comprising two external layers and several internal layers interposed between the two external layers, said internal and external layers comprising several electrode material layers ME and several porous current collector layers CC, said electrode material ME and current collector CC layers being alternated according to the repetition pattern - [CC - ME] - and at least one of the two external layers of the electrode is an electrode material layer ME, characterized in that said electrode is a negative electrode.
System for desorption of acid gas from an acid gas rich absorption liquid having a steam part and a process part , wherein the steam part is arranged to indirectly heat acid rich absorption liquid in the process part and the steam part and the process part are separated to prevent intermixing of fluids in the steam part with fluids in the process part, said system comprising a desorption cylinder which is adapted to rotate about a longitudinal axis of rotation A of the desorption cylinder , and a stationary support stand for supporting the desorption cylinder , and means for rotating the desorption cylinder, wherein the steam part and the process part are integrated in the desorption cylinder , wherein, in use, steam is supplied to the steam part and acid gas rich absorption liquid is supplied to the process part , wherein the process part comprises a desorption chamber provided with a stripper unit having an integrated reboiler that, in use, is arranged to receive steam supplied to the steam part and acid gas rich absorption liquid supplied to the process part to thereby indirectly heat the acid gas rich absorption liquid , wherein the process part is provided with means for discharging an acid gas lean absorption fluid and having means for removing acid gas rich vapour , wherein the steam part is provided with means for discharging condensate , wherein the stationary stand is provided with a first and a second stationary shaft which are coaxial with the axis of rotation A of the desorption cylinder , and where the first and the second stationary shaft extend into the desorption cylinder , wherein the steam part is provided with a steam supply conduit and a condensate outlet conduit arranged along the first stationary shaft ; and the process part is provided with a supply conduit for supplying acid gas rich absorption liquid , and a lean absorption liquid outlet conduit arranged along the second stationary shaft ; wherein the desorption chamber is arranged between a first liquid collecting chamber and a second liquid collecting chamber ; wherein the first liquid collecting chamber is in fluid communication with a condensate guiding chamber via tubes in the stripper unit ; wherein steam condensate is collected in the condensate guiding chamber and transferred to the first liquid collecting chamber via tubes arranged in close proximity to the outer perimeter of the condensate guiding chamber ; wherein the desorption chamber is in fluid communication with a second liquid collecting chamber via an opening for vapour in the core of the desorption chamber; and wherein the desorption chamber is connected to the second liquid collecting chamber via passages provided in close proximity to the outer perimeter of the desorption chamber for removing acid gas lean absorption liquid from the desorption chamber.
Fastening arrangement for an aircraft, for fastening a module on at least one fastening rail , having a blocking device , wherein the blocking device has at least one sliding block for fastening the blocking device in the fastening rail , having an arresting device for clamping the at least one sliding block in the fastening rail , characterized in that the fastening arrangement has a sliding-strip portion for connecting the fastening arrangement to the module , wherein the sliding-strip portion is arranged in a displaceable manner on the blocking device and can be arrested by the arresting device , and in that the fastening arrangement comprises the at least one fastening rail , wherein the fastening rail is designed in the form of a T-slot rail with spaced-apart abutment regions for the sliding block , and in that the sliding-strip portion can be adjusted in a stepless manner relative to the blocking device , or in that the sliding-strip portion can be adjusted in steps relative to the blocking device , wherein the smallest possible adjustment distance is smaller than a unit spacing or an average distance between the spaced-apart abutment regions in the fastening rail , and therefore the fastening arrangement has pre-selection of the position on the fastening rail by virtue of the blocking device being inserted into the fastening rail by way of the sliding block , but provides for position adjustment via the displacement of the sliding-strip portion .
A method for detecting analytes and association between analytes in a sample, the method comprising: a) incubating the sample with: i) at least two analyte-binding moieties that each carry a double-stranded DNA oligo tag specific for each binding moiety; or ii) at least two primary analyte-binding moieties and two secondary analyte-binding moieties, wherein the secondary analyte-binding moieties each carry a double-stranded DNA oligo tag specific for each binding moiety; wherein the double-stranded (ds) DNA oligo tags are designed such that the ds DNA oligo tags are not able to ligate to each other; b) adding to the components from step (a) a double-stranded adapter-insert DNA molecule, wherein the opposing ends of the double-stranded adapter-insert DNA molecule can ligate to the double-stranded DNA oligo tags of the binding moieties; c) adding a ligase to the mixture from step (b), resulting in a ligated single DNA Product comprised of the double-stranded DNA oligo tags, and the double-stranded adapter-insert DNA, attached to the analyte-binding moieties of step a (i) or the secondary analyte-binding moieties of step a (ii); d) amplifying the ligated single DNA product, or portions thereof; and e) analyzing the amplified DNA sequences to detect analytes and associations between analytes. a) incubating the sample with: i) at least two analyte-binding moieties that each carry a double-stranded DNA oligo tag specific for each binding moiety; or ii) at least two primary analyte-binding moieties and two secondary analyte-binding moieties, wherein the secondary analyte-binding moieties each carry a double-stranded DNA oligo tag specific for each binding moiety; wherein the double-stranded (ds) DNA oligo tags are designed such that the ds DNA oligo tags are not able to ligate to each other; i) at least two analyte-binding moieties that each carry a double-stranded DNA oligo tag specific for each binding moiety; or ii) at least two primary analyte-binding moieties and two secondary analyte-binding moieties, wherein the secondary analyte-binding moieties each carry a double-stranded DNA oligo tag specific for each binding moiety; b) adding to the components from step (a) a double-stranded adapter-insert DNA molecule, wherein the opposing ends of the double-stranded adapter-insert DNA molecule can ligate to the double-stranded DNA oligo tags of the binding moieties; c) adding a ligase to the mixture from step (b), resulting in a ligated single DNA Product comprised of the double-stranded DNA oligo tags, and the double-stranded adapter-insert DNA, attached to the analyte-binding moieties of step a (i) or the secondary analyte-binding moieties of step a (ii); d) amplifying the ligated single DNA product, or portions thereof; and e) analyzing the amplified DNA sequences to detect analytes and associations between analytes.
An apparatus comprising a busbar and a fixture used to secure the busbar for a treatment process, the fixture comprising: a jig top configured to engage a top surface of the busbar; a jig bottom configured to engage a bottom surface of the busbar; and crab pliers configured to apply a force on the jig top and the jig bottom to secure the busbar in place; said fixture being configured to perform within a wet environment so that the busbar is continuously wet during activation and deactivation of the treatment process; wherein the jig top, the jig bottom and the crab pliers are fabricated from hard plastic, wherein the fixture further comprises an anode for performing an anodizing process, wherein the anode extends through the jig bottom so that an end of the anode is exposed on an upwardly facing surface of the jig bottom, and wherein the fixture further comprises a directional pin to orient the jig in a correct position, wherein the directional pin extends from an upwardly facing surface of the jig bottom, the directional pin being received within an opening formed in the busbar. a jig top configured to engage a top surface of the busbar; a jig bottom configured to engage a bottom surface of the busbar; and crab pliers configured to apply a force on the jig top and the jig bottom to secure the busbar in place; said fixture being configured to perform within a wet environment so that the busbar is continuously wet during activation and deactivation of the treatment process; wherein the jig top, the jig bottom and the crab pliers are fabricated from hard plastic, wherein the fixture further comprises an anode for performing an anodizing process, wherein the anode extends through the jig bottom so that an end of the anode is exposed on an upwardly facing surface of the jig bottom, and wherein the fixture further comprises a directional pin to orient the jig in a correct position, wherein the directional pin extends from an upwardly facing surface of the jig bottom, the directional pin being received within an opening formed in the busbar.
A connector assembly comprising an adaptor and a cap to be connected to each other, wherein the adaptor comprises: - a proximal connection portion configured to be removably connectable to a medical injection device ; and - a spike extending distally from the proximal connection portion and around a central axis (C), wherein the cap comprises a cap body defining an inner cavity extending around the central axis (C), the inner cavity being open at a proximal end of the cap body and is closed at a distal end of the cap body , wherein the connector assembly is configured such that the cap is removably connected to the adaptor in such a way that the spike is accommodated within the inner cavity , the assembly being characterized in that the adaptor and the cap are made of a plastic material suitable for injection molding and the cap is removably connected to the adaptor by press-fit between the spike and the inner cavity . wherein the adaptor comprises: - a proximal connection portion configured to be removably connectable to a medical injection device ; and - a spike extending distally from the proximal connection portion and around a central axis (C), - a proximal connection portion configured to be removably connectable to a medical injection device ; and - a spike extending distally from the proximal connection portion and around a central axis (C), wherein the cap comprises a cap body defining an inner cavity extending around the central axis (C), the inner cavity being open at a proximal end of the cap body and is closed at a distal end of the cap body , wherein the connector assembly is configured such that the cap is removably connected to the adaptor in such a way that the spike is accommodated within the inner cavity , the assembly being characterized in that the adaptor and the cap are made of a plastic material suitable for injection molding and the cap is removably connected to the adaptor by press-fit between the spike and the inner cavity .
An intervertebral device, comprising: a base including a distal end and a proximal end , a longitudinal axis extending from the distal end to the proximal end , and a bottom surface ; a first body portion slidably attached to the base and configured to move in at least a first direction with respect to the base , the first direction being substantially parallel to the longitudinal axis of the base , the first body portion including a first engaging element ; a second body portion slidably attached to the base and configured to move in at least a second direction with respect to the base ; and the base including a second engaging element configured to couple to the first engaging element, wherein the base is configured to prevent the first body portion from further translating with respect to the base both proximally of the proximal end of the base and distally of the distal end of the base . a base including a distal end and a proximal end , a longitudinal axis extending from the distal end to the proximal end , and a bottom surface ; a first body portion slidably attached to the base and configured to move in at least a first direction with respect to the base , the first direction being substantially parallel to the longitudinal axis of the base , the first body portion including a first engaging element ; a second body portion slidably attached to the base and configured to move in at least a second direction with respect to the base ; and the base including a second engaging element configured to couple to the first engaging element, wherein the base is configured to prevent the first body portion from further translating with respect to the base both proximally of the proximal end of the base and distally of the distal end of the base .
A surface having a coating comprising a mixture of components A and B, wherein component A is a polymer formed by self-polymerisation of a molecule comprising catechol functionality and amine and/or amide and/or hydroxyl functionality; and component B is (i) a cross-linking molecule comprising two or more photosensitive or thermosensitive moieties, at least some of which moieties form covalent bonds with component A; or (ii) a polymer comprising photosensitive or thermosensitive moieties at least some of which moieties form covalent bonds with component A and which polymer forms an interpenetrating network with component A; or a mixture thereof. (i) a cross-linking molecule comprising two or more photosensitive or thermosensitive moieties, at least some of which moieties form covalent bonds with component A; or (ii) a polymer comprising photosensitive or thermosensitive moieties at least some of which moieties form covalent bonds with component A and which polymer forms an interpenetrating network with component A;
A non-transitory computer storage medium storing an analyte concentration measurement application to increase sample throughput, the application comprising: a sensor communication module that causes a processor to read data signals received from one or more sensors (140 A-N); a data point reporting module that causes the processor to capture and record data points from said data signals; a data point selection module that causes the processor to select predetermined data points from said data points, wherein said data point selection module is further configured to select said predetermined data points such that said predetermined data points are within a kinetic region of the response of said sensor (140 A-N); a curve fitting module that causes the processor to obtain a logarithmic function of time corresponding to the predetermined data points; the logarithmic function of time being obtained from a curve fitting equation of the form s(t)=a ∗ (log(t))^2+b ∗ log(t)+c, wherein t represents time, s(t) represents data point at time t, and a, b and c are fit parameters for a second order polynomial that are determined based on the predetermined data points; an extrapolation module that causes the processor to extrapolate an end point response of a sensor from the one or more sensors: using said obtained logarithmic function of time; a validation module that causes the processor to validate said end point response; and an analyte concentration reporting module that causes the processor to determine a concentration of an analyte within a sample using said end point response, thereby increasing sample throughput. a sensor communication module that causes a processor to read data signals received from one or more sensors (140 A-N); a data point reporting module that causes the processor to capture and record data points from said data signals; a data point selection module that causes the processor to select predetermined data points from said data points, wherein said data point selection module is further configured to select said predetermined data points such that said predetermined data points are within a kinetic region of the response of said sensor (140 A-N); a curve fitting module that causes the processor to obtain a logarithmic function of time corresponding to the predetermined data points; the logarithmic function of time being obtained from a curve fitting equation of the form s(t)=a ∗ (log(t))^2+b ∗ log(t)+c, wherein t represents time, s(t) represents data point at time t, and a, b and c are fit parameters for a second order polynomial that are determined based on the predetermined data points; an extrapolation module that causes the processor to extrapolate an end point response of a sensor from the one or more sensors: using said obtained logarithmic function of time; a validation module that causes the processor to validate said end point response; and an analyte concentration reporting module that causes the processor to determine a concentration of an analyte within a sample using said end point response, thereby increasing sample throughput.
A spinning system comprising: a spinning beam having a spinning pack inserted therein including a spinneret for allowing molten polymer (P) to be spun downward; a cooling unit arranged below the spinning beam , including a spinning cylinder extending in an up-and-down direction so as to surround the molten polymer (P) spun from the spinneret , configured to cool the molten polymer (P) through the use of cooling air (CF) supplied from a periphery of the spinning cylinder ; a moving mechanism configured to cause the cooling unit to move downward with respect to the spinning beam so as to form a gap between the cooling unit and the spinning beam ; and a blower configured to, at least when the cooling unit having been caused to move downward with respect to the spinning beam , blow air toward between the spinning beam and the cooling unit in a direction intersecting a yarn path of the molten polymer (P) spun from the spinneret . a spinning beam having a spinning pack inserted therein including a spinneret for allowing molten polymer (P) to be spun downward; a cooling unit arranged below the spinning beam , including a spinning cylinder extending in an up-and-down direction so as to surround the molten polymer (P) spun from the spinneret , configured to cool the molten polymer (P) through the use of cooling air (CF) supplied from a periphery of the spinning cylinder ; a moving mechanism configured to cause the cooling unit to move downward with respect to the spinning beam so as to form a gap between the cooling unit and the spinning beam ; and a blower configured to, at least when the cooling unit having been caused to move downward with respect to the spinning beam , blow air toward between the spinning beam and the cooling unit in a direction intersecting a yarn path of the molten polymer (P) spun from the spinneret .