mhurhangee/patent-ind-claim-en huggingface dataset:
A non-natural methanogenic archaea selected from, (a) a non-natural Methanococcus maripaludis expressing a deregulated, aspartokinase mutant enzyme encoded by a recombinant Methanococcus LysC gene, wherein the aspartokinase mutant is resistant to feedback inhibition by lysine and/or threonine and has a mutation at the residue corresponding to residue G277, S302 or G359 in the aspartokinase encoded by lysC of Corynebacterium glutamicum ATCC 13032, or (b) a non-natural Methanococcus vannielii expressing a deregulated, aspartokinase mutant enzyme encoded by a recombinant Methanococcus LysC gene that has a mutation at residue K380 or F339 and is resistant to feedback inhibition by lysine and/or threonine; and wherein the non-natural methanogenic archaea (i) is not susceptible to growth inhibition by lysine and/or threonine, and (ii) metabolizes a H 2 /CO x substrate to produce one or more aspartate pathway amino acids at a higher level than a parent methanogenic archaea. (a) a non-natural Methanococcus maripaludis expressing a deregulated, aspartokinase mutant enzyme encoded by a recombinant Methanococcus LysC gene, wherein the aspartokinase mutant is resistant to feedback inhibition by lysine and/or threonine and has a mutation at the residue corresponding to residue G277, S302 or G359 in the aspartokinase encoded by lysC of Corynebacterium glutamicum ATCC 13032, or (b) a non-natural Methanococcus vannielii expressing a deregulated, aspartokinase mutant enzyme encoded by a recombinant Methanococcus LysC gene that has a mutation at residue K380 or F339 and is resistant to feedback inhibition by lysine and/or threonine; and
A method for correcting timing skew in X-ray crystallographic reflection data that is produced by a sample, detected by an X-ray detector and read out of the detector in a rolling shutter mode, comprising: (a) before collecting reflection data, setting a data collection frame width of the X-ray detector such that an angular width during which any X-ray reflection remains in Bragg resonance is substantially larger than the frame width; and (b) correcting collected reflection data by replacing an X-ray intensity of each reflection in a data frame by an intermediate X-ray intensity calculated at a reference time that is predetermined relative to readout time of that frame; wherein step (a) comprises: (a1) determining a rocking curve width of the sample, wherein step (a1) comprises collecting a plurality a data frames, each data frame having a small frame width, determining a rocking curve of a plurality of X-ray reflections from the plurality of data frames and computing an average of the determined rocking curve widths; and (a2) setting the data collection frame width to a predetermined fraction of the rocking curve width. (a) before collecting reflection data, setting a data collection frame width of the X-ray detector such that an angular width during which any X-ray reflection remains in Bragg resonance is substantially larger than the frame width; and (b) correcting collected reflection data by replacing an X-ray intensity of each reflection in a data frame by an intermediate X-ray intensity calculated at a reference time that is predetermined relative to readout time of that frame; (a1) determining a rocking curve width of the sample, wherein step (a1) comprises collecting a plurality a data frames, each data frame having a small frame width, determining a rocking curve of a plurality of X-ray reflections from the plurality of data frames and computing an average of the determined rocking curve widths; and (a2) setting the data collection frame width to a predetermined fraction of the rocking curve width.
A tweezers device for the application of cryogenic matter directly on a skin lesion while protecting the collateral skin tissue from being damaged by the cryogenic matter, the device comprising an applicator body configured with opposing tweezer arms , each tweezer arm including a cryogenic matter application element such that when said opposing tweezer arms are closed about the skin lesion, the skin lesion is substantially encased by said cryogenic matter application elements; characterized in that each of said opposing tweezer arms includes a canister containing cryogenic matter such that cryogenic matter released from each said canister is applied to its corresponding said cryogenic matter application element .
Method for the operation of a refrigeration plant comprising a refrigerant circuit in which a total mass flow (G) of a refrigerant is conducted, a heat-exchanger arranged in the refrigerant circuit for cooling refrigerant on the high pressure side, an expansion element which is arranged in the refrigerant circuit and in the active state cools the total mass flow (G) of the refrigerant by expansion and thereby generates a main mass flow (H) of liquid refrigerant and an additional mass flow (Z) of gaseous refrigerant, which enter an intermediate pressure collector and are separated therein into the main mass flow (H) and the additional mass flow (Z), at least one normal cooling stage which removes a normal cooling mass flow (N) from the main mass flow (H) in the intermediate pressure collector and expands it in at least one normal cooling expansion unit to a low pressure (PN) and thereby provides cooling power for normal cooling, a deep-cooling intermediate pressure expansion unit which expands a deep-cooling total mass flow (TG) removed from the main mass flow (H) in the intermediate pressure collector to a deep-cooling intermediate pressure (PTZ), thereby cools it and generates a deep-cooling main mass flow (TH) of liquid refrigerant and a deep-cooling additional mass flow (TZ) of gaseous refrigerant and feeds them to a deep-cooling intermediate pressure collector in which a separation of the deep-cooling main mass flow (TH) from the deep-cooling additional mass flow (TZ) takes place, a deep-cooling stage which removes the deep-cooling main mass flow (TH) out of the deep-cooling intermediate pressure collector and which has at least one deep-cooling expansion unit and by means of expansion of the deep-cooling main mass flow (TH) to a deep-cooling low pressure (PTN), provides cooling power for deep cooling, a deep-cooling compressor unit which compresses the deep-cooling main mass flow (TH) expanded to the deep-cooling low pressure (PTN), and feeds it to a refrigerant compressor unit compressing the normal cooling mass flow (N) from low pressure (PN) to high pressure (PH), also for compression to high pressure (PH), characterised in that the additional mass flow (Z) from the intermediate pressure collector is expanded by means of an expansion element and enters the deep-cooling intermediate pressure collector , in that in the deep-cooling intermediate pressure collector , a liquid phase in the deep-cooling main mass flow (TH) formed through expansion by means of the expansion element separates out within the deep-cooling intermediate pressure collector and in that a gas phase of the additional mass flow (Z), which forms in the deep-cooling intermediate pressure collector , enters together with the deep-cooling additional mass flow (TZ) an additional mass flow compressor unit for compression to high pressure (PH).
Power supply for feeding a device with electrical power, including a surge voltage protection arrangement with a surge protection device connected between two current conductors (2.1, 2.2) of the power supply , wherein the surge voltage protection arrangement further includes a device for determining a comparison voltage, the comparison voltage being indicative of a surge voltage present at an input of the power supply, a controllable switch connected in series with the surge protection device and a switch control , characterised in that the surge voltage protection arrangement further includes a threshold generator for generating a threshold and a comparator for performing a comparison of the comparison voltage with the threshold where the switch control is adapted to control a switching of the switch in dependency of a result of the comparison such that the switch is switched on if the comparison voltage is higher than the threshold.
A light emitting device comprising: a semiconductor structure comprising an active layer between a first-type semiconductor layer and a second-type semiconductor layer ; a vertical via having walls within the semiconductor structure that are orthogonal to the active layer and extend into the semiconductor structure to the first-type semiconductor layer , through the second-type semiconductor layer and the active layer ; a reflective layer that is in electric contact with the second-type semiconductor layer and extends over the second-type semiconductor layer to the vertical via ; a dielectric structure comprising a first dielectric structure formed in the via to provide an inclined surface that forms an acute angle with the active region , wherein the inclined surface extends from the first-type semiconductor layer to the upper surface of the reflective layer , and a second dielectric structure that extends over the reflective layer and onto the inclined surface within the vertical via , etched to provide access to the first-type semiconductor layer and the reflective layer ; and a metal layer applied above the second dielectric structure to contact the first-type semiconductor layer . a semiconductor structure comprising an active layer between a first-type semiconductor layer and a second-type semiconductor layer ; a vertical via having walls within the semiconductor structure that are orthogonal to the active layer and extend into the semiconductor structure to the first-type semiconductor layer , through the second-type semiconductor layer and the active layer ; a reflective layer that is in electric contact with the second-type semiconductor layer and extends over the second-type semiconductor layer to the vertical via ; a dielectric structure comprising a first dielectric structure formed in the via to provide an inclined surface that forms an acute angle with the active region , wherein the inclined surface extends from the first-type semiconductor layer to the upper surface of the reflective layer , and a second dielectric structure that extends over the reflective layer and onto the inclined surface within the vertical via , etched to provide access to the first-type semiconductor layer and the reflective layer ; and a first dielectric structure formed in the via to provide an inclined surface that forms an acute angle with the active region , wherein the inclined surface extends from the first-type semiconductor layer to the upper surface of the reflective layer , and a second dielectric structure that extends over the reflective layer and onto the inclined surface within the vertical via , etched to provide access to the first-type semiconductor layer and the reflective layer ; and a metal layer applied above the second dielectric structure to contact the first-type semiconductor layer .
A subterranean grouting method comprising: (a) placing a sample of a grout mixture within a test container; (b) separating a sand component from the sample; (c) determining if the grout mixture exhibits a thermal conductivity within a predetermined thermal conductivity threshold based upon a proportion of the sand component within the sample; and (d) upon determining that the grout mixture exhibits a thermal conductivity with the predetermined thermal conductivity range, securing a conduit within a subterranean bore with the grout mixture, wherein (a), (b), (c), and (d) are carried out proximate each other at a job site. (a) placing a sample of a grout mixture within a test container; (b) separating a sand component from the sample; (c) determining if the grout mixture exhibits a thermal conductivity within a predetermined thermal conductivity threshold based upon a proportion of the sand component within the sample; and (d) upon determining that the grout mixture exhibits a thermal conductivity with the predetermined thermal conductivity range, securing a conduit within a subterranean bore with the grout mixture,
A method of managing uplink transmissions through an unlicensed band by a user equipment, UE , in a wireless communication system, the method comprising: performing an autonomous uplink, AUL, transmission starting at a subframe before a subframe #n using a channel access procedure, CAP, wherein the AUL transmission is configured from the subframe to a symbol after a time that is m symbols earlier than an end of subframe # n-1, and wherein n and m are integers; receiving a UL grant for a scheduled uplink, SUL, transmission to begin at the subframe #n; based on a sum of a first duration of the AUL transmission and a second duration of the SUL transmission exceeding a maximum channel occupancy time, MCOT, related to a first priority class of a CAP for the AUL transmission and the first priority class being equal to or larger than a second priority class of a CAP for the SUL transmission: terminating the AUL transmission at the time that is m symbols earlier than the end of subframe # n-1; and performing the SUL transmission starting from the subframe #n. performing an autonomous uplink, AUL, transmission starting at a subframe before a subframe #n using a channel access procedure, CAP, wherein the AUL transmission is configured from the subframe to a symbol after a time that is m symbols earlier than an end of subframe # n-1, and wherein n and m are integers; receiving a UL grant for a scheduled uplink, SUL, transmission to begin at the subframe #n; based on a sum of a first duration of the AUL transmission and a second duration of the SUL transmission exceeding a maximum channel occupancy time, MCOT, related to a first priority class of a CAP for the AUL transmission and the first priority class being equal to or larger than a second priority class of a CAP for the SUL transmission: terminating the AUL transmission at the time that is m symbols earlier than the end of subframe # n-1; and performing the SUL transmission starting from the subframe #n. terminating the AUL transmission at the time that is m symbols earlier than the end of subframe # n-1; and performing the SUL transmission starting from the subframe #n.
A patient-specific rotational guide for guiding a positioning of a tool on a resected surface of a bone in an articular joint repair procedure, the rotational guide comprising: a body comprising: a bone contacting member having a bone contacting surface shaped using patient-specific modeling to conform to a shape of a surface of the bone adjacent to the resected surface for matingly contacting the bone surface when the tool is positioned on the resected surface, characterized by the patient-specific rotational guide also comprising a tool attachment member adapted to be secured to the tool .
A composition comprising magnesium, potassium and citrate for use in the inhibition of crystallization and/or biofilm formation on an indwelling urinary catheter, wherein magnesium, potassium and citrate are present as ion(s), wherein the molar ratio of potassium ions to magnesium ions to citrate ions in the composition is 4:1:2, wherein the tripotassium citrate monohydrate constitutes 70-80 weight % of the citrate salts in the composition, wherein anhydrous trimagnesium citrate constitutes 20-30 weight % of the citrate salts in the composition, and wherein the administration of the composition to a subject is to begin within 1 hour of the catheterization of said subject. wherein the tripotassium citrate monohydrate constitutes 70-80 weight % of the citrate salts in the composition, wherein anhydrous trimagnesium citrate constitutes 20-30 weight % of the citrate salts in the composition, and wherein the administration of the composition to a subject is to begin within 1 hour of the catheterization of said subject.
A system for mixing a liquid with a powder into a solution batch wherein said powder is provided in a plurality of preselected containers each having data identification thereon comprising: a hopper into which said powder is deposited having a powder outlet therein; a mix tank having a liquid supply inlet , a recirculation inlet, and a solution outlet ; a mix pump in fluid communication with said solution outlet , said powder outlet , and said recirculation inlet; a controller having a data memory and a plurality of inputs and outputs for supplying and receiving signals, and an operator interface operatively coupled to said controller for receiving user commands; characterized in that the system further comprises: a bar code scanner operatively coupled to an input of said controller for inputting data related to said batch; and a set of instructions provided to said controller whereby said bar code scanner reads data provided on each container of powder supplied to said hopper for a specified solution batch, and wherein said controller provides an indication through said operator interface when said specified solution batch is missing a container of powder . a hopper into which said powder is deposited having a powder outlet therein; a mix tank having a liquid supply inlet , a recirculation inlet, and a solution outlet ; a mix pump in fluid communication with said solution outlet , said powder outlet , and said recirculation inlet; a controller having a data memory and a plurality of inputs and outputs for supplying and receiving signals, and an operator interface operatively coupled to said controller for receiving user commands; characterized in that the system further comprises: a bar code scanner operatively coupled to an input of said controller for inputting data related to said batch; and a set of instructions provided to said controller whereby said bar code scanner reads data provided on each container of powder supplied to said hopper for a specified solution batch, and wherein said controller provides an indication through said operator interface when said specified solution batch is missing a container of powder . a bar code scanner operatively coupled to an input of said controller for inputting data related to said batch; and a set of instructions provided to said controller whereby said bar code scanner reads data provided on each container of powder supplied to said hopper for a specified solution batch, and wherein said controller provides an indication through said operator interface when said specified solution batch is missing a container of powder .
A metal powder used for lamination-shaping which is an aluminum-based powder having a volume-based 50% particle diameter larger than or equal to 10 μm and smaller than 100 μm when a particle diameter distribution is measured by a laser diffraction-scattering method, a specific surface area smaller than or equal to 0.5 m 2 /g, and an oxygen amount per unit surface area larger than or equal to 3.0 mg/m 2 and less than or equal to 10.0 mg/m 2 , characterized in that a relationship between a hydrogen amount (X ml in standard state) per 100 g of the aluminum-based powder and a specific surface area (Y m 2 /g), and a relationship between the hydrogen amount (X ml in standard state) and an oxygen amount (Z wt%), are respectively in accordance with following formulas: X / Y ≤ 130 and, 0.0104 ≥ Z / X ≥ 0.003 .
A method of pooling a transport layer connection to a server, the method comprising: opening, by an interface unit located between clients (C1, C2) and a server (S), a first connection between the interface unit and a first client (C1); receiving, by the interface unit , a first request from the first client (C1) to access a server (S); forwarding, by the interface unit , the first request via a second connection between the interface unit and the server (S); forwarding, by the interface unit , to the client (C1) via the first connection a response from the server (S) to the first request; closing the first connection while the interface unit keeps open the second connection to the server; opening, by the interface unit , a third connection between the interface unit and a second client (C2); receiving, by the interface unit , a second request from the second client (C2) to access the server; determining, by the interface unit , that the second connection is a free open connection; modifying, by the interface unit , a sequence number of a packet of the second request according to a sequence number of a packet of the response from the server (S) to the first request; and forwarding, by the interface unit , the second request from the second client (C2) to access the server (S) via the second connection to the server (S). opening, by an interface unit located between clients (C1, C2) and a server (S), a first connection between the interface unit and a first client (C1); receiving, by the interface unit , a first request from the first client (C1) to access a server (S); forwarding, by the interface unit , the first request via a second connection between the interface unit and the server (S); forwarding, by the interface unit , to the client (C1) via the first connection a response from the server (S) to the first request; closing the first connection while the interface unit keeps open the second connection to the server; opening, by the interface unit , a third connection between the interface unit and a second client (C2); receiving, by the interface unit , a second request from the second client (C2) to access the server; determining, by the interface unit , that the second connection is a free open connection; modifying, by the interface unit , a sequence number of a packet of the second request according to a sequence number of a packet of the response from the server (S) to the first request; and forwarding, by the interface unit , the second request from the second client (C2) to access the server (S) via the second connection to the server (S).
A transport device for conveying a flowable material (V), the device comprising a screw conveyor for collecting the flowable material from a collecting zone (P) and transporting the flowable material towards a destination zone (S), the screw conveyor comprising a spiral which is wound on a shaft extending along a longitudinal axis (Z) and an outer casing which at least partially houses the spiral , the spiral having a plurality of turns , the outer casing having an inner surface facing respective head surfaces of at least some turns of said plurality of turns , a compartment (V1, V2) being defined between two consecutive turns of said plurality of turns and the outer casing , characterised in that the outer casing is made at least partially with a deformable polymeric material in such a way that the outer casing deforms radially and reversibly towards the outside when a solid particle (PS) of said flowable material, conveyed by the spiral , is interposed between a head surface of a turn of said plurality of turns and the inner surface of the outer casing , in order to allow said solid particle (PS) to be transferred from one compartment (V1) to a further compartment (V2) adjacent to said compartment (V1) by passing between the head surface of the turn and the inner surface of the outer casing .