mhurhangee/ep-ind-claims huggingface dataset:
A deployable structure that can be placed on board a spacecraft comprising a central structure, said deployable structure comprising at least one module comprising rigid unitary elements (11, 12, 13) and being equipped, at the root of the satellite structure, with an articulation that allows said module to be deployed, said structure comprising a set of modules each comprising panels comprising a central main part (11a, 11b) and two lateral parts (12a, 12b, 13a, 13b), with only the central main parts being fixed to said central structure and defining a line of articulation and deployment about said central structure, said modules comprising: means (14, 15) for holding said unitary elements in the folded position about said satellite structure when in the stowed position; said means comprising stacking points rigidly connecting at least one of said unitary elements to said central structure, said stacking point being able to be activated so as to be able to release said unitary element during the deployment of said structure, and stowage levers (14, 15) interposed between said central main parts (11a, 11b) and said stacking points in the stowed position; guiding and driving means (18, 19) holding said unitary elements together in the deployed position, characterised in that: said structure comprises at least one first and one second peripheral level of unitary elements (11, 12, 13), with a central part of a unitary element of the first level being connected via a stacking point to two lateral parts of a unitary element of the second level. means (14, 15) for holding said unitary elements in the folded position about said satellite structure when in the stowed position; said means comprising stacking points rigidly connecting at least one of said unitary elements to said central structure, said stacking point being able to be activated so as to be able to release said unitary element during the deployment of said structure, and stowage levers (14, 15) interposed between said central main parts (11a, 11b) and said stacking points in the stowed position; guiding and driving means (18, 19) holding said unitary elements together in the deployed position, characterised in that: said structure comprises at least one first and one second peripheral level of unitary elements (11, 12, 13), with a central part of a unitary element of the first level being connected via a stacking point to two lateral parts of a unitary element of the second level. said structure comprises at least one first and one second peripheral level of unitary elements (11, 12, 13), with a central part of a unitary element of the first level being connected via a stacking point to two lateral parts of a unitary element of the second level.
A transformed thermotolerant yeast host cell comprising (a) at least one heterologous polynucleotide comprising a nucleic acid encoding an endoglucanase, (b) at least one heterologous polynucleotide comprising a nucleic acid which encodes a ß-glucosidase; (c) at least one heterologous polynucleotide comprising a nucleic acid which encodes a cellobiohydrolase I; and (d) at least one heterologous polynucleotide comprising a nucleic acid which encodes a cellobiohydrolase II; wherein the yeast host cell is capable of producing ethanol when grown using cellulose as a carbon source. (a) at least one heterologous polynucleotide comprising a nucleic acid encoding an endoglucanase, (b) at least one heterologous polynucleotide comprising a nucleic acid which encodes a ß-glucosidase; (c) at least one heterologous polynucleotide comprising a nucleic acid which encodes a cellobiohydrolase I; and (d) at least one heterologous polynucleotide comprising a nucleic acid which encodes a cellobiohydrolase II;
A method of updating one or more lock settings of an electronic lock using a mobile device, the method comprising the consecutive steps of: bringing the mobile device into wireless communication range of the electronic lock; opening a mobile application on the mobile device and displaying, on the mobile device, a lock settings interface from which a user can adjust one or more lock settings of the electronic lock; engaging the user interface to trigger a synchronization event to load lock settings from the lock into the mobile device; receiving, on the mobile device, while the mobile device is in an offline condition wherein the mobile device is not in communication with the electronic lock, one or more changes to the loaded lock settings responsive to selections made by the user in the lock settings interface; bringing the mobile device into wireless communication range of the electronic lock and engaging the mobile device user interface to trigger a synchronization event; and updating the lock settings of the electronic lock by wirelessly transmitting, without having to utilize a network gateway or network controller, on the mobile device, a wireless message to the electronic lock that includes the changes to the lock settings made by the user in the lock settings interface. bringing the mobile device into wireless communication range of the electronic lock; opening a mobile application on the mobile device and displaying, on the mobile device, a lock settings interface from which a user can adjust one or more lock settings of the electronic lock; engaging the user interface to trigger a synchronization event to load lock settings from the lock into the mobile device; receiving, on the mobile device, while the mobile device is in an offline condition wherein the mobile device is not in communication with the electronic lock, one or more changes to the loaded lock settings responsive to selections made by the user in the lock settings interface; bringing the mobile device into wireless communication range of the electronic lock and engaging the mobile device user interface to trigger a synchronization event; and updating the lock settings of the electronic lock by wirelessly transmitting, without having to utilize a network gateway or network controller, on the mobile device, a wireless message to the electronic lock that includes the changes to the lock settings made by the user in the lock settings interface.
An apparatus comprising: a plurality of variable phase shifters (112, 212, 312, 512) configured to receive signals from respective antenna elements in an antenna array, each of the variable phase shifters comprising a pair of phase shift elements configured to apply respective phase shifts relative to a channel phase shift associated with the antenna element from which the variable phase shifter is configured to receive signals, the respective phase shifts corresponding to side angles from a current antenna beam direction of the antenna array; and a beamforming tracking controller (126, 226, 426, 526, 626), coupled to receive phase shifted signals from the variable phase shifters, configured to generate control signals based on the phase shifted signals to control the channel phase shifts; wherein each of the variable phase shifters further comprises a variable phase shift element configured to apply to received signals the channel phase shift associated with the antenna element from which the variable phase shifter is configured to receive signals, wherein the pair of phase shift elements are coupled to the variable phase shift element. a plurality of variable phase shifters (112, 212, 312, 512) configured to receive signals from respective antenna elements in an antenna array, each of the variable phase shifters comprising a pair of phase shift elements configured to apply respective phase shifts relative to a channel phase shift associated with the antenna element from which the variable phase shifter is configured to receive signals, the respective phase shifts corresponding to side angles from a current antenna beam direction of the antenna array; and a beamforming tracking controller (126, 226, 426, 526, 626), coupled to receive phase shifted signals from the variable phase shifters, configured to generate control signals based on the phase shifted signals to control the channel phase shifts; wherein each of the variable phase shifters further comprises a variable phase shift element configured to apply to received signals the channel phase shift associated with the antenna element from which the variable phase shifter is configured to receive signals, wherein the pair of phase shift elements are coupled to the variable phase shift element.
A power conversion device, comprising: a power module having a heat rejection surface; a board connected to the power module by a connection portion, and provided on a surface side opposite to the heat rejection surface of the power module; a casing accommodating the power module; a heat rejection portion fixed to the heat rejection surface of the power module, and configured to receive heat from the power module; a cooling panel removably fixed to a surface of the heat rejection portion opposite to a surface in contact with the power module, and configured to receive heat from the heat rejection portion, wherein the cooling panel is removably fixed to the surface of the heat rejection portion opposite to the surface in contact with the power module using screws; and a pipe fixed to a surface of the cooling panel opposite to a surface in contact with the heat rejection portion, and configured to transfer heat from the cooling panel to refrigerant circulating through the pipe, the heat rejection portion being mounted on the casing, wherein the heat rejection portion and the cooling panel are separable from each other for service purposes, while the power module remains fixed to the heat rejection portion. a power module having a heat rejection surface; a board connected to the power module by a connection portion, and provided on a surface side opposite to the heat rejection surface of the power module; a casing accommodating the power module; a heat rejection portion fixed to the heat rejection surface of the power module, and configured to receive heat from the power module; a cooling panel removably fixed to a surface of the heat rejection portion opposite to a surface in contact with the power module, and configured to receive heat from the heat rejection portion, wherein the cooling panel is removably fixed to the surface of the heat rejection portion opposite to the surface in contact with the power module using screws; and a pipe fixed to a surface of the cooling panel opposite to a surface in contact with the heat rejection portion, and configured to transfer heat from the cooling panel to refrigerant circulating through the pipe, the heat rejection portion being mounted on the casing, wherein the heat rejection portion and the cooling panel are separable from each other for service purposes, while the power module remains fixed to the heat rejection portion.
A method of cryopreserving sorted sperm cells including the steps of: forming a staining mixture comprising sperm cells, a buffer and a dye; sorting the sperm cells according to X/Y chromosome content; adjusting the concentration of the sorted sperm cells in a solution; adding a cryoprotectant and a protein source to the sorted sperm cells in a solution; loading the sorted sperm cells into a container; cooling the sorted sperm cells to a holding temperature; maintaining the sorted sperm cells at the holding temperature for a period; cooling the sorted sperm cells to a temperature approaching a critical temperature zone, wherein the critical temperature zone is a zone at which ice crystal formation and changes in osmotic pressure would damage the sorted sperm cells; cooling the sorted sperm cells through the critical temperature zone at a cooling rate that is faster than the cooling rate used to cool the sorted sperm cells from the holding temperature to the temperature approaching the critical temperature zone; and immersing the sorted sperm cells in liquid nitrogen. forming a staining mixture comprising sperm cells, a buffer and a dye; sorting the sperm cells according to X/Y chromosome content; adjusting the concentration of the sorted sperm cells in a solution; adding a cryoprotectant and a protein source to the sorted sperm cells in a solution; loading the sorted sperm cells into a container; cooling the sorted sperm cells to a holding temperature; maintaining the sorted sperm cells at the holding temperature for a period; cooling the sorted sperm cells to a temperature approaching a critical temperature zone, wherein the critical temperature zone is a zone at which ice crystal formation and changes in osmotic pressure would damage the sorted sperm cells; cooling the sorted sperm cells through the critical temperature zone at a cooling rate that is faster than the cooling rate used to cool the sorted sperm cells from the holding temperature to the temperature approaching the critical temperature zone; and immersing the sorted sperm cells in liquid nitrogen.
A process for increasing the levels of low pl isoforms of darbepoetin alfa, comprising culturing Chinese hamster ovary cell lines expressing said darbepoetin alfa, in a medium comprising divalent manganese ions having concentrations in a range of 60 μM to 200 μM wherein the darbepoetin alfa so obtained demonstrates an increase in low pl isoforms in comparison to darbepoein alfa obtained from cells cultured in absence of said concentration of Manganese as determined by isoelectric focusing.
A method of sizing a heat exchanger for a geared architecture gas turbine engine comprising sizing a minimum frontal area of at least one heat exchanger located in communication with a fan bypass airflow such that a ratio of waste heat area to horsepower generation characteristic area is between 1.6 to 17.5, wherein the waste heat area is defined by the minimum frontal area of the heat exchanger, and the horsepower generation characteristic area is defined by an exit area of a high pressure compressor of the geared architecture gas turbine engine.
A porous mesh pouch for encapsulating an electrically operated implantable medical device, said porous mesh pouch comprising: a porous woven or knit surgical mesh formed in a shape appropriate to encapsulate said electrically operated implantable medical device; and a coating disposed on at least a portion of said surgical mesh substantially without altering the pore size of said surgical mesh, said coating comprising (i) one or more biodegradable and resorbable polymers to provide initial stiffness to said surgical mesh to at least 1.1 to 4.5 times the stiffness of the uncoated mesh and (ii) one or more drugs selected from the group consisting of antimicrobial agents, analgesics, anesthetics, anti-inflammatory agents, and leukotriene inhibitors, wherein at least one of said biodegradable and resorbable polymers comprises desaminotyrosyl-tyrosine - desaminotyrosyl-tyrosyl ester succinate having from about 1% DT to about 30% DT, wherein said coating coats filaments or fibers of said surgical mesh to temporarily immobilize contact points of said filaments or fibers, said initial stiffness of said surgical mesh being reduced by degradation of said one or more biodegradable and resorbable polymers in the body of the patient. a porous woven or knit surgical mesh formed in a shape appropriate to encapsulate said electrically operated implantable medical device; and a coating disposed on at least a portion of said surgical mesh substantially without altering the pore size of said surgical mesh, said coating comprising (i) one or more biodegradable and resorbable polymers to provide initial stiffness to said surgical mesh to at least 1.1 to 4.5 times the stiffness of the uncoated mesh and (ii) one or more drugs selected from the group consisting of antimicrobial agents, analgesics, anesthetics, anti-inflammatory agents, and leukotriene inhibitors, wherein at least one of said biodegradable and resorbable polymers comprises desaminotyrosyl-tyrosine - desaminotyrosyl-tyrosyl ester succinate having from about 1% DT to about 30% DT, (i) one or more biodegradable and resorbable polymers to provide initial stiffness to said surgical mesh to at least 1.1 to 4.5 times the stiffness of the uncoated mesh and (ii) one or more drugs selected from the group consisting of antimicrobial agents, analgesics, anesthetics, anti-inflammatory agents, and leukotriene inhibitors, wherein at least one of said biodegradable and resorbable polymers comprises desaminotyrosyl-tyrosine - desaminotyrosyl-tyrosyl ester succinate having from about 1% DT to about 30% DT, wherein said coating coats filaments or fibers of said surgical mesh to temporarily immobilize contact points of said filaments or fibers, said initial stiffness of said surgical mesh being reduced by degradation of said one or more biodegradable and resorbable polymers in the body of the patient.
Use of a complex of a porphyrin of formula below: wherein R 1 to R 10 and R 1 ' to R 10 ' are independently selected from the group consisting of H, F and N + (C 1 -C 4 alkyl) 3, and wherein: at least 2 and at most 6 groups among R 1 to R 10 and R 1 ' to R 10 ' being independently N + (C 1 -C 4 alkyl) 3, and, at least one of R 6, R 10, R 6 ' and R 10 ' is selected from the group consisting of H and F, and if at least one of R 1 to R 5 represents N + (C 1 -C 4 alkyl) 3, then at least one of the other R 1 to R 5 is H, and if at least one of R 1' to R 5' represents N + (C 1 -C 4 alkyl) 3, then at least one of the other R 1' to R 5' is H, and if at least one of R 6 to R 10 represents N + (C 1 -C 4 alkyl) 3, then at least one of the other R 6 to R 10 is H, and if at least one of R 6' to R 10 ' represents N + (C 1 -C 4 alkyl) 3, then at least one of the other R 6' to R 10 ' is H, with iron in the oxidation state 0 to +III, and salts thereof, as catalyst for the electrochemical reduction of CO 2 into CO in water, wherein CO 2 is reduced into CO by the porphyrin of formula with iron in the state Fe. at least 2 and at most 6 groups among R 1 to R 10 and R 1 ' to R 10 ' being independently N + (C 1 -C 4 alkyl) 3, and, at least one of R 6, R 10, R 6 ' and R 10 ' is selected from the group consisting of H and F, and if at least one of R 1 to R 5 represents N + (C 1 -C 4 alkyl) 3, then at least one of the other R 1 to R 5 is H, and if at least one of R 1' to R 5' represents N + (C 1 -C 4 alkyl) 3, then at least one of the other R 1' to R 5' is H, and if at least one of R 6 to R 10 represents N + (C 1 -C 4 alkyl) 3, then at least one of the other R 6 to R 10 is H, and if at least one of R 6' to R 10 ' represents N + (C 1 -C 4 alkyl) 3, then at least one of the other R 6' to R 10 ' is H, with iron in the oxidation state 0 to +III, and salts thereof, as catalyst for the electrochemical reduction of CO 2 into CO in water, wherein CO 2 is reduced into CO by the porphyrin of formula with iron in the state Fe.
Valve with a valve sleeve which has at least a first and a second connection (12; 26) and a pressure-balanced valve tappet movable in the valve sleeve between a closed position and at least a first open position, characterized in that the valve tappet comprises two parts (15, 16) that are movable towards each other and impinged against each other by a hydrostatic pressure present at the first connection, wherein the first part of the valve tappet is a closing body which seals at a valve seat in the closed position and the second part is a transfer pin which holds the closing body spaced apart from the valve seat in the first open position, wherein at least a first spring element is present, which impinges the closing body against the valve seat.
Dispense mechanism for a drug delivery device for the delivery of a primary medicament contained in a primary cartridge and a secondary medicament contained in a secondary cartridge, the mechanism comprising: - a primary drive member for driving a primary lead screw and - a secondary drive member for driving a secondary lead screw, wherein the primary drive member and the secondary drive member are configured to rotate during dose dispense; characterized by - a power reservoir for rotating the primary drive member - a lock element configured to prevent the primary drive member from driving the primary lead screw; - a user actuateable release mechanism configured to disengage the lock element from the primary drive member such that the primary drive member is free to rotate under the force of the power reservoir; and - a coupling member for rotationally coupling the primary drive member to the secondary drive member and configured to move during dose dispense from a first position in which the primary drive member is rotationally decoupled from the secondary drive member into a second position in which the primary drive member is rotationally coupled to the secondary drive member; wherein the coupling member is rotationally coupled to the primary drive member during dose dispense and is threaded to the housing assembly or a housing component such that rotation of the primary drive member moves the coupling member from the first position into the second position such that rotation of the primary drive member is transferred to the secondary drive member. - a primary drive member for driving a primary lead screw and - a secondary drive member for driving a secondary lead screw, wherein the primary drive member and the secondary drive member are configured to rotate during dose dispense; characterized by - a power reservoir for rotating the primary drive member - a lock element configured to prevent the primary drive member from driving the primary lead screw; - a user actuateable release mechanism configured to disengage the lock element from the primary drive member such that the primary drive member is free to rotate under the force of the power reservoir; and - a coupling member for rotationally coupling the primary drive member to the secondary drive member and configured to move during dose dispense from a first position in which the primary drive member is rotationally decoupled from the secondary drive member into a second position in which the primary drive member is rotationally coupled to the secondary drive member;
A method of cooling at least a portion of a turbine bucket comprising a platform, the method comprising: during operation of a turbine, altering a swirl velocity of purge air beneath a platform lip extending axially from the platform of the turbine bucket, wherein altering the swirl velocity of the purge air includes interrupting a flow of the purge air with a plurality of voids disposed along a length of an angel wing extending axially from a face, of a shank portion of the turbine bucket, characterized in that said plurality of voids are disposed along an angel wing rim at a distal end of the angel wing or at a distal end of the platform lip such that the remaining portions of the angel wing rim or the platform lip form a plurality of column members. during operation of a turbine, altering a swirl velocity of purge air beneath a platform lip extending axially from the platform of the turbine bucket, wherein altering the swirl velocity of the purge air includes interrupting a flow of the purge air with a plurality of voids disposed along a length of an angel wing extending axially from a face, of a shank portion of the turbine bucket, characterized in that said plurality of voids are disposed along an angel wing rim at a distal end of the angel wing or at a distal end of the platform lip such that the remaining portions of the angel wing rim or the platform lip form a plurality of column members.