mhurhangee/ep-ind-claims huggingface dataset:
A process for the fermentation of fungal strains which secrete glucans with a β-1,3-glycosidically linked main chain and side groups β-1,6-glycosidically bonded thereto, in a cascade of tanks comprising at least a first tank (K1, K31) with a first volume (VK1, VK 31) and a second tank (K2, K32) with a second volume (VK2, VK32), comprising at least the steps a) fermentation of the fungal strains in a first aqueous medium (M1, M31) in the first tank (K1, K31) and the volume of the first aqueous medium (VM1, VM31), resulting in a first mixture (S1, S31), b) transfer of the first mixture (S1, S31) to the second tank (K2, K32), and c) fermentation of the fungal strains in the first mixture (S1, S31) in a second aqueous medium (M2, M32) in the second tank (K2, K32) and the volume of the second aqueous medium (VM2, VM32), resulting in a second mixture (S2, S32), where the proportion of the volume of the first mixture (VM1, VM31) to the volume of the second tank (VK2, VK32) is in the range between ≥ 0.1% to ≤ 50% and where the first mixture (S1, S31) in step b) is passed through at least one high-shear mixer, the high-shear mixer has a shearing geometry, such that the entire first mixture (S1, S31) entirely passes through the shearing geometry of the at least one high-shear mixer. a) fermentation of the fungal strains in a first aqueous medium (M1, M31) in the first tank (K1, K31) and the volume of the first aqueous medium (VM1, VM31), resulting in a first mixture (S1, S31), b) transfer of the first mixture (S1, S31) to the second tank (K2, K32), and c) fermentation of the fungal strains in the first mixture (S1, S31) in a second aqueous medium (M2, M32) in the second tank (K2, K32) and the volume of the second aqueous medium (VM2, VM32), resulting in a second mixture (S2, S32),
A computer-implemented method for estimating shunt of a subject, comprising the steps of: - obtaining, from carbon dioxide [CO 2] measurements on expiration gas exhaled by said subject, a first value related to alveolar CO 2 of said subject; - obtaining a second value related to arterial CO 2 of said subject; - obtaining a third value related to cardiac output [Q T] or effective pulmonary perfusion of said subject; - obtaining a fourth value related to CO 2 elimination [VCO 2] of said subject, and - calculating the shunt of the subject based on said first, second, third and fourth values, characterised in that the CO 2 measurements are obtained by means of volumetric capnography, and wherein said first value related to alveolar CO 2 is determined based on capnographic data obtained through said volumetric capnography. - obtaining, from carbon dioxide [CO 2] measurements on expiration gas exhaled by said subject, a first value related to alveolar CO 2 of said subject; - obtaining a second value related to arterial CO 2 of said subject; - obtaining a third value related to cardiac output [Q T] or effective pulmonary perfusion of said subject; - obtaining a fourth value related to CO 2 elimination [VCO 2] of said subject, and - calculating the shunt of the subject based on said first, second, third and fourth values, characterised in that the CO 2 measurements are obtained by means of volumetric capnography, and wherein said first value related to alveolar CO 2 is determined based on capnographic data obtained through said volumetric capnography.
Maintenance platform for suspension on support cables, in particular for the maintenance of rotor blades of wind turbines, wherein the maintenance platform is formed of at least two sub-platforms that define a working plane, wherein the sub-platforms are pivotally interconnected by a pivot joint about a pivot axis extending substantially perpendicularly to the working plane, characterized in that the maintenance platform comprises a spindle drive that adjustably interconnects two of the sub-platforms, wherein the spindle drive is arranged relative to the pivot joint likewise connecting the two sub-platforms such that the two sub-platforms as well as the other sub-platforms can be pivoted relative to one another in the working plane by means of the spindle drive.
Control device comprising a circuit for the passage of an operating fluid and a plurality of connection ports for connection of the circuit with the outside, wherein said plurality of connecting ports comprises at least: - a first port intended for connection with a first chamber of an actuator that uses the operating fluid; - a second port intended for connection with a second chamber of the actuator that is opposite the first chamber; - a third port intended for connection with at least one supply and/or with at least one drain; - a fourth port intended for connection with at least one supply and/or with at least one drain; characterised in that it comprises at least: - a first conduit connecting said fourth port with said second port; - a first valve arranged in said first conduit to allow the flow to said second port so that the operating fluid can enter the second chamber; - a second conduit that branches off from said first conduit in a section between said first valve and said second port to connect said second port with said first port; - a second valve arranged in said second conduit to control the flow coming from said second port so that at least a fraction of the operating fluid that comes from said second port, exiting from the second chamber, can go toward said first port for recirculating to the first chamber; - at least one circuit element that is arranged to generate a localized pressure difference and is connected with said third port; - a first piloting conduit for piloting said second valve with a first piloting pressure taken from a circuit section arranged on a first side of said circuit element. - a first port intended for connection with a first chamber of an actuator that uses the operating fluid; - a second port intended for connection with a second chamber of the actuator that is opposite the first chamber; - a third port intended for connection with at least one supply and/or with at least one drain; - a fourth port intended for connection with at least one supply and/or with at least one drain; - a first conduit connecting said fourth port with said second port; - a first valve arranged in said first conduit to allow the flow to said second port so that the operating fluid can enter the second chamber; - a second conduit that branches off from said first conduit in a section between said first valve and said second port to connect said second port with said first port; - a second valve arranged in said second conduit to control the flow coming from said second port so that at least a fraction of the operating fluid that comes from said second port, exiting from the second chamber, can go toward said first port for recirculating to the first chamber; - at least one circuit element that is arranged to generate a localized pressure difference and is connected with said third port; - a first piloting conduit for piloting said second valve with a first piloting pressure taken from a circuit section arranged on a first side of said circuit element.
A multilayer film comprising: a first layer comprising an interpenetrating network, the interpenetrating network comprising: a first thermoplastic polymer selected from the group consisting of a polyurethane, polycarbonate, polycaprolactone, and a combination thereof, crosslinked components selected from the group consisting of triallyl isocyanurate (TAIC), triethylolpropane triacrylate (TMPTA), and di-trimethylolpropanetetraacrylate (DTMPTA), and tri-functional methacrylate, and a photoinitiator, wherein the interpenetrating network comprises 65% to 75% by weight of the first thermoplastic polymer and 20% to 30% by weight of the crosslinked components; and a second layer comprising one or more layers of a second thermoplastic polymer, wherein the second thermoplastic polymer is selected from the group consisting of a polyurethane, polycarbonate, polycaprolactone, and a combination thereof. a first thermoplastic polymer selected from the group consisting of a polyurethane, polycarbonate, polycaprolactone, and a combination thereof, crosslinked components selected from the group consisting of triallyl isocyanurate (TAIC), triethylolpropane triacrylate (TMPTA), and di-trimethylolpropanetetraacrylate (DTMPTA), and tri-functional methacrylate, and a photoinitiator, wherein the interpenetrating network comprises 65% to 75% by weight of the first thermoplastic polymer and 20% to 30% by weight of the crosslinked components; and a second layer comprising one or more layers of a second thermoplastic polymer, wherein the second thermoplastic polymer is selected from the group consisting of a polyurethane, polycarbonate, polycaprolactone, and a combination thereof.
A lock having a latchbolt (6, 9) and a manually actuable actuating member (5, 36) which are in operative connection with one another so that the latchbolt (6, 9) is movable from an extended position into a retracted position and vice versa by actuating the actuation member (5, 36) when the lock (3, 4, 14, 14') is in an unlatched state, and having a blocking element by which a retraction of the latchbolt (6, 9) is prevented when the lock (3, 4, 14, 14') is in a locked state, wherein the operative connection between the actuation member (5, 36) and the lockbolt (6, 9) is weakened or interrupted in the locked state of the lock (3, 4, 14, 14'); wherein the operative connection between the lockbolt (6, 9) and the actuation member (3, 4, 14, 14') comprises a drive gear element (34, 61) rotatably or pivotably supported about a rotation axis or pivot axis (30, 30'), with at least one guide section being provided in which the rotation axis or pivot axis (30, 30') is displaceably guided transversely to the axial direction in the locked state of the lock (3, 4, 14, 14'); and wherein the displaceability of the rotation axis or pivot axis (30, 30') is bounded in the unlocked state of the lock (3, 4, 14, 14') by a bounding element (54, 54') in operative connection with the blocking element, wherein the rotation axis or pivot axis (30, 30') is substantially non-displaceable in the unlocked state of the lock (3, 4, 14, 14').
A method comprising: printing an image to a target; printing an image-wise security feature to said target with a clear material transferred from a mass transfer panel of a thermal transfer sheet; and providing a uniform top coat above at least the image, characterised in that the target is a re-transferable film, the image and image-wise security features are printed to the re-transferable film, and in that the re-transferable film comprises the uniform top coat. printing an image to a target; printing an image-wise security feature to said target with a clear material transferred from a mass transfer panel of a thermal transfer sheet; and providing a uniform top coat above at least the image,
Advancing movement device with an advancing movement appliance, a binding arrangement, by means of which the advancing movement device can be fastened to a person's lower leg and shoe, as well as a swivel mechanism connecting the advancing movement appliance to at least a part of the binding arrangement, for the selective positioning of the advancing movement appliance in a first position using the advancing movement appliance at the underside of the shoe and in a second position not using the advancing movement appliance, in which second position free movement on the underside of the shoe is possible and in which the advancing movement device is fastened solely to the lower leg, characterised in that the advancing movement appliance in the second position can be positioned at the calf-side rear side and/or the shin-side front side of the lower leg.
Apparatus for measuring the velocity of blood flowing in a blood vessel of a subject, the apparatus comprising: an ultrasound transmitter, for placement at a first location on the body of a subject, and arranged to emit an ultrasound pulse; an ultrasound receiver, for placement at a second location on the body of the subject, and arranged to detect an ultrasound pulse emitted by the transmitter; and a controller in communication with the transmitter and the receiver and arranged to: cause an ultrasound pulse to be emitted by the transmitter; receive a measurement signal from the receiver corresponding to a detected ultrasound pulse; determine, based on the received measurement signal, a time of arrival at the receiver, T 1, of a first part of the emitted ultrasound pulse; determine, based on the received measurement signal, a time of arrival at the receiver, T 2, of a second part of the emitted ultrasound pulse; and calculate, using T 1 and T 2, a flow velocity of blood in a blood vessel located between the first location and the second location. an ultrasound transmitter, for placement at a first location on the body of a subject, and arranged to emit an ultrasound pulse; an ultrasound receiver, for placement at a second location on the body of the subject, and arranged to detect an ultrasound pulse emitted by the transmitter; and a controller in communication with the transmitter and the receiver and arranged to: cause an ultrasound pulse to be emitted by the transmitter; receive a measurement signal from the receiver corresponding to a detected ultrasound pulse; determine, based on the received measurement signal, a time of arrival at the receiver, T 1, of a first part of the emitted ultrasound pulse; determine, based on the received measurement signal, a time of arrival at the receiver, T 2, of a second part of the emitted ultrasound pulse; and calculate, using T 1 and T 2, a flow velocity of blood in a blood vessel located between the first location and the second location. cause an ultrasound pulse to be emitted by the transmitter; receive a measurement signal from the receiver corresponding to a detected ultrasound pulse; determine, based on the received measurement signal, a time of arrival at the receiver, T 1, of a first part of the emitted ultrasound pulse; determine, based on the received measurement signal, a time of arrival at the receiver, T 2, of a second part of the emitted ultrasound pulse; and calculate, using T 1 and T 2, a flow velocity of blood in a blood vessel located between the first location and the second location.
An assembly, comprising: a holder having a plurality of indexed positions thereon; a plurality of carriers for laser capture microdissection analysis, each carrier comprising a substrate and a LCM film mounted on the substrate, one of the carriers disposed at each indexed position in the holder. a holder having a plurality of indexed positions thereon; a plurality of carriers for laser capture microdissection analysis, each carrier comprising a substrate and a LCM film mounted on the substrate, one of the carriers disposed at each indexed position in the holder.
A transmitting device for a wireless communication system, the transmitting device being configured to transmit one or more synchronization signals on a carrier to at least one receiving device, wherein a frequency of a synchronization signal among the one or more synchronization signals is located on a first frequency raster and a carrier frequency of the carrier is deployed on a second frequency raster, and wherein frequencies of two different synchronization signals among the one or more synchronization signals are located on different frequency positions in the first raster; transmit an indication of the carrier frequency to the at least one receiving device, wherein the indication comprises at least one integer number; and wherein a frequency spacing between two neighbouring synchronization signals is a multiple of a sub-carrier spacing of the wireless communication system, and wherein the first frequency raster is a subset of the second frequency raster.
A method of wireless communication at a user equipment, UE, (104, 350, 702) comprising: receiving, from a base station, a Radio Resource Control, RRC, signal that signals to turn on or turn off intra-slot frequency hopping; determining (804, 806), based on the RRC signal, whether or not to use intra-slot frequency hopping for a variable length uplink control channel; based on the determination, turning on or turning off intra-slot frequency hopping; and communicating (808, 810) information based on the determination of whether or not to use intra-slot frequency hopping to a transmitter in the UE (104, 350, 702) for transmission over the variable length uplink control channel, the information being transmitted by the transmitter based on the signal from the base station, wherein a number of demodulation reference signals, DMRSs, on the variable length uplink control channel is reduced when the intra-slot frequency hopping is not used relative to when the intra-slot frequency hopping is used. receiving, from a base station, a Radio Resource Control, RRC, signal that signals to turn on or turn off intra-slot frequency hopping; determining (804, 806), based on the RRC signal, whether or not to use intra-slot frequency hopping for a variable length uplink control channel; based on the determination, turning on or turning off intra-slot frequency hopping; and communicating (808, 810) information based on the determination of whether or not to use intra-slot frequency hopping to a transmitter in the UE (104, 350, 702) for transmission over the variable length uplink control channel, the information being transmitted by the transmitter based on the signal from the base station, wherein a number of demodulation reference signals, DMRSs, on the variable length uplink control channel is reduced when the intra-slot frequency hopping is not used relative to when the intra-slot frequency hopping is used.
A computing device comprising an electronic storage and an electronic processor coupled to the storage, the storage storing a series of table networks, the processor being configured to compute an iterated function on a global data-input and a global state-input by applying table networks of the series of table networks, - a table network (112, 114) of the series being configured for a corresponding data-function and state-function and is configured to map a data-input (121, 122) to a data-output (122, 123) according to the corresponding data-function, and to simultaneously map a state-input (121, 122) to a state-output (122, 123) according to a state-function, - the electronic processor being configured to iterate applying the series of table networks, a table network of the iteratively applied table networks to the global data-input and global state-input, and a successive table network of said iteration to the data-output and state-output of a preceding table network of the series, the iterated application of the series determines a global data function on the global data-input and determines a global state function on the global state-input, thus obtaining an intermediate data-output and an intermediate state-output, - the electronic storage is further storing a protecting table network configured to cooperate with the series of table networks for countering modifications made to table networks of the series, the protecting table network being configured to receive as input: the intermediate state-output, and a global state-input, the protecting table network being configured to verify that the global state-function applied to the global state-input produces the intermediate state-output. - a table network (112, 114) of the series being configured for a corresponding data-function and state-function and is configured to map a data-input (121, 122) to a data-output (122, 123) according to the corresponding data-function, and to simultaneously map a state-input (121, 122) to a state-output (122, 123) according to a state-function, - the electronic processor being configured to iterate applying the series of table networks, a table network of the iteratively applied table networks to the global data-input and global state-input, and a successive table network of said iteration to the data-output and state-output of a preceding table network of the series, the iterated application of the series determines a global data function on the global data-input and determines a global state function on the global state-input, thus obtaining an intermediate data-output and an intermediate state-output, - the electronic storage is further storing a protecting table network configured to cooperate with the series of table networks for countering modifications made to table networks of the series, the protecting table network being configured to receive as input: the intermediate state-output, and a global state-input, the protecting table network being configured to verify that the global state-function applied to the global state-input produces the intermediate state-output.
Device with power electronics control circuits comprising the following separate physical hardware entities which communicate with each other, ensuring an improvement of the segregation of operation of the physical hardware entities and a deterministic behaviour: - a digital microcontroller unit (UNMC) which is configured to control the operation of the device and which is hardened in order to withstand the effects of radiation in space; - a digital rapid control unit (UNRR) which is configured to control the priority and real-time processes and which is hardened in order to withstand the effects of radiation in space; - a digital communication unit which is for communication with the exterior of the device and which is hardened in order to withstand the effects of radiation in space; - a digital tracing and debugging unit (UNTD) which is configured to detect errors during the design of the device; - a non-volatile digital memory which is configured to store information which is representative of the initial configuration of the device and which is hardened to withstand the effects of radiation in space; - an assembly which comprises a shared memory and control means for access to the shared memory and which is configured to control the communications in accordance with a mechanism of the mailbox type between a physical hardware entity of the device with another physical hardware entity of the device; and - non-volatile memory registers, a memory register comprising a dedicated correction code which is configured to improve the resistance to the effects of radiation in space; the access control means being suitable for carrying out control of the communications in a static and predefined manner in the non-volatile memory registers. - a digital microcontroller unit (UNMC) which is configured to control the operation of the device and which is hardened in order to withstand the effects of radiation in space; - a digital rapid control unit (UNRR) which is configured to control the priority and real-time processes and which is hardened in order to withstand the effects of radiation in space; - a digital communication unit which is for communication with the exterior of the device and which is hardened in order to withstand the effects of radiation in space; - a digital tracing and debugging unit (UNTD) which is configured to detect errors during the design of the device; - a non-volatile digital memory which is configured to store information which is representative of the initial configuration of the device and which is hardened to withstand the effects of radiation in space; - an assembly which comprises a shared memory and control means for access to the shared memory and which is configured to control the communications in accordance with a mechanism of the mailbox type between a physical hardware entity of the device with another physical hardware entity of the device; and - non-volatile memory registers, a memory register comprising a dedicated correction code which is configured to improve the resistance to the effects of radiation in space;