mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the preparation of liraglutide with SPPS using a backbone amide linker BAL for connecting the C-terminal Gly with the resin during SPPS; wherein BAL is a compound of formula (BAL); wherein one of the substituents R1 and R2 is H and the other one is C(O)H; m1 is 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10; R3 and R4 are identical or different and independently from each other H or methoxy; and wherein the SPPS is done on an amino functionalized resin AMFUNRESIN; wherein the Palmitoyl-Glu-OtBu residue on the N 6 of the Lys is the residue of formula (PALGLU) with the (**) in formula (PALGLU) denoting the covalent bond between the COOH of the side chain of the Glu and the N 6 of the Lys , and the Palmitoyl-Glu-OtBu residue is covalently bonded to the Lys in a reaction REACPALGLU, wherein the NH 2 of the side chain of the Lys is reacted with a precursor of the residue of formula (PALGLU); and wherein REACPALGLU is done after the coupling of Ala or after the coupling of Ala , and before removal of the protecting group of the alpha NH 2 of Ala or of Ala respectively. one of the substituents R1 and R2 is H and the other one is C(O)H; m1 is 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10; R3 and R4 are identical or different and independently from each other H or methoxy; and wherein the SPPS is done on an amino functionalized resin AMFUNRESIN; wherein the Palmitoyl-Glu-OtBu residue on the N 6 of the Lys is the residue of formula (PALGLU) with the (**) in formula (PALGLU) denoting the covalent bond between the COOH of the side chain of the Glu and the N 6 of the Lys , and the Palmitoyl-Glu-OtBu residue is covalently bonded to the Lys in a reaction REACPALGLU, wherein the NH 2 of the side chain of the Lys is reacted with a precursor of the residue of formula (PALGLU); and wherein REACPALGLU is done after the coupling of Ala or after the coupling of Ala , and before removal of the protecting group of the alpha NH 2 of Ala or of Ala respectively.
An imaging mass spectrometer comprising: an energy source adapted to substantially simultaneously provide energy to multiple spots on a sample to produce ions from the sample by a desorption process; and an analyser adapted to detect the arrival time and spot origin of ions resulting from said desorption process, wherein the imaging mass spectrometer further comprises a sample plate for receiving the sample , characterised in that : the energy source is adapted to provide energy on the sample through the sample plate , and at an angle substantially perpendicular to the surface of the sample at each of the respective spots , and wherein the imaging mass spectrometer further comprises one or more grid electrodes to focus the ions resulting from the desorption process. an energy source adapted to substantially simultaneously provide energy to multiple spots on a sample to produce ions from the sample by a desorption process; and an analyser adapted to detect the arrival time and spot origin of ions resulting from said desorption process, wherein the imaging mass spectrometer further comprises a sample plate for receiving the sample , characterised in that : the energy source is adapted to provide energy on the sample through the sample plate , and at an angle substantially perpendicular to the surface of the sample at each of the respective spots , and wherein the imaging mass spectrometer further comprises one or more grid electrodes to focus the ions resulting from the desorption process.
A heat exchanger assembly comprising: - a heat exchanger comprising a plurality of partitions configured to separate a first fluid and a second fluid and through which heat can be transferred between the first fluid and the second fluid , wherein the partitions are electrically connected to one another and share the same electric potential, - a first electrical connector and a second electrical connector that are operationally connected to the plurality of partitions of the heat exchanger , and - an electrical power source operationally connected to the first electrical connector and the second electrical connector and configured to supply an electric current to the plurality of partitions of the heat exchanger via the first electrical connector and the second electrical connector for reducing growth of microorganisms in the heat exchanger. - a heat exchanger comprising a plurality of partitions configured to separate a first fluid and a second fluid and through which heat can be transferred between the first fluid and the second fluid , wherein the partitions are electrically connected to one another and share the same electric potential, - a first electrical connector and a second electrical connector that are operationally connected to the plurality of partitions of the heat exchanger , and - an electrical power source operationally connected to the first electrical connector and the second electrical connector and configured to supply an electric current to the plurality of partitions of the heat exchanger via the first electrical connector and the second electrical connector for reducing growth of microorganisms in the heat exchanger.
An electronic component, comprising: a first terminal ; a second terminal ; a deformable host material arranged between the first terminal and the second terminal ; and aligned within the host material , an ensemble of particles, the particles each comprising a ferromagnetic material and each having greater electrical conductivity than the host material , the ensemble of particles forming a complete conduction path from the first terminal to the second terminal upon depression of the host material and wherein the conduction path is broken when the depression is released, wherein the second terminal is filamentous and is suitable for forming an electrical contact to living human skin. a first terminal ; a second terminal ; a deformable host material arranged between the first terminal and the second terminal ; and aligned within the host material , an ensemble of particles, the particles each comprising a ferromagnetic material and each having greater electrical conductivity than the host material , the ensemble of particles forming a complete conduction path from the first terminal to the second terminal upon depression of the host material and wherein the conduction path is broken when the depression is released, wherein the second terminal is filamentous and is suitable for forming an electrical contact to living human skin.
A diving system for use by a diver, comprising: (a) a pressure vessel defining a breathing mixture chamber and a fluid chamber, each defining a volume, wherein the two chambers are moveably separate from each other, where the volumes of the two chambers are correlated such that an increase in the volume of one chamber correlates with a decrease in the volume of the other chamber, and wherein the breathing mixture chamber is configured to connect to a gas communication system for a diver; (b) a fluid transfer system in fluid communication with the fluid chamber and with an environment external to the fluid chamber; (c) a control system responsive to sensors, the control system being configured to control the fluid transfer system to communicate fluid between the ambient environment and the fluid chamber. (a) a pressure vessel defining a breathing mixture chamber and a fluid chamber, each defining a volume, wherein the two chambers are moveably separate from each other, where the volumes of the two chambers are correlated such that an increase in the volume of one chamber correlates with a decrease in the volume of the other chamber, and wherein the breathing mixture chamber is configured to connect to a gas communication system for a diver; (b) a fluid transfer system in fluid communication with the fluid chamber and with an environment external to the fluid chamber; (c) a control system responsive to sensors, the control system being configured to control the fluid transfer system to communicate fluid between the ambient environment and the fluid chamber.
- A plant dormancy control system that comprises a vertical shade structure which includes vertical supports in the form of wood, metal, plastic or concrete poles that support a shade fabric , where the vertical shade structure is installed in a commercial planting including multiple plants in plant rows the plant dormancy control system further comprising an upper support cable attached to each vertical support by upper support cable attachment and a lower support cable attached to each vertical support by lower support cable attachment , said shade fabric being attached to said upper support cable and to said lower support cable , wherein vertical shade structure is placed to create a shaded area during daylight hours in the form of a triangular prism that substantially encompasses plants in each plant row , and which substantially blocks direct solar radiation from reaching plants characterised in that said shade fabric absorbs approximately 90% or more of the direct solar radiation from 550 nm to 850 nm, while reflecting approximately 10% or less of the direct solar radiation. wherein vertical shade structure is placed to create a shaded area during daylight hours in the form of a triangular prism that substantially encompasses plants in each plant row , and which substantially blocks direct solar radiation from reaching plants characterised in that said shade fabric absorbs approximately 90% or more of the direct solar radiation from 550 nm to 850 nm, while reflecting approximately 10% or less of the direct solar radiation.
A refrigeration system comprising: a steam ejector with an ejector outlet ; and a passive flow trap connected to the ejector outlet , wherein the passive flow trap includes an inlet-side drop , a center bend , and an outlet-side rise , thereby defining a U shape, characterised in that the inlet-side drop is larger than the outlet-side rise . a steam ejector with an ejector outlet ; and a passive flow trap connected to the ejector outlet , wherein the passive flow trap includes an inlet-side drop , a center bend , and an outlet-side rise , thereby defining a U shape, characterised in that the inlet-side drop is larger than the outlet-side rise .
A holder for an aerosol generating article having a heat source , the holder comprising: a body defining an passage configured to receive the aerosol generating article ; and a retainer longitudinally moveable relative to the body from a first position to a second position, the retainer comprising a deflectable arm and a retention member extending from the arm and configured to retain the aerosol generating article within the passage of the body when the retainer is in the first position, wherein movement of the retainer to the second position causes the arm to deflect to provide access for introducing or withdrawing the aerosol generating article from the passage of the body . a body defining an passage configured to receive the aerosol generating article ; and a retainer longitudinally moveable relative to the body from a first position to a second position, the retainer comprising a deflectable arm and a retention member extending from the arm and configured to retain the aerosol generating article within the passage of the body when the retainer is in the first position, wherein movement of the retainer to the second position causes the arm to deflect to provide access for introducing or withdrawing the aerosol generating article from the passage of the body .
A method for producing arachidonic acid (ARA) and/or dihomo-gamma-linolenic acid (DGLA), the method comprising cultivating Mortierella alpina capable of producing arachidonic acid (ARA) and/or dihomo-gamma-linolenic acid (DGLA), the method further comprising: (a) adding an organic acid selected from the group consisting of succinic acid, fumaric acid, pyruvic acid, and malic acid, or a mixture thereof in an amount of 0.01 to 5 w/v% to a culture medium three days or later after the beginning of the main culture. (a) adding an organic acid selected from the group consisting of succinic acid, fumaric acid, pyruvic acid, and malic acid, or a mixture thereof in an amount of 0.01 to 5 w/v% to a culture medium three days or later after the beginning of the main culture.
A method of monitoring a physical downlink control channel, PDCCH, performed by a user equipment, UE, the method comprising: receiving (S181) first configuration information informing of a position of a synchronization signal/physical broadcast channel block, SSB; receiving (S182) second configuration information informing of a plurality of monitoring occasions for detecting a wake up signal, WUS, wherein the plurality of monitoring occasions are defined by i) a periodicity and offset of the plurality of monitoring occasions, monitoringSlotPeriodicityAndOffset and ii) duration of each monitoring occasion and receiving third configuration information informing of a PS-offset indicating a time, wherein, among the plurality of monitoring occasions, the UE monitors PDCCH for detection of the WUS only in monitoring occasions located within an interval from the time indicated by the PS-offset prior to a slot where a next discontinuous reception, DRX, -on duration timer would start to the slot where the DRX-on duration timer would start, and wherein if the UE is not required to monitor PDCCH for detection of the WUS as at least one resource element, RE, of each of the monitoring occasions overlap with resources of the SSB, the UE monitors (S184) PDCCH for detection of control information other than the WUS in a next DRX-on duration. receiving (S181) first configuration information informing of a position of a synchronization signal/physical broadcast channel block, SSB; receiving (S182) second configuration information informing of a plurality of monitoring occasions for detecting a wake up signal, WUS, wherein the plurality of monitoring occasions are defined by i) a periodicity and offset of the plurality of monitoring occasions, monitoringSlotPeriodicityAndOffset and ii) duration of each monitoring occasion and receiving third configuration information informing of a PS-offset indicating a time, wherein, among the plurality of monitoring occasions, the UE monitors PDCCH for detection of the WUS only in monitoring occasions located within an interval from the time indicated by the PS-offset prior to a slot where a next discontinuous reception, DRX, -on duration timer would start to the slot where the DRX-on duration timer would start, and wherein if the UE is not required to monitor PDCCH for detection of the WUS as at least one resource element, RE, of each of the monitoring occasions overlap with resources of the SSB, the UE monitors (S184) PDCCH for detection of control information other than the WUS in a next DRX-on duration.
A method comprising: determining, by a first wireless device, a second reservation period in units of slots based on: a first reservation period in milli-second, ms; and a number of sidelink slots within a fixed period, wherein the number of the sidelink slots is based on a resource pool configuration; and transmitting a transport block via one or more transmission resources based on the second reservation period. determining, by a first wireless device, a second reservation period in units of slots based on: a first reservation period in milli-second, ms; and a number of sidelink slots within a fixed period, wherein the number of the sidelink slots is based on a resource pool configuration; and a first reservation period in milli-second, ms; and a number of sidelink slots within a fixed period, wherein the number of the sidelink slots is based on a resource pool configuration; and transmitting a transport block via one or more transmission resources based on the second reservation period.
A method of fabricating a composite stiffener having a curved web and at least one curved flange, comprising: placing a substantially straight length of unidirectional prepreg tape on a carrier to form a ply carrier assembly , wherein unidirectional reinforcing fibers in the unidirectional prepreg tape are oriented in the longitudinal direction of the ply carrier assembly ; forming the at least one curved flange by using the carrier to steer a first portion of the tape onto a first curved tool surface ; and forming the curved web by using the carrier to form a second portion of the tape onto a second curved tool surface ; and wherein placing the tape on the carrier includes forming overlapping segments of tape on the carrier by sequentially forming offset segments of the tape on the carrier and overlapping the segments. placing a substantially straight length of unidirectional prepreg tape on a carrier to form a ply carrier assembly , wherein unidirectional reinforcing fibers in the unidirectional prepreg tape are oriented in the longitudinal direction of the ply carrier assembly ; forming the at least one curved flange by using the carrier to steer a first portion of the tape onto a first curved tool surface ; and forming the curved web by using the carrier to form a second portion of the tape onto a second curved tool surface ; and wherein placing the tape on the carrier includes forming overlapping segments of tape on the carrier by sequentially forming offset segments of the tape on the carrier and overlapping the segments.
A camera for detecting an object moving through a detection area , the camera comprising an image sensor for recording image data, receiving optics having a focus adjustment unit for adjusting a focus position, a distance sensor for measuring a distance value to the object , and a control and evaluation unit connected to the distance sensor and the focus adjustment unit in order to adjust a focus position in dependence on the distance value, characterized in that the control and evaluation unit is configured to trigger, as a compensation strategy in the event that an available focusing time is not sufficient, a recording of image data in a focus position which can be reached more quickly while accepting a blurring and in which there is intentionally a focus deviation from an ideal focus position which would have to be set according to the distance measurement, the focus deviation remaining small enough for a required image sharpness of the image data.
A method of metering fuel in an aircraft engine fuel supply system, said system comprising a metering device for an aircraft engine fuel system comprising, downstream of a fuel pumping system and upstream of injectors: - a fuel inlet (E), - a metering device (FMV) and a shut-off device (HPSOV) arranged in series, - a regulating valve (VR) arranged on a fuel recirculation branch, so that excess fuel supplied by the pumping system is pumped back into the fuel system, characterized in that at least one flow meter sensor (WFM1) being arranged in the recirculation branch, a density value of the metered fuel is determined as a function of the measurements of the said sensor, and the metering device is controlled as a function of the fuel density value thus determined. - a fuel inlet (E), - a metering device (FMV) and a shut-off device (HPSOV) arranged in series, - a regulating valve (VR) arranged on a fuel recirculation branch, so that excess fuel supplied by the pumping system is pumped back into the fuel system,
An appliance including a chassis for releasably receiving an item, and a temperature sensor assembly mounted in the chassis , the temperature sensor assembly for detecting a temperature of the item, the assembly including: a resilient support attached to the chassis , and including a mounting that has a longitudinal axis ; a temperature sensor secured in the mounting and extending therealong, the temperature sensor having an end portion positioned relative to the chassis so as to be locatable adjacent the item to detect the temperature thereof; a resilient member associated with the temperature sensor and adapted to urge the temperature sensor to a predetermined position with respect to the chassis ; wherein the resilient support and the resilient member provide for movement of the temperature sensor in a direction along said longitudinal axis for enabling said end portion to accommodate positioning of said item on said chassis , and for urging the temperature sensor assembly into contact with the item, and wherein the mounting of the resilient support is a resiliently deformable cylindrical mounting part in which a sensor body containing the temperature sensor is engaged, and wherein the resilient support includes a flexible diaphragm having a central opening for receiving the sensor body , the flexibility of the diaphragm providing for an angular movement of the temperature sensor about two further axes , with the longitudinal axis and the two further axes being mutually perpendicular. a resilient support attached to the chassis , and including a mounting that has a longitudinal axis ; a temperature sensor secured in the mounting and extending therealong, the temperature sensor having an end portion positioned relative to the chassis so as to be locatable adjacent the item to detect the temperature thereof; a resilient member associated with the temperature sensor and adapted to urge the temperature sensor to a predetermined position with respect to the chassis ; wherein the resilient support and the resilient member provide for movement of the temperature sensor in a direction along said longitudinal axis for enabling said end portion to accommodate positioning of said item on said chassis , and for urging the temperature sensor assembly into contact with the item, and wherein the mounting of the resilient support is a resiliently deformable cylindrical mounting part in which a sensor body containing the temperature sensor is engaged, and wherein the resilient support includes a flexible diaphragm having a central opening for receiving the sensor body , the flexibility of the diaphragm providing for an angular movement of the temperature sensor about two further axes , with the longitudinal axis and the two further axes being mutually perpendicular.
A method for a base station for performing wireless communication, the method comprising: identifying at least one non-guaranteed bit rate, non-GBR, bearer configured for a communication device ; determining whether to guarantee a predetermined bit rate on the non-GBR bearer based on a priority of Allocation and Retention Priority, ARP, information of non-GBR bearers of which QoS Class Identifier, QCI, information is in a predetermined QCI value range among the non-GBR bearers, and Subscriber Profile Identifier, SPID, information, that are received in association with the non-GBR bearer from a core network node ; performing scheduling on the non-GBR bearer, based on a result of the determination, to guarantee the predetermined bit rate on the non-GBR bearer.