mhurhangee/patent-ind-claim-en huggingface dataset:
A combination comprising pea protein and a polysaccharide for use in the topical treatment or prevention of a skin disorder due to a skin barrier dysfunction.
Method for operating a scanning microscope and for determining point spread functions with which sample images are recorded with the scanning microscope, wherein a sample is scanned with at least one illumination light beam, wherein at least one sample image is recorded using a detector device of the scanning microscope during the scanning by the illumination light beam, and wherein the point spread function is calculated from the at least one sample image, a sample image being recorded by the scanning microscope with said point spread function, wherein the detector device has reception elements, the spacing from one another of which is smaller than an Airy disk that a sample point generates on the detector device, characterized in that detector signals generated by way of the reception elements are each read for different positions of the illumination light beam on the sample, as a result of which the read detector signals yield a plurality of sample images by way of the scanning of the sample, wherein the reception elements are each read for different positions of the illumination beam path such that, following the scanning, each reception element has examined a certain sample region, wherein the point spread functions for the different detector signals are defined in each case by way of an illumination point spread function and a detection point spread function, in that a corresponding illumination point spread function is assumed for all detector signals, said illumination point spread function being shifted as per the scanning movement for various detector signals, and in that a corresponding detection point spread function is assumed for all detector signals, a spatial offset between the detector elements being taken into account in said detection point spread function, and in that the illumination point spread function and the detection point spread function are calculated from the plurality of sample images and the point spread functions for the different detector signals are calculated using said illumination point spread function and detection point spread function.
A method for controlling a refrigerator comprising a first tray configured to form a portion of an ice making cell , a second tray configured to form the ice making cell together with the first tray , a driver configured to move the second tray , and a heater configured to supply heat to one or more of the first tray and the second tray , wherein a direction in which the second tray moves from an ice making position, to an ice standby position, to an ice separation position is forward, and a direction in which the second tray moves from the ice separation position, to the water supply position, to the ice making position is reverse, the method comprising: performing (S2) water supply of the ice making cell in a state in which the second tray is moved to the water supply position; performing (S4) ice making after the second tray is moved (S3) from the water supply position to the ice making position in the reverse direction after the water supply is completed; turning (S8) on the heater when ice making is completed; when a movement condition of the second tray is satisfied: - moving (S9) the second tray to a standby position in the forward direction and turning off (S11) the heater when a turn-off condition of the heater is satisfied, only after the second tray moves to the standby position, or - turning off the heater and then moving the second tray to a standby position in the forward direction; determining (S12) whether the heater is turned off and a predetermined time has elapsed; and moving (S13) the second tray to the ice separation position in the forward direction when it is determined that the predetermined time has elapsed. performing (S2) water supply of the ice making cell in a state in which the second tray is moved to the water supply position; performing (S4) ice making after the second tray is moved (S3) from the water supply position to the ice making position in the reverse direction after the water supply is completed; turning (S8) on the heater when ice making is completed; when a movement condition of the second tray is satisfied: - moving (S9) the second tray to a standby position in the forward direction and turning off (S11) the heater when a turn-off condition of the heater is satisfied, only after the second tray moves to the standby position, or - turning off the heater and then moving the second tray to a standby position in the forward direction; - moving (S9) the second tray to a standby position in the forward direction and turning off (S11) the heater when a turn-off condition of the heater is satisfied, only after the second tray moves to the standby position, or - turning off the heater and then moving the second tray to a standby position in the forward direction; determining (S12) whether the heater is turned off and a predetermined time has elapsed; and moving (S13) the second tray to the ice separation position in the forward direction when it is determined that the predetermined time has elapsed.
A method of generating an aerosol comprising the steps: (a) providing a liquid aqueous composition comprising a polyclonal immunoglobulin (Ig), wherein the concentration of the Ig is in the range of 40 to 200 mg per mL; (b) providing a membrane nebulizer having a reservoir into which the composition is filled; and (c) nebulizing the composition using the nebulizer to obtain an aerosol wherein the reservoir is isolated from the atmosphere so that the pressure inside the reservoir decreases before or during step (c). (a) providing a liquid aqueous composition comprising a polyclonal immunoglobulin (Ig), wherein the concentration of the Ig is in the range of 40 to 200 mg per mL; (b) providing a membrane nebulizer having a reservoir into which the composition is filled; and (c) nebulizing the composition using the nebulizer to obtain an aerosol wherein the reservoir is isolated from the atmosphere so that the pressure inside the reservoir decreases before or during step (c).
A method for triggering a user equipment, UE, to monitor a paging message in long term evolution, LTE, system, characterized in that the method comprises: acquiring (SI02), by the UE, a correspondence between the UE and a time-frequency resource, where a trigger message for the UE is located, of a broadcast channel, wherein the trigger message is configured for triggering listening to the paging message for the UE and is sent via the broadcast channel, and wherein there is a latency between the trigger message and the paging message in a time domain; receiving (S104), by the UE, the trigger message from a base station via the time-frequency resource of the broadcast channel according to the correspondence; and in a case where the trigger message indicates that the UE needs to be triggered, triggering (S106), by the UE, listening to the paging message for the UE; wherein the acquiring (S102), by the UE, a correspondence between the UE and a time-frequency resource, where a trigger message for the UE is located, of a broadcast channel comprises: determining the correspondence between the UE and the time-frequency resource, where the trigger message for the UE is located, of the broadcast channel according to a first correspondence between a paging occasion and an identifier of the UE or an identifier of a group of UEs from the base station, and a second correspondence between the paging occasion and the time-frequency resource of the broadcast channel from the base station. acquiring (SI02), by the UE, a correspondence between the UE and a time-frequency resource, where a trigger message for the UE is located, of a broadcast channel, wherein the trigger message is configured for triggering listening to the paging message for the UE and is sent via the broadcast channel, and wherein there is a latency between the trigger message and the paging message in a time domain; receiving (S104), by the UE, the trigger message from a base station via the time-frequency resource of the broadcast channel according to the correspondence; and in a case where the trigger message indicates that the UE needs to be triggered, triggering (S106), by the UE, listening to the paging message for the UE; wherein the acquiring (S102), by the UE, a correspondence between the UE and a time-frequency resource, where a trigger message for the UE is located, of a broadcast channel comprises: determining the correspondence between the UE and the time-frequency resource, where the trigger message for the UE is located, of the broadcast channel according to a first correspondence between a paging occasion and an identifier of the UE or an identifier of a group of UEs from the base station, and a second correspondence between the paging occasion and the time-frequency resource of the broadcast channel from the base station.
A composition comprising at least one genetically modified stem cell, wherein said stem cell comprises an adenoviral vector encoding (i) an anti-tumor agent, wherein the anti-tumor agent comprises a fusion gene encoding interleukin-12, wherein the fusion gene comprises IL-12p40 and IL-12p35 and (ii) an apoptotic agent comprising a caspase, wherein the caspase comprises at least one caspase selected from a list consisting of caspase-1, caspase-2, caspase-3, caspase-4, caspase-5, caspase-6, caspase-7, caspase-8, caspase-9, caspase-10, caspase-13, and caspase-14.
Device for joining two plastic profiles , for example for the manufacture of a door or window frame or partial frame, the device having a machining unit and an adhesive dispensing unit , wherein the machining unit is provided for machining at least in the joining region of the plastic profiles to be joined and the adhesive dispensing unit is provided for applying an adhesive layer at least to one profile in the joining region of the plastic profiles to be joined, characterised in that an extraction unit is provided for extracting the chips produced by the machining unit and/or for the solvent vapours escaping from the adhesive.
Method for restoring data from at least two tapes of a tape storage system , a first tape comprising two sets of data blocks (B1, ..., Bn) in a first order of the sets and a second tape comprising the two sets of data blocks (B1, ..., Bn) in a second order of the sets, the second order being different from the first order, the method comprising the step of: - restoring the first set of data blocks (B1, ..., Bn) from the first tape , and restoring the second set of data blocks (B1, ..., Bn) simultaneously from the second tape . - restoring the first set of data blocks (B1, ..., Bn) from the first tape , and restoring the second set of data blocks (B1, ..., Bn) simultaneously from the second tape .
A method of controlling ordering of packets, the method executed in a packet-switched network and comprising the steps of: receiving a plurality of lower-layer packets having respective sequence numbers; reconstituting the lower-layer packets as upper-layer packets, wherein one or more lower-layer packets are constituents of each said upper-layer packet; and forwarding at least some of the upper-layer packets for further processing, and from some of the sequence numbers, determining that the constituents of at least one upper-layer packet have arrived ahead of sequence by an amount DeltaSN corresponding to more than one sequential position; and delaying the forwarding of said at least one upper-layer packet if DeltaSN exceeds a specified limit corresponding to more than one sequential position, characterized in that : the amount DeltaSN is determined from the degree to which sequence numbers of lower-layer packets are out of order; and the specified limit is a limit on the amount by which the sequence number of an early-arriving lower-layer packet exceeds the sequence number of the next-arriving lower-layer packet, and wherein the upper-layer packets have a maximum permissible degree of misordering, referred to as p; and the specified limit is set to a number of lower-layer packets that may collectively constitute p upper-layer packets. receiving a plurality of lower-layer packets having respective sequence numbers; reconstituting the lower-layer packets as upper-layer packets, wherein one or more lower-layer packets are constituents of each said upper-layer packet; and forwarding at least some of the upper-layer packets for further processing, and from some of the sequence numbers, determining that the constituents of at least one upper-layer packet have arrived ahead of sequence by an amount DeltaSN corresponding to more than one sequential position; and delaying the forwarding of said at least one upper-layer packet if DeltaSN exceeds a specified limit corresponding to more than one sequential position, characterized in that : the amount DeltaSN is determined from the degree to which sequence numbers of lower-layer packets are out of order; and the specified limit is a limit on the amount by which the sequence number of an early-arriving lower-layer packet exceeds the sequence number of the next-arriving lower-layer packet, and wherein the upper-layer packets have a maximum permissible degree of misordering, referred to as p; and the specified limit is set to a number of lower-layer packets that may collectively constitute p upper-layer packets. the amount DeltaSN is determined from the degree to which sequence numbers of lower-layer packets are out of order; and the specified limit is a limit on the amount by which the sequence number of an early-arriving lower-layer packet exceeds the sequence number of the next-arriving lower-layer packet, and wherein the upper-layer packets have a maximum permissible degree of misordering, referred to as p; and the specified limit is set to a number of lower-layer packets that may collectively constitute p upper-layer packets.
Procedure designed to determine and/or monitor at least a process variable of a medium using a vibronic sensor , wherein, in a first operating mode - a unit capable of vibrating is excited to perform mechanical vibrations by means of a first electrical excitation signal (U A1 ), and the mechanical vibrations of the unit capable of vibrating mechanically are received and converted to a first electrical reception signal (U E1 ) with at least a first frequency (f 1 ), and - the first reception signal (U E1 ) is evaluated with regard to the at least one process variable, and wherein, in a second operating mode - no second excitation signal is generated to be applied to the unit capable of vibrating , - mechanical vibrations of the unit capable of vibrating mechanically , which are caused by at least a first interference factor, are received and converted to a second electrical reception signal (U E2 ), - wherein at least a second frequency (f 2 ) of the second electrical reception signal (UE2) is determined, and - wherein the at least one second frequency is assigned to the at least one first interference factor for the vibronic sensor . wherein, in a first operating mode - a unit capable of vibrating is excited to perform mechanical vibrations by means of a first electrical excitation signal (U A1 ), and the mechanical vibrations of the unit capable of vibrating mechanically are received and converted to a first electrical reception signal (U E1 ) with at least a first frequency (f 1 ), and - the first reception signal (U E1 ) is evaluated with regard to the at least one process variable, and - a unit capable of vibrating is excited to perform mechanical vibrations by means of a first electrical excitation signal (U A1 ), and the mechanical vibrations of the unit capable of vibrating mechanically are received and converted to a first electrical reception signal (U E1 ) with at least a first frequency (f 1 ), and - the first reception signal (U E1 ) is evaluated with regard to the at least one process variable, and wherein, in a second operating mode - no second excitation signal is generated to be applied to the unit capable of vibrating , - mechanical vibrations of the unit capable of vibrating mechanically , which are caused by at least a first interference factor, are received and converted to a second electrical reception signal (U E2 ), - wherein at least a second frequency (f 2 ) of the second electrical reception signal (UE2) is determined, and - wherein the at least one second frequency is assigned to the at least one first interference factor for the vibronic sensor . - no second excitation signal is generated to be applied to the unit capable of vibrating , - mechanical vibrations of the unit capable of vibrating mechanically , which are caused by at least a first interference factor, are received and converted to a second electrical reception signal (U E2 ), - wherein at least a second frequency (f 2 ) of the second electrical reception signal (UE2) is determined, and - wherein the at least one second frequency is assigned to the at least one first interference factor for the vibronic sensor .
A method comprising: determining (2-1, 3-1, 4-2), by a base station, an amount of resources needed for a transmission of a periodic feedback information on a physical uplink shared channel; allocating (2-1, 3-1, 4-2), by the base station, resources for the transmission of the periodic feedback information on the physical uplink shared channel; and sending (2-2, 3-2, 4-3), by the base station, a configuration for the transmission of the periodic feedback information on the physical uplink shared channel to a user equipment or a layer 3 relay, characterized in that the configuration for the transmission of the periodic feedback information on the physical uplink shared channel moreover comprises the allocated resources for the transmission of the periodic feedback information on the physical uplink shared channel. determining (2-1, 3-1, 4-2), by a base station, an amount of resources needed for a transmission of a periodic feedback information on a physical uplink shared channel; allocating (2-1, 3-1, 4-2), by the base station, resources for the transmission of the periodic feedback information on the physical uplink shared channel; and sending (2-2, 3-2, 4-3), by the base station, a configuration for the transmission of the periodic feedback information on the physical uplink shared channel to a user equipment or a layer 3 relay, characterized in that the configuration for the transmission of the periodic feedback information on the physical uplink shared channel moreover comprises the allocated resources for the transmission of the periodic feedback information on the physical uplink shared channel.
A power supply assembly intended to recharge electric batteries, comprising at least one electricity transmission module each including a horizontal bar made up of an electrically insulating material, said bar being elongate and passed through longitudinally by electrical cables , said cables being flexible and emerging from two ends of the bar while being folded upward, and said folded emerging portions of the cables of at least one of said ends being directly capped by a vertical column serving as power supply terminal for a vehicle battery, characterized in that the folded portions of the cables are fixed in a given position without the use of rigid posts, said given position corresponding to a given incline angle, which may be modified at any moment through simple manual torsion without any special effort.
Cosmetic use of at least one compound of general formula (I): in which: - R1 represents ethyl radical; - R2 represents a hydrogen atom ; - R3 represents a linear C1-C6 alkyl radical ; and - X represents -OH, as an agent for reducing and/or delaying the signs of skin ageing. - R1 represents ethyl radical; - R2 represents a hydrogen atom ; - R3 represents a linear C1-C6 alkyl radical ; and - X represents -OH,
A method of operating a polyolefin reactor system, the method comprising: feeding a chromium oxide catalyst through an inline reduction system to a polymerization reactor where the chromium oxide catalyst includes an inorganic oxide support having a pore volume of about 2.4 to about 3.7 cm 3 /g and a surface area of about 410 to about 620 m 2 /g; adding diethylaluminum ethoxide (DEAlE) to the chromium oxide catalyst in the inline reduction system to reduce an oxidation state of at least a portion of the chromium in the chromium oxide catalyst; and polymerizing an olefin into a polyolefin in presence of the chromium oxide catalyst in the polymerization reactor, wherein the chromium oxide catalyst is not contacted with the DEAlE prior to feeding the chromium oxide catalyst through the inline reduction system. feeding a chromium oxide catalyst through an inline reduction system to a polymerization reactor where the chromium oxide catalyst includes an inorganic oxide support having a pore volume of about 2.4 to about 3.7 cm 3 /g and a surface area of about 410 to about 620 m 2 /g; adding diethylaluminum ethoxide (DEAlE) to the chromium oxide catalyst in the inline reduction system to reduce an oxidation state of at least a portion of the chromium in the chromium oxide catalyst; and polymerizing an olefin into a polyolefin in presence of the chromium oxide catalyst in the polymerization reactor, wherein the chromium oxide catalyst is not contacted with the DEAlE prior to feeding the chromium oxide catalyst through the inline reduction system.
Semiconductor device , in particular being configured for optical, optoelectronic, electronic and/or (photo-)electrochemical applications, comprising - a substrate and at least one nano- or microstructure functional element standing on the substrate and having a core region extending in an upward direction deviating from a substrate plane, characterized in that - the at least one functional element further includes multiple different active regions (22, 22A, 23, 23A, 24 and 24A) being located on different lateral sides of the core region having surface normals being directed in different azimuthal directions but having a common polar angle with reference to the substrate plane, wherein the active regions (22, 22A, 23, 23A, 24 and 24A) have different optical, optoelectronic, electronic and/or or (photo-)electrochemical properties. - a substrate and at least one nano- or microstructure functional element standing on the substrate and having a core region extending in an upward direction deviating from a substrate plane, characterized in that - the at least one functional element further includes multiple different active regions (22, 22A, 23, 23A, 24 and 24A) being located on different lateral sides of the core region having surface normals being directed in different azimuthal directions but having a common polar angle with reference to the substrate plane, wherein the active regions (22, 22A, 23, 23A, 24 and 24A) have different optical, optoelectronic, electronic and/or or (photo-)electrochemical properties.