mhurhangee/patent-ind-claim-en huggingface dataset:
Method for storing hydrogen gas comprising the process steps - pre-heating of an at least partially dehydrogenated hydrogen carrier material, - storing the hydrogen gas in chemically bound form on the hydrogen carrier material, - cooling and conditioning of the at least partially hydrogenated hydrogen carrier material, characterized by - cooling a catalyst material in at least one catalyst mount by means of a cooling unit provided at the at least one catalyst mount . - pre-heating of an at least partially dehydrogenated hydrogen carrier material, - storing the hydrogen gas in chemically bound form on the hydrogen carrier material, - cooling and conditioning of the at least partially hydrogenated hydrogen carrier material, - cooling a catalyst material in at least one catalyst mount by means of a cooling unit provided at the at least one catalyst mount .
A respiratory mask for delivering an inhalation gas to the airways of a wearer, the respiratory mask comprising a body of generally concave shape and having a peripheral edge, the body being adapted to provide a cavity in use about the mouth and nose of a wearer, the body having an inlet port that is engageable with a supply of inhalation gas and in communication with the cavity, wherein the respiratory mask includes a resilient seal formation depending from at least a portion of the peripheral edge of the body , the resilient seal formation comprising both an inwardly and outwardly depending lip portion relative to the peripheral edge of the body , characterised in that the inwardly and outwardly depending lip portions provide for at least first and a second alternative fitment conditions in use, and in that the inwardly depending lip portion extends around substantially the entire peripheral edge of the mask body and has discontinuities therein which allow the inwardly depending lip portion to deform.
A method of automated preparation of a sample material for a chemical or compositional analysis, comprising arranging the sample material in a receptacle , storing the sample inside the receptacle in a conditioning cabinet , and grinding the sample material by way of a mill apparatus , wherein the mill apparatus comprises an extraction container , at least one grinding element provided in the extraction container and an agitator adapted to move the at least one grinding element relative to the extraction container when the sample material is placed in the extraction container , characterized by further comprising placing the sample material together with the receptacle in the extraction container , and grinding the receptacle together with the sample material by agitating the extraction container . arranging the sample material in a receptacle , storing the sample inside the receptacle in a conditioning cabinet , and grinding the sample material by way of a mill apparatus , wherein the mill apparatus comprises an extraction container , at least one grinding element provided in the extraction container and an agitator adapted to move the at least one grinding element relative to the extraction container when the sample material is placed in the extraction container , characterized by further comprising placing the sample material together with the receptacle in the extraction container , and grinding the receptacle together with the sample material by agitating the extraction container .
A transgenic plant produced by a method for deleting a region of DNA in a plant, the method comprising: providing a first viable plant containing a genomic DNA, the genomic DNA comprising the region of DNA and a first recognition sequence flanking the 3' end and a second recognition sequence flanking the 5' end of the region of DNA, wherein the first recognition sequence and the second recognition sequence are identical; providing a second viable plant containing a genomic DNA, the genomic DNA comprising a DNA encoding a zinc finger nuclease engineered to cleave the genomic DNA at the first and second recognition sequences, wherein the zinc finger nuclease is operably linked to a pollen- specific promoter; crossing the first and second viable plants such that F1 seed is produced on either the first or the second viable plant; and growing a resultant transgenic F1 plant containing a genomic DNA, wherein the region of DNA is absent from the genomic DNA in the F1 plant, and wherein the plant comprises a DNA encoding said zinc finger nuclease operably linked to a pollen-specific promoter. providing a first viable plant containing a genomic DNA, the genomic DNA comprising the region of DNA and a first recognition sequence flanking the 3' end and a second recognition sequence flanking the 5' end of the region of DNA, wherein the first recognition sequence and the second recognition sequence are identical; providing a second viable plant containing a genomic DNA, the genomic DNA comprising a DNA encoding a zinc finger nuclease engineered to cleave the genomic DNA at the first and second recognition sequences, wherein the zinc finger nuclease is operably linked to a pollen- specific promoter; crossing the first and second viable plants such that F1 seed is produced on either the first or the second viable plant; and growing a resultant transgenic F1 plant containing a genomic DNA, wherein the region of DNA is absent from the genomic DNA in the F1 plant, and wherein the plant comprises a DNA encoding said zinc finger nuclease operably linked to a pollen-specific promoter.
A topical composition comprising: an alpha hydroxy acid selected from the group consisting of lactic acid, malic acid, and glycolic acid, and combinations thereof in a total amount of from 50 to 80 % by weight; 0.1 to 10 % by weight of methyl salicylate; and, a water soluble zinc salt in an amount of from 0.2 to 4 % by weight of the formulation calculated as Zn.
An injection device comprising a common rail extending in a longitudinal direction and defining a main chamber , the common rail comprising: - an inlet orifice emerging in the main chamber and intended to be coupled to a fuel supply pipe, - at least one injection well extending along a first axis, said injection well comprising a bottom and an injector interface zone in which an injector is intended to be mounted; - at least one transverse duct extending along a second axis and emerging in the main chamber , on the one hand, and in the bottom of the injection well , on the other hand, so as to link the main chamber to said injection well , the first and the second axes being secant; and - a spray nozzle arranged in the bottom of the injection well and reducing the section of passage of the fuel between the duct and the injector interface zone of the injection well , and being thus configured to generates a pressure drop which makes it possible to damp the pressure waves, the injection device being characterized in that the spray nozzle is a cylindrical element which is force fitted into the bottom of the injection well and which forms a space for passage of the fuel from the duct to the injector interface zone . - an inlet orifice emerging in the main chamber and intended to be coupled to a fuel supply pipe, - at least one injection well extending along a first axis, said injection well comprising a bottom and an injector interface zone in which an injector is intended to be mounted; - at least one transverse duct extending along a second axis and emerging in the main chamber , on the one hand, and in the bottom of the injection well , on the other hand, so as to link the main chamber to said injection well , the first and the second axes being secant; and - a spray nozzle arranged in the bottom of the injection well and reducing the section of passage of the fuel between the duct and the injector interface zone of the injection well , and being thus configured to generates a pressure drop which makes it possible to damp the pressure waves, the injection device being characterized in that the spray nozzle is a cylindrical element which is force fitted into the bottom of the injection well and which forms a space for passage of the fuel from the duct to the injector interface zone .
An in vitro method for differentiating pluripotent stem cells comprising: (a) contacting a plurality of pluripotent stem cells with at least one inhibitor of TGFβ/Activin-Nodal signaling; and (b) contacting the cells with at least one activator of Sonic hedgehog (SHH) signaling and at least one activator of wingless (Wnt) signaling, wherein the concentration of the at least one activator of Wnt signaling is increased (i) between 2 days and 6 days from its initial contact with the cells and (ii) by between 250% and 1800% of its initial concentration contacted with the cells, to obtain a population of differentiated cells expressing forkhead box protein A2 (FOXA2) and LIM homeobox transcription factor 1 alpha (LMX1A). (a) contacting a plurality of pluripotent stem cells with at least one inhibitor of TGFβ/Activin-Nodal signaling; and (b) contacting the cells with at least one activator of Sonic hedgehog (SHH) signaling and at least one activator of wingless (Wnt) signaling,
A method for wireless communication at a user equipment, comprising: determining a mapping between synchronization signal blocks and a random access message of a two-step random access procedure based at least in part on an indication, the random access message comprising a random access preamble and a random access payload; determining , based at least in part on the mapping, an association between one or more beams carrying the synchronization signal blocks and one or more additional beams carrying the random access preamble and the random access payload of the random access message; determining an association pattern period of a two-step random access procedure based at least in part on a second indication, wherein the association pattern period of the two-step random access procedure is based at least in part on a factor value of an association pattern period of a four-step random access procedure, the factor value comprising an integer value within a range configured by a network entity; mapping resources of the synchronization signal blocks to one or more physical random access channel occasions of the random access preamble and one or more physical uplink shared channel resource units of the random access payload over physical random access channel configuration periods of the association pattern period of the two-step random access procedure; and performing the two-step random access procedure with the network entity. determining a mapping between synchronization signal blocks and a random access message of a two-step random access procedure based at least in part on an indication, the random access message comprising a random access preamble and a random access payload; determining , based at least in part on the mapping, an association between one or more beams carrying the synchronization signal blocks and one or more additional beams carrying the random access preamble and the random access payload of the random access message; determining an association pattern period of a two-step random access procedure based at least in part on a second indication, wherein the association pattern period of the two-step random access procedure is based at least in part on a factor value of an association pattern period of a four-step random access procedure, the factor value comprising an integer value within a range configured by a network entity; mapping resources of the synchronization signal blocks to one or more physical random access channel occasions of the random access preamble and one or more physical uplink shared channel resource units of the random access payload over physical random access channel configuration periods of the association pattern period of the two-step random access procedure; and performing the two-step random access procedure with the network entity.
A method for continuously treating a starch-bearing material at a non-atmospheric pressure, the method comprising: delivering a starch-bearing material to a hydration control apparatus; at least one of increasing or decreasing moisture in the starch-bearing material within the hydration control apparatus; delivering the starch-bearing material from the hydration control apparatus to a material delivery apparatus, the material delivery apparatus including a chamber that defines a feed end and a discharge end, a first valve proximate the feed end of the chamber, and a second valve proximate the discharge end of the chamber, wherein delivering the starch-bearing material to the material delivery apparatus comprises delivering the starch-bearing material to the chamber of the material delivery apparatus with the first valve open and the second valve closed; closing the first valve of the material delivery apparatus so as to pressure isolate the starch-bearing material within the chamber of the material delivery apparatus; adjusting a pressure within the chamber of the material delivery apparatus to a non-atmospheric pressure that is substantially equal to a non-atmospheric pressure in a process vessel downstream of the material delivery apparatus; opening the second valve of the material delivery apparatus and delivering the starch-bearing material from the chamber of the material delivery apparatus to the process vessel; and heating the starch-bearing material within the process vessel. delivering a starch-bearing material to a hydration control apparatus; at least one of increasing or decreasing moisture in the starch-bearing material within the hydration control apparatus; delivering the starch-bearing material from the hydration control apparatus to a material delivery apparatus, the material delivery apparatus including a chamber that defines a feed end and a discharge end, a first valve proximate the feed end of the chamber, and a second valve proximate the discharge end of the chamber, wherein delivering the starch-bearing material to the material delivery apparatus comprises delivering the starch-bearing material to the chamber of the material delivery apparatus with the first valve open and the second valve closed; closing the first valve of the material delivery apparatus so as to pressure isolate the starch-bearing material within the chamber of the material delivery apparatus; adjusting a pressure within the chamber of the material delivery apparatus to a non-atmospheric pressure that is substantially equal to a non-atmospheric pressure in a process vessel downstream of the material delivery apparatus; opening the second valve of the material delivery apparatus and delivering the starch-bearing material from the chamber of the material delivery apparatus to the process vessel; and heating the starch-bearing material within the process vessel.
A pulling device for generating a pulling movement in a clamping device, comprising: a pull-acting hydraulic working cylinder having a pull piston displaceable along a longitudinal axis (L); a pull rod connected to the pull piston ; a push-acting hydraulic pump cylinder having a pump piston displaceable therein; and a fluidic connection between the pump cylinder and the working cylinder so that a hydraulic fluid is interchangeable between the pump cylinder and the working cylinder , wherein the pump cylinder and the working cylinder are arranged coaxially to each other in a housing of the pulling device , characterized in that a movement of the pump piston in a pushing direction (D) along the longitudinal axis (L) causes the hydraulic fluid to flow from the pump cylinder into the working cylinder and there causes a pulling movement of the pull piston and the pull rod connected thereto in a pulling direction (Z) along the longitudinal axis (L), the pulling direction (Z) being opposite to the pushing direction (D). a pull-acting hydraulic working cylinder having a pull piston displaceable along a longitudinal axis (L); a pull rod connected to the pull piston ; a push-acting hydraulic pump cylinder having a pump piston displaceable therein; and a fluidic connection between the pump cylinder and the working cylinder so that a hydraulic fluid is interchangeable between the pump cylinder and the working cylinder , wherein the pump cylinder and the working cylinder are arranged coaxially to each other in a housing of the pulling device , characterized in that a movement of the pump piston in a pushing direction (D) along the longitudinal axis (L) causes the hydraulic fluid to flow from the pump cylinder into the working cylinder and there causes a pulling movement of the pull piston and the pull rod connected thereto in a pulling direction (Z) along the longitudinal axis (L), the pulling direction (Z) being opposite to the pushing direction (D).
An indoor positioning system , comprising: - a plurality of anchor stations , each configured to simultaneously transmit a radio frequency pulse and an ultrasound pulse during a time slot reserved for each of the plurality of anchor stations; - a central station separate from the plurality of anchor stations and configured to communicate with the plurality of anchor stations , wherein the central station further comprises a central station processing unit configured to assign time division multiple access time slots for transmissions by the plurality of anchor stations , each time division multiple access time slot reserved for transmission of a single radio frequency pulse and a single ultrasound pulse from a single anchor station; - a mobile station including a radio frequency receiver configured to receive the radio frequency pulse from at least one of the plurality of anchor stations , and an acoustic receiver configured to receive the respective ultrasound pulse transmitted simultaneously from the at least one of the plurality of anchor stations ; - a processing unit configured to determine position information of the mobile unit based upon the respective radio frequency pulse and the respective ultrasound pulse received from the at least one of the plurality of anchor stations, wherein the central station is configured to receive the position information of the mobile station and the central station processing unit is configured to adjust the timeslot for each of the plurality of anchor stations using the position information. - a plurality of anchor stations , each configured to simultaneously transmit a radio frequency pulse and an ultrasound pulse during a time slot reserved for each of the plurality of anchor stations; - a central station separate from the plurality of anchor stations and configured to communicate with the plurality of anchor stations , wherein the central station further comprises a central station processing unit configured to assign time division multiple access time slots for transmissions by the plurality of anchor stations , each time division multiple access time slot reserved for transmission of a single radio frequency pulse and a single ultrasound pulse from a single anchor station; - a mobile station including a radio frequency receiver configured to receive the radio frequency pulse from at least one of the plurality of anchor stations , and an acoustic receiver configured to receive the respective ultrasound pulse transmitted simultaneously from the at least one of the plurality of anchor stations ; - a processing unit configured to determine position information of the mobile unit based upon the respective radio frequency pulse and the respective ultrasound pulse received from the at least one of the plurality of anchor stations, wherein the central station is configured to receive the position information of the mobile station and the central station processing unit is configured to adjust the timeslot for each of the plurality of anchor stations using the position information.
Antenna system, having at least two modules , wherein each module contains at least two horn antennas , and the horn antennas support a first and a second polarization and the two polarizations are orthogonal with respect to one another, and the modules are constructed from various layers , wherein the antenna system comprises at least one microstrip line network and the at least one microstrip line network is used to feed the horn antennas inside a module , and wherein the antenna system comprises at least one waveguide network and the at least one waveguide network is used to feed the modules , wherein the microstrip line networks for one polarization and the microstrip line networks for the other polarization are situated separately from one another between the layers of the modules , and the horn antennas have a feed consisting of a first microstrip line for the first polarization and a second microstrip line for the second polarization, the microstrip lines for the first polarization and the microstrip lines for the second polarization each form separate intramodular microstrip line networks that are coupled to a respective waveguide network , wherein the first waveguide network is designed to combine all of the signals of the first polarization and the second waveguide network is designed to combine all of the signals of the second polarization, wherein the separate intramodular microstrip line networks and the waveguide networks are constructed as binary trees and are designed to feed the horn antennas in parallel, wherein the horn antennas are dimensioned such that for at least four directly adjacent horn antennas situated in at least two directly adjacent modules the interval between the phase centres of the horn antennas is less than or no more than equal to the wavelength of a reference frequency that is in a transmission band of the antenna system.
A method of automatically sorting waste, the method comprising: receiving a piece of waste ; using a plurality of sensors to determine a plurality of properties associated with the piece of waste , wherein the sensors comprise at least two different sensor types; by a processor, based on at least one of the properties from at least a first one of the sensors, determining if the piece of waste is formed of a recyclable material ; if the piece of waste is not formed of a recyclable material , depositing the piece of waste in a non-recyclable waste bin ; if the piece of waste is formed of a recyclable material , by the processor based on at least a second one of the properties from at least a second one of the sensors, determining if the piece of waste meets or exceeds a recyclability threshold ; and if the piece of waste meets or exceeds the recyclability threshold , depositing the piece of waste into a recyclable waste bin , otherwise depositing the piece of waste in a non-recyclable waste bin . receiving a piece of waste ; using a plurality of sensors to determine a plurality of properties associated with the piece of waste , wherein the sensors comprise at least two different sensor types; by a processor, based on at least one of the properties from at least a first one of the sensors, determining if the piece of waste is formed of a recyclable material ; if the piece of waste is not formed of a recyclable material , depositing the piece of waste in a non-recyclable waste bin ; if the piece of waste is formed of a recyclable material , by the processor based on at least a second one of the properties from at least a second one of the sensors, determining if the piece of waste meets or exceeds a recyclability threshold ; and if the piece of waste meets or exceeds the recyclability threshold , depositing the piece of waste into a recyclable waste bin , otherwise depositing the piece of waste in a non-recyclable waste bin .