mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method for analyzing a biological sample of a female pregnant with a plurality of fetuses to determine whether at least two fetuses of the pregnant female are dizygotic, the biological sample comprising fetal and maternal DNA, the method comprising: for each of a plurality of chromosomal regions: at each of one or more loci in the respective chromosomal region: measuring one or more alleles in the biological sample; and determining a respective amount of each measured allele; based on the respective amounts of the measured alleles, determining whether at least two of the fetuses have inherited a different haplotype of the respective chromosomal region from a first parent; determining a first amount of the chromosomal regions where at least two of the fetuses have inherited a different haplotype from the first parent; and comparing the first amount to a cutoff value to determine whether at least two of the fetuses are dizygotic. for each of a plurality of chromosomal regions: at each of one or more loci in the respective chromosomal region: measuring one or more alleles in the biological sample; and determining a respective amount of each measured allele; based on the respective amounts of the measured alleles, determining whether at least two of the fetuses have inherited a different haplotype of the respective chromosomal region from a first parent; at each of one or more loci in the respective chromosomal region: measuring one or more alleles in the biological sample; and determining a respective amount of each measured allele; measuring one or more alleles in the biological sample; and determining a respective amount of each measured allele; based on the respective amounts of the measured alleles, determining whether at least two of the fetuses have inherited a different haplotype of the respective chromosomal region from a first parent; determining a first amount of the chromosomal regions where at least two of the fetuses have inherited a different haplotype from the first parent; and comparing the first amount to a cutoff value to determine whether at least two of the fetuses are dizygotic.
A dialyzer having an actuator and a hydraulic system for actuating the actuator, the hydraulic system having a pressure cylinder and a pressure line leading from the pressure cylinder to the actuator, the pressure cylinder having casing walls and two base surfaces , and the pressure cylinder having a piston which can be displaced in the main axis (L) of the pressure cylinder , characterized in that the pressure cylinder is arranged in the dialyzer such that the main axis (L) is at an angle of inclination (a) to the horizontal in the range of 5-45°, the pressure line being connected in the lowered base surface located in the lowered end region of the pressure cylinder , and a degassing bore being provided, which is arranged in an upward-facing casing segment of the pressure cylinder , the working stroke of the piston occupying the portion of the pressure cylinder between the lowered base surface and the degassing bore , and the piston being movable into a degassing position for degassing the hydraulic fluid, in which degassing position the degassing bore is located in the portion between the piston and the lowered base surface .
A developing device configured to develop a latent image formed on an image bearer , the developing device comprising: a developing roller opposed to or in contact with the image bearer ; a cover configured to cover the developing roller from above the developing roller , the cover including a projecting support (13r4) and having a vent (13r2) to allow ventilation of the developing device ; a filter configured to cover the vent (13r2) of the cover to filter air and collect toner passing through the vent (13r2); and a pressing member configured to engage the cover in which the filter is installed and hold the filter between the pressing member and the cover , the projecting support (13r4): projecting from one end of the vent (13r2) in a transverse direction of the vent (13r2) toward other end of the vent (13r2) in the transverse direction of the vent (13r2) at a part of the cover in a longitudinal direction of the developing roller , to block the vent (13r2); cantilevered by the cover on the one end of the vent (13r2) in the transverse direction of the vent (13r2); and configured to support the filter , a gap is provided between a tip of the projecting support (13r4) and an inner edge of the cover on the other end of the vent (13r2) in the transverse direction of the vent (13r2). a developing roller opposed to or in contact with the image bearer ; a cover configured to cover the developing roller from above the developing roller , the cover including a projecting support (13r4) and having a vent (13r2) to allow ventilation of the developing device ; a filter configured to cover the vent (13r2) of the cover to filter air and collect toner passing through the vent (13r2); and a pressing member configured to engage the cover in which the filter is installed and hold the filter between the pressing member and the cover , the projecting support (13r4): projecting from one end of the vent (13r2) in a transverse direction of the vent (13r2) toward other end of the vent (13r2) in the transverse direction of the vent (13r2) at a part of the cover in a longitudinal direction of the developing roller , to block the vent (13r2); cantilevered by the cover on the one end of the vent (13r2) in the transverse direction of the vent (13r2); and configured to support the filter , projecting from one end of the vent (13r2) in a transverse direction of the vent (13r2) toward other end of the vent (13r2) in the transverse direction of the vent (13r2) at a part of the cover in a longitudinal direction of the developing roller , to block the vent (13r2); cantilevered by the cover on the one end of the vent (13r2) in the transverse direction of the vent (13r2); and configured to support the filter , a gap is provided between a tip of the projecting support (13r4) and an inner edge of the cover on the other end of the vent (13r2) in the transverse direction of the vent (13r2).
A process for producing a mixture of hydrocarbons, comprising: (i) mixing hydrodeoxygenation (HDO) and hydrodewaxing (HDW) catalysts, wherein the HDO catalyst is selected from the group consisting of NiO/MoO 3 , CoO/MoO 3 , and a mixture of NiO/MoOs and CoO/MoO 3 on a support selected from Al 2 O 3 and Al 2 O 3 -SiO 2 , and the HDW catalyst is NiW on a support selected from Al 2 O 3 , zeolite, zeolite-Al 2 O 3 , and Al 2 O 3 -SiO 2 , (ii) packing the HDO and HDW catalysts in a reactor, which reactor comprises at least two catalyst layers and the catalyst layers consist of the HDO and HDW catalysts or HDW catalyst as the sole catalyst, wherein 1-6 % HDW catalyst is mixed with HDO catalyst and loaded in a topmost section of the reactor and wherein the proportion of HDW catalyst grows towards the bottom of the reactor, (iii) subjecting a feed of biological material into the reactor, (iv) treating the feed material in the reactor at a temperature in the range of 280 to 450°C and under a pressure from 10 to 250 bar, where the WHSV of the feed of biological material varies between 0.1 and 5 and the ratio of the H 2 /feed varies between 600 and 4000 NI/I to produce a mixture of hydrocarbons obtained from the reactor, (v) recovering the mixture of hydrocarbons, and (vi) subjecting the mixture of hydrocarbons to separation into fuel range hydrocarbon fractions. (i) mixing hydrodeoxygenation (HDO) and hydrodewaxing (HDW) catalysts, wherein the HDO catalyst is selected from the group consisting of NiO/MoO 3 , CoO/MoO 3 , and a mixture of NiO/MoOs and CoO/MoO 3 on a support selected from Al 2 O 3 and Al 2 O 3 -SiO 2 , and the HDW catalyst is NiW on a support selected from Al 2 O 3 , zeolite, zeolite-Al 2 O 3 , and Al 2 O 3 -SiO 2 , (ii) packing the HDO and HDW catalysts in a reactor, which reactor comprises at least two catalyst layers and the catalyst layers consist of the HDO and HDW catalysts or HDW catalyst as the sole catalyst, wherein 1-6 % HDW catalyst is mixed with HDO catalyst and loaded in a topmost section of the reactor and wherein the proportion of HDW catalyst grows towards the bottom of the reactor, wherein 1-6 % HDW catalyst is mixed with HDO catalyst and loaded in a topmost section of the reactor and wherein the proportion of HDW catalyst grows towards the bottom of the reactor, (iii) subjecting a feed of biological material into the reactor, (iv) treating the feed material in the reactor at a temperature in the range of 280 to 450°C and under a pressure from 10 to 250 bar, where the WHSV of the feed of biological material varies between 0.1 and 5 and the ratio of the H 2 /feed varies between 600 and 4000 NI/I to produce a mixture of hydrocarbons obtained from the reactor, (v) recovering the mixture of hydrocarbons, and (vi) subjecting the mixture of hydrocarbons to separation into fuel range hydrocarbon fractions.
A payload loading structure (402; 502; 602; 702; 802; 902; 1002) comprising: a landing platform (410; 510; 610; 710; 810; 910; 1010) for an unmanned aerial vehicle, UAV (100; 120; 140; 160; 180; 430; 530; 630; 730; 830; 930), where the UAV comprises a retractable tether (440; 540; 640; 740; 840) coupleable to a payload (460; 560; 960) at a payload coupling apparatus (450; 550; 650; 750; 850) coupled to the retractable tether, wherein the landing platform includes a channel that is a slot in the landing platform; and a tether guide (405; 505; 705; 805; 1005; 1105) coupled to the landing platform, wherein the tether guide is configured to contact the retractable tether that is extended from the UAV so as to direct the extended retractable tether into the channel as the UAV approaches the landing platform such that, when the UAV travels across the landing platform, the retractable tether that is extended from the UAV passes through, and is directed by, a portion of the channel so that the payload coupling apparatus arrives at a target location (490; 690; 890) at which the payload can be loaded to or unloaded from the payload coupling apparatus, wherein the channel runs through the entirety of the landing platform such that, after the payload is loaded to or unloaded from the payload coupling apparatus, the retractable tether that is extended from the UAV passes through the rest of the channel as the UAV departs the payload loading structure. a landing platform (410; 510; 610; 710; 810; 910; 1010) for an unmanned aerial vehicle, UAV (100; 120; 140; 160; 180; 430; 530; 630; 730; 830; 930), where the UAV comprises a retractable tether (440; 540; 640; 740; 840) coupleable to a payload (460; 560; 960) at a payload coupling apparatus (450; 550; 650; 750; 850) coupled to the retractable tether, wherein the landing platform includes a channel that is a slot in the landing platform; and a tether guide (405; 505; 705; 805; 1005; 1105) coupled to the landing platform, wherein the tether guide is configured to contact the retractable tether that is extended from the UAV so as to direct the extended retractable tether into the channel as the UAV approaches the landing platform such that, when the UAV travels across the landing platform, the retractable tether that is extended from the UAV passes through, and is directed by, a portion of the channel so that the payload coupling apparatus arrives at a target location (490; 690; 890) at which the payload can be loaded to or unloaded from the payload coupling apparatus, wherein the channel runs through the entirety of the landing platform such that, after the payload is loaded to or unloaded from the payload coupling apparatus, the retractable tether that is extended from the UAV passes through the rest of the channel as the UAV departs the payload loading structure.
Aircraft propulsion assembly, comprising an engine , a primary structure of a strut and a front engine mount which connects the primary structure and the engine ; the primary structure comprising upper and lower side members (66.1, 66.2), right and left lateral panels (68.1, 68.2) and a front transverse reinforcement , the upper and lower side members (66.1, 66.2) and the right and left lateral panels (68.1, 68.2) comprising front transverse edges ; the front engine mount comprising: - a transverse beam which is connected to the primary structure , - a first connection rod which is connected to the engine by means of at least one first engine connection axle and to the transverse beam by means of at least one first beam connection axle , - a second connection rod which is connected to the engine by means of at least one second engine connection axle and to the transverse beam by means of at least one second beam connection axle , the first and second connection rods converging in the direction of a location which is positioned below the transverse beam , - right and left brackets which are positioned at one side and the other of the primary structure and which each have a first wing (102.1, 104.1) which is connected to the transverse beam and a second wing (102.2, 104.2) which is connected to the primary structure , wherein the transverse beam comprises an upper extension which is at least partially positioned opposite the front transverse reinforcement , at least one first connection element which connects the upper extension and the front transverse reinforcement , right and left lateral extensions which are positioned approximately in a transverse plane at one side and the other of the upper extension and, for each right or left lateral extension , at least one second connection element which connects the right or left lateral extension and the first wing (102.1, 104.1) of the right or left bracket which is positioned approximately in a transverse plane. - a transverse beam which is connected to the primary structure , - a first connection rod which is connected to the engine by means of at least one first engine connection axle and to the transverse beam by means of at least one first beam connection axle , - a second connection rod which is connected to the engine by means of at least one second engine connection axle and to the transverse beam by means of at least one second beam connection axle , the first and second connection rods converging in the direction of a location which is positioned below the transverse beam , - right and left brackets which are positioned at one side and the other of the primary structure and which each have a first wing (102.1, 104.1) which is connected to the transverse beam and a second wing (102.2, 104.2) which is connected to the primary structure ,
A data security platform for processing data signals carried on a telephone call, having a first data interface for receiving and transmitting data signals to and from a first termination over a first data connection , and a second data interface for receiving data signals from a second termination over a second data connection separate from the first data connection, , the data security platform having a connection management system responsive to commands received over the first data connection to establish the second data connection , the second data connection being a telephone connection arranged to carry signals between the second termination and the data security platform routed by way of the first termination , a third data interface for receiving and transmitting data signals to and from a third data connection and in that the connection management system is arranged to generate an output in response to the establishment of the second data connection , and to transmit the output by the third data interface to a terminal over the third data connection independent of the first termination .
A method for feeding card blanks into a device for processing card blanks wherein several card blanks of a first type are provided using at least one hopper , wherein the card blanks are withdrawn one by one from the hopper and supplied to the transport belt which is driven in a cycled manner and passes through the at least one device , characterised in that the at least one hopper containing card blanks of the first type and at least one further hopper containing card blanks of another type are associated with the transport belt on one or both longitudinal sides thereof, in that during a standstill phase of the transport belt , one or several card blanks withdrawn from the hopper (s) are supplied to the transport belt , in that for processing a job, a sequence is determined in which the card blanks are to be supplied to the device and in that the hoppers are activated in accordance with the determined sequence by means of a control device so as to permit the withdrawal of the respective card blanks .
A method, performed by a User Equipment, UE, , for handling Packet Data Convergence Protocol, PDCP, Service Data Units, SDUs, when performing a Dual Active Protocol Stack, DAPS, handover of at least one radio bearer from a source access node to a target access node in a wireless communications network , the method comprising: obtaining a trigger to perform the handover of said at least one radio bearer from the source access node to the target access node , establishing a radio connection for the at least one radio bearer with the target access node , switching an uplink, UL, transmission of PDCP SDUs from the source access node to the target access node over the established radio connection, releasing a radio connection with the source access node , after releasing the radio connection with the source access node , transmitting a PDCP status report to the target access node for each configured radio bearer of the at least one radio bearer, which respective PDCP status report indicates PDCP Sequence Numbers, SNs, of missing PDCP SDUs. obtaining a trigger to perform the handover of said at least one radio bearer from the source access node to the target access node , establishing a radio connection for the at least one radio bearer with the target access node , switching an uplink, UL, transmission of PDCP SDUs from the source access node to the target access node over the established radio connection, releasing a radio connection with the source access node , after releasing the radio connection with the source access node , transmitting a PDCP status report to the target access node for each configured radio bearer of the at least one radio bearer, which respective PDCP status report indicates PDCP Sequence Numbers, SNs, of missing PDCP SDUs.
Assembly of a pneumatic tyre and of a wheel, the pneumatic tyre being fitted to the wheel, characterized in that it comprises first and second self-sealing products housed in the internal volume (V) of the pneumatic tyre , the first self-sealing product, referred to as solid self-sealing product (OS), forming a layer against a predetermined part of the internal surface of the pneumatic tyre , the relative position of this predetermined part in the pneumatic tyre not substantially varying under the effect of gravity, the second self-sealing product, referred to as liquid self-sealing product (OL), being in the liquid form, the relative position of the second product varying under the effect of gravity in the internal volume (V) of the pneumatic tyre in order to make it possible to act simultaneously with the first self-sealing product.
Process for preparing ammonia by electrolysis using at least one electrolysis cell , by a) feeding nitrogen as the first reactant into the electrolysis cell and b) using water or water vapor as the second reactant for the electrolysis, wherein at least one step c) downstream of the electrolysis is provided, in which there is a separation of other components from the ammonia, especially an at least partial separation of one or more components from the group comprising nitrogen, water, argon and hydrogen, characterized in that , in a first device , nitrogen and optionally argon are separated from the product stream removed from the electrolysis cell and, in a further device connected in the flow pathway downstream of the first device , water is separated from the remaining ammonia-containing product stream. a) feeding nitrogen as the first reactant into the electrolysis cell and b) using water or water vapor as the second reactant for the electrolysis,
An electrolyte for an electrochemical device including a first electrode , a second electrode spaced apart from the first electrode and an electrolyte filled between the first electrode and the second electrode , characterized in that the electrolyte comprises a salt form of a carbon quantum dot anion having an average diameter in the range of 2 to 12 nanometers (nm) and a surface potential of -20 mV or less and a metal cation , wherein the size of the carbon quantum dot is measured by an electron microscope.
Method for supporting medical personnel in a procedure on a patient , having the steps - continuously capturing (S3) image data of the patient and of a medical object generated by means of a medical imaging method, - generating and continuously updating (S4) a digital patient model, using the image data, - continuously tracking (S5) a position of the medical object from the image data, - determining (S6) a situational and spatial context in which the medical object is situated by evaluation of the patient model and automatic processing of the image data by means of an image processing algorithm, wherein the situational context can be specified by the type of the respective currently performed procedure, the type of medical object or a status of the patient, - based on the determined context from the patient model, automatically generating (S7) speech data which describes at least part of the determined context in speech form, and - outputting (S8) the speech data to the medical personnel by means of an acoustic speech output and/or as text on a display surface , characterised in that - a catheter is used as the medical object, and - different speech data is generated and classified into different categories dependent upon its content relating to an anatomic feature or the medical object, and - only speech data from selected categories is output. - continuously capturing (S3) image data of the patient and of a medical object generated by means of a medical imaging method, - generating and continuously updating (S4) a digital patient model, using the image data, - continuously tracking (S5) a position of the medical object from the image data, - determining (S6) a situational and spatial context in which the medical object is situated by evaluation of the patient model and automatic processing of the image data by means of an image processing algorithm, wherein the situational context can be specified by the type of the respective currently performed procedure, the type of medical object or a status of the patient, - based on the determined context from the patient model, automatically generating (S7) speech data which describes at least part of the determined context in speech form, and - outputting (S8) the speech data to the medical personnel by means of an acoustic speech output and/or as text on a display surface , characterised in that - a catheter is used as the medical object, and - different speech data is generated and classified into different categories dependent upon its content relating to an anatomic feature or the medical object, and - only speech data from selected categories is output.