mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a combination of: a ratio of Aβ1-39 (SEQ ID NO.: 1) level to Aβ1-42 (SEQ ID NO.: 3) level: Aβ1-39/Aβ1-42; and a ratio of APP669-711 (SEQ ID NO.: 4) level to Aβ1-42 (SEQ ID NO.: 3) level: APP669-711/Aβ1-42, in a living body-derived sample, as a marker for determining a cerebral Aβ accumulation state. Aβ1-39/Aβ1-42; and a ratio of APP669-711 (SEQ ID NO.: 4) level to Aβ1-42 (SEQ ID NO.: 3) level: APP669-711/Aβ1-42, in a living body-derived sample, as a marker for determining a cerebral Aβ accumulation state. APP669-711/Aβ1-42, in a living body-derived sample, as a marker for determining a cerebral Aβ accumulation state.
A method performed by a session management function, SMF, in a communication system, the method comprising: determining whether to change a first protocol data unit, PDU, session anchor, PSA, user plane function, UPF, associated with a PDU session; selecting a second PSA UPF for the PDU session, in case that the first PSA UPF is determined to be changed; transmitting, to a terminal via the second PSA UPF, a first message including an internet protocol, IP, prefix associated with the second PSA UPF; and transmitting, to the terminal via the first PSA UPF, a second message including an IP prefix associated with the first PSA UPF and lifetime information on the IP prefix associated with the first PSA UPF, wherein the lifetime information includes a preferred lifetime field for indicating a time until deprecation of the IP prefix associated with the first PSA UPF and a valid lifetime field for indicating a time until invalidation of the IP prefix associated with the first PSA UPF, and wherein the preferred lifetime field is set to zero value. determining whether to change a first protocol data unit, PDU, session anchor, PSA, user plane function, UPF, associated with a PDU session; selecting a second PSA UPF for the PDU session, in case that the first PSA UPF is determined to be changed; transmitting, to a terminal via the second PSA UPF, a first message including an internet protocol, IP, prefix associated with the second PSA UPF; and transmitting, to the terminal via the first PSA UPF, a second message including an IP prefix associated with the first PSA UPF and lifetime information on the IP prefix associated with the first PSA UPF, wherein the lifetime information includes a preferred lifetime field for indicating a time until deprecation of the IP prefix associated with the first PSA UPF and a valid lifetime field for indicating a time until invalidation of the IP prefix associated with the first PSA UPF, and wherein the preferred lifetime field is set to zero value.
Use of a branched primary alcohol of Formula (I), wherein : - n = 0 or 1; - R 1 , R 2 , R 3 and R 4 are linear or branched alkyl groups, identical or different, comprising from 1 to 6 carbon atoms; as an antifoam and/or a defoamer. - n = 0 or 1; - R 1 , R 2 , R 3 and R 4 are linear or branched alkyl groups, identical or different, comprising from 1 to 6 carbon atoms;
Operating fluid container for accommodating an aqueous urea solution for an SCR method, having at least two components which are movable relative to one another and can be brought into contact with the urea solution, the operating fluid container having the following features: - at least one spacer is attached to the first component and/or to the second component , said spacer being arranged between the first component and the second component; - the spacer is only connected to the first component or only connected to the second component; and - the first component can be brought into contact with the second component by means of the spacer, the first component being designed as a hollow valve housing and the second component being designed as a valve body that is positionally variable in the valve housing, it being possible to guide the valve body in the interior of the valve housing by means of the at least one spacer, the first component and the second component having a substantially cylindrical shape with a circular or elliptical cross section, characterized in that the at least one spacer is designed as a spacer pin or in that the at least one spacer is designed as an interrupted ring. - at least one spacer is attached to the first component and/or to the second component , said spacer being arranged between the first component and the second component; - the spacer is only connected to the first component or only connected to the second component; and - the first component can be brought into contact with the second component by means of the spacer, the first component being designed as a hollow valve housing and the second component being designed as a valve body that is positionally variable in the valve housing, it being possible to guide the valve body in the interior of the valve housing by means of the at least one spacer, the first component and the second component having a substantially cylindrical shape with a circular or elliptical cross section, the first component being designed as a hollow valve housing and the second component being designed as a valve body that is positionally variable in the valve housing, it being possible to guide the valve body in the interior of the valve housing by means of the at least one spacer, the first component and the second component having a substantially cylindrical shape with a circular or elliptical cross section,
A nano- or micro-scale therapeutic agent for use in the treatment of an infection of a human or animal comprising micro- and/or nano-particle carriers loaded singly or in combination with one or more inert precursor chemicals comprising a peroxygen donor and an acetyl donor, the carriers encapsulating the precursor chemical or chemicals which in situ at the site of an infection are activated by the physiological milieu such that the peroxygen donor forms hydrogen peroxide and the acetyl donor reacts with the hydrogen peroxide to produce a mixture of peracetic acid and hydrogen peroxide, and characterised in that the particle carriers are comprised of a biodegradable polymer and have been prepared and the precursor chemicals incorporated therein by a process of thermally induced phase separation and freeze-drying.
Cabin protection for a working machine cabin with a first front grid and a second front grid and a front grid receptacle , wherein the front grid receptacle receives the first front grid in the open position and the first front grid rests on the second front grid in the closed position, wherein a roller of the first front grid is arranged in a guide (7.1, 7.2) of the front grid receptacle and wherein the first front grid has the roller at a first end and has an open locking (15.1, 15.2) at a second end , characterized in that , the front grid receptacle has a gas pressure spring which is force-bound in the closed position and is force-released in the open position, that the open locking (15.1, 15.2) has a drive-in ramp with a flat sheet-metal part and a bent sheet-metal part , wherein in the open position the drive-in ramp with the bent sheet-metal part rests on a locking cylinder (16. 1, 16.2) of the front grid receptacle and a spring pin of the open locking (15.1, 15.2) is retracted into an opening of the locking cylinder (16.1, 16.2).
An embolic protection device comprising: a shaft , a first magnet fixedly coupled to a distal portion of the shaft, a second magnet slidingly coupled to the shaft proximal to the first magnet, and a filter including a distal portion coupled to the first magnet and a proximal portion coupled to the second magnet ; wherein the first and second magnets are magnetically attracted to each other such that in a radially compressed configuration of the filter , the second magnet is spaced from the first magnet a first distance, and in a radially expanded configuration of the filter , the second magnet slides towards the first magnet such that the second magnet is spaced a second distance from the first magnet , wherein the second distance is smaller than the first distance. a shaft , a first magnet fixedly coupled to a distal portion of the shaft, a second magnet slidingly coupled to the shaft proximal to the first magnet, and a filter including a distal portion coupled to the first magnet and a proximal portion coupled to the second magnet ; wherein the first and second magnets are magnetically attracted to each other such that in a radially compressed configuration of the filter , the second magnet is spaced from the first magnet a first distance, and in a radially expanded configuration of the filter , the second magnet slides towards the first magnet such that the second magnet is spaced a second distance from the first magnet , wherein the second distance is smaller than the first distance.
A photovoltaic device comprising a PIN structure in which a p-type hole transporting layer is carried by a substrate and a perovskite layer and an n-type electron transporting layer are arranged in sequence on the p-type layer, and a light transmissive electrically conductive layer provided on top of the n-type electron transporting layer to form a light receiving top surface, characterised in that between the n-type electron transporting layer and the light transmissive conductive layer there is provided an interfacial structure comprising two inorganic electrically insulative layers having a layer of a conductive material therebetween, wherein the inorganic electrically insulative layers comprise a material having a band gap of greater than 4.5 eV and the layer of a conductive material comprises a material having a band gap of less than the band gap of the electrically insulative layers wherein each electrically insulative layer forms a type-1 offset junction with the layer of conductive material
Hand-held shaft implement having a guide tube , having an output head , which is attached to an output end of the guide tube , and having an electric drive motor for a tool driven via the output head , wherein the electric drive motor is cooled by a cooling-air stream , wherein, for guiding the cooling-air stream , on that side of the drive motor which is directed away from the output head , a supply-air channel runs in the guide tube to the electric drive motor and an exhaust-air channel runs therein away from the electric drive motor , wherein the electric drive motor has a radially inner rotor and a radially outer stator , wherein an annular gap is formed between the rotor and the stator , and wherein the supply-air channel opens into the annular gap in such a way that the cooling-air stream is directed through the annular gap and the cooling-air stream exiting the annular gap is guided back into the exhaust-air channel along an outer circumferential surface of the stator .
A method performed by a wireless device for handling communication of the wireless device in a multicarrier operation in a wireless communication network , wherein the wireless device is configured with a discontinuous reception cycle and is served by a first serving cell and also served, or expected to be served, by a secondary serving cell, wherein the secondary serving cell is provided on a lean carrier wherein reference signals are transmitted with a bandwidth that is variable between a first bandwidth and a second bandwidth, wherein the second bandwidth is narrower than the first bandwidth, characterized in that the method comprises: - receiving on the secondary serving cell, one or more reference signals assumed by the wireless device to have been transmitted on the secondary serving cell over the second bandwidth; - receiving , on or via the first serving cell, a secondary cell setup command for the secondary serving cell, which secondary cell setup command indicates a state transition of the secondary serving cell for the wireless device ; and upon reception of the secondary cell setup command, - receiving , on the secondary serving cell, one or more reference signals assumed by the wireless device to have been transmitted on the secondary serving cell over the first bandwidth. - receiving on the secondary serving cell, one or more reference signals assumed by the wireless device to have been transmitted on the secondary serving cell over the second bandwidth; - receiving , on or via the first serving cell, a secondary cell setup command for the secondary serving cell, which secondary cell setup command indicates a state transition of the secondary serving cell for the wireless device ; and upon reception of the secondary cell setup command, - receiving , on the secondary serving cell, one or more reference signals assumed by the wireless device to have been transmitted on the secondary serving cell over the first bandwidth.
A method for facilitating roaming tests for an operator in a telecommunication network, the method comprising: detecting by a value added module , a location update message of a subscriber to a Home Location Register, HLR, while switching from a first Mobile Switching Center, MSC / Visiting Location Register, VLR, to a second MSC / VLR ; sending by the value added module , a Restore Subscriber Data, RSD, message to the HLR to relay the subscriber's profile to the second MSC / VLR ; sending by the value added module, a purge message on the subscriber to the HLR ; conducting the roaming tests by the value added module, using the subscriber's profile data obtained from the first MSC / VLR ; sending by the value added module, a cancel location message to the first MSC / VLR to remove the subscriber's profile in the first MSC / VLR ; and generating by the value added module, a location update message to update second MSC / VLR at the HLR . detecting by a value added module , a location update message of a subscriber to a Home Location Register, HLR, while switching from a first Mobile Switching Center, MSC / Visiting Location Register, VLR, to a second MSC / VLR ; sending by the value added module , a Restore Subscriber Data, RSD, message to the HLR to relay the subscriber's profile to the second MSC / VLR ; sending by the value added module, a purge message on the subscriber to the HLR ; conducting the roaming tests by the value added module, using the subscriber's profile data obtained from the first MSC / VLR ; sending by the value added module, a cancel location message to the first MSC / VLR to remove the subscriber's profile in the first MSC / VLR ; and generating by the value added module, a location update message to update second MSC / VLR at the HLR .
A system for managing evacuation of a building , the system comprising: fire detection devices configured to monitor the building for fire ; a positioning and evacuation system configured to track locations of occupants of the building and to direct the evacuation based on information from the fire detection devices; and mobile computing devices of the occupants configured to display individualized evacuation paths from the positioning and evacuation system, wherein the positioning and evacuation system is configured to generate the individualized evacuation paths (/402) based on information from the fire detection devices and to forward the individualized evacuation paths to the occupants, characterised in that the positioning and evacuation system is further configured to prioritize the order in which occupants are evacuated based on an availability of evacuation paths and the occupant's proximity to danger, including routing occupants that are not located in close proximity to the fire on longer evacuation paths than their respective shortest evacuation paths. fire detection devices configured to monitor the building for fire ; a positioning and evacuation system configured to track locations of occupants of the building and to direct the evacuation based on information from the fire detection devices; and mobile computing devices of the occupants configured to display individualized evacuation paths from the positioning and evacuation system, wherein the positioning and evacuation system is configured to generate the individualized evacuation paths (/402) based on information from the fire detection devices and to forward the individualized evacuation paths to the occupants, characterised in that the positioning and evacuation system is further configured to prioritize the order in which occupants are evacuated based on an availability of evacuation paths and the occupant's proximity to danger, including routing occupants that are not located in close proximity to the fire on longer evacuation paths than their respective shortest evacuation paths.
A method for producing a PHA mixture, comprising the step of culturing a microorganism having both of a gene encoding a PHA synthase that synthesizes a copolymer PHA "A" and that is derived from the genus Aeromonas, and a gene encoding a PHA synthase that synthesizes a PHA "B" different in melting point from the copolymer PHA "A" by 10°C or more to produce, in a cell of the microorganism, two or more PHAs different in melting point from one another by 10°C or more simultaneously, wherein the PHA "B" is higher in melting point than the copolymer PHA "A", and the PHA "B" is a polymer containing 3-hydroxybutyric acid in a portion of 99% by mol or more, wherein the gene encoding the PHA synthase that synthesizes the PHA "B" is a gene encoding a PHA synthase derived from the genus Acinetobacter, Aeromonas, Alcaligenes, Allochromatium, Azorhizobium, Azotobacter, Bacillus, Burkholderia, Caulobacter, Chromobacterium, Comamonas, Cupriavidus, Ectothiorhodospira, Klebsiella, Methylobacterium, Paracoccus, Pseudomonas, Ralstonia, Rhizobium, Rhodobacter, Rhodococcus, Rhodospirillum, Rickettsia, Sinorhizobium, Sphingomonas, Synechocystis, Thiococcus, Thiocystis, Vibrio, Wautersia, or Zoogloea, or a gene encoding a protein having a sequence identity of 85% or more to the amino acid sequence shown in SEQ ID NO: 4, and having a PHA synthase activity. wherein the PHA "B" is higher in melting point than the copolymer PHA "A", and the PHA "B" is a polymer containing 3-hydroxybutyric acid in a portion of 99% by mol or more, wherein the gene encoding the PHA synthase that synthesizes the PHA "B" is a gene encoding a PHA synthase derived from the genus Acinetobacter, Aeromonas, Alcaligenes, Allochromatium, Azorhizobium, Azotobacter, Bacillus, Burkholderia, Caulobacter, Chromobacterium, Comamonas, Cupriavidus, Ectothiorhodospira, Klebsiella, Methylobacterium, Paracoccus, Pseudomonas, Ralstonia, Rhizobium, Rhodobacter, Rhodococcus, Rhodospirillum, Rickettsia, Sinorhizobium, Sphingomonas, Synechocystis, Thiococcus, Thiocystis, Vibrio, Wautersia, or Zoogloea, or a gene encoding a protein having a sequence identity of 85% or more to the amino acid sequence shown in SEQ ID NO: 4, and having a PHA synthase activity.
An electromagnetic pump comprising: a conduit comprising an inlet and an outlet ; a first magnetic field generating unit for generating a first magnetic field having a first component with a first direction in the conduit ; a second magnetic field generating unit for generating a second magnetic field having a second component with a second direction in the conduit , the second direction being substantially opposite to the first direction; a piston member disposed within the conduit, the piston member being moveable within the conduit under the influence of the first and/or second magnetic fields to pump fluid received from the inlet of the conduit to the outlet of the conduit , characterised in that , the electromagnetic pump further comprises one or more biasing means for urging the piston member away from one or both of the inlet and the outlet of the conduit and into an equilibrium position between the first magnetic field generating unit and second magnetic field generating unit , wherein the biasing means comprise one or more magnetic members wherein the first magnetic field generating unit and the second magnetic field generating unit are sufficiently proximate to one another that in the equilibrium position, the end portions of the piston member are proximate to the facing end portions of the first and second magnetic field generating units (109; 111). a conduit comprising an inlet and an outlet ; a first magnetic field generating unit for generating a first magnetic field having a first component with a first direction in the conduit ; a second magnetic field generating unit for generating a second magnetic field having a second component with a second direction in the conduit , the second direction being substantially opposite to the first direction; a piston member disposed within the conduit, the piston member being moveable within the conduit under the influence of the first and/or second magnetic fields to pump fluid received from the inlet of the conduit to the outlet of the conduit , characterised in that , the electromagnetic pump further comprises one or more biasing means for urging the piston member away from one or both of the inlet and the outlet of the conduit and into an equilibrium position between the first magnetic field generating unit and second magnetic field generating unit , wherein the biasing means comprise one or more magnetic members wherein the first magnetic field generating unit and the second magnetic field generating unit are sufficiently proximate to one another that in the equilibrium position, the end portions of the piston member are proximate to the facing end portions of the first and second magnetic field generating units (109; 111).
A park lock system comprising - a park lock pawl that is adjustable between a park position in which the park lock pawl is engaged with a park gear and a non-park position in which the park lock pawl is disengaged from the park gear ; - an actuation device for actuating the park lock pawl between the park position and the non-park position; - a mounting bracket that is configured for receiving the park lock pawl and for receiving the actuation device such that, when the park lock pawl and the actuation device are mounted to the mounting bracket , a pre-assembly unit is provided for assembly into a transmission housing , wherein the mounting bracket further is provided with connection elements for connection to the transmission housing ; wherein the mounting bracket comprises at least a first bracket plate and a second bracket plate parallel to the first bracket plate , wherein the park lock pawl is receivable between the first bracket plate and the second bracket plate , wherein the mounting bracket is arranged to receive a park shaft , to which the park lock pawl and the actuation device are mounted, wherein the park shaft is receivable through a hole in the first bracket plate and a corresponding hole in the second bracket plate , wherein the actuation device is connectable to the park shaft at an end of the park shaft extending outwardly from the second bracket plate . - a park lock pawl that is adjustable between a park position in which the park lock pawl is engaged with a park gear and a non-park position in which the park lock pawl is disengaged from the park gear ; - an actuation device for actuating the park lock pawl between the park position and the non-park position; - a mounting bracket that is configured for receiving the park lock pawl and for receiving the actuation device such that, when the park lock pawl and the actuation device are mounted to the mounting bracket , a pre-assembly unit is provided for assembly into a transmission housing , wherein the mounting bracket further is provided with connection elements for connection to the transmission housing ; wherein the mounting bracket comprises at least a first bracket plate and a second bracket plate parallel to the first bracket plate , wherein the park lock pawl is receivable between the first bracket plate and the second bracket plate , wherein the mounting bracket is arranged to receive a park shaft , to which the park lock pawl and the actuation device are mounted, wherein the park shaft is receivable through a hole in the first bracket plate and a corresponding hole in the second bracket plate , wherein the actuation device is connectable to the park shaft at an end of the park shaft extending outwardly from the second bracket plate .