mhurhangee/ep-ind-claims huggingface dataset:
A method supporting wireless access to a storage device, which is applied to a mobile routing hotspot device, wherein the mobile routing hotspot device is connected to the storage device by using a universal serial bus, USB interface, and the method comprises: recognizing, by the mobile routing hotspot device, the storage device by using a signal received by the USB interface; obtaining, by the mobile routing hotspot device, file description information and storage addresses of files stored in the storage device, wherein the file description information of the stored files is in a one-to-one correspondence with the storage addresses of the stored files; displaying, by the mobile routing hotspot device, the file description information of the stored files to a user by using a web user interface when the user equipment accesses the mobile routing hotspot device, so that the user equipment sends, according to the description information of the stored files, the access request for accessing the specified file in the storage device; receiving, by the mobile routing hotspot device, an access request that is sent by user equipment in a wireless communications manner and that is for accessing a specified file in the storage device, wherein the access request carries information about the specified file; acquiring, by the mobile routing hotspot device, the specified file in the storage device according to the information about the specified file by using the USB interface; and outputting, by the mobile routing hotspot device, the specified file to the user equipment according to the access request in a wireless communications manner. recognizing, by the mobile routing hotspot device, the storage device by using a signal received by the USB interface; obtaining, by the mobile routing hotspot device, file description information and storage addresses of files stored in the storage device, wherein the file description information of the stored files is in a one-to-one correspondence with the storage addresses of the stored files; displaying, by the mobile routing hotspot device, the file description information of the stored files to a user by using a web user interface when the user equipment accesses the mobile routing hotspot device, so that the user equipment sends, according to the description information of the stored files, the access request for accessing the specified file in the storage device; receiving, by the mobile routing hotspot device, an access request that is sent by user equipment in a wireless communications manner and that is for accessing a specified file in the storage device, wherein the access request carries information about the specified file; acquiring, by the mobile routing hotspot device, the specified file in the storage device according to the information about the specified file by using the USB interface; and outputting, by the mobile routing hotspot device, the specified file to the user equipment according to the access request in a wireless communications manner.
A method of manufacturing a microplasma jet device, the method comprising: forming a mold by patterning a photosensitizer on one surface of a substrate to correspond to a plurality of microfluidic channels to be formed; forming a channel layer by pouring a polymer solution into the mold and curing the polymer solution; separating the channel layer from the mold, characterized by patterning a seed layer on one surface of a first substrate to correspond to a pattern of a first plasma generation electrode to be formed; forming the first plasma generation electrode by plating the seed layer; forming a first insulating layer by polymer coating a surface of the first substrate, in which the first plasma generation electrode is formed; patterning a seed layer on one surface of a second substrate to correspond to a pattern of a second plasma generation electrode to be formed; forming the second plasma generation electrode by plating the seed layer; forming a second insulating layer by polymer coating a surface of the second substrate, in which the second plasma generation electrode is formed; and bonding the first insulating layer, the channel layer, and the second insulating layer to each other, such that the first insulating layer and the second insulating layer insulate the first plasma generation electrode and the second plasma generation electrode from the microfluidic channels with the channel layer. forming a mold by patterning a photosensitizer on one surface of a substrate to correspond to a plurality of microfluidic channels to be formed; forming a channel layer by pouring a polymer solution into the mold and curing the polymer solution; separating the channel layer from the mold, characterized by patterning a seed layer on one surface of a first substrate to correspond to a pattern of a first plasma generation electrode to be formed; forming the first plasma generation electrode by plating the seed layer; forming a first insulating layer by polymer coating a surface of the first substrate, in which the first plasma generation electrode is formed; patterning a seed layer on one surface of a second substrate to correspond to a pattern of a second plasma generation electrode to be formed; forming the second plasma generation electrode by plating the seed layer; forming a second insulating layer by polymer coating a surface of the second substrate, in which the second plasma generation electrode is formed; and bonding the first insulating layer, the channel layer, and the second insulating layer to each other, such that the first insulating layer and the second insulating layer insulate the first plasma generation electrode and the second plasma generation electrode from the microfluidic channels with the channel layer.
Stopper for closing a dispensing opening of a container, the stopper comprising: a body element for closing the dispensing opening, the body element having a top face and a bottom face, the bottom face being directed towards the inside of the container; a moving element which is situated at the top face of the body element, wherein the moving element is movable relative to the body element from an initial position in which the moving element does not extend beyond the outer extension of the top face in the plane of the top face of the body element, to an opening position in which the moving element is moved relative to the body element to extend at least partly beyond the outer extension of the top face of the body element in the plane of the body element, wherein the moving element provides in the opening position, a gripping surface for a user to remove the body element from the dispensing opening, characterized in that the moving element substantially covers the entire top face of the body element in the initial position. a body element for closing the dispensing opening, the body element having a top face and a bottom face, the bottom face being directed towards the inside of the container; a moving element which is situated at the top face of the body element, wherein the moving element is movable relative to the body element from an initial position in which the moving element does not extend beyond the outer extension of the top face in the plane of the top face of the body element, to an opening position in which the moving element is moved relative to the body element to extend at least partly beyond the outer extension of the top face of the body element in the plane of the body element, wherein the moving element provides in the opening position, a gripping surface for a user to remove the body element from the dispensing opening, characterized in that the moving element substantially covers the entire top face of the body element in the initial position.
A method for providing access to operation information relating to an encoded digital television signal, the encoded digital television signal is encoded in accordance with a layered encoding scheme, in a plurality of layers comprising a first layer comprising an elementary video stream and a second layer comprising a transport stream, the elementary video stream is encapsulated in the transport stream the method comprising: utilizing operation information from a data section of the digital television signal to perform a trick mode operation on the first layer, the operation information comprising at least one of: a location and type of access unit; timing information; and video decoding information, the data section having been produced by: extracting operation information from the elementary video stream; and recording a copy of the operation information in a private data section of an adaptation field in the transport stream, the private data section being not subject to encryption; and placing the copy of the operation information in a retrieval area, wherein the operation information is suitable for performing a trick mode operation on the first layer. utilizing operation information from a data section of the digital television signal to perform a trick mode operation on the first layer, the operation information comprising at least one of: a location and type of access unit; timing information; and video decoding information, a location and type of access unit; timing information; and video decoding information, the data section having been produced by: extracting operation information from the elementary video stream; and recording a copy of the operation information in a private data section of an adaptation field in the transport stream, the private data section being not subject to encryption; and extracting operation information from the elementary video stream; and recording a copy of the operation information in a private data section of an adaptation field in the transport stream, the private data section being not subject to encryption; and placing the copy of the operation information in a retrieval area, wherein the operation information is suitable for performing a trick mode operation on the first layer.
An integrating gene transfer vector (IGTV) which comprises one genetic insulator element, wherein said GIE consists of two or four copies of the CTF binding site of SEQ ID NO: 26, and wherein said GIE is disposed such that following genomic insertion of the IGTV, the GIE is disposed between a genomic sequence and the coding sequences of the IGTV.
Method for improving the data rate for mobile receivers in an ATSC-M/H transport data stream and for improving the quality of channel estimation in the ATSC-M/H transport data stream comprising: marking a specified number of N consecutively transmitted transport data packets originally containing data for stationary receivers in a slot of an uncoded ATSC-M/H transport data stream for the transmission of data for mobile receivers, inserting data for mobile receivers in the marked transport data packets, coding said data and introducing training sequences in segments of data fields of the uncoded ATSC-M/H transport data stream containing the marked transport data packets, wherein, said data for mobile receivers are inserted symmetrically to the center of said N consecutively transmitted transport data packets and are separated from M transport data packets of the actual or a subsequent slot containing each data for mobile receivers by at least one transport data packet. marking a specified number of N consecutively transmitted transport data packets originally containing data for stationary receivers in a slot of an uncoded ATSC-M/H transport data stream for the transmission of data for mobile receivers, inserting data for mobile receivers in the marked transport data packets, coding said data and introducing training sequences in segments of data fields of the uncoded ATSC-M/H transport data stream containing the marked transport data packets, wherein, said data for mobile receivers are inserted symmetrically to the center of said N consecutively transmitted transport data packets and are separated from M transport data packets of the actual or a subsequent slot containing each data for mobile receivers by at least one transport data packet.
A method for operating a vehicle, in particular a commercial vehicle, wherein the vehicle has a first fuel storage device, in particular a fuel tank, in which a primary fuel, in particular a diesel fuel, for operating an internal combustion engine, in particular a diesel engine, of the vehicle is stored, and wherein the vehicle has a second fuel storage device, in particular a fuel tank, in which an oxygenate fuel, having a higher oxygen content than the primary fuel, is stored as a secondary fuel for operating the internal combustion engine, characterized in that a closed-loop and/or open-loop control device is provided by means of which the quantity ratio of the primary and secondary fuels (4, 8) fed to a combustion chamber of the internal combustion engine is closed-loop and/or open-loop controlled as a function of a current and/or future increase in the total fuel injection quantity into the combustion chamber.
A process for the preparation of monodisperse particles for use as Ugelstad seed particles, the process comprising an emulsion polymerisation process comprising: forming an aqueous dispersion comprising a vinylic monomer and a water soluble polymerisation initiator; and agitating until the commencement of particle nucleation; characterised in that: the aqueous dispersion comprises a surfactant and a chain transfer agent is added after the commencement of particle nucleation, such that the polymerisation forms monodisperse seed particles having a z-average diameter of from 50 nm to 200 nm and, when measured by gel permeation chromatography, the polymer has a mean weight average molecular weight of more than 1,000 and less than 70'000 forming an aqueous dispersion comprising a vinylic monomer and a water soluble polymerisation initiator; and agitating until the commencement of particle nucleation; characterised in that: the aqueous dispersion comprises a surfactant and a chain transfer agent is added after the commencement of particle nucleation, such that the polymerisation forms monodisperse seed particles having a z-average diameter of from 50 nm to 200 nm and, when measured by gel permeation chromatography, the polymer has a mean weight average molecular weight of more than 1,000 and less than 70'000 the aqueous dispersion comprises a surfactant and a chain transfer agent is added after the commencement of particle nucleation, such that the polymerisation forms monodisperse seed particles having a z-average diameter of from 50 nm to 200 nm and, when measured by gel permeation chromatography, the polymer has a mean weight average molecular weight of more than 1,000 and less than 70'000
A semiconductor device comprising: a plurality of memory modules (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0 MDLm1, MDLmr) disposed on a semiconductor substrate, the memory modules each being controlled in terms of setting into and exiting a low power consumption mode by a control signal, wherein the memory modules (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0, MDLm1, MDLmr) belong to a memory block (BLKO, BLKI, BLKm). wherein the control signal is inputted in parallel to the memory modules (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0, MDLm1, MDLmr) belonging to the same memory block (BLK0, BLK1, BLKm)via an upstream outside-of-module path and is transmitted via an inside-of-module path and, wherein the control signal is outputted by a particular memory module of the memory modules (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0, MDLm1, MDLmr) via the inside-of-module path and to a downstream outside-of-module path, characterized in that: the particular memory module is a memory module (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0 MDLm1, MDLmr) having the largest storage capacity in the memory block (BLKO, BLKI, BLKm) to which the particular memory module belongs. a plurality of memory modules (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0 MDLm1, MDLmr) disposed on a semiconductor substrate, the memory modules each being controlled in terms of setting into and exiting a low power consumption mode by a control signal, wherein the memory modules (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0, MDLm1, MDLmr) belong to a memory block (BLKO, BLKI, BLKm). wherein the control signal is inputted in parallel to the memory modules (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0, MDLm1, MDLmr) belonging to the same memory block (BLK0, BLK1, BLKm)via an upstream outside-of-module path and is transmitted via an inside-of-module path and, wherein the control signal is outputted by a particular memory module of the memory modules (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0, MDLm1, MDLmr) via the inside-of-module path and to a downstream outside-of-module path, characterized in that: the particular memory module is a memory module (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0 MDLm1, MDLmr) having the largest storage capacity in the memory block (BLKO, BLKI, BLKm) to which the particular memory module belongs. the particular memory module is a memory module (MDL00, MDL01, MDL10, MDL11, MDL1q, MDLm0 MDLm1, MDLmr) having the largest storage capacity in the memory block (BLKO, BLKI, BLKm) to which the particular memory module belongs.
Thermal battery comprising an enclosure comprising a fluid inlet and a fluid outlet and comprising, within it, a phase-change material encapsulated in the form of at least one tube, at least one tube being spiral-wound within the enclosure, characterized in that said spiral-winding of the tube is performed around a winding axis parallel to the flow of circulation of the fluid within said thermal battery and comprises a central part along the winding axis, said central part comprising longitudinal tubes of encapsulated phase-change material.
A humanized anti-α2 integrin antibody comprising: (i) a heavy chain variable region comprising the amino acid sequence of (a) HCDR1 (GFSLTNYGIH, SEQ ID NO:1), (b) HCDR2 (VIWARGFTNYNSALMS, SEQ ID NO:2) and (c) HCDR3 (ANDGVYYAMDY, SEQ ID NO:3); and (ii) a light chain variable region comprising the amino acid sequence of (a) an LCDR1 selected from SANSSVNYIH (SEQ ID NO:4) or SAQSSVNYIH (SEQ ID NO:112), (b) LCDR2 (DTSKLAS; SEQ ID NO:5) and (c) LCDR3 (QQWTTNPLT, SEQ ID NO:6). (i) a heavy chain variable region comprising the amino acid sequence of (a) HCDR1 (GFSLTNYGIH, SEQ ID NO:1), (b) HCDR2 (VIWARGFTNYNSALMS, SEQ ID NO:2) and (c) HCDR3 (ANDGVYYAMDY, SEQ ID NO:3); and (ii) a light chain variable region comprising the amino acid sequence of (a) an LCDR1 selected from SANSSVNYIH (SEQ ID NO:4) or SAQSSVNYIH (SEQ ID NO:112), (b) LCDR2 (DTSKLAS; SEQ ID NO:5) and (c) LCDR3 (QQWTTNPLT, SEQ ID NO:6).
A heart stimulator having an electric input that is connected to a plurality of electrodes (18, 20, 22, 24, 31, 32, 33, 34, 36, 38, 40), said heart stimulator comprising a stimulation control unit, one or more stimulation units (50, 52, 54), an impedance determination unit and an impedance evaluation unit, said one or more stimulation units (50, 52, 54) being configured to generate stimulation pulses and to deliver a stimulation pulse when triggered by said stimulation control unit, said stimulation control unit being operatively connected to said one or more stimulation units (50, 52, 54) to control parameters such as pacing site and/or timing of stimulation pulses to be delivered by said one or more stimulation units (50, 52, 54), said impedance determination unit being configured to determine impedance values reflecting intracardiac impedance, and said impedance evaluation unit being configured to evaluate said impedance values and to provide an evaluated impedance signal to said stimulation control unit, wherein said impedance determination unit is configured to determine a plurality of impedance values between different pairs of electrodes (18, 20, 22, 24, 31, 32, 33, 34, 36, 38, 40) connected to said electric input and wherein said impedance evaluation unit is configured to generate a mathematical combination of said impedance values between different pairs of electrodes connected to said electric input and wherein said stimulation control unit is configured to determine respective pacing sites and/or timing of stimulation pulses depending on said mathematical combination, characterized in that the impedance evaluation unit is configured to generate said mathematical combination of said impedance values as impedance vectors in a geometric manner, wherein the impedance determination unit is configured to determine impedance values via pairs of electrodes such that the area encompassed by the respective impedance vectors is maximized.
A probe, comprising: an insertion tube; a distal electrode; a proximal electrode; a force sensor between the insertion tube and the distal electrode, the force sensor having a coupling member with a proximal portion with a central space and a proximal opening with a slot, the force sensor configured to measure a force on the distal electrode; a diverter positioned in the slot, the diverter having a proximal entry opening and a distal exit opening, the diverter having a fluid passage with a radial branch and an axial branch; and a first tubing extending from a proximal end of the insertion tube to the proximal entry opening of the diverter, the first tubing configured to supply irrigation fluid to the fluid passage, wherein the proximal electrode is mounted on the proximal portion of the force sensor, and is positioned over the distal exit opening. characterized in that the diverter has an outer surface with an indent formation that extends around a peripheral edge of the outer surface. an insertion tube; a distal electrode; a proximal electrode; a force sensor between the insertion tube and the distal electrode, the force sensor having a coupling member with a proximal portion with a central space and a proximal opening with a slot, the force sensor configured to measure a force on the distal electrode; a diverter positioned in the slot, the diverter having a proximal entry opening and a distal exit opening, the diverter having a fluid passage with a radial branch and an axial branch; and a first tubing extending from a proximal end of the insertion tube to the proximal entry opening of the diverter, the first tubing configured to supply irrigation fluid to the fluid passage, wherein the proximal electrode is mounted on the proximal portion of the force sensor, and is positioned over the distal exit opening. characterized in that the diverter has an outer surface with an indent formation that extends around a peripheral edge of the outer surface.
Method for arranging a bed consisting of particles (8, 9) in a burner basket of an ammonia oxidation burner, through which basket a gas can flow, where the particles (8, 9) are arranged in such a way that the bed has a greater flow resistance in a peripheral region of the burner than in an interior region of the burner basket, characterized in that a separation device which separates the peripheral region from the interior region is introduced into the burner basket.
A device for vibration damping in a transmission with two pivoted components (1, 4), a bearing support which is fixed with respect to the two pivoted components (1, 4) and damping elements (12, 13, 14, 15) for damping transmission of rotary motion between the two pivoted components (1, 4), characterised in that the bearing support is a tensioning arm and that provided between each of the two pivoted components (1, 4) and the tensioning arm fixed with respect to them is a rotary bearing (2, 5) with which the respective component (1, 4) is mounted on the fixed tensioning arm independently of the other component (1, 4).