mhurhangee/ep-ind-claims huggingface dataset:
A composition for use in a method for treating cancer comprising a population of mammalian dendritic cells comprising cancer-specific peptides from cancer cells taken from a subject that has a cancer, wherein (a) the cancer-specific peptides are acquired in vitro by dendritic cells from said cancer cells by contacting said cancer cells to said dendritic cells in vitro; (b) the cancer cells are not treated in vitro with interferon-gamma (IFN-gamma) or are not treated in vitro with an IFN-gamma mimetic; (c) the cancer cells are MHC class II-expressing; (d) greater than about 60 percent (%) of said cancer cells that are not treated in vitro with IFN-gamma or IFN-gamma mimetic, are autophagic, and non-apoptotic; (e) the dendritic cells and cancer cells are from the same subject; and (f) the cancer is colon cancer of endoderm origin, renal cancer of mesoderm origin, glioblastoma of ectoderm origin, or ovarian cancer of mixed mesoderm plus extra-embryonic origin. (a) the cancer-specific peptides are acquired in vitro by dendritic cells from said cancer cells by contacting said cancer cells to said dendritic cells in vitro; (b) the cancer cells are not treated in vitro with interferon-gamma (IFN-gamma) or are not treated in vitro with an IFN-gamma mimetic; (c) the cancer cells are MHC class II-expressing; (d) greater than about 60 percent (%) of said cancer cells that are not treated in vitro with IFN-gamma or IFN-gamma mimetic, are autophagic, and non-apoptotic; (e) the dendritic cells and cancer cells are from the same subject; and (f) the cancer is colon cancer of endoderm origin, renal cancer of mesoderm origin, glioblastoma of ectoderm origin, or ovarian cancer of mixed mesoderm plus extra-embryonic origin.
A method for the mobile optical recording of selected surface data of at least one solid body or measurement object on the basis of surface curves or point-like regions thereof and geometrical-mathematical combination of the data to identify essential geometric parameters characteristic of the body and/or their analysis in comparison to reference data, by sequential acquisition and processing of two-dimensional images of the selected surface data on a light-sensitive sensor surface, characterized in that i) for each point or number of points of the curves a vector is defined, the orientation of which is orthogonal to a surface increment located around the point, and ii) a position and an orientation of the sensor surface with respect to the solid body or measurement object at the time of recording of each two-dimensional image are determined with coarse accuracy and used to calculate coarse three-dimensional data for the recorded points or curves and iii) identical curve points are determined from different recording positions and/or recording orientations on the basis of this position and orientation identified with coarse accuracy from the closest lying points of the coarsely positioned or assembled data, or are identified using unique curve features of the surface data and iteratively approximated to one another from the coarse position and orientation data recorded for the purpose, wherein distances between point data of an identical point that corrects the position are minimized, and the normal vectors are parallelized by means of rotations of the normal vectors associated with these point data by an orientation correction of the associated point data set or of the associated curve. i) for each point or number of points of the curves a vector is defined, the orientation of which is orthogonal to a surface increment located around the point, and ii) a position and an orientation of the sensor surface with respect to the solid body or measurement object at the time of recording of each two-dimensional image are determined with coarse accuracy and used to calculate coarse three-dimensional data for the recorded points or curves and iii) identical curve points are determined from different recording positions and/or recording orientations on the basis of this position and orientation identified with coarse accuracy from the closest lying points of the coarsely positioned or assembled data, or are identified using unique curve features of the surface data and iteratively approximated to one another from the coarse position and orientation data recorded for the purpose, wherein distances between point data of an identical point that corrects the position are minimized, and the normal vectors are parallelized by means of rotations of the normal vectors associated with these point data by an orientation correction of the associated point data set or of the associated curve.
A method for observing an object that is positioned in a non-vacuum environment, the method comprising: directing at least one electron beam that is generated in a vacuum environment through at least one aperture sealed by at least one ultra thin membrane towards said object which is positioned in said non-vacuum environment, said at least one ultra thin membrane separating said vacuum environment from said non-vacuum environment; and detecting the results of an interaction between the at least one electron beam and the object, characterized by at least partially filling said non-vacuum environment with Helium whereby the mean free path of electrons therethrough is enhanced to provide enhanced signal to noise ratio for a given separation between said at least one membrane and said object. directing at least one electron beam that is generated in a vacuum environment through at least one aperture sealed by at least one ultra thin membrane towards said object which is positioned in said non-vacuum environment, said at least one ultra thin membrane separating said vacuum environment from said non-vacuum environment; and detecting the results of an interaction between the at least one electron beam and the object,
A communication system, comprising: a cellular base station connected to a core network; and a wireless local area network, WLAN, management apparatus configured to manage one or more WLAN access points, wherein the WLAN management apparatus is used for a cellular-WLAN aggregation in which data of a user terminal is transmitted and received using both a cellular communication and a WLAN communication while the user terminal maintains a radio resource control, RRC, connection with the cellular base station, the cellular base station is configured to transmit, via a direct communication path bypassing the core network and being established between the cellular base station and the WLAN management apparatus, a WLAN addition request to the WLAN management apparatus, the WLAN addition requestincluding: an identifier of the user terminal; bearer identifiers of one or more specific bearers to be used for the cellular-WLAN aggregation; and a tunnel endpoint identifier for transferring data of the user terminal, and the cellular base station is further configured to use the direct communication path to receive a WLAN addition response from the WLAN management apparatus, the WLAN addition response including: a list of bearer identifiers not approved among the bearer identifiers comprised in the WLAN addition request a cellular base station connected to a core network; and a wireless local area network, WLAN, management apparatus configured to manage one or more WLAN access points, wherein the WLAN management apparatus is used for a cellular-WLAN aggregation in which data of a user terminal is transmitted and received using both a cellular communication and a WLAN communication while the user terminal maintains a radio resource control, RRC, connection with the cellular base station, the cellular base station is configured to transmit, via a direct communication path bypassing the core network and being established between the cellular base station and the WLAN management apparatus, a WLAN addition request to the WLAN management apparatus, the WLAN addition requestincluding: an identifier of the user terminal; bearer identifiers of one or more specific bearers to be used for the cellular-WLAN aggregation; and a tunnel endpoint identifier for transferring data of the user terminal, and an identifier of the user terminal; bearer identifiers of one or more specific bearers to be used for the cellular-WLAN aggregation; and a tunnel endpoint identifier for transferring data of the user terminal, and the cellular base station is further configured to use the direct communication path to receive a WLAN addition response from the WLAN management apparatus, the WLAN addition response including: a list of bearer identifiers not approved among the bearer identifiers comprised in the WLAN addition request
Process for producing a tyre carcass for a vehicle tyre with the following steps: a) positioning a carcass drum in front of a first feeding device for placing a first tyre building part, b) winding up the first tyre building part in a first placement position on the rotating carcass drum, c) moving the carcass drum in a vertical direction into at least one further placement position with a respectively assigned feeding device (2, 3, 4, 5, 6, 7) for the placing of tyre building parts, wherein the feeding devices (2, 3, 4, 5, 6, 7) are respectively arranged one over the other in the vertical direction, the carcass drum is moved in the vertical direction by a movable drum lift and individual tyre building parts are successively wound up one over the other at each placement position, d) finishing the tyre carcass on the carcass drum and removing the finished tyre carcass from the carcass drum, e) completing the tyre blank by a conventional production process. a) positioning a carcass drum in front of a first feeding device for placing a first tyre building part, b) winding up the first tyre building part in a first placement position on the rotating carcass drum, c) moving the carcass drum in a vertical direction into at least one further placement position with a respectively assigned feeding device (2, 3, 4, 5, 6, 7) for the placing of tyre building parts, wherein the feeding devices (2, 3, 4, 5, 6, 7) are respectively arranged one over the other in the vertical direction, the carcass drum is moved in the vertical direction by a movable drum lift and individual tyre building parts are successively wound up one over the other at each placement position, d) finishing the tyre carcass on the carcass drum and removing the finished tyre carcass from the carcass drum, e) completing the tyre blank by a conventional production process.
A container-handling installation, comprising at least two conveying elements (161, 162, 163), each having at least one functional element (1619; 1629), which is provided for handling containers, a conveyance path for conveying the at least two conveying elements (161, 162, 163) successively and independently of one another along the conveyance path and by means of conveyance path magnetic force units which are positioned along the conveyance path and which are at least partially separately controllable in order to interact with at least one magnetic force unit (1616, 1617) of the respective conveying element (161, 162, 163), and a bearing unit (1613, 1614; 1623, 1624; 1633, 1634) for each conveying element (161, 162, 163) for mounting the conveying element (161, 162, 163) such that the at least two conveying elements (161, 162, 163) are mounted on a common shaft, characterized in that each conveying element (161, 162, 163) is coupled to a first arm (1611, 1621, 1631) and a second arm (1612, 1622, 1632), at the free end of each arm is positioned a part of the bearing unit (1613, 1614; 1623, 1624; 1633, 1634) of the conveying element (161, 162, 163). at least two conveying elements (161, 162, 163), each having at least one functional element (1619; 1629), which is provided for handling containers, a conveyance path for conveying the at least two conveying elements (161, 162, 163) successively and independently of one another along the conveyance path and by means of conveyance path magnetic force units which are positioned along the conveyance path and which are at least partially separately controllable in order to interact with at least one magnetic force unit (1616, 1617) of the respective conveying element (161, 162, 163), and a bearing unit (1613, 1614; 1623, 1624; 1633, 1634) for each conveying element (161, 162, 163) for mounting the conveying element (161, 162, 163) such that the at least two conveying elements (161, 162, 163) are mounted on a common shaft, characterized in that each conveying element (161, 162, 163) is coupled to a first arm (1611, 1621, 1631) and a second arm (1612, 1622, 1632), at the free end of each arm is positioned a part of the bearing unit (1613, 1614; 1623, 1624; 1633, 1634) of the conveying element (161, 162, 163).
An integrated semiconductor device (100, 200) for measuring a magnetic field strength, comprising: - at least one Hall element configured for providing a Hall signal (Vh) indicative of the magnetic field strength to be measured; - a first lateral isotropic sensor having a first stress sensitivity and a first temperature sensitivity and configured for providing a first sensor signal (Vsens1); - a second lateral isotropic sensor having a second stress sensitivity, and having a second temperature sensitivity and configured for providing a second sensor signal (Vsens2); wherein the first temperature sensitivity is different from the second temperature sensitivity or the first stress sensitivity is different from the second stress sensitivity or both; - digitization means arranged for digitizing the Hall signal and the first sensor signal and the second sensor signal so as to obtain three digital values; - calculation means configured for calculating a stress-compensated and temperature-compensated Hall value (VHcomp) using a predefined correction formula (CF, CFb) in only two parameters being a difference (ΔV1) between said digitized first sensor signal and a digitized output (V1o) of the first sensor measured during calibration and a difference (ΔV2) between said digitized second sensor signal and a digitized output (V2o) of the second sensor measured during calibration. - at least one Hall element configured for providing a Hall signal (Vh) indicative of the magnetic field strength to be measured; - a first lateral isotropic sensor having a first stress sensitivity and a first temperature sensitivity and configured for providing a first sensor signal (Vsens1); - a second lateral isotropic sensor having a second stress sensitivity, and having a second temperature sensitivity and configured for providing a second sensor signal (Vsens2); - digitization means arranged for digitizing the Hall signal and the first sensor signal and the second sensor signal so as to obtain three digital values; - calculation means configured for calculating a stress-compensated and temperature-compensated Hall value (VHcomp) using a predefined correction formula (CF, CFb) in only two parameters being a difference (ΔV1) between said digitized first sensor signal and a digitized output (V1o) of the first sensor measured during calibration and a difference (ΔV2) between said digitized second sensor signal and a digitized output (V2o) of the second sensor measured during calibration.
A radio frequency filter having a cavity structure, the radio frequency filter comprising: a housing configured to have a hollow interior for providing at least one cavity and an open side; a cover configured to shield the open side of the housing; at least one rotatable resonance element positioned in the hollow interior of the housing and having a planar portion and a support fixed to the housing and supporting the planar portion, wherein the planar portion of the at least one rotatable resonance element has at least two through holes configured to be connected to an external driver device for rotating the corresponding resonance element, and the support has a lower end portion formed with a male thread structure for screw fastening, and wherein the housing is formed with a female thread structure to be screw fastened with the male thread structure formed at the lower end portion of the support for fixing the support. a housing configured to have a hollow interior for providing at least one cavity and an open side; a cover configured to shield the open side of the housing; at least one rotatable resonance element positioned in the hollow interior of the housing and having a planar portion and a support fixed to the housing and supporting the planar portion, wherein the planar portion of the at least one rotatable resonance element has at least two through holes configured to be connected to an external driver device for rotating the corresponding resonance element, and the support has a lower end portion formed with a male thread structure for screw fastening, and wherein the housing is formed with a female thread structure to be screw fastened with the male thread structure formed at the lower end portion of the support for fixing the support.
A method for accessing to a mobile communication network, wherein the method is performed by a user terminal, the method comprising: calculating a session matching level for each cell of a serving cell and the adjacent cells of the user terminal which is calculated based on a session type of a session initiated by the user terminal as needed, a session data rate available to the user terminal in said each cell and load balance parameters of said each cell, wherein the load balance parameters include frequency migration factor a c,ss related to a spectrum possessed by said each cell and load of said each cell, and switching factor a c,ho related to a number of switching times for the session in said each cell, wherein the session matching level for each cell comprises an expression of M s,c,u = M rat,s R c,u (1 + a c,ss - a c,ho), wherein M rat,s is a radio access technology, RAT, session support level of the session type in said each cell based on the required session type, and indicates the level of the session type being supported by the RAT employed by said each cell, R c,u is the session data rate available to the user terminal in said each cell, M s,c,u is the session matching level for said each cell; accessing to a cell selected according to the session matching level for said each cell. calculating a session matching level for each cell of a serving cell and the adjacent cells of the user terminal which is calculated based on a session type of a session initiated by the user terminal as needed, a session data rate available to the user terminal in said each cell and load balance parameters of said each cell, wherein the load balance parameters include frequency migration factor a c,ss related to a spectrum possessed by said each cell and load of said each cell, and switching factor a c,ho related to a number of switching times for the session in said each cell, wherein the session matching level for each cell comprises an expression of M s,c,u = M rat,s R c,u (1 + a c,ss - a c,ho), wherein M rat,s is a radio access technology, RAT, session support level of the session type in said each cell based on the required session type, and indicates the level of the session type being supported by the RAT employed by said each cell, R c,u is the session data rate available to the user terminal in said each cell, M s,c,u is the session matching level for said each cell; accessing to a cell selected according to the session matching level for said each cell.
A compound of general formula wherein R 1, R 2 and R 3 are independently of each other selected from: -H, -OH, and -OCH 3; R 4 is selected from -H, -OH, and -OCH 3; R 5 represents and enantiomers, mixtures of enantiomers, diastereoisomers, mixtures of diastereoisomers, hydrates and solvates thereof. R 1, R 2 and R 3 are independently of each other selected from: -H, -OH, and -OCH 3; R 4 is selected from -H, -OH, and -OCH 3; R 5 represents and enantiomers, mixtures of enantiomers, diastereoisomers, mixtures of diastereoisomers, hydrates and solvates thereof.
Apparatus for use in wound therapy of mammals, the apparatus comprising: a dressing covering the wound, the dressing being substantially sealed to prevent free entry and egress of ambient atmospheric air to the wound; aspiration means operably connected to a space between the dressing and the wound by an aspiration conduit sealed to the point of entry between wound and dressing against ingress of ambient atmosphere, said conduit being for aspiration of said wound and for removal of fluid from said space between said wound and said dressing; a waste container for receiving fluid to be discarded operably connected to said aspiration conduit; heating means for heating said aspirated fluid in order to increase the vapour pressure thereof and to cause evaporation to reduce the volume of the fluid in the waste container; and wherein said heating means comprises a resistance heated article wherein the article is a heated weir over which said waste fluid flows. a dressing covering the wound, the dressing being substantially sealed to prevent free entry and egress of ambient atmospheric air to the wound; aspiration means operably connected to a space between the dressing and the wound by an aspiration conduit sealed to the point of entry between wound and dressing against ingress of ambient atmosphere, said conduit being for aspiration of said wound and for removal of fluid from said space between said wound and said dressing; a waste container for receiving fluid to be discarded operably connected to said aspiration conduit; heating means for heating said aspirated fluid in order to increase the vapour pressure thereof and to cause evaporation to reduce the volume of the fluid in the waste container; and wherein said heating means comprises a resistance heated article wherein the article is a heated weir over which said waste fluid flows.
A clay graphite billet slider configured to be disposed within an at least one induction coil for moving a billet through the at least one induction coil supplied with an alternating current with the billet seated on the clay graphite billet slider when moving through the at least one induction coil; the clay graphite biller slider having an interior billet through opening with an interior slider surface for sliding a billet seated on the interior slider surface through the at least one induction coil.
A method of assessing the quality of data signals which are transmitted from a transmitter location to at least one data receiving location, said method including the steps of identifying a known signal data sequence, inserting said known signal data sequence into the transmitted signal or stream of data and wherein a broadcast data receiver (1;2;3) at said at least one receiving location includes detection means to detect whether the known signal data sequence is present or not in the signal received at the receiving location, wherein the method includes the further steps of using a signal sampler which samples at a rate based on prior knowledge, relating to the symbol rate, to generate approximations of the symbols provided as part of the known signal data sequence; using a correlator to generate a correlation between the known symbol values and the symbol approximations; and setting a threshold above which a correlation is determined to represent a match of correlated signals and a modulation error ratio is calculated by the broadcast data receiver using the sample symbol sequence and an ideal representation of the symbol sequence when the threshold is attained and generating an indication of the signal quality and integrity for the data transmission path between the transmitting and receiving locations; and the MER result is transmitted to the transmitting location from the said broadcast data receiver.