mhurhangee/ep-ind-claims huggingface dataset:
A method for managing stream in media network comprising: receiving a request from a first render device to play a media stored on a source device via the source device; determining corresponding management policy of the media stored on converged media index whether the media can be transmitted to the first render device or not, wherein the converged media index is built by synchronizing local media index; and notifying the source device that the stream can be transmitted to the first render device, if result of the determining step is yes, recieving a request from a second render device to join the streaming while the stream is being transmited to the first render device; notifying identification data of the streaming and source device IP to the second render device; and providing the source device with the identification data of the streaming which was requested for playback on the second render device, and the current play progress point information of the streaming; jumping, by the source device, back to the current play progress point to multicast the remaining contents of the stream, wherein the media is retransferred from the source device through the multicast to the first and second render devices from the current play progress point; and ignoring, if the retransferred content of the media has been buffered locally on the first render device, ignoring the retransferred content by the first render device. receiving a request from a first render device to play a media stored on a source device via the source device; determining corresponding management policy of the media stored on converged media index whether the media can be transmitted to the first render device or not, wherein the converged media index is built by synchronizing local media index; and notifying the source device that the stream can be transmitted to the first render device, if result of the determining step is yes, recieving a request from a second render device to join the streaming while the stream is being transmited to the first render device; notifying identification data of the streaming and source device IP to the second render device; and providing the source device with the identification data of the streaming which was requested for playback on the second render device, and the current play progress point information of the streaming; jumping, by the source device, back to the current play progress point to multicast the remaining contents of the stream, wherein the media is retransferred from the source device through the multicast to the first and second render devices from the current play progress point; and ignoring, if the retransferred content of the media has been buffered locally on the first render device, ignoring the retransferred content by the first render device.
A closed-type blood reservoir comprising: an outer shell (11, 411, 511) in which a blood storage chamber shell (11a, 41a, 51a) and a volume adjustment chamber shell (11b, 41b, 51b) each including a curved, outwardly convex portion are joined together and form a space therewithin; a flexible septum (3, 43, 53) that is interposed between the blood storage chamber shell and the volume adjustment chamber shell, and that divides the space into a blood storage chamber (1, 41, 51) for storing blood and a volume adjustment chamber (2, 42, 52) for storing volume adjustment liquid; a blood inlet port (4, 44, 54), a blood outlet port (5, 45, 55), and a blood storage chamber air discharge port (9, 49, 59), that are provided in the blood storage chamber shell; and a volume adjustment liquid port (8, 48, 58) for injecting and ejecting the volume adjustment liquid and a volume adjustment chamber air discharge port (10, 410, 510) that are provided in the volume adjustment chamber shell; characterized in that part of an inner circumferential portion region of the septum along an outer circumferential edge of the blood storage chamber shell forms a substantially flat portion, and an inner region of the septum that is located inside the flat portion (43a, 53a) is molded such that it can project as a curved surface toward the blood storage chamber shell or the volume adjustment chamber shell. an outer shell (11, 411, 511) in which a blood storage chamber shell (11a, 41a, 51a) and a volume adjustment chamber shell (11b, 41b, 51b) each including a curved, outwardly convex portion are joined together and form a space therewithin; a flexible septum (3, 43, 53) that is interposed between the blood storage chamber shell and the volume adjustment chamber shell, and that divides the space into a blood storage chamber (1, 41, 51) for storing blood and a volume adjustment chamber (2, 42, 52) for storing volume adjustment liquid; a blood inlet port (4, 44, 54), a blood outlet port (5, 45, 55), and a blood storage chamber air discharge port (9, 49, 59), that are provided in the blood storage chamber shell; and a volume adjustment liquid port (8, 48, 58) for injecting and ejecting the volume adjustment liquid and a volume adjustment chamber air discharge port (10, 410, 510) that are provided in the volume adjustment chamber shell; characterized in that part of an inner circumferential portion region of the septum along an outer circumferential edge of the blood storage chamber shell forms a substantially flat portion, and an inner region of the septum that is located inside the flat portion (43a, 53a) is molded such that it can project as a curved surface toward the blood storage chamber shell or the volume adjustment chamber shell.
A control system for a wind power generation apparatus including: a tower portion; a plurality of wind turbine units each including a rotor, a blade which is provided to the rotor, and a generator which generates power using a rotational force of the rotor; and a support member coupled to the tower portion, and configured to support the plurality of wind turbine units, the plurality of wind turbine units including a first wind turbine unit and a second wind turbine unit, the control system comprising: a perturbation addition unit configured to substantially simultaneously add perturbations respectively having different polarities to current set values of predetermined parameters for the first wind turbine unit and the second wind turbine unit; a measuring unit configured to measure respective power generation outputs of the first wind turbine unit and the second wind turbine unit after the perturbations are added; a gradient calculation unit configured to calculate a gradient of the power generation outputs at the current set values; and a correction unit configured to correct the current set values of the predetermined parameters for the first wind turbine unit and the second wind turbine unit such that the gradient increases. a tower portion; a plurality of wind turbine units each including a rotor, a blade which is provided to the rotor, and a generator which generates power using a rotational force of the rotor; and a support member coupled to the tower portion, and configured to support the plurality of wind turbine units, the plurality of wind turbine units including a first wind turbine unit and a second wind turbine unit, the control system comprising: a perturbation addition unit configured to substantially simultaneously add perturbations respectively having different polarities to current set values of predetermined parameters for the first wind turbine unit and the second wind turbine unit; a measuring unit configured to measure respective power generation outputs of the first wind turbine unit and the second wind turbine unit after the perturbations are added; a gradient calculation unit configured to calculate a gradient of the power generation outputs at the current set values; and a correction unit configured to correct the current set values of the predetermined parameters for the first wind turbine unit and the second wind turbine unit such that the gradient increases. a perturbation addition unit configured to substantially simultaneously add perturbations respectively having different polarities to current set values of predetermined parameters for the first wind turbine unit and the second wind turbine unit; a measuring unit configured to measure respective power generation outputs of the first wind turbine unit and the second wind turbine unit after the perturbations are added; a gradient calculation unit configured to calculate a gradient of the power generation outputs at the current set values; and a correction unit configured to correct the current set values of the predetermined parameters for the first wind turbine unit and the second wind turbine unit such that the gradient increases.
A system for obfuscating binary codes, comprising: a memory that stores a set of instructions; and one or more processors configured to execute the set of instructions to: receive a binary file that is a portion of a first kernel image; perform a binary randomization analysis and, based on the analysis, translate the binary file into a middleware format where location and address information are added at runtime; and obfuscate the binary file upon a first boot of a device on which the binary file is deployed, without changing functionality of the binary file; wherein obfuscating the binary file is performed by at least one of reorder basic blocks of the binary file and substitute an instruction of the binary file, wherein each of the basic blocks runs in an entirety without transferring. a memory that stores a set of instructions; and one or more processors configured to execute the set of instructions to: receive a binary file that is a portion of a first kernel image; perform a binary randomization analysis and, based on the analysis, translate the binary file into a middleware format where location and address information are added at runtime; and obfuscate the binary file upon a first boot of a device on which the binary file is deployed, without changing functionality of the binary file; receive a binary file that is a portion of a first kernel image; perform a binary randomization analysis and, based on the analysis, translate the binary file into a middleware format where location and address information are added at runtime; and obfuscate the binary file upon a first boot of a device on which the binary file is deployed, without changing functionality of the binary file; wherein obfuscating the binary file is performed by at least one of reorder basic blocks of the binary file and substitute an instruction of the binary file, wherein each of the basic blocks runs in an entirety without transferring.
A method of fabricating a proximity sensor comprising: mounting a lead within an opening of a substrate; extending a sensor wire extending from the lead through a further opening in the substrate; depositing a base electrically non-conductive layer with a cure in place process onto the substrate and around the sensor wire; and encapsulating the sensor wire within an electrically conductive layer (90, 104) deposited onto the base non-conductive layer with a cure in-place process. mounting a lead within an opening of a substrate; extending a sensor wire extending from the lead through a further opening in the substrate; depositing a base electrically non-conductive layer with a cure in place process onto the substrate and around the sensor wire; and encapsulating the sensor wire within an electrically conductive layer (90, 104) deposited onto the base non-conductive layer with a cure in-place process.
A fitting part of a drive rod fitting for a window or the like, which is provided for the arrangement in a fitting groove having an undercut, which fitting part has a base plate and a holding element connected to the base plate, wherein the holding element is rotatable about a bearing point relative to the base plate from a mounting position, in which the holding element is movable into the fitting groove to behind the undercut, into an operating position, in which the holding element engages behind the undercut, wherein a connection of the base plate to the holding element has a clamping element guided in an elongated hole, that the clamping element pretensions the holding element in the direction of the base plate and that the elongated hole is oriented in the direction of rotation of the holding element, characterized in that the elongated hole is inclined towards one end in a section supporting the clamping element.
A medical procedure system, comprising: a medical instrument configured to be inserted into a body part of a living subject, and comprising: position-tracking transducers configured to provide position signals; a shaft; a distal end; and at least one radiopaque marker; a position tracking sub-system configured to compute a position including at least one location and an orientation of the distal end of the medical instrument in a position-tracking sub-system coordinate frame responsively to the position signals; a fluoroscope configured to capture fluoroscopic images of an interior of the body part and the at least one radiopaque marker of the medical instrument over time; a display; and a registration sub-system configured to: render, to the display, the captured fluoroscopic images including at least one marker-image of the at least one radiopaque marker, and at least one graphical representation indicative of the computed position of the distal end; receive user-alignment input aligning the at least one graphical representation with the at least one marker-image; and register the position-tracking sub-system coordinate frame with a coordinate frame of the fluoroscope responsively to the received user-alignment input. a medical instrument configured to be inserted into a body part of a living subject, and comprising: position-tracking transducers configured to provide position signals; a shaft; a distal end; and at least one radiopaque marker; a position tracking sub-system configured to compute a position including at least one location and an orientation of the distal end of the medical instrument in a position-tracking sub-system coordinate frame responsively to the position signals; a fluoroscope configured to capture fluoroscopic images of an interior of the body part and the at least one radiopaque marker of the medical instrument over time; a display; and a registration sub-system configured to: render, to the display, the captured fluoroscopic images including at least one marker-image of the at least one radiopaque marker, and at least one graphical representation indicative of the computed position of the distal end; receive user-alignment input aligning the at least one graphical representation with the at least one marker-image; and register the position-tracking sub-system coordinate frame with a coordinate frame of the fluoroscope responsively to the received user-alignment input. render, to the display, the captured fluoroscopic images including at least one marker-image of the at least one radiopaque marker, and at least one graphical representation indicative of the computed position of the distal end; receive user-alignment input aligning the at least one graphical representation with the at least one marker-image; and register the position-tracking sub-system coordinate frame with a coordinate frame of the fluoroscope responsively to the received user-alignment input.
A fusion protein comprising: (a) an antigen-presenting cell -binding domain or a CD91 receptor-binding domain, located at the N-terminus of the fusion protein, wherein the APC-binding domain or CD91 receptor-binding domain is selected from the group consisting of receptor-associated protein-1 domain III, alpha-2-macroglobulin receptor-associated protein (A2M), HIV-Tat, heat shock 70kDa protein, and Pseudomonas exotoxin A binding domain la; (b) a protein transduction domain, located at the C-terminus of the APC-binding domain or the CD91 receptor-binding domain, the protein transduction domain is a fusion polypeptide comprising a T cell sensitizing signal-transducing peptide, a linker, and a translocation peptide, wherein: the T cell sensitizing signal-transducing peptide is located at the N-terminus of the fusion polypeptide; the linker comprises SEQ ID NO: 15, linking the T cell sensitizing signal-transducing peptide and the translocation peptide; and the translocation peptide has 34-112 amino acid residues in length and comprises an amino acid sequence consisting of SEQ ID NO: 3, 20 or 4; and (c) an antigen of a pathogen, located at the C-terminus of the protein transduction domain; wherein: the T cell-sensitizing signal-transducing peptide has 28-53 amino acid residues in length and comprises the amino acid sequence of SEQ ID NO: 31, in which Xaa 8 is I or L; Xaa 10 is V, F or A, Xaa 11 is M or L, Xaa 17 is L or I. (a) an antigen-presenting cell -binding domain or a CD91 receptor-binding domain, located at the N-terminus of the fusion protein, wherein the APC-binding domain or CD91 receptor-binding domain is selected from the group consisting of receptor-associated protein-1 domain III, alpha-2-macroglobulin receptor-associated protein (A2M), HIV-Tat, heat shock 70kDa protein, and Pseudomonas exotoxin A binding domain la; (b) a protein transduction domain, located at the C-terminus of the APC-binding domain or the CD91 receptor-binding domain, the protein transduction domain is a fusion polypeptide comprising a T cell sensitizing signal-transducing peptide, a linker, and a translocation peptide, wherein: the T cell sensitizing signal-transducing peptide is located at the N-terminus of the fusion polypeptide; the linker comprises SEQ ID NO: 15, linking the T cell sensitizing signal-transducing peptide and the translocation peptide; and the translocation peptide has 34-112 amino acid residues in length and comprises an amino acid sequence consisting of SEQ ID NO: 3, 20 or 4; and the T cell sensitizing signal-transducing peptide is located at the N-terminus of the fusion polypeptide; the linker comprises SEQ ID NO: 15, linking the T cell sensitizing signal-transducing peptide and the translocation peptide; and the translocation peptide has 34-112 amino acid residues in length and comprises an amino acid sequence consisting of SEQ ID NO: 3, 20 or 4; and (c) an antigen of a pathogen, located at the C-terminus of the protein transduction domain;
A phosphor comprising: an inorganic compound in which an AlON crystal, an AlON solid solution crystal, or an inorganic crystal having a crystal structure identical to the AlON crystal includes at least Mn and an A element (where the A element is Li) and further includes a D element (where the D element is Mg) if necessary, wherein the phosphor emits fluorescence having a peak at a wavelength in a range of 490 nm or longer and 550 nm or shorter upon irradiation of the excitation source.
A digital microphone comprising: a cavity resonator (30, 50) operatable in a micrometer, millimeter, or electromagnetic waveband, the cavity resonator (30, 50) comprising a metal wall and a conductive membrane (32, 52) that vibrates in response to incident acoustic waves and converts the shift of the membrane into a resonance frequency of the cavity resonator; an FM-signal generator (36, 38, 40; 56, 58) that outputs FM signals from the metal wall that are modulated in response to the shift of the membrane (32, 52); and a ΔΣ-modulated-signal generator that generates ΔΣ-modulated signals from the FM signals. a cavity resonator (30, 50) operatable in a micrometer, millimeter, or electromagnetic waveband, the cavity resonator (30, 50) comprising a metal wall and a conductive membrane (32, 52) that vibrates in response to incident acoustic waves and converts the shift of the membrane into a resonance frequency of the cavity resonator; an FM-signal generator (36, 38, 40; 56, 58) that outputs FM signals from the metal wall that are modulated in response to the shift of the membrane (32, 52); and a ΔΣ-modulated-signal generator that generates ΔΣ-modulated signals from the FM signals.
An anti-skid tire stud (3, 3') having a stud body made of polymer-based material, the stud body comprising a top portion comprising polymer-based material having a first color and a bottom portion comprising polymer-based material having a second color which is different from the first color, and the stud (3, 3') further comprising a pin extending out of the top portion for contacting a road.
A method for establishing an authorized communication between a physical object (4, 9, 10) and a communication device (1, 15, 24), wherein said physical object and said communication device comprise both a data processing unit, a contact communication interface (6, 7) and a wide area network interface, the method comprising: - a step of establishing a physical connection between the physical object (4, 9, 10) and the communication device (1, 15, 24) through a contact between the contact communication interface of the physical object and the contact communication interface of the communication device, - a step of transmitting authorization data between the physical object and the communication device through said physical connection to grant access rights over the physical object to the communication device using the authorization data, wherein the access rights enable the communication device to make a write access to protected data of the physical object through the wide area network interface of the physical object and the wide area network interface of the communication device, the protected data comprising an extension module, and wherein the access rights enable the communication device to install a software module in the extension module of the physical object through said wide area network interface, the software module being adapted to provide to the physical object a function associated to the hardware capabilities of the physical object (4, 9, 10). - a step of establishing a physical connection between the physical object (4, 9, 10) and the communication device (1, 15, 24) through a contact between the contact communication interface of the physical object and the contact communication interface of the communication device, - a step of transmitting authorization data between the physical object and the communication device through said physical connection to grant access rights over the physical object to the communication device using the authorization data,
A position sensor comprising two elements (12, 50) that are intended to move with respect to one another, a first of the two elements comprising a component that is sensitive to a magnetic field, characterized in that a second of the two elements comprises two pairs of magnets (51, 52), in that in each of the pairs, the orientation of each of the magnets (55, 56, 57, 58) is alternated, and the polar axes passing through their respective poles are parallel, in that an air gap of a width is formed between the two pairs of magnets (51, 52), the width defining a distance separating the two pairs of magnets (51, 52) and being configured to allow the component to pass there through along an axis (x) that is perpendicular to the axes of the poles of the magnets and in that each magnet of one pair facing a magnet of the other pair and the magnets facing one another having the same orientation.