mhurhangee/ep-ind-claims huggingface dataset:
A method for managing a key in a mobile device, comprising: receiving, from a counterpart mobile device, a verification message comprising a public key for the counterpart mobile device and a version of a group key for the counterpart mobile device; generating a session key based on the public key for the counterpart mobile device and a private key for the mobile device, in response to verifying that the verification message is valid; encrypting a group key for the mobile device using the session key, wherein a version of the group key for the mobile device is later than the version of the group key for the counterpart mobile device; and transmitting the encrypted group key for the mobile device, to the counterpart mobile device receiving, from a counterpart mobile device, a verification message comprising a public key for the counterpart mobile device and a version of a group key for the counterpart mobile device; generating a session key based on the public key for the counterpart mobile device and a private key for the mobile device, in response to verifying that the verification message is valid; encrypting a group key for the mobile device using the session key, wherein a version of the group key for the mobile device is later than the version of the group key for the counterpart mobile device; and transmitting the encrypted group key for the mobile device, to the counterpart mobile device
A procedure navigation system, comprising: a controller operable to generate a signal; a localizer coil formed of a conductive material; a H-bridge switch system interconnecting the controller and the localizer coil; wherein the localizer coil is operable to transmit a tracking signal from the controller when connected via the H-bridge switch system, wherein the controller is configured to generate a spread spectrum signal operable to include a binary pseudo-noise signal as the tracking signal; wherein the tracking signal is operable to be transmitted by the localizer coil, wherein the localizer coil includes a plurality of localizer coils (200; 200a, 200b); wherein the H-bridge switch system includes a plurality of H-bridge switch systems; wherein each localizer coil (200a, 200b) of the plurality of localizer coils (200; 200a, 200b) is interconnected with the controller by one H-bridge switch system of the plurality of H-bridge switch systems, wherein tracking signals transmitted by the plurality of localizer coils (200; 200a, 200b) are a set of binary near orthogonal signals that include the same binary pseudo-noise signal that is delayed by a different amount for each coil (200; 200a, 200b) of the plurality of localizer coils (200; 200a, 200b). a controller operable to generate a signal; a localizer coil formed of a conductive material; a H-bridge switch system interconnecting the controller and the localizer coil; wherein the localizer coil is operable to transmit a tracking signal from the controller when connected via the H-bridge switch system, wherein the controller is configured to generate a spread spectrum signal operable to include a binary pseudo-noise signal as the tracking signal; wherein the tracking signal is operable to be transmitted by the localizer coil, wherein the localizer coil includes a plurality of localizer coils (200; 200a, 200b); wherein the H-bridge switch system includes a plurality of H-bridge switch systems; wherein each localizer coil (200a, 200b) of the plurality of localizer coils (200; 200a, 200b) is interconnected with the controller by one H-bridge switch system of the plurality of H-bridge switch systems, wherein tracking signals transmitted by the plurality of localizer coils (200; 200a, 200b) are a set of binary near orthogonal signals that include the same binary pseudo-noise signal that is delayed by a different amount for each coil (200; 200a, 200b) of the plurality of localizer coils (200; 200a, 200b).
A lighting device comprising a base, a light aggregate on the base, and a lens member covering the light aggregate and being attached to the base, wherein the lens member has a periphery, wherein the base and the lens member respectively comprise a plurality of mounting holes (27, 25) each having an internal surface, the mounting holes of the lens member being positioned along the periphery of the lens member, whereby mounting holes of the lens member are aligned with mounting holes of the base, and mounting elements (11A, 11B) are extending in respective aligned mounting holes (25, 27) and are being fixed in said mounting holes (25, 27) thereby fixing the lens member to the base, characterized in that each of the mounting elements (11A, 11B), that are positioned within a coherent area extending along at least half of the periphery of the lens member, especially along at least three quarters of the periphery of the lens member, are yielding elements relative to the base and the lens member, said each of the mounting elements (11A, 11B) having a lower Young's modulus than the base and the lens member.
A method for grant-free, GF, transmissions, the method comprising: receiving, by a user equipment, UE, a Radio Resource Control, RRC, signal specifying at least a UE-specific GF radio network temporary identifier, GF-RNTI, wherein the GF-RNTI is different from a cell-RNTI, C-RNTI, for a grant-based initial transmission or retransmission of the grant-based initial transmission; performing, by the UE, a GF uplink, UL, transmission without detection of a downlink control information, DCI, signal for GF resource configuration; receiving an UL grant using the UE-specific GF-RNTI; and performing a retransmission of the GF UL transmission using the UL grant. receiving, by a user equipment, UE, a Radio Resource Control, RRC, signal specifying at least a UE-specific GF radio network temporary identifier, GF-RNTI, wherein the GF-RNTI is different from a cell-RNTI, C-RNTI, for a grant-based initial transmission or retransmission of the grant-based initial transmission; performing, by the UE, a GF uplink, UL, transmission without detection of a downlink control information, DCI, signal for GF resource configuration; receiving an UL grant using the UE-specific GF-RNTI; and performing a retransmission of the GF UL transmission using the UL grant.
A choke configured to attenuate propagation of an electromagnetic wave between a cavity and a door adjacent to an opening of the cavity, wherein the choke comprises: two choke systems (210, 220, 910, 920) arranged in cascade, each choke system comprising a first choke component (216, 226, 915, 925) and a second choke component (218, 228) at least one of said first and second choke components having a mechanical wave attenuating structure and characterised in that the choke has a calculated normalized Z in parameter of 1 or less for at least one frequency that the choke is configured to attenuate. two choke systems (210, 220, 910, 920) arranged in cascade, each choke system comprising a first choke component (216, 226, 915, 925) and a second choke component (218, 228) at least one of said first and second choke components having a mechanical wave attenuating structure and characterised in that the choke has a calculated normalized Z in parameter of 1 or less for at least one frequency that the choke is configured to attenuate.
A press detection apparatus configured to detect a pressing operation that a user performs on a press target, comprising: a measured-value detection unit configured to detect a measured value indicating a pressing force applied by the user to the press target in a predetermined cycle and to output the detected measured value to a definitive-value determination unit; wherein the definitive-value determination unit is configured to determine a definitive value for use in determination on the pressing operation that the user performs based on the measured value detected by the measured-value detection unit, wherein, if a measured value detected by the measured-value detection unit at one timing N has changed by an amount less than a reference amount from a definitive value determined by the definitive-value determination unit itself at a timing N-1 one cycle before the one timing N, the definitive-value determination unit is configured to determine the measured value detected at the one timing N as a definitive value at the one timing N, and wherein, if the measured value detected at the one timing N has changed by an amount equal to or more than the reference amount from the definitive value at the preceding timing N-1, the definitive-value determination unit is configured to determine a value obtained by adding the reference amount to the definitive value at the preceding timing N-1 as the definitive value at the one timing N. a measured-value detection unit configured to detect a measured value indicating a pressing force applied by the user to the press target in a predetermined cycle and to output the detected measured value to a definitive-value determination unit; wherein the definitive-value determination unit is configured to determine a definitive value for use in determination on the pressing operation that the user performs based on the measured value detected by the measured-value detection unit, wherein, if a measured value detected by the measured-value detection unit at one timing N has changed by an amount less than a reference amount from a definitive value determined by the definitive-value determination unit itself at a timing N-1 one cycle before the one timing N, the definitive-value determination unit is configured to determine the measured value detected at the one timing N as a definitive value at the one timing N, and wherein, if the measured value detected at the one timing N has changed by an amount equal to or more than the reference amount from the definitive value at the preceding timing N-1, the definitive-value determination unit is configured to determine a value obtained by adding the reference amount to the definitive value at the preceding timing N-1 as the definitive value at the one timing N.
A sensing device comprising: a housing (100, 1500); a stator (400, 1200) disposed in the housing (100, 1500); and a rotor (500, 1100) disposed in the stator (400, 1200), wherein the stator includes a body and a stator tooth coupled to the body, the housing includes a first surface that corresponds to a bottom surface (43 1a) of the stator tooth, characterized by the fact that the first surface includes a curved surface that protrudes toward the stator tooth adapted to reduce the amount of contact that occurs during contact between the first surface and the bottom surface of the stator tooth. a housing (100, 1500); a stator (400, 1200) disposed in the housing (100, 1500); and a rotor (500, 1100) disposed in the stator (400, 1200), wherein the stator includes a body and a stator tooth coupled to the body, the housing includes a first surface that corresponds to a bottom surface (43 1a) of the stator tooth, characterized by the fact that the first surface includes a curved surface that protrudes toward the stator tooth adapted to reduce the amount of contact that occurs during contact between the first surface and the bottom surface of the stator tooth.
A method for operating a glow plug, the method comprising: controlling a temperature of the glow plug by switching between applying a voltage V H and applying a voltage V N < V H to the glow plug, the applying the voltage V H and the applying the voltage V N causing a glow plug current to oscillate about a glow plug current threshold, the glow plug current threshold being associated with one of the voltage V H and the voltage V N; the method being characterized in that when the glow plug current threshold is associated with the voltage V H, monitoring the glow plug current at the voltage V H; when the glow plug current threshold is associated with the voltage V N, monitoring the glow plug current at the voltage V N; applying the voltage V H when the glow plug current is greater than the glow plug current threshold; and applying the voltage V N when the glow plug current is less than the glow plug current threshold. controlling a temperature of the glow plug by switching between applying a voltage V H and applying a voltage V N < V H to the glow plug, the applying the voltage V H and the applying the voltage V N causing a glow plug current to oscillate about a glow plug current threshold, the glow plug current threshold being associated with one of the voltage V H and the voltage V N; the method being characterized in that when the glow plug current threshold is associated with the voltage V H, monitoring the glow plug current at the voltage V H; when the glow plug current threshold is associated with the voltage V N, monitoring the glow plug current at the voltage V N; applying the voltage V H when the glow plug current is greater than the glow plug current threshold; and applying the voltage V N when the glow plug current is less than the glow plug current threshold.
A reinforced profile, especially a plastic profile, for sash frames, surrounding the filling of the sash frame and comprising an external wall with an oblique wall, a pane-surrounding wall, a middle wall with a recess for window fitting, passing into a seal-mounted wall, and an under-pane wall, an internal wall with an under-strip surface, and a lower wall which surround an interior of the profile with additional chambers (428, 448) and a main chamber in which a reinforcing section is located, whereby the main chamber in the vicinity of a lower region of the internal wall has an additional space located below a level of a front surface of the middle wall and surrounded by the seal-mounted wall and by a vertical wall, and by a horizontal wall of lower internal additional chambers whereby the reinforcing section has an extension of an internal arm, which is located in the additional space below the level of the front surface of the middle wall, and the reinforcing section has a shape of the letter "n", characterized in that the internal arm, of which with the extension with an internal bending not protruding above the middle wall, contacts portions of the vertical wall and of the horizontal wall of the lower internal additional chambers, whereas a length of the extension of the internal arm of the reinforcing section located in the additional space below the level of the front surface of the middle wall is no smaller than 12% of the whole height of the profile, defined by a distance running perpendicularly to an under-pane surface of the under-pane wall between two parallel lines passing through the two most distanced points of the profile, in that a main wall of the reinforcing section contacting the under-pane wall is completed with a multiple bending, in a shape of the letter "z" lying, contacting one of the vertical walls of an external additional chamber, in that the reinforcing section further comprises an offset with a horizontal wall and an oblique wall, whereby the horizontal wall of the offset and the oblique wall of the offset diverge from an upper right corner of the profile, and in that the whole height of the profile amounts from 0.9 to 1.1 of the width of profile defined by the distance between a surface of the external wall and a surface of the internal wall, whereby a height of a part of the profile situated below the front surface of the middle wall amounts from 15% to 35% of the whole height of the profile.
A dynamic searchable symmetric encryption (DSSE) system comprising: a body area network is configured to generate a first symmetric key (r); a health service provider is configured to generate a first search token of keyword (w) using the first symmetric key (r); and a cloud network is communicatively coupled the HSP to the BAN; wherein the BAN is configured to update the first symmetric key (r) to a second symmetric key (r') after the HSP is revoked, the cloud network is configured to recover a second search token using the second symmetric key (r'), wherein the second search token is different from the first search token, wherein the DSSE system further comprises a cloud server, the cloud server is configured to maintain a bloom filter, wherein the BAN is further configured to generate a MAC using a timestamp T and the BF, wherein the DSSE system further comprises a gateway configured to periodically collect data from at least one of HSP and BAN and aggregate the collected data in a single personal health information file, wherein the gateway is further configured to extract keywords from, build an encrypted index with respect to the keywords based on a counter for each of the keywords into, and encrypt the PHI files, wherein the counter indicates the number of the PHI files having the respective keyword, and wherein the gateway is further configured to transmit the PHI file including the encrypted index to the cloud server for storage. a body area network is configured to generate a first symmetric key (r); a health service provider is configured to generate a first search token of keyword (w) using the first symmetric key (r); and a cloud network is communicatively coupled the HSP to the BAN; wherein the BAN is configured to update the first symmetric key (r) to a second symmetric key (r') after the HSP is revoked, the cloud network is configured to recover a second search token using the second symmetric key (r'), wherein the second search token is different from the first search token, wherein the DSSE system further comprises a cloud server, the cloud server is configured to maintain a bloom filter, wherein the BAN is further configured to generate a MAC using a timestamp T and the BF, wherein the DSSE system further comprises a gateway configured to periodically collect data from at least one of HSP and BAN and aggregate the collected data in a single personal health information file, wherein the gateway is further configured to extract keywords from, build an encrypted index with respect to the keywords based on a counter for each of the keywords into, and encrypt the PHI files, wherein the counter indicates the number of the PHI files having the respective keyword, and wherein the gateway is further configured to transmit the PHI file including the encrypted index to the cloud server for storage.
A test circuit for an integrated circuit, "IC", having a plurality of scan chains, the test circuit comprising: a first circuit and a second circuit, the first circuit comprising logic built-in self-test, "LBIST", circuitry and the second circuit comprising scan compressor/decompressor circuitry; and a scan chain router coupled between the first circuit and the plurality of scan chains and coupled between the second circuit and the plurality of scan chains, the scan chain router responsive to an enable signal to: couple the first circuit to each of the plurality of scan chains; or couple the second circuit to one or more concatenated scan chains, where each concatenated scan chain includes a concatenation of two or more of the plurality of scan chains. a first circuit and a second circuit, the first circuit comprising logic built-in self-test, "LBIST", circuitry and the second circuit comprising scan compressor/decompressor circuitry; and a scan chain router coupled between the first circuit and the plurality of scan chains and coupled between the second circuit and the plurality of scan chains, the scan chain router responsive to an enable signal to: couple the first circuit to each of the plurality of scan chains; or couple the second circuit to one or more concatenated scan chains, where each concatenated scan chain includes a concatenation of two or more of the plurality of scan chains.
A mixing impeller comprising multiple blade pairs (10; 10b) each having two blades (101a, 101b; 201a, 201b), wherein the blades (101a, 101b; 201a, 201b) included in the multiple blade pairs (10; 10b) are attached around a rotational shaft extending in a lateral direction, so as to be positioned at a same position in an axial direction of the rotational shaft, the two blades (101a, 101b; 201a, 201b) of each blade pair (10; 10b) each have a shape that is symmetric about a symmetry plane that is a plane perpendicular to the rotational shaft, and the two blades (101a, 101b; 201a, 201b) of each blade pair (10; 10b) are formed so as to extend from the rotational shaft side toward an outer circumferential side, which is a side opposite to the rotational shaft side, and blade outer portions (1012; 1012b) that are on the outer circumferential side are bent toward a side on which the two blades (101a, 101b; 201a, 201b) face each other. wherein the blades (101a, 101b; 201a, 201b) included in the multiple blade pairs (10; 10b) are attached around a rotational shaft extending in a lateral direction, so as to be positioned at a same position in an axial direction of the rotational shaft, the two blades (101a, 101b; 201a, 201b) of each blade pair (10; 10b) each have a shape that is symmetric about a symmetry plane that is a plane perpendicular to the rotational shaft, and the two blades (101a, 101b; 201a, 201b) of each blade pair (10; 10b) are formed so as to extend from the rotational shaft side toward an outer circumferential side, which is a side opposite to the rotational shaft side, and blade outer portions (1012; 1012b) that are on the outer circumferential side are bent toward a side on which the two blades (101a, 101b; 201a, 201b) face each other.
A method for detecting malicious files on a virtual machine in a distributed network, the method comprising: receiving, by a thin client software operating on the virtual machine, data relating to characteristics of computing resources of a plurality of servers in the distributed network, where each of the plurality of servers is configured to perform an antivirus scan of files; based on the received data, calculating, by the thin client software, for each one of the plurality of servers, a speed of performing an antivirus scan based on a measure of central tendency of at least one of: time spent by a plurality of files in a task waiting queue of each server before being scanned, and speed of filling the task waiting queue of each server; obtaining, by the thin client software, at least one file on the virtual machine to be scanned for malicious software; selecting, by the thin client software, based on the calculated speed of performing a scan of each server, one of the plurality of servers to perform the scan of the at least one file; and transmitting, by the thin client software, to the selected server the at least one file to be scanned by the selected server for maliciousness of the at least one file. receiving, by a thin client software operating on the virtual machine, data relating to characteristics of computing resources of a plurality of servers in the distributed network, where each of the plurality of servers is configured to perform an antivirus scan of files; based on the received data, calculating, by the thin client software, for each one of the plurality of servers, a speed of performing an antivirus scan based on a measure of central tendency of at least one of: time spent by a plurality of files in a task waiting queue of each server before being scanned, and speed of filling the task waiting queue of each server; obtaining, by the thin client software, at least one file on the virtual machine to be scanned for malicious software; selecting, by the thin client software, based on the calculated speed of performing a scan of each server, one of the plurality of servers to perform the scan of the at least one file; and transmitting, by the thin client software, to the selected server the at least one file to be scanned by the selected server for maliciousness of the at least one file.