mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a data frame performed by a first device, the method comprising: • obtaining a transmission pattern of a second device occupying an unlicensed carrier, wherein the second device is all devices occupying the unlicensed carrier; • determining, according to the transmission pattern of the second device, for each device of the second device a ratio of the unlicensed carrier occupied by the device, and selecting some or all time resources occupied by such a device that occupies a highest ratio of the unlicensed carrier to transmit occupied data frames of the first device on the unlicensed carrier, so as to determine a transmission pattern of the first device, wherein the transmission pattern comprises a quantity and positions of occupied data frames and a quantity and positions of idle data frames in one transmission period; and • occupying the unlicensed carrier according to the transmission pattern of the first device, to transmit a data frame of the first device. • obtaining a transmission pattern of a second device occupying an unlicensed carrier, wherein the second device is all devices occupying the unlicensed carrier; • determining, according to the transmission pattern of the second device, for each device of the second device a ratio of the unlicensed carrier occupied by the device, and selecting some or all time resources occupied by such a device that occupies a highest ratio of the unlicensed carrier to transmit occupied data frames of the first device on the unlicensed carrier, so as to determine a transmission pattern of the first device, wherein the transmission pattern comprises a quantity and positions of occupied data frames and a quantity and positions of idle data frames in one transmission period; and • occupying the unlicensed carrier according to the transmission pattern of the first device, to transmit a data frame of the first device.
A thermoformed web comprising a polymer film and having an array of thermoformed cavities contained therein, wherein the polymer film comprises a polymer blend of amorphous polyethylene terephthalate (APET) and a copolyester that comprises (a) dicarboxylic acid residues comprising polyethylene terephthalate residues and (b) diol residues comprising (i) ethylene glycol residues and (ii) one or more additional diol monomer residues, wherein the polymer film has a crystallization time of at least 2.5 minutes at an isothermal crystallization temperature of 120°C as measured by a DSC method as defined in the description, wherein the polymer film exhibits a shrinkage of less than 4% at temperatures up to 120°C.
An explosives detonator system for detonating an explosive charge with which it is, in use, arranged in a detonating relationship and which, on operative acceptance of a detonation initiating signal that has a detonation initiating property, is capable of initiating and thus detonating the explosive charge, the detonator system including an initiating device which is capable of accepting the detonation initiating signal and of initiating and thus detonating the explosive charge, the initiating device (11 a) being in a non-detonation initiating condition in which it cannot operatively accept the detonation initiating signal and thus assume a detonator initiating condition when the detonation initiating signal is transmitted thereto; and a switching device that is capable of detecting a switching property of a switching signal that is transmitted to the detonator system, with the switching device being capable of switching the initiating device (11 a), on detection of the switching property, to a standby condition in which the initiating device is capable of operatively accepting the detonation initiating signal when it is transmitted thereto, characterised in that the switching property is a chemical compositional component.
A switch module, comprising: a transistor switch including a control terminal, a first load terminal and a second load terminal, a short circuit detection circuit configured to detect a short circuit state between the first load terminal and the second load terminal and to switch the transistor switch off by switching on a transistor to electrically couple the control terminal to the first load terminal in response to detecting the short circuit state, wherein the short circuit detection circuit is configured to be supplied with power by a voltage applied between the control terminal and the first load terminal when the voltage applied between the control terminal and the first load terminal is high enough to switch the transistor switch on, wherein the short circuit detection circuit is configured to measure a current through the transistor switch between the first and second load terminals and to detect the short circuit state if the current exceeds a predefined threshold. a transistor switch including a control terminal, a first load terminal and a second load terminal, a short circuit detection circuit configured to detect a short circuit state between the first load terminal and the second load terminal and to switch the transistor switch off by switching on a transistor to electrically couple the control terminal to the first load terminal in response to detecting the short circuit state, wherein the short circuit detection circuit is configured to be supplied with power by a voltage applied between the control terminal and the first load terminal when the voltage applied between the control terminal and the first load terminal is high enough to switch the transistor switch on, wherein the short circuit detection circuit is configured to measure a current through the transistor switch between the first and second load terminals and to detect the short circuit state if the current exceeds a predefined threshold.
A computer-implemented method for an execution service invocation protocol in a secure multiparty computing system, the method comprising: receiving, at a gateway of a server from a user device of a user over a network, a request to process user data by the execution service and a UUID identifying the user data on a RAM disk file system, RAMFS of the server; in response to the request, retrieving, by the gateway, the user data from the RAMFS using the UUID, decrypting, by the gateway, the user data, sanitizing, by the gateway, the user data by scanning the user data for malicious code; selecting, by the gateway, a trusted execution environment, TEE, worker that is registered at the gateway for the execution service to service the user request from a plurality of TEE workers, and initiating, by the selected TEE worker, an execution of the execution service using the user data after sanitizing to obtain execution results; receiving, by the gateway, the execution results from the selected TEE worker; encrypting and saving, by the gateway, a copy of the execution results to the RAMFS; and transmitting, by the gateway, the execution results to the user device of the user over the network. receiving, at a gateway of a server from a user device of a user over a network, a request to process user data by the execution service and a UUID identifying the user data on a RAM disk file system, RAMFS of the server; in response to the request, retrieving, by the gateway, the user data from the RAMFS using the UUID, decrypting, by the gateway, the user data, sanitizing, by the gateway, the user data by scanning the user data for malicious code; selecting, by the gateway, a trusted execution environment, TEE, worker that is registered at the gateway for the execution service to service the user request from a plurality of TEE workers, and initiating, by the selected TEE worker, an execution of the execution service using the user data after sanitizing to obtain execution results; receiving, by the gateway, the execution results from the selected TEE worker; encrypting and saving, by the gateway, a copy of the execution results to the RAMFS; and transmitting, by the gateway, the execution results to the user device of the user over the network.
Moulded body for receiving a skull on a support surface, which is substantially ringshaped and preferably open, wherein a. at least in one section, the contour of the cross-section of the moulded body has a half ellipse inclined relative to the support surface and b. at least in one section, the contour of the cross-section of the moulded body is asymmetrical, wherein at least in one section, the contour of the cross-section of the moulded body has a convex support surface, which surface is the surface of the moulded body that points substantially inwards, i.e. towards the centre of the moulded body, or is inclined towards it, and on which the head rests, wherein at least in one section, the enclosed angle between the support surface and a mean tangent on an outwardly facing part of the cross-section of the moulded body is greater than the enclosed angle between the support surface and a mean tangent on an inwardly facing part of the cross-section of the moulded body, characterized in that the major semi-axis of the half ellipse is inclined by 25° to 50° relative to the support surface and the enclosed angle on the outwardly facing part of the cross-section is 65° to 90°, preferably 70° to 80°, and the enclosed angle on the inwardly facing part of the cross-section is less than or equal to 60°, preferably less than or equal to 50°, preferably 30° to 42°, more preferably 35° to 40°. a. at least in one section, the contour of the cross-section of the moulded body has a half ellipse inclined relative to the support surface and b. at least in one section, the contour of the cross-section of the moulded body is asymmetrical, wherein at least in one section, the contour of the cross-section of the moulded body has a convex support surface, which surface is the surface of the moulded body that points substantially inwards, i.e. towards the centre of the moulded body, or is inclined towards it, and on which the head rests, wherein at least in one section, the enclosed angle between the support surface and a mean tangent on an outwardly facing part of the cross-section of the moulded body is greater than the enclosed angle between the support surface and a mean tangent on an inwardly facing part of the cross-section of the moulded body, characterized in that the major semi-axis of the half ellipse is inclined by 25° to 50° relative to the support surface and the enclosed angle on the outwardly facing part of the cross-section is 65° to 90°, preferably 70° to 80°, and the enclosed angle on the inwardly facing part of the cross-section is less than or equal to 60°, preferably less than or equal to 50°, preferably 30° to 42°, more preferably 35° to 40°.
An in vitro method of culturing a segmented filamentous bacterium strain, comprising co-culturing said SFB strain with a vertebrate host cell, wherein the culture is performed at an O 2 level inferior to 5% in a rich tissue culture liquid medium containing bacterial medium components including iron at a concentration between 0.015 and 0.05 mM.
A method for operating a mobile device, the mobile device comprising an interface unit for interfacing to a cellular communication network comprising a plurality of cells (12, 13), and for interfacing directly to another mobile device within a transmission range of the mobile device enabling a direct communication between the mobile device and the other mobile device, the method comprising the steps of: - detecting, by the mobile device, at least one reachable cell of the communication network within the transmission range of the mobile device, characterized by - transmitting a cell information concerning the at least one cell to the other mobile device via the direct communication between the mobile device and the other mobile device. - detecting, by the mobile device, at least one reachable cell of the communication network within the transmission range of the mobile device, characterized by - transmitting a cell information concerning the at least one cell to the other mobile device via the direct communication between the mobile device and the other mobile device.
A circuit to control a printer dryer, the circuit comprising: a pulse generator (130, 230, 310) to generate an output pulse (134, 234) in response to a signal (110, 210) representing rotation of a fan, a timing relationship between output pulses representing speed of the fan; a filter circuit (140, 240, 320) to convert the output pulse to a direct current voltage signal (144, 244) proportional to the speed of the fan; and a monitor circuit (150, 250, 330) to monitor the DC voltage signal with respect to a predetermined fan speed threshold and to generate a control signal (120, 254) that disables the printer dryer if the DC signal does not satisfy the predetermined fan speed threshold. a pulse generator (130, 230, 310) to generate an output pulse (134, 234) in response to a signal (110, 210) representing rotation of a fan, a timing relationship between output pulses representing speed of the fan; a filter circuit (140, 240, 320) to convert the output pulse to a direct current voltage signal (144, 244) proportional to the speed of the fan; and a monitor circuit (150, 250, 330) to monitor the DC voltage signal with respect to a predetermined fan speed threshold and to generate a control signal (120, 254) that
An integrated circuit device comprising at least one digital signal processor module, the at least one DSP module comprising a first data register and at least one further data register and at least one data execution unit module arranged to execute operations on target data stored within the first data register and the at least one further data register; characterized in that the at least one DEU module is arranged, upon receipt of a conditional negation instruction, said conditional negation instruction being an instruction to perform a conditional negation of a data value, to: retrieve at least one conditional bit value (225, 325) from the first data register; and conditionally perform negation of target data within the at least one further data register according to the retrieved at least one conditional bit value (225, 325), wherein the at least one DEU module is further arranged, upon receipt of the conditional negation instruction, to: extract a conditional bit vector seed value from the received conditional negation instruction; generate a plurality of conditional bit vector values (322, 324, 326, 328) based at least partly on the conditional bit vector seed value; retrieve a plurality of conditional bit values (225, 325) from the first data register in accordance with the plurality of conditional bit vector values (322, 324, 326, 328); and conditionally perform negation of a plurality of target data blocks (332, 324, 326, 328) within the at least one further data register according to the retrieved conditional bit values (225, 325). retrieve at least one conditional bit value (225, 325) from the first data register; and conditionally perform negation of target data within the at least one further data register according to the retrieved at least one conditional bit value (225, 325), wherein the at least one DEU module is further arranged, upon receipt of the conditional negation instruction, to: extract a conditional bit vector seed value from the received conditional negation instruction; generate a plurality of conditional bit vector values (322, 324, 326, 328) based at least partly on the conditional bit vector seed value; retrieve a plurality of conditional bit values (225, 325) from the first data register in accordance with the plurality of conditional bit vector values (322, 324, 326, 328); and conditionally perform negation of a plurality of target data blocks (332, 324, 326, 328) within the at least one further data register according to the retrieved conditional bit values (225, 325). extract a conditional bit vector seed value from the received conditional negation instruction; generate a plurality of conditional bit vector values (322, 324, 326, 328) based at least partly on the conditional bit vector seed value; retrieve a plurality of conditional bit values (225, 325) from the first data register in accordance with the plurality of conditional bit vector values (322, 324, 326, 328); and conditionally perform negation of a plurality of target data blocks (332, 324, 326, 328) within the at least one further data register according to the retrieved conditional bit values (225, 325).
Method for connecting flm track ends of a first film track and a second film track, wherein the two film tracks provide a transfer film and comprise a carrier film and a decorative layer, in particular metal layer and/or colour layer, wherein the connection takes place by means of an adhesive (15, 8, 92, 93, 65, 65'), which is deactivated in a base state at room temperature and is able to be activated by supplying heat or by supplying radiation and is activated in the method, and wherein the adhesive is provided on a separate band-shaped carrier (9, 9', 63, 63').
A system for episodic memory for an automated vehicle, the system comprising: one or more processors and a non-transitory computer-readable medium having executable instructions encoded thereon such that when executed by the one or more processors, the one or more processors perform the following operations: acquiring data from an episodic memory, wherein the episodic memory comprises an event database, an event-sequence graph, and an episode list, wherein acquiring the data comprises: identifying in the event-sequence graph a closest node to a current environment for the automated vehicle; based on the closest node and using a hash function, retrieving from the episodic memory an episode that corresponds to the closest node, the episode including a sequence of events, wherein the hash function maps a hash key directly to the corresponding event to reduce a number of comparisons needed for finding the matching event; and controlling the automated vehicle in the current environment based on the data from the episodic memory. identifying in the event-sequence graph a closest node to a current environment for the automated vehicle; based on the closest node and using a hash function, retrieving from the episodic memory an episode that corresponds to the closest node, the episode including a sequence of events, wherein the hash function maps a hash key directly to the corresponding event to reduce a number of comparisons needed for finding the matching event; and controlling the automated vehicle in the current environment based on the data from the episodic memory.
A biosensor for quantifying a substrate included in a sample liquid comprising: a first insulating support (21, 41, 61) and a second insulating support (15, 52, 62); an electrode part comprising at least a working electrode (25, 45, 65) and a counter electrode (26, 46, 66); a specimen supply path for introducing the sample liquid to the electrode part; and a reagent layer (14, 51, 54) employed for quantifying the substrate included in the sample liquid, the electrode part, the specimen supply path, and the reagent layer existing between the first insulating support (21, 41, 61) and the second insulating support (15, 52, 62), the specimen supply path being provided on the electrode part, and the reagent layer being provided on the electrode part in the specimen supply path, respectively, and the electrode part being dividedly formed by first slits (23a, 23b, 23c, 23d; 43a, 43b, 43c, 43d; 63a, 63b, 63c, 63d) provided on an electrical conductive layer (22, 42, 62) which is formed on the whole or part of an internal surface of one or both of the first insulating support (21, 41, 61) and the second insulating support (15, 52, 62), wherein the reagent layer (14, 51, 54) is formed by dripping the reagent onto the electrode part at a predetermined position and second slits (24a, 24b) are provided around said position where the reagent is located to be in contact with the external peripheral part of the reagent so as to regulate the spreading of the reagent. a first insulating support (21, 41, 61) and a second insulating support (15, 52, 62); an electrode part comprising at least a working electrode (25, 45, 65) and a counter electrode (26, 46, 66); a specimen supply path for introducing the sample liquid to the electrode part; and a reagent layer (14, 51, 54) employed for quantifying the substrate included in the sample liquid, the electrode part, the specimen supply path, and the reagent layer existing between the first insulating support (21, 41, 61) and the second insulating support (15, 52, 62), the specimen supply path being provided on the electrode part, and the reagent layer being provided on the electrode part in the specimen supply path, respectively, and the electrode part being dividedly formed by first slits (23a, 23b, 23c, 23d; 43a, 43b, 43c, 43d; 63a, 63b, 63c, 63d) provided on an electrical conductive layer (22, 42, 62) which is formed on the whole or part of an internal surface of one or both of the first insulating support (21, 41, 61) and the second insulating support (15, 52, 62), wherein the reagent layer (14, 51, 54) is formed by dripping the reagent onto the electrode part at a predetermined position and second slits (24a, 24b) are provided around said position where the reagent is located to be in contact with the external peripheral part of the reagent so as to regulate the spreading of the reagent.