mhurhangee/ep-ind-claims huggingface dataset:
Stent with a tubular, flexible body, whose wall comprises a web structure consisting of a plurality of adjacently disposed web patterns (31, 33, 34, 35, 52) and a plurality of adjacently disposed cells enclosed by webs of the web patterns (31, 33, 34, 35, 52), wherein per cell at least one spring element is provided, wherein the web patterns (31, 33, 34, 35, 52) are formed respectively by means of: - first loops, which open in a first direction, - second loops, which connect to the first loops and open in a second direction, - third loops, which connect to the second loops and open in a third direction opposed to the first direction, and - fourth loops, which connect to the third loops and open in the same direction as the second loops, wherein the first to fourth loops (36, 39, 42, 45) form a repeating sequence of loops comprising the web patterns (31-35, 52), the first loops of a sequence being connected to the fourth loops of a preceding sequence, characterised in that the loops (36, 39, 42, 45) have respectively two interconnected straight legs (37, 38; 40, 41; 43, 44; 46, 47) disposed at an acute angle to one another, with adjacent web patterns interconnected respectively at the vertex of the first and third loops, the spring elements being formed by means of the loops whose vertices are adjacent to one another. - first loops, which open in a first direction, - second loops, which connect to the first loops and open in a second direction, - third loops, which connect to the second loops and open in a third direction opposed to the first direction, and - fourth loops, which connect to the third loops and open in the same direction as the second loops,
A circuit arrangement comprising: interconnect circuitry; a control circuit and a memory coupled to the interconnect circuitry a plurality of processor circuits (114, 116, 118, 120) coupled to the interconnect circuitry; a plurality of cache circuits (104, 106, 108, 110) coupled to the plurality of processor circuits, respectively; a first snoop filter coupled to the interconnect and configured to filter snoop requests by individual cache lines of a first subset of addresses of the memory; and a second snoop filter coupled to the interconnect and configured to filter snoop requests by groups of cache lines of a second subset of addresses of the memory, wherein each group encompasses a plurality of cache lines; wherein the control circuit is further configured to: determine an owner count of a first group of cache lines filtered by the second snoop filter; and reassign cache lines of the first group of cache lines from the second snoop filter to the first snoop filter in response to the owner count of the first group being equal to 1 and an access count of the first group being greater than zero. interconnect circuitry; a control circuit and a memory coupled to the interconnect circuitry a plurality of processor circuits (114, 116, 118, 120) coupled to the interconnect circuitry; a plurality of cache circuits (104, 106, 108, 110) coupled to the plurality of processor circuits, respectively; a first snoop filter coupled to the interconnect and configured to filter snoop requests by individual cache lines of a first subset of addresses of the memory; and a second snoop filter coupled to the interconnect and configured to filter snoop requests by groups of cache lines of a second subset of addresses of the memory, wherein each group encompasses a plurality of cache lines; wherein the control circuit is further configured to: determine an owner count of a first group of cache lines filtered by the second snoop filter; and reassign cache lines of the first group of cache lines from the second snoop filter to the first snoop filter in response to the owner count of the first group being equal to 1 and an access count of the first group being greater than zero. determine an owner count of a first group of cache lines filtered by the second snoop filter; and reassign cache lines of the first group of cache lines from the second snoop filter to the first snoop filter in response to the owner count of the first group being equal to 1 and an access count of the first group being greater than zero.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a network, indication information including two transmission configuration indicator, TCI, states for a control resource set, CORESET; monitoring physical downlink control channel, PDCCH, candidates in the CORESET for single downlink control information, DCI; and based on i) the terminal being configured with both a single frequency network, SFN, scheme for the PDCCH and a SFN scheme for a single physical downlink shared channel, PDSCH, ii) a time offset between a reception of the single DCI and the single PDSCH scheduled based on the single DCI is being equal to or greater than a predetermined threshold, and iii) the single DCI not including TCI information, receiving, from the network, the single PDSCH based on the two TCI states which are identical to the two TCI states applied for the CORESET, wherein a demodulation-reference signal, DM-RS, port of the single PDSCH is quasi co-located with downlink reference signals of the two TCI states. receiving, from a network, indication information including two transmission configuration indicator, TCI, states for a control resource set, CORESET; monitoring physical downlink control channel, PDCCH, candidates in the CORESET for single downlink control information, DCI; and based on i) the terminal being configured with both a single frequency network, SFN, scheme for the PDCCH and a SFN scheme for a single physical downlink shared channel, PDSCH, ii) a time offset between a reception of the single DCI and the single PDSCH scheduled based on the single DCI is being equal to or greater than a predetermined threshold, and iii) the single DCI not including TCI information, receiving, from the network, the single PDSCH based on the two TCI states which are identical to the two TCI states applied for the CORESET, wherein a demodulation-reference signal, DM-RS, port of the single PDSCH is quasi co-located with downlink reference signals of the two TCI states.
A method for transmitting system information in a wireless communication system supporting serving component carriers, the method comprising: transmitting system information of a special component carrier to a user equipment through the special component carrier; transmitting system information of at least one serving component carrier, different from the special component carrier, to the user equipment through the special component carrier; identifying a change in system information of one of at least one serving component carrier configured for the user equipment; generating a radio resource control, RRC, message notifying the change of system information of the one of the at least one serving component carriers, wherein the radio resource control message includes all pieces of the system information required by the one of the at least one serving component carrier; and transmitting the generated radio resource control message to the user equipment through the special component carrier, wherein the special component carrier is a backwards compatible carrier. transmitting system information of a special component carrier to a user equipment through the special component carrier; transmitting system information of at least one serving component carrier, different from the special component carrier, to the user equipment through the special component carrier; identifying a change in system information of one of at least one serving component carrier configured for the user equipment; generating a radio resource control, RRC, message notifying the change of system information of the one of the at least one serving component carriers, wherein the radio resource control message includes all pieces of the system information required by the one of the at least one serving component carrier; and transmitting the generated radio resource control message to the user equipment through the special component carrier, wherein the special component carrier is a backwards compatible carrier.
An implantable medical system comprising at least - one pressure sensor, - one time-registration unit, and - one data processing unit, wherein the system is designed such that the following steps can be carried out: - register blood pressure values, at least temporarily, - evaluate the registered blood pressure values to determine data that describe a load, - evaluate the registered blood pressure values to determine data that describe respiration, characterized in that time intervals of a predefinable length are determined depending on the load, a load stage is ascribed to at least one part of the time intervals, and the data describing the respiration are evaluated for at least one part of the time intervals. - one pressure sensor, - one time-registration unit, and - one data processing unit, - register blood pressure values, at least temporarily, - evaluate the registered blood pressure values to determine data that describe a load, - evaluate the registered blood pressure values to determine data that describe respiration,
Method of manufacturing a multi-layer metal cord having a plurality of concentric layers of wires, comprising one or more inner layer(s) and an outer layer, of the type "rubberized in situ", i.e. rubberized from the inside, during its actual manufacture, with rubber or a rubber composition, the said method including at least the following steps: - at least one step of sheathing at least one inner layer with the said rubber or the said rubber composition by passing through at least one extrusion head; - an assembling step in which the wires of the outer layer are assembled around the inner layer adjacent to it, in order to form the multi-layer cord thus rubberized from the inside, characterized in that the said rubber is an unsaturated thermoplastic elastomer extruded in the molten state. - at least one step of sheathing at least one inner layer with the said rubber or the said rubber composition by passing through at least one extrusion head; - an assembling step in which the wires of the outer layer are assembled around the inner layer adjacent to it, in order to form the multi-layer cord thus rubberized from the inside,
A composition comprising an oxime or pharmaceutically acceptable salt thereof for use as a medicament for inducing neuromuscular blockade in surgical anesthesia, wherein said oxime is selected from one or more of: (methoxime or "MMB4"); (trimedoxime or "TMB-4" or 1,3-bis(5-hydroxyiminomethylpyridinium)-propane bromide)); (pralidoxime or "2-PAM" or 2-hydroxyiminomethyl-1-methylpyridinium chloride); (obidoxime or [1,3-bis(4-hydroxyimino-methylpyridinium)-2-oxapropane); ("HI-6" or [1-(2-hydroxyiminomethylpyridinium)-3-(4-carbamoylpryidinium)-2-oxapropane chloride], ("HLo-7" or (1-[2,4-bis(hydroxyiminomethylpyridinium)]-3-(4-carbamoylpyridinium)-2-oxapropane chloride); ("K027" or [1-(4-hydroxyiminomethylpyridinium)-3(4-carbamoylpyridinium)-propane bromide]; and pharmaceutically acceptable salts thereof.
A method implemented by a computing device, the method comprising: exposing functionality through one or more application programming interfaces, APIs, that is accessible to a plurality of applications of the computing device to perform network communication; and returning data to one or more of the plurality of applications regarding a network used to perform the network communication, characterized in that the functionality is accessible to perform an upload or download for the one or more of the plurality of applications while at least a portion of the application is in a suspended state. exposing functionality through one or more application programming interfaces, APIs, that is accessible to a plurality of applications of the computing device to perform network communication; and returning data to one or more of the plurality of applications regarding a network used to perform the network communication,
A solid oxide fuel cell system comprising: a solid oxide fuel cell that produces electricity by using a hydrogen-containing gas and an oxidant gas; an exhaust-gas path via which an exhaust gas discharged from the solid oxide fuel cell flows; a circulation path via which a coolant circulates; a first heat exchanger that is disposed on the exhaust-gas path and the circulation path and enables heat exchange between the exhaust gas and the coolant and enables cooling of the exhaust gas by the coolant and thereby producing condensed water obtained due to condensation of water in the exhaust gas; a first tank that is disposed on the circulation path and, characterized in that the first tank stores, as the coolant, the produced condensed water; and the system further comprising a second heat exchanger that is disposed so as to enable heat exchange between the coolant and reservoir water. a solid oxide fuel cell that produces electricity by using a hydrogen-containing gas and an oxidant gas; an exhaust-gas path via which an exhaust gas discharged from the solid oxide fuel cell flows; a circulation path via which a coolant circulates; a first heat exchanger that is disposed on the exhaust-gas path and the circulation path and enables heat exchange between the exhaust gas and the coolant and enables cooling of the exhaust gas by the coolant and thereby producing condensed water obtained due to condensation of water in the exhaust gas; a first tank that is disposed on the circulation path and, characterized in that the first tank stores, as the coolant, the produced condensed water; and the system further comprising a second heat exchanger that is disposed so as to enable heat exchange between the coolant and reservoir water.
A method comprising: generating a request by a mobile device; determining whether the mobile device is in an online or offline state; and, if the mobile device is in an online state: receiving a response to the request, the response comprising a component for display by the mobile device and a plurality of Universal Resource Indicators, URIs, associated with the component; classifying the plurality of URIs by URI type; updating a plurality of tables stored in memory of the mobile device with the component and the plurality of URIs; the updating comprises adding the plurality of URIs to the plurality of tables based on their URI types; and if the mobile device is in an offline state: generating a local response to the request based on the plurality of tables stored in the memory of the mobile device, wherein the generating the local response to the request is performed based on the determining that the mobile device is in an offline state. generating a request by a mobile device; determining whether the mobile device is in an online or offline state; and, if the mobile device is in an online state: receiving a response to the request, the response comprising a component for display by the mobile device and a plurality of Universal Resource Indicators, URIs, associated with the component; classifying the plurality of URIs by URI type; updating a plurality of tables stored in memory of the mobile device with the component and the plurality of URIs; the updating comprises adding the plurality of URIs to the plurality of tables based on their URI types; and if the mobile device is in an offline state: generating a local response to the request based on the plurality of tables stored in the memory of the mobile device, wherein the generating the local response to the request is performed based on the determining that the mobile device is in an offline state. receiving a response to the request, the response comprising a component for display by the mobile device and a plurality of Universal Resource Indicators, URIs, associated with the component; classifying the plurality of URIs by URI type; updating a plurality of tables stored in memory of the mobile device with the component and the plurality of URIs; the updating comprises adding the plurality of URIs to the plurality of tables based on their URI types; and if the mobile device is in an offline state: generating a local response to the request based on the plurality of tables stored in the memory of the mobile device, wherein the generating the local response to the request is performed based on the determining that the mobile device is in an offline state. generating a local response to the request based on the plurality of tables stored in the memory of the mobile device, wherein the generating the local response to the request is performed based on the determining that the mobile device is in an offline state.
A relational database system for encryption of individual data elements wherein each data element which is to be protected is assigned an attribute indicating the level of encryption needed, characterized in that: a) it comprises a plurality of encryption devices (1, 2) including a first device and a second device, the first device being a tamper-proof hardware device and the second device being a hardware device with a software implemented encryption function running on the hardware device, said encryption being provided by different encryption processes utilizing at least one process key in each of the categories master keys (4, 7), key encryption keys (5, 8), and data encryption keys (6, 9), said process keys of different categories being held in said encryption devices; b) wherein said encryption processes are of at least two different security levels, where a process of a higher security level utilizes said first device, the first device for executing an encryption algorithm for the process of the higher security level, to a higher degree than a process of a lower security level, and where the process of the lower security level utilizes said first device and said second device, the second device for executing an encryption algorithm for the process of the lower security level; c) wherein the encryption level indicated by the attribute assigned to each data element which is to be protected corresponds to the level of encryption needed for protection and an encryption process correlating to the security level assigned to said each data element is chosen. a) it comprises a plurality of encryption devices (1, 2) including a first device and a second device, the first device being a tamper-proof hardware device and the second device being a hardware device with a software implemented encryption function running on the hardware device, said encryption being provided by different encryption processes utilizing at least one process key in each of the categories master keys (4, 7), key encryption keys (5, 8), and data encryption keys (6, 9), said process keys of different categories being held in said encryption devices; b) wherein said encryption processes are of at least two different security levels, where a process of a higher security level utilizes said first device, the first device for executing an encryption algorithm for the process of the higher security level, to a higher degree than a process of a lower security level, and where the process of the lower security level utilizes said first device and said second device, the second device for executing an encryption algorithm for the process of the lower security level; c) wherein the encryption level indicated by the attribute assigned to each data element which is to be protected corresponds to the level of encryption needed for protection and an encryption process correlating to the security level assigned to said each data element is chosen.
A method for producing a polybutadiene, wherein a butadiene monomer is polymerized in the presence of rare-earth element compounds represented by the following formula (i): M- 1 1 3 (i) (in the formula, M is at least one selected from lanthanides, scandium and yttrium; 1, 2 and 3 are amide groups which may be the same or different to each other, and have M-N bonds) and of an Additive D, where the Additive D has at least one selected from SH group and NH group, the Additive D is an anionic tridentate ligand precursor and the compounding ratio of Additive D is 0.1mol or more to less than 1mol with respect to 1mol of the rare-earth element compounds.
A method comprising communicating fault signals (256, 236, 238, 456, 436, 438, 484, 531, 638), command signals, and data signals (132, 232, 237, 337, 537, 639) regarding operating conditions of a power switch (104, 105, 204, 304, 404) or power converter from a driver circuit (110, 111, 210) to a driver interface (118, 218) across a galvanic isolation via an inductive coupling communications channel, wherein the driver interface is coupled to a primary winding of an inductive coupling (219, 319, 419, 519) and the drive circuit is coupled to a secondary winding of the inductive coupling, the method comprising: transmitting, by the driver interface, a command signal to the drive circuit by applying a voltage to the primary winding, which induces a voltage and current in the secondary winding; and characterized by further comprising: transmitting, by the drive circuit, both a fault signal and a data signal to the driver interface via the inductive coupling, wherein the drive circuit sends the fault signal by providing current to flow in a first direction through the secondary winding of the inductive coupling and sends the data signal by providing current to flow in a second direction through secondary winding of the inductive coupling, wherein the first direction and second direction are opposite of each other; and receiving, by the driver interface the fault signal and the data signal; and differentiating, by the driver interface, the fault signal and the data signal by the direction of the received induced current in the primary winding of the inductive coupling. transmitting, by the drive circuit, both a fault signal and a data signal to the driver interface via the inductive coupling, wherein the drive circuit sends the fault signal by providing current to flow in a first direction through the secondary winding of the inductive coupling and sends the data signal by providing current to flow in a second direction through secondary winding of the inductive coupling, wherein the first direction and second direction are opposite of each other; and receiving, by the driver interface the fault signal and the data signal; and differentiating, by the driver interface, the fault signal and the data signal by the direction of the received induced current in the primary winding of the inductive coupling.
An apparatus for preparing dialyzate, wherein the apparatus has a first part and a second part that is configured as a circuit; wherein the first part comprises a water connection or a water container as well as the primary side of a filter; wherein the filter is configured to prepare purified water from the water through forward osmosis; and wherein the second part comprises the secondary side of the filter, a reservoir, a filtrate line that leads from the secondary side of the filter to the reservoir, and a line leading from the reservoir to the secondary side of the filter, with the reservoir being a container having means for connecting the container to q dialysis machine, characterized in that a plurality of containers are provided; and in that a valve arrangement is present that is configured to connect the plurality of containers alternatingly in fluid communication with the second part of the apparatus.