mhurhangee/ep-ind-claims huggingface dataset:
A method for mediating between a plurality of storage systems synchronously replicating a dataset, the method comprising: requesting, by a first storage system in response to detecting a communication fault in the data communications link between the first storage system and a second storage system, mediation from a mediation service, wherein, prior to requesting mediation, the first storage system waits for a predefined first amount of time, and wherein the first storage system and the second storage system are included in the plurality of storage systems; requesting, by the second storage system in response to detecting the communication fault, mediation from the mediation service, wherein, prior to requesting mediation, the second storage system waits for a predefined second amount of time, and the first storage system is designated as a preferred storage system based on the first amount of time being less than the second amount of time; receiving, by the first storage system, an indication from the mediation service that the first storage system won mediation over the second storage system; and responsive to receiving the indication from the mediation service, processing, by the first storage system, data storage requests directed to the dataset that is synchronously replicated across the first storage system and the second storage system; and detaching, by the first storage system, the second storage system with which communication was lost, from an in-sync list that specifies the plurality of storage systems that are synchronously replicating the dataset. requesting, by a first storage system in response to detecting a communication fault in the data communications link between the first storage system and a second storage system, mediation from a mediation service, wherein, prior to requesting mediation, the first storage system waits for a predefined first amount of time, and wherein the first storage system and the second storage system are included in the plurality of storage systems; requesting, by the second storage system in response to detecting the communication fault, mediation from the mediation service, wherein, prior to requesting mediation, the second storage system waits for a predefined second amount of time, and the first storage system is designated as a preferred storage system based on the first amount of time being less than the second amount of time; receiving, by the first storage system, an indication from the mediation service that the first storage system won mediation over the second storage system; and responsive to receiving the indication from the mediation service, processing, by the first storage system, data storage requests directed to the dataset that is synchronously replicated across the first storage system and the second storage system; and detaching, by the first storage system, the second storage system with which communication was lost, from an in-sync list that specifies the plurality of storage systems that are synchronously replicating the dataset.
Process for the manufacture of a fluoride doped cathode active material wherein said process comprises the steps of (a) providing a particulate oxide or (oxy)hydroxide of TM wherein TM is a combination of metals according to general formula, wherein said particulate oxide or (oxy)hydroxide has an average particle diameter in the range of from 3 to 16 μm, (Ni a Co b Mn c) 1-d M d with a being in the range of from 0.6 to 0.99, b being zero or in the range of from 0.01 to 0.2, c being in the range of from zero to 0.2, and d being in the range of from zero to 0.1, M is at least one of Al, Mg, Ti, Mo, Nb, Ta, W and Zr, and b + c > zero, and a + b + c = 1, (b) providing a source of lithium that contains 0.01 to 2.5 % by weight of fluoride, uniformly dispersed within said source of lithium, wherein the source of lithium is selected from lithium hydroxide and lithium oxide and lithium carbonate, (c) mixing said oxide or (oxy)hydroxide of TM with said fluoride-containing source of lithium and, optionally, with additional source of lithium containing less fluoride, and, optionally, with one or more dopants based on at least one metal other than lithium, (d) treating the mixture obtained from step (c) thermally. (a) providing a particulate oxide or (oxy)hydroxide of TM wherein TM is a combination of metals according to general formula, wherein said particulate oxide or (oxy)hydroxide has an average particle diameter in the range of from 3 to 16 μm, (Ni a Co b Mn c) 1-d M d with a being in the range of from 0.6 to 0.99, b being zero or in the range of from 0.01 to 0.2, c being in the range of from zero to 0.2, and d being in the range of from zero to 0.1, M is at least one of Al, Mg, Ti, Mo, Nb, Ta, W and Zr, and b + c > zero, and a + b + c = 1, a being in the range of from 0.6 to 0.99, b being zero or in the range of from 0.01 to 0.2, c being in the range of from zero to 0.2, and d being in the range of from zero to 0.1, M is at least one of Al, Mg, Ti, Mo, Nb, Ta, W and Zr, and b + c > zero, and a + b + c = 1, (b) providing a source of lithium that contains 0.01 to 2.5 % by weight of fluoride, uniformly dispersed within said source of lithium, wherein the source of lithium is selected from lithium hydroxide and lithium oxide and lithium carbonate, (c) mixing said oxide or (oxy)hydroxide of TM with said fluoride-containing source of lithium and, optionally, with additional source of lithium containing less fluoride, and, optionally, with one or more dopants based on at least one metal other than lithium, (d) treating the mixture obtained from step (c) thermally.
Sensor housing assembly, the sensor housing assembly comprising a first housing part and a second housing part, wherein the second housing part comprises a sensor accommodation volume, a measurement object receptacle and an alignment funnel, the sensor accommodation volume being configured to receive a sensor, the measurement object receptacle being configured to receive a measurement object and extending along a measurement object insertion direction from adjacent the sensor accommodation volume into the alignment funnel, the alignment funnel widening along the measurement object insertion direction in a direction which points away from the measurement object receptacle, and wherein, in an assembled state, the second housing part is movable relative to the first housing part in at least one adjustment direction (x, y) perpendicular to the measurement object insertion direction.
A mechanical wristwatch comprising a housing and a wristband, wherein the wristband is connected to the housing for wearing the mechanical wristwatch on a wrist of a user, wherein the housing comprises a mechanical watch movement, at least one of an input/output module (19, 23, 24) and at least one data processor being internally located within the wristband such that the wristband is able to: - receiving data through the at least one input/output module (19, 23, 24), - processing data by the at least one data processor, and - transmitting processed data through the at least one input/output module (19, 23, 24), wherein the wristband is elastic stretchable and is functionally independent from the housing, wherein the input/output module (19, 23, 24) and the data processor are located within a first band portion and/or a second band portion of the wrist band, and the first band portion and the second band portion are located opposite to each other and are physically separated by the housing portion of the mechanical wristwatch, wherein said first band portion and said second band portion are wirelessly communicating to each other. - receiving data through the at least one input/output module (19, 23, 24), - processing data by the at least one data processor, and - transmitting processed data through the at least one input/output module (19, 23, 24),
A shaft assembly, comprising a shaft (30, 50, 60) supported in a rotatable manner or in a reciprocating manner, and comprising a shaft seal device (F, C, 61) arranged around a periphery of the shaft (30, 50, 60) so as to secure liquid tightness around the shaft (30, 50, 60), the shaft seal device (F, C, 61) comprising a seal member (28, 53, 65) formed of a porous material comprising a hydrophilic polymer resin, wherein the hydrophilic polymer resin comprises polyvinyl formal in which chains of polyvinyl alcohol are cross-linked by formaldehyde.
A demolition tool for the demolition of rock, wherein slots with a predetermined depth and at a predetermined distance to each other are introduced into the rock, wherein the demolition tool can be respectively inserted into one of the slots in order to break the rock between the slots, wherein the demolition tool comprises the following components: - a base body with ▪ a first end region, which comprises at least one scribing tool for creating a score that runs parallel to a bottom of the slot into a first wall section of the slot, wherein the first wall section immediately extends from the bottom of the slot and the score does not severe the wall section, and ▪ a second end region, which is designed to exert a compressive force onto a second wall section of the slot, wherein the second wall section extends from a beginning of the slot opposite to the bottom; - a fitting bracket firmly connected to the base body on the second end region for attaching the demolition tool to a moveable carrier arm of a construction machine. - a base body with ▪ a first end region, which comprises at least one scribing tool for creating a score that runs parallel to a bottom of the slot into a first wall section of the slot, wherein the first wall section immediately extends from the bottom of the slot and the score does not severe the wall section, and ▪ a second end region, which is designed to exert a compressive force onto a second wall section of the slot, wherein the second wall section extends from a beginning of the slot opposite to the bottom; ▪ a first end region, which comprises at least one scribing tool for creating a score that runs parallel to a bottom of the slot into a first wall section of the slot, wherein the first wall section immediately extends from the bottom of the slot and the score does not severe the wall section, and ▪ a second end region, which is designed to exert a compressive force onto a second wall section of the slot, wherein the second wall section extends from a beginning of the slot opposite to the bottom; - a fitting bracket firmly connected to the base body on the second end region for attaching the demolition tool to a moveable carrier arm of a construction machine.
An overvoltage protection device having a thermal disconnection apparatus and an error display as well as a plurality of particularly disc-shaped varistors, wherein each discharge path is associated with at least one varistor and the thermal disconnection points are positioned in series to the respective varistor, a device housing comprising chambers for accommodating the varistors and a pivotably mounted lever having a display area situated in the region of a housing window, plug connections extending through the housing base for establishing an electrical connection to a base part, wherein the thermal disconnection points each further comprise a spring-preloaded bracket electrically and mechanically connected to the respective varistor by a low-melt solder, characterized in that the spring-preloaded brackets are formed by a stamped and bent part comprising finger-like extensions extending from a common connecting limb and wherein at least one plug connection is provided on the connecting limb, the finger-like extensions have a slotted recess at their free end in which a respective connecting wire or connecting leg of a varistor is directly soldered as well as a heat trap situated in the region behind the soldering point toward the connecting limb, wherein each finger-like extension is acted upon by a separate spring force.
A multi-layer piezoelectric element, comprising: a stacked body composed of piezoelectric layers and internal electrode layers which are stacked on each other; and characterized by an incompletely-imidized polyimide resin or an incompletely-amidated polyamide resin on the side faces of the stacked body which evolves OH - when being heated. a stacked body composed of piezoelectric layers and internal electrode layers which are stacked on each other; and characterized by an incompletely-imidized polyimide resin or an incompletely-amidated polyamide resin on the side faces of the stacked body which evolves OH - when being heated.
Direct printing method for printing a large number of containers of the same type, in particular beverage containers, a plurality of printing nozzles arranged in at least one nozzle row (53a, 53b, 53aa, 53ab, 53ba, 53bb) printing a print image onto a container in one print colour in a printing process in each case, characterised in that a different nozzle group is activated in each case for printing different subgroups of the containers with the same print image in one print colour, in that the printing nozzles of two of the nozzle groups in the at least one nozzle row (53a, 53b, 53aa, 53ab, 53ba, 53bb) are arranged alternately, in that each of the nozzle groups has an offset with respect to the end of the nozzle row (53a, 53b), and the particular nozzle group being activated by changing the offset, and in that the offset is changed cyclically or statistically.
An electric power supply system comprising: a DC bus line connecting a DC generator, a load and system power with each other; a DC/DC converter connected between the DC generator and the DC bus line configured to control an output voltage to the DC bus line at a voltage V1; an inverter connected between the system power and the DC bus line configured to operate a control in response to an input voltage V2 from the DC bus line; and an AC/DC converter connected between the system power and the DC bus line, having an output voltage V3 for output voltage V3 to the DC bus line, and a storage battery connected to the DC bus line, characterized in that when a full charge voltage of the storage battery is V4 and an empty voltage of the storage battery is V5, the respective voltages are set as V1>V2>V4>V3>V5, and an order in which power is to be supplied to the DC bus line is automatically decided by said voltage setting such that when a voltage of the storage battery is higher than an output voltage of the AC/DC converter, first is the DC generator, second is the storage battery and third is the system power, and when the voltage of the storage battery is lower than the output voltage of the AC/DC converter, first is the DC generator, second is the system power, and third is the storage battery. a DC bus line connecting a DC generator, a load and system power with each other; a DC/DC converter connected between the DC generator and the DC bus line configured to control an output voltage to the DC bus line at a voltage V1; an inverter connected between the system power and the DC bus line configured to operate a control in response to an input voltage V2 from the DC bus line; and an AC/DC converter connected between the system power and the DC bus line, having an output voltage V3 for output voltage V3 to the DC bus line, and a storage battery connected to the DC bus line, characterized in that when a full charge voltage of the storage battery is V4 and an empty voltage of the storage battery is V5, the respective voltages are set as V1>V2>V4>V3>V5, and an order in which power is to be supplied to the DC bus line is automatically decided by said voltage setting such that when a voltage of the storage battery is higher than an output voltage of the AC/DC converter, first is the DC generator, second is the storage battery and third is the system power, and when the voltage of the storage battery is lower than the output voltage of the AC/DC converter, first is the DC generator, second is the system power, and third is the storage battery.
A method for transmitting security settings between a first automation technology field device and a second automation technology field device, wherein the first field device and the second field device each have at least one memory (DS1, DS2), with security settings being saved on said memory (DS1, DS2), wherein the security settings comprise at least one operator role management function with multiple authorization groups, wherein an authorization group permits an operator to access at least one operating functionality and/or a data record of the relevant field device (FG1, FG2), wherein the authorization groups differ in terms of the number and structure of the operating functionalities defined in each authorization group, wherein an administrator authorization group is provided which permits access to the security settings of the relevant field device (FG1, FG2), comprising: a. Identifying and authenticating an operator by means of an operating unit (BE1, BE2, BE3); b. Assigning an authorization group based on the identification and authentication of the operator; c. In the event that the administrator authorization group is assigned to the operator: i. Encrypting at least one of the plain-text security settings by the first field device; ii. Exporting the encrypted security setting; iii. Importing the encrypted security setting onto the second field device; iv. Decrypting the encrypted security setting; v. Loading the decrypted security setting onto the memory of the second field device and operating the second field device with the security setting that was loaded from the first field device. a. Identifying and authenticating an operator by means of an operating unit (BE1, BE2, BE3); b. Assigning an authorization group based on the identification and authentication of the operator; c. In the event that the administrator authorization group is assigned to the operator: i. Encrypting at least one of the plain-text security settings by the first field device; ii. Exporting the encrypted security setting; iii. Importing the encrypted security setting onto the second field device; iv. Decrypting the encrypted security setting; v. Loading the decrypted security setting onto the memory of the second field device and operating the second field device with the security setting that was loaded from the first field device. i. Encrypting at least one of the plain-text security settings by the first field device; ii. Exporting the encrypted security setting; iii. Importing the encrypted security setting onto the second field device; iv. Decrypting the encrypted security setting; v. Loading the decrypted security setting onto the memory of the second field device and operating the second field device with the security setting that was loaded from the first field device.
An exhaust purification system of an internal combustion engine comprising: a filter arranged in an exhaust passage of the internal combustion engine and trapping particulate matter contained in exhaust gas, a catalyst arranged in the exhaust passage at an upstream side from the filter in a direction of exhaust flow or supported on the filter, a fuel feed device (3, 35) feeding fuel to the catalyst, and a control device configured to control the feed of fuel by the fuel feed device (3, 35), wherein the control device is configured to detect or estimate a temperature of an inflowing exhaust gas flowing into the catalyst, and feed fuel from the fuel feed device (3, 35) to the catalyst so as to burn off particulate matter trapped at the filter as processing for filter regeneration, and feed liquid state fuel from the fuel feed device (3, 35) to the catalyst after the processing for filter regeneration when the detected or estimated temperature of the inflowing exhaust gas is a minimum boiling point of the fuel or less. a filter arranged in an exhaust passage of the internal combustion engine and trapping particulate matter contained in exhaust gas, a catalyst arranged in the exhaust passage at an upstream side from the filter in a direction of exhaust flow or supported on the filter, a fuel feed device (3, 35) feeding fuel to the catalyst, and a control device configured to control the feed of fuel by the fuel feed device (3, 35), wherein the control device is configured to detect or estimate a temperature of an inflowing exhaust gas flowing into the catalyst, and feed fuel from the fuel feed device (3, 35) to the catalyst so as to burn off particulate matter trapped at the filter as processing for filter regeneration, and feed liquid state fuel from the fuel feed device (3, 35) to the catalyst after the processing for filter regeneration when the detected or estimated temperature of the inflowing exhaust gas is a minimum boiling point of the fuel or less.
A memory device comprising: a stack of memory dies comprising: a plurality of vaults, each vault comprising a portion of memory of each memory die, each portion of memory of a vault being in a stacked arrangement; wherein the stack is arranged to store user data and/or first level error correction data in a stripe across a plurality of data vaults comprised in the plurality of vaults, the stripe comprising a portion of memory of each of a plurality of data vaults; and a portion of memory of a second level error correction vault comprised in the plurality of vaults is arranged to operatively store second level error correction data corresponding to the user data and/or first level error correction data in the stripe; and a plurality of vault controllers, each coupled to a respective vault for communicating with the respective vault independently of communications to each other vault. a stack of memory dies comprising: a plurality of vaults, each vault comprising a portion of memory of each memory die, each portion of memory of a vault being in a stacked arrangement; wherein the stack is arranged to store user data and/or first level error correction data in a stripe across a plurality of data vaults comprised in the plurality of vaults, the stripe comprising a portion of memory of each of a plurality of data vaults; and a portion of memory of a second level error correction vault comprised in the plurality of vaults is arranged to operatively store second level error correction data corresponding to the user data and/or first level error correction data in the stripe; and a plurality of vault controllers, each coupled to a respective vault for communicating with the respective vault independently of communications to each other vault. a plurality of vaults, each vault comprising a portion of memory of each memory die, each portion of memory of a vault being in a stacked arrangement; wherein the stack is arranged to store user data and/or first level error correction data in a stripe across a plurality of data vaults comprised in the plurality of vaults, the stripe comprising a portion of memory of each of a plurality of data vaults; and a portion of memory of a second level error correction vault comprised in the plurality of vaults is arranged to operatively store second level error correction data corresponding to the user data and/or first level error correction data in the stripe; and wherein the stack is arranged to store user data and/or first level error correction data in a stripe across a plurality of data vaults comprised in the plurality of vaults, the stripe comprising a portion of memory of each of a plurality of data vaults; and a portion of memory of a second level error correction vault comprised in the plurality of vaults is arranged to operatively store second level error correction data corresponding to the user data and/or first level error correction data in the stripe; and a plurality of vault controllers, each coupled to a respective vault for communicating with the respective vault independently of communications to each other vault.