mhurhangee/ep-ind-claims huggingface dataset:
A method for application of anode covering material in an electrolysis cell for aluminium production, the cell being of Hall-Heroult type with prebaked anodes, the cell comprising a cathode pot with a rectangular footprint and a superstructure with a gas collecting hood that lays onto the top of the cathode pot, and where a floor construction surrounds the cell at a level below the top of the cathode pot and where ventilation openings are arranged in the floor in close vicinity of the cell, the superstructure's hood for collecting gas being provided with removable lids that are removed for giving access to the cell's anodes through openings and where ACM is applied via a feed tube (1, 1') to cover the anodes, characterised in that after one or more lid(s) are removed and before the ACM is applied, a shuttering with a shuttering plate is brought into position in the bottom sector of the opening, where at least a part of the shuttering plate is tilted at an angle (α) of between 30° and 60° towards the anode(s), thus restricting ACM from flowing out of said opening during application of it.
Method for operating a catalytic converter device in a motor vehicle which converts at least one exhaust gas component, wherein electrical properties of the catalytic converter device are determined by means of a measuring device which detects the reflection and/or transmission of high-frequency electromagnetic waves which are input into a metallic housing of the catalytic converter device, wherein calibration of the measuring device is checked using reference points, wherein the reference points are acquired in operating states of the catalytic converter device which is selected from the group of operating states comprising: - an accumulator of the catalytic converter device stores a component which is to be stored; - an accumulator of the catalytic converter device removes from storage a component which is to be stored; wherein changes in the determined electrical properties of the catalytic converter device in reaction to changes in the loading state of the catalytic converter device are observed and used to diagnose the catalytic converter device and/or to diagnose the measuring device. - an accumulator of the catalytic converter device stores a component which is to be stored; - an accumulator of the catalytic converter device removes from storage a component which is to be stored; wherein changes in the determined electrical properties of the catalytic converter device in reaction to changes in the loading state of the catalytic converter device are observed and used to diagnose the catalytic converter device and/or to diagnose the measuring device.
A method comprising: selecting at least a first data path, a second data path and an emergency data path; delegating at least a first network device as an emergency network device; notifying a plurality of network devices comprising the first data path and the second data path that a second network device on the second data path has failed; and routing copies of network packets received at the emergency network device to the emergency data path upon failure notification, wherein after the implementation of the emergency data path, a destination network device connected to the first data path and the second data path receives two copies of each packet originating from a source network device. selecting at least a first data path, a second data path and an emergency data path; delegating at least a first network device as an emergency network device; notifying a plurality of network devices comprising the first data path and the second data path that a second network device on the second data path has failed; and routing copies of network packets received at the emergency network device to the emergency data path upon failure notification, wherein after the implementation of the emergency data path, a destination network device connected to the first data path and the second data path receives two copies of each packet originating from a source network device.
Tyre, in the raw state or in the cured state, reinforced by at least one metallic or metallized reinforcer, at the periphery of which is positioned a layer of metal referred to as "surface metal" chosen from copper, nickel and alloys of copper and nickel, characterized in that this surface metal layer is itself coated, at least in part, with at least one layer of functionalized graphene comprising at least one crosslinkable functional group in the tyre in the raw state which is crosslinked in the tyre in the cured state to a polymer matrix.
An X-ray imaging device (10, 10', 10", 10"') comprising: - an X-ray source for emitting a beam of X-ray radiation, - an X-ray detector arranged opposite the X-ray source across an examination region for accommodating an object to be imaged, - a grating arrangement arranged between the X-ray source and the X-ray detector and configured to modulate onto the X-ray radiation a fringe pattern detectable by the X-ray detector, wherein a footprint of the grating arrangement on the X-ray detector is smaller than a radiation-sensitive area of the X-ray detector, and wherein the X-ray imaging device (10, 10', 10", 10"') is configured to acquire reference scan data during an imaging operation without the object in the examination region, characterised in that the X-ray imaging device is configured to acquire the reference scan data by moving the grating arrangement in a scanning motion to a number of different positions ( α) relative to the X-ray detector whilst the X-ray detector remains stationary relative to the examination region such that in the scanning motion a series of fringe patterns is detected by the X-ray detector and by moving the grating arrangement in the scanning motion to the same positions ( α) relative to the X-ray detector for a different series of fringe patterns. - an X-ray source for emitting a beam of X-ray radiation, - an X-ray detector arranged opposite the X-ray source across an examination region for accommodating an object to be imaged, - a grating arrangement arranged between the X-ray source and the X-ray detector and configured to modulate onto the X-ray radiation a fringe pattern detectable by the X-ray detector,
A fuel vapor removal method comprising: determining that ullage of a fuel tank of a vehicle is approaching flammability; removing fuel vapor from the ullage; adsorbing the fuel vapor removed from the ullage onto adsorption media on the vehicle; and desorbing the fuel vapor from the adsorption media while on the vehicle; characterized in that the adsorption media is fluidically connected to an ullage purging system. determining that ullage of a fuel tank of a vehicle is approaching flammability; removing fuel vapor from the ullage; adsorbing the fuel vapor removed from the ullage onto adsorption media on the vehicle; and desorbing the fuel vapor from the adsorption media while on the vehicle; characterized in that the adsorption media is fluidically connected to an ullage purging system.
A method of transporting a client signal across an optical transport network, OTN, the method comprising: dividing a received client signal into a plurality of parallel signals at a lower bit rate; mapping the parallel signals into a respective number of optical data units, ODU, each having payload bytes and overhead bytes; mapping each ODU into a respective optical transport unit, OTU, having payload bytes and overhead bytes; transmitting the OTUs across respective optical carriers of a super-channel, the optical carriers of the super-channel being synchronously modulated; and the method is characterized by inserting optical channel control information into the overhead bytes (24A, 26A) of the ODU and/or OTU, the optical channel control information being used to manage and/or control the super-channel transporting the client signal. dividing a received client signal into a plurality of parallel signals at a lower bit rate; mapping the parallel signals into a respective number of optical data units, ODU, each having payload bytes and overhead bytes; mapping each ODU into a respective optical transport unit, OTU, having payload bytes and overhead bytes; transmitting the OTUs across respective optical carriers of a super-channel, the optical carriers of the super-channel being synchronously modulated; and the method is characterized by inserting optical channel control information into the overhead bytes (24A, 26A) of the ODU and/or OTU, the optical channel control information being used to manage and/or control the super-channel transporting the client signal.
A method for tracking an operation for degassing a component placed in a vacuum chamber, which method comprises the following steps: - periodically measuring partial pressures P i of a set M of reference atomic masses using a mass spectrometer connected to the vacuum chamber; - periodically determining a degassing rate η, at least as a function of the partial pressures P i measured for the set M of reference atomic masses, by computation using a relation of the following type: η = ∑ i ∈ M α i P i ∑ N α i P i, where M denotes the set of reference atomic masses, P i denotes the partial pressures of the atomic masses measured by the mass spectrometer, the coefficients α i denote predetermined weighting coefficients associated with each partial pressure P i and N denotes a maximum atomic mass, the partial pressure P i of which can be measured by the mass spectrometer; - periodically computing and displaying an evolutionary gradient of the degassing rate η. - periodically measuring partial pressures P i of a set M of reference atomic masses using a mass spectrometer connected to the vacuum chamber; - periodically determining a degassing rate η, at least as a function of the partial pressures P i measured for the set M of reference atomic masses, by computation using a relation of the following type: η = ∑ i ∈ M α i P i ∑ N α i P i, where M denotes the set of reference atomic masses, P i denotes the partial pressures of the atomic masses measured by the mass spectrometer, the coefficients α i denote predetermined weighting coefficients associated with each partial pressure P i and N denotes a maximum atomic mass, the partial pressure P i of which can be measured by the mass spectrometer; - periodically computing and displaying an evolutionary gradient of the degassing rate η.
A structure, comprising: a perforated first skin; a second skin; and a core comprising a first sidewall, a second sidewall, a first baffle and a second baffle, the core forming a plurality of cavities vertically between the perforated first skin and the second skin; the first baffle extending between a first baffle first end and a first baffle second end, the first baffle connected to the perforated first skin at the first baffle first end, and the first baffle connected to the second skin at the first baffle second end by a first moveable joint; the second baffle extending between a second baffle first end and a second baffle second end, the second baffle connected to the perforated first skin at the second baffle first end, and the second baffle connected to the second skin at the second baffle second end; and the plurality of cavities comprising a first cavity, the first cavity extending laterally between the first sidewall and the second sidewall, and the first cavity extending longitudinally between the first baffle and the second baffle, characterised in that: the second skin comprises a first panel and a second panel that is connected to the first panel at a second moveable joint; the first baffle is connected to the first panel at a first end of the first panel by the first moveable joint; and the second baffle is connected to the second panel at a first end of the second panel. a perforated first skin; a second skin; and a core comprising a first sidewall, a second sidewall, a first baffle and a second baffle, the core forming a plurality of cavities vertically between the perforated first skin and the second skin; the first baffle extending between a first baffle first end and a first baffle second end, the first baffle connected to the perforated first skin at the first baffle first end, and the first baffle connected to the second skin at the first baffle second end by a first moveable joint; the second baffle extending between a second baffle first end and a second baffle second end, the second baffle connected to the perforated first skin at the second baffle first end, and the second baffle connected to the second skin at the second baffle second end; and the plurality of cavities comprising a first cavity, the first cavity extending laterally between the first sidewall and the second sidewall, and the first cavity extending longitudinally between the first baffle and the second baffle, characterised in that: the second skin comprises a first panel and a second panel that is connected to the first panel at a second moveable joint; the first baffle is connected to the first panel at a first end of the first panel by the first moveable joint; and the second baffle is connected to the second panel at a first end of the second panel. the second skin comprises a first panel and a second panel that is connected to the first panel at a second moveable joint; the first baffle is connected to the first panel at a first end of the first panel by the first moveable joint; and the second baffle is connected to the second panel at a first end of the second panel.
Computerized system comprising: - a storage system (302, 308) storing objects and attribute values associated to the objects, wherein: • the attribute values are organized according to a set of N attribute types, N≥ 1, such that for each of said attribute types an object can be associated with an attribute value, • each of said attribute types is associated to a respective graph (30, 40), ∘ wherein each node of the respective graph is associated to a key, said key being ▪ wrapped with a key associated to a parent node of said each node except for a root node; and ▪ associated to one attribute value for the attribute type corresponding to the respective graph, and • each of the objects is stored encrypted based on one or more keys, each of said one or more keys being associated to one attribute value that is associated with said each of the objects; characterized in that it comprises key management means configured for deleting a key. wherein each object is encrypted based on at least two keys, each associated with respective attribute values of different types. - a storage system (302, 308) storing objects and attribute values associated to the objects, wherein: • the attribute values are organized according to a set of N attribute types, N≥ 1, such that for each of said attribute types an object can be associated with an attribute value, • each of said attribute types is associated to a respective graph (30, 40), ∘ wherein each node of the respective graph is associated to a key, said key being ▪ wrapped with a key associated to a parent node of said each node except for a root node; and ▪ associated to one attribute value for the attribute type corresponding to the respective graph, and • each of the objects is stored encrypted based on one or more keys, each of said one or more keys being associated to one attribute value that is associated with said each of the objects; • the attribute values are organized according to a set of N attribute types, N≥ 1, such that for each of said attribute types an object can be associated with an attribute value, • each of said attribute types is associated to a respective graph (30, 40), ∘ wherein each node of the respective graph is associated to a key, said key being ▪ wrapped with a key associated to a parent node of said each node except for a root node; and ▪ associated to one attribute value for the attribute type corresponding to the respective graph, and ∘ wherein each node of the respective graph is associated to a key, said key being ▪ wrapped with a key associated to a parent node of said each node except for a root node; and ▪ associated to one attribute value for the attribute type corresponding to the respective graph, and ▪ wrapped with a key associated to a parent node of said each node except for a root node; and ▪ associated to one attribute value for the attribute type corresponding to the respective graph, and • each of the objects is stored encrypted based on one or more keys, each of said one or more keys being associated to one attribute value that is associated with said each of the objects;
A transmission (4, 40, 50, 50') of a wind energy installation comprising an auxiliary drive for rotating a rotor shaft of the wind energy installation, at least one transmission stage comprising at least two transmission rotary bodies (12, 12', 41; 51, 52, 52', 55, 56; 86) and a clutch device (20, 60, 70) which is arranged to engage and disengage a drive rotary body (14, 14') which can be driven by the auxiliary drive with a transmission rotary body (12, 12', 41; 51, 52, 52', 55, 56; 86), which is connected to the rotor shaft directly or via one or more transmission stages or transmission rotary bodies (12, 12', 41; 51, 52, 52', 55, 56; 86), wherein the clutch device (20, 60, 70) is arranged to move the drive rotary body (14, 14') relative to the transmission rotary body (12, 12', 41; 51, 52, 52', 55, 56; 86) for the purpose of engaging and disengaging, wherein the movement of the drive rotary body (14, 14') relative to the transmission rotary body (12, 12', 41; 51, 52, 52', 55, 56; 86) has a radial movement component transverse to the axis of rotation (26 - 26"') of the drive rotary body (14, 14') and/or to the axis of rotation of the transmission rotary body (12, 12', 41; 51, 52, 52', 55, 56; 86), wherein cooperating motor-side and transmission-side torque arms (128, 129) are provided which engage with one another with play so that radial movements of the auxiliary drive or the motor with respect to the housing of the transmission (4, 40, 50, 50') are absorbed, or wherein a torque arm is provided whose power transmission is engaged by a radial movement of the auxiliary drive or the motor.
A radiation system, comprising: a patient support platform; at least one X-ray radiation source (2a, 2b, 2c) positioned on a first side of the patient support platform; an X-ray radiation detector positioned on a second side of the patient support platform opposite the first side; a fixed source X-ray radiation shield (9, 100) disposed about the X-ray radiation source; a detector X-ray radiation shield (1, 11) comprising a shield carrier (6, 16) and at least one shield extension (7, 17), wherein the at least one shield extension is configured to be moved relative to the shield carrier between an extended configuration wherein the at least one shield extension extends from the shield carrier to the source radiation shield (9, 100) or to a peripheral edge of the platform, and a stowed configuration wherein the at least one shield extension is retracted towards the shield carrier to allow access to a patient on the support platform, characterised in that the radiation system further comprises a displacement mechanism configured to move the shield carrier towards and away from the patient support platform. a patient support platform; at least one X-ray radiation source (2a, 2b, 2c) positioned on a first side of the patient support platform; an X-ray radiation detector positioned on a second side of the patient support platform opposite the first side; a fixed source X-ray radiation shield (9, 100) disposed about the X-ray radiation source; a detector X-ray radiation shield (1, 11) comprising a shield carrier (6, 16) and at least one shield extension (7, 17), wherein the at least one shield extension is configured to be moved relative to the shield carrier between an extended configuration wherein the at least one shield extension extends from the shield carrier to the source radiation shield (9, 100) or to a peripheral edge of the platform, and a stowed configuration wherein the at least one shield extension is retracted towards the shield carrier to allow access to a patient on the support platform, characterised in that the radiation system further comprises a displacement mechanism configured to move the shield carrier towards and away from the patient support platform.
A process for processing meat, poultry or game product, comprising the steps of: A. searing at least one outside surface of the product; B. slicing the seared product into slices while in a substantially raw state; C. vacuum sealing the sliced raw product within a pouch with the slices stacked tightly together; D. cooking the vacuum sealed product to at least its pasteurization temperature while vacuum sealed in the pouch; and E. refrigerating or freezing the cooked product still in the pouch, wherein, during the cooking step, the slices are maintained in a tightly stacked face-to-face relationship, such that cut faces of the slices contact one another to essentially maintain the shape of the original product. A. searing at least one outside surface of the product; B. slicing the seared product into slices while in a substantially raw state; C. vacuum sealing the sliced raw product within a pouch with the slices stacked tightly together; D. cooking the vacuum sealed product to at least its pasteurization temperature while vacuum sealed in the pouch; and E. refrigerating or freezing the cooked product still in the pouch, wherein, during the cooking step, the slices are maintained in a tightly stacked face-to-face relationship, such that cut faces of the slices contact one another to essentially maintain the shape of the original product.