mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling execution of instructions within transactions on a processor; wherein the processor comprises a floating point execution unit for executing floating point instructions; an access register including an indirect specification of an address space control element that designates a translation table for a specific address space to be used in address translation; wherein a transaction includes a sequence of instructions to be completed as a single atomic unit or to be aborted; said method comprising executing, by the processor, a transaction begin machine instruction, the executing comprising initiating a transaction; characterized by executing the transaction begin machine instruction comprises using a first control of at least one control specified in the transaction begin machine instruction to determine a first value, wherein the first control is one of an allow access register modification control used to indicate whether the transaction is permitted to execute a first type of instructions that modify the access register; or an allow floating point operation control used to indicate whether the transaction is permitted to execute a first type of instructions that are specified floating point instructions; determining, based on the first value, whether an instruction of the sequence of instructions of the transaction that is of the first type is permitted to be executed; and executing the instruction of the first type, based on the first value indicating the instruction is permitted to be executed. a floating point execution unit for executing floating point instructions; an access register including an indirect specification of an address space control element that designates a translation table for a specific address space to be used in address translation; an allow access register modification control used to indicate whether the transaction is permitted to execute a first type of instructions that modify the access register; or an allow floating point operation control used to indicate whether the transaction is permitted to execute a first type of instructions that are specified floating point instructions;
A switching device for transforming mechanical feed movements into electrical switching signals, consisting of a cover plate of an electrical device into which the switching device is inserted in a passage opening worked into it, of a switching element, for example a snap disk, a Hall sensor or the like that is at a distance from the cover plate, of an accommodation housing that is firmly connected to the cover plate, and of an actuation key mounted in a movable arrangement in the accommodation housing, by means of which the distance between the cover plate and the switching element is bridged for generating the electrical switching signal, and with an adapter arranged between the actuation key and the switching element, by means of which adapter the specified distance between the actuation key and the switching element is compensated and in which the adapter is provided as a separate individual component configured in different embodiments that is adapted to the specified geometries of the actuation key and the switching element, characterised in that the adapter is configured as a ring in/into the centre of which an actuation ring with at least two intersecting arms or an actuation plate is formed or worked and that the actuation ring or the actuation plate run at different height levels on the individual adapters in relation to the switching element.
A method comprising: receiving, from a client device, an electronic message identifying an intent to perform a data operation on a distributed storage environment; sending, to the client device, a segment routing, SR, list identifying a plurality of storage node candidates selected for the data operation from the distributed storage environment; steering a data operation request received from the client device through a path defined by the SR list based on a segment routing header, SRH, associated with the data operation request, the SRH being configured to steer the data operation request through the path until a storage node from the plurality of storage node candidates accepts the data operation request, wherein the SRH comprises the SR list; sending, to the client device, a response to the data operation request, the response indicating that the storage node has accepted the data operation request from the client device; and performing the data operation at the storage node that accepted the data operation request, wherein the electronic message includes a second SRH comprising a metadata server SR list identifying a plurality of metadata servers associated with the distributed storage environment, the second SRH causing the electronic message to be routed through a second path comprising the metadata server SR list until an associated connection request is accepted by one of the plurality of metadata servers. receiving, from a client device, an electronic message identifying an intent to perform a data operation on a distributed storage environment; sending, to the client device, a segment routing, SR, list identifying a plurality of storage node candidates selected for the data operation from the distributed storage environment; steering a data operation request received from the client device through a path defined by the SR list based on a segment routing header, SRH, associated with the data operation request, the SRH being configured to steer the data operation request through the path until a storage node from the plurality of storage node candidates accepts the data operation request, wherein the SRH comprises the SR list; sending, to the client device, a response to the data operation request, the response indicating that the storage node has accepted the data operation request from the client device; and performing the data operation at the storage node that accepted the data operation request, wherein the electronic message includes a second SRH comprising a metadata server SR list identifying a plurality of metadata servers associated with the distributed storage environment, the second SRH causing the electronic message to be routed through a second path comprising the metadata server SR list until an associated connection request is accepted by one of the plurality of metadata servers.
A system for separation of particles from a fluid, the particles being neutrally buoyant in said fluid, the system comprising: an inlet (32, 506) adapted to receive at least a portion of the fluid containing the neutrally buoyant particles; a first spiral separator (30, 504) comprising a first spiral channel configured to form in the fluid a tubular band having the neutrally buoyant particles flowing therein and being offset from a center of the channel; the first spiral separator further comprising a second spiral channel nested with the first spiral channel such that the tubular band is narrowed as a result of flowing through the second spiral channel, a first outlet (36, 508) for the fluid within which the tubular band flows; and, a second outlet (38, 510) for the remaining fluid, wherein a second inlet is connected to the second outlet (38, 510) of the first spiral separator to receive the remaining fluid; said second inlet being connected to a second spiral separator comprising a third spiral channel within which the remaining fluid flows such that the remaining neutrally buoyant particles flow in a second tubular band offset from the center of the third spiral channel; a third outlet for the fluid within which the second tubular band flows; and, a fourth outlet for more remaining fluid. an inlet (32, 506) adapted to receive at least a portion of the fluid containing the neutrally buoyant particles; a first spiral separator (30, 504) comprising a first spiral channel configured to form in the fluid a tubular band having the neutrally buoyant particles flowing therein and being offset from a center of the channel; the first spiral separator further comprising a second spiral channel nested with the first spiral channel such that the tubular band is narrowed as a result of flowing through the second spiral channel, a first outlet (36, 508) for the fluid within which the tubular band flows; and, a second outlet (38, 510) for the remaining fluid, wherein a second inlet is connected to the second outlet (38, 510) of the first spiral separator to receive the remaining fluid; said second inlet being connected to a second spiral separator comprising a third spiral channel within which the remaining fluid flows such that the remaining neutrally buoyant particles flow in a second tubular band offset from the center of the third spiral channel; a third outlet for the fluid within which the second tubular band flows; and, a fourth outlet for more remaining fluid.
Multi-luminescent security element, comprising at least one first luminescence means, which can be excited under first excitation conditions (Sp-1) for the purpose of luminescence, and at least one second luminescence means which can be excited under second excitation conditions (Sp-2) for the purpose of luminescence, which are different from the first excitation conditions (Sp-1), characterised in that, in addition, at least one absorber means is contained in the multi-luminescent security element, which prevents an excitation of the at least one first luminescence means under the second excitation conditions (Sp-2) for the purpose of luminescence, but not under the first excitation conditions (Sp-1).
An adaptable solar airframe (200, 300, 400, 500, 600, 1100, 1200, 1300, 1510, 1610, 1700, 1810, 1900, 2000) comprising: a solar photovoltaic system (220, 320, 1220, 1320, 1615, 1720) having at least one solar tracking system (1130, 1330) and being able to follow the sun's position in order to optimize sunlight collection and power output; and an expandable body (210, 310, 1010, 1110, 1210, 1310, 1710) having an aerodynamic cross-section that reduces parasitic air drag at any given thickness of the body, further being at least partially transparent to sunlight, further enclosing the solar photovoltaic system (220, 1120, 1320, 1650, 1720) further being able to change its shape to compensate for changes in a position of the solar photovoltaic system as the solar photovoltaic system follows the sun's position. a solar photovoltaic system (220, 320, 1220, 1320, 1615, 1720) having at least one solar tracking system (1130, 1330) and being able to follow the sun's position in order to optimize sunlight collection and power output; and an expandable body (210, 310, 1010, 1110, 1210, 1310, 1710) having an aerodynamic cross-section that reduces parasitic air drag at any given thickness of the body, further being at least partially transparent to sunlight, further enclosing the solar photovoltaic system (220, 1120, 1320, 1650, 1720) further being able to change its shape to compensate for changes in a position of the solar photovoltaic system as the solar photovoltaic system follows the sun's position.
A process for producing a branched hydrocarbon base oil, characterized in that feedstock comprising at least one alcohol selected from the group consisting of primary and secondary saturated and unsaturated C1-C40 monohydroxy alcohols, diols and polyols is condensed in the presence of a basic catalyst at a temperature ranging from 200 to 300 °C, the condensation product is hydrodeoxygenated in the presence of a hydrodeoxygenation catalyst under a hydrogen pressure ranging from 0.1 to 20 MPa at a temperature ranging from 100 to 500 °C, and then hydroisomerized in the presence of a isomerization catalyst under a hydrogen pressure ranging from 0.1 to 20 MPa at a temperature ranging from 100 to 500 °C.
Process for producing ethanol that comprises fermentation of a lignocellulosic hydrolysate in a fed batch reactor in a fed batch mode with a yeast cell, capable of converting sugar, glycerol and acetic acid, comprising the following steps: a) inoculating a diluted lignocellulosic hydrolysate with the yeast cell; c) adding lignocellulosic hydrolysate comprising glycerol gradually to the reactor; d) after sufficient fermentation time, isolation of ethanol from the reactor, e) optionally keeping the remaining fraction after isolation of step d) as spent broth; and f) optionally using the spent broth in step a) to dilute the lignocellulosic hydrolysate, wherein the pH of the mixture in the fed batch reactor in the fed batch mode is kept constant by addition of sufficient lignocellulosic hydrolysate. a) inoculating a diluted lignocellulosic hydrolysate with the yeast cell; c) adding lignocellulosic hydrolysate comprising glycerol gradually to the reactor; d) after sufficient fermentation time, isolation of ethanol from the reactor, e) optionally keeping the remaining fraction after isolation of step d) as spent broth; and f) optionally using the spent broth in step a) to dilute the lignocellulosic hydrolysate, wherein the pH of the mixture in the fed batch reactor in the fed batch mode is kept constant by addition of sufficient lignocellulosic hydrolysate.
A bus bar for connecting two or more devices to an external circuit, the bus bar comprising: a connection circuit connected to a connection point of the external circuit; and a plurality of distribution circuits (R1, R2, R3...), characterized in that each of the distribution circuits has the same length from the end of the connection circuit to connection points of the respective devices, thereby equalizing internal resistances between the connection point of the external circuit and the connection points of the respective devices. a connection circuit connected to a connection point of the external circuit; and a plurality of distribution circuits (R1, R2, R3...), characterized in that each of the distribution circuits has the same length from the end of the connection circuit to connection points of the respective devices, thereby equalizing internal resistances between the connection point of the external circuit and the connection points of the respective devices.
The use of a water-based agent containing in total more than 50 wt.% of polyfunctional organic oxo compounds which are organic compounds having at least three functional groups selected from hydroxyl, ester and/or ether groups, at least one hydroxyl group always being contained and there being a heteroatom other than oxygen on at most every fifth functional group of this kind, as a carrier medium for separating paint overspray from painting booths, characterized in that, at shear rates in the range of from 10 - 1000 s -1, the water-based agent has a viscosity which is always above 10 mPas, and the ratio of static viscosity η 10 to process viscosity η 100 is no greater than 10:1, at least 80 wt.% of the polyfunctional organic oxo compounds, based on the total amount of the polyfunctional organic oxo compounds, being selected from low-molecular-weight polyfunctional organic oxo compounds, such low-molecular-weight compounds having no more than 12 carbon atoms.
A lighting system, including: - an elongated lighting device including a front light emission surface and a back surface opposite said front surface, wherein the lighting device includes a protected device including a flexible sealing encapsulation, - a fixation element coupleable to a mounting structure, wherein the lighting device and the fixation element include complementary formations (10b, 100b) mutually engageable in a form-coupling relationship, and wherein: said complementary formations include at least one groove provided in said flexible sealing encapsulation at said back surface of the lighting device and at least one rib-like protrusion in the fixation element, characterised in that the flexible sealing encapsulation consists of light-permeable material. - an elongated lighting device including a front light emission surface and a back surface opposite said front surface, wherein the lighting device includes a protected device including a flexible sealing encapsulation, - a fixation element coupleable to a mounting structure,
A method performed by a communication network node for scheduling of a User Equipment, UE, in a communication network comprising the UE and the communication network node, where the UE is arranged to communicate data on a plurality of bearers with the communication network node, characterised in that the method comprising: determining one or more active bearers among the plurality of bearers, determining the highest priority of the active bearers, and scheduling a data transmission in uplink for the UE based on the highest priority. determining one or more active bearers among the plurality of bearers, determining the highest priority of the active bearers, and scheduling a data transmission in uplink for the UE based on the highest priority.
Device for supporting and gripping containers (1,1a), comprising: - a base defining an upper surface for supporting a container (1,1a); - gripping means for gripping the container (1,1a), associated with the said base; - actuating means for actuating the gripping means for gripping the container (1,1a), wherein said gripping means comprise at least one pair of jaws, each jaw rotating between a position, pivoted downwards, substantially contained below the upper surface of the base, and a raised position for gripping the container (1,1a) positioned on the upper surface, wherein said gripping means further comprise at least one pair of sliders, wherein each slider is inserted in the base inside a respective seat and translationally movable in both senses of a respective direction upon operation of said actuating means, and wherein each of the respective sliders is angularly spaced relative to the other around a central vertical axis (Z-Z) of the base, and each jaw is associated with a respective slider; characterized in that said actuating means comprise a disk having formed therein a number of cams corresponding to the number of sliders, and inside each cam there is inserted a pin projecting in the vertical direction from a bottom surface of the respective slider. - a base defining an upper surface for supporting a container (1,1a); - gripping means for gripping the container (1,1a), associated with the said base; - actuating means for actuating the gripping means for gripping the container (1,1a), wherein said gripping means comprise at least one pair of jaws, each jaw rotating between a position, pivoted downwards, substantially contained below the upper surface of the base, and a raised position for gripping the container (1,1a) positioned on the upper surface, wherein said gripping means further comprise at least one pair of sliders, wherein each slider is inserted in the base inside a respective seat and translationally movable in both senses of a respective direction upon operation of said actuating means, and wherein each of the respective sliders is angularly spaced relative to the other around a central vertical axis (Z-Z) of the base, and each jaw is associated with a respective slider; characterized in that said actuating means comprise a disk having formed therein a number of cams corresponding to the number of sliders, and inside each cam there is inserted a pin projecting in the vertical direction from a bottom surface of the respective slider.
A method of operating a network node of a communication network, the network node being connected to a downstream network node, and to a non-downstream loop free alternate, LFA, network node, the method comprising: - receiving a data packet at the network node comprising a load balancing identifier indicating whether it is allowed to load balance the data packet via a non-downstream LFA network node or not; - changing, if the load balancing identifier indicates that it is allowed to load balance the data packet via a non-downstream LFA network node, and if the network node decides to load balance the data packet via the non-downstream LFA network node, the load balancing identifier of the data packet such that it indicates that a further load balancing of the data packet via a further non-downstream LFA network node is not allowed; and - forwarding the thus modified data packet to the non-downstream LFA network node. - receiving a data packet at the network node comprising a load balancing identifier indicating whether it is allowed to load balance the data packet via a non-downstream LFA network node or not; - changing, if the load balancing identifier indicates that it is allowed to load balance the data packet via a non-downstream LFA network node, and if the network node decides to load balance the data packet via the non-downstream LFA network node, the load balancing identifier of the data packet such that it indicates that a further load balancing of the data packet via a further non-downstream LFA network node is not allowed; and - forwarding the thus modified data packet to the non-downstream LFA network node.
An optical transmitter comprising: a plurality of Mach-Zehnder modulators, MZMs, (105, 205) configured to modulate analog data signals onto an optical carrier signal for transmission; and an MZM bias controller (170, 270, 370) coupled to at least one of the MZMs (105, 205) and configured to bias the MZMs (105, 205) with orthogonal pseudo-random code based dither signals to suppress noise associated with operation of the MZMs (105, 205), wherein the MZM bias controller (170, 270, 370) comprises: an orthogonal pseudo-random code generator (272, 395) for generating digital signals comprising orthogonal pseudo-random codes; and a digital to analog converter, DAC, coupled to the orthogonal pseudo-random code generator (272, 395) and an MZM bias controller output and configured to: receive the digital signals of orthogonal pseudo-random codes as input; and based on the input, output analog signals of the orthogonal pseudo-random codes MZMs (105, 205) for use as orthogonal pseudo-random code based dither signals, and a pseudo-noise code generator (273, 396) coupled to the DAC, wherein pseudo-noise code signals from the pseudo-noise code generator (273, 396) are combined with the digital signals of orthogonal pseudo-random codes as input to the DAC. a plurality of Mach-Zehnder modulators, MZMs, (105, 205) configured to modulate analog data signals onto an optical carrier signal for transmission; and an MZM bias controller (170, 270, 370) coupled to at least one of the MZMs (105, 205) and configured to bias the MZMs (105, 205) with orthogonal pseudo-random code based dither signals to suppress noise associated with operation of the MZMs (105, 205), an orthogonal pseudo-random code generator (272, 395) for generating digital signals comprising orthogonal pseudo-random codes; and a digital to analog converter, DAC, coupled to the orthogonal pseudo-random code generator (272, 395) and an MZM bias controller output and configured to: receive the digital signals of orthogonal pseudo-random codes as input; and based on the input, output analog signals of the orthogonal pseudo-random codes MZMs (105, 205) for use as orthogonal pseudo-random code based dither signals, and a pseudo-noise code generator (273, 396) coupled to the DAC, wherein pseudo-noise code signals from the pseudo-noise code generator (273, 396) are combined with the digital signals of orthogonal pseudo-random codes as input to the DAC. receive the digital signals of orthogonal pseudo-random codes as input; and based on the input, output analog signals of the orthogonal pseudo-random codes MZMs (105, 205) for use as orthogonal pseudo-random code based dither signals, and a pseudo-noise code generator (273, 396) coupled to the DAC, wherein pseudo-noise code signals from the pseudo-noise code generator (273, 396) are combined with the digital signals of orthogonal pseudo-random codes as input to the DAC.