mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for use in a distributed system for an energy grid, comprising: a processing circuit; and a plurality of destination nodes (140, 150, 160) coupled to the processing circuit; wherein. the processing circuit is configured to calculate a desired destination index for each of the plurality of destination nodes (140, 150, 160) based on a desired aggregate index for the plurality of destination nodes (140, 150, 160), wherein the desired aggregate index includes information representative of carbon consumption, and communicate each desired destination index to the corresponding one of the plurality of destination nodes (140, 150, 160); and each of the plurality of destination nodes (140, 150, 160) is configured to: receive the desired destination index from the processing circuit, display the desired destination index on a display; wherein each of the plurality of destination nodes (140, 150, 160) comprising a processing circuit adapted to select an automated load control. a processing circuit; and a plurality of destination nodes (140, 150, 160) coupled to the processing circuit; wherein. the processing circuit is configured to calculate a desired destination index for each of the plurality of destination nodes (140, 150, 160) based on a desired aggregate index for the plurality of destination nodes (140, 150, 160), wherein the desired aggregate index includes information representative of carbon consumption, and communicate each desired destination index to the corresponding one of the plurality of destination nodes (140, 150, 160); and calculate a desired destination index for each of the plurality of destination nodes (140, 150, 160) based on a desired aggregate index for the plurality of destination nodes (140, 150, 160), wherein the desired aggregate index includes information representative of carbon consumption, and communicate each desired destination index to the corresponding one of the plurality of destination nodes (140, 150, 160); and each of the plurality of destination nodes (140, 150, 160) is configured to: receive the desired destination index from the processing circuit, display the desired destination index on a display; wherein each of the plurality of destination nodes (140, 150, 160) comprising a processing circuit adapted to select an automated load control. receive the desired destination index from the processing circuit, display the desired destination index on a display;
A method of operating an anycast cache server in a network, wherein an information object at an address identified by a uniform resource locator has been loaded onto the anycast cache server, comprising: configuring the anycast cache server by a method comprising: receiving, at the anycast cache server, a request to register the uniform resource locator in a network routing layer; in response to receiving the request at the anycast cache server, mapping the uniform resource locator to a network layer anycast address; creating a local state suitable for accepting future anycast requests; and advertising a route to the anycast address using network layer unicast routing. configuring the anycast cache server by a method comprising: receiving, at the anycast cache server, a request to register the uniform resource locator in a network routing layer; in response to receiving the request at the anycast cache server, mapping the uniform resource locator to a network layer anycast address; creating a local state suitable for accepting future anycast requests; and advertising a route to the anycast address using network layer unicast routing. receiving, at the anycast cache server, a request to register the uniform resource locator in a network routing layer; in response to receiving the request at the anycast cache server, mapping the uniform resource locator to a network layer anycast address; creating a local state suitable for accepting future anycast requests; and advertising a route to the anycast address using network layer unicast routing.
A method of transmitting Downlink Control Information, DCI, wherein the method comprises: judging, by a User Equipment, UE, under a predefined rule or from configuration information signaled in higher-layer signaling whether a DCI format of a Physical Downlink Control Channel, PDCCH, for scheduling a Physical Uplink Shared Channel, PUSCH, is to contain an Uplink, UL, index and/or a Downlink Assignment Index, DAI; and further determining, by the UE, according to a result of the judging, the number of transmitted bits in a DCI format of a PDCCH to be detected in a current downlink sub-frame, and detecting the PDCCH according to the determined number of transmitted bits in the DCI format, wherein carriers aggregated for the UE comprise at least two carriers with different Time Division Duplex, TDD, uplink/downlink configurations, and the TDD uplink/downlink configurations of the carriers are signaled in system information. judging, by a User Equipment, UE, under a predefined rule or from configuration information signaled in higher-layer signaling whether a DCI format of a Physical Downlink Control Channel, PDCCH, for scheduling a Physical Uplink Shared Channel, PUSCH, is to contain an Uplink, UL, index and/or a Downlink Assignment Index, DAI; and further determining, by the UE, according to a result of the judging, the number of transmitted bits in a DCI format of a PDCCH to be detected in a current downlink sub-frame, and detecting the PDCCH according to the determined number of transmitted bits in the DCI format, wherein carriers aggregated for the UE comprise at least two carriers with different Time Division Duplex, TDD, uplink/downlink configurations, and the TDD uplink/downlink configurations of the carriers are signaled in system information.
A bandwidth resource allocation method, comprising: • receiving, by a transport network controller, a first network topology request message from a first client controller, wherein the first network topology request message comprises first node information of a first link, last node information of the first link, and a bandwidth requirement of the first link (step 101); • determining, by the transport network controller, whether an allocable bandwidth of the first link satisfies the bandwidth requirement of the first link (step 102); • when determining that the allocable bandwidth of the first link does not satisfy the bandwidth requirement of the first link, determining, by the transport network controller, whether any idle bandwidth exists in an allocated bandwidth of the first link, and if yes, determining whether a sum of the allocable bandwidth of the first link and the idle bandwidth in the allocated bandwidth of the first link satisfies the bandwidth requirement of the first link, and if yes, selecting a first idle bandwidth in the allocated bandwidth of the first link as a first negotiated bandwidth, wherein the first idle bandwidth in the allocated bandwidth of the first link belongs to a second client controller (step 103); and • sending, by the transport network controller, a first bandwidth negotiation message to the second client controller, wherein the first bandwidth negotiation message comprises the first node information of the first link, the last node information of the first link, and first negotiated bandwidth information (step 104). • receiving, by a transport network controller, a first network topology request message from a first client controller, wherein the first network topology request message comprises first node information of a first link, last node information of the first link, and a bandwidth requirement of the first link (step 101); • determining, by the transport network controller, whether an allocable bandwidth of the first link satisfies the bandwidth requirement of the first link (step 102); • when determining that the allocable bandwidth of the first link does not satisfy the bandwidth requirement of the first link, determining, by the transport network controller, whether any idle bandwidth exists in an allocated bandwidth of the first link, and if yes, determining whether a sum of the allocable bandwidth of the first link and the idle bandwidth in the allocated bandwidth of the first link satisfies the bandwidth requirement of the first link, and if yes, selecting a first idle bandwidth in the allocated bandwidth of the first link as a first negotiated bandwidth, wherein the first idle bandwidth in the allocated bandwidth of the first link belongs to a second client controller (step 103); and • sending, by the transport network controller, a first bandwidth negotiation message to the second client controller, wherein the first bandwidth negotiation message comprises the first node information of the first link, the last node information of the first link, and first negotiated bandwidth information (step 104).
Method for quantifying particles emitting certain emitters and for characterizing the time-dependent behavior of the particles in a system which comprises particles of at least one species j, in particular of different species, wherein, in a measurement, emissions of the particles within a measurement period are detected and, in an evaluation, the number n of the emissions which have been detected in a time interval having a predetermined interval width within the measurement period is ascertained and stored, said evaluation being performed in particular for a plurality of time intervals having the same interval width, a distribution function p ( n) of the number n of the ascertained emissions being determined, wherein a) different bin times τ are set for the interval width and the evaluation is performed for each bin time τ and a distribution function p τ ( n) is ascertained, characterized in that for each bin time τ moments m i, τ Mess of the distribution function p τ ( n) are ascertained, from which bin-time-dependent moment functions m i Mess τ are presented, b) constants which characterize the particles in the system are ascertained from a numerical comparison of a theoretical signal function comprising moments m i sig τ of a theoretical signal distribution P sig ( n,τ) identifying an expected signal distribution ascertained via theoretical functions using a measured value function comprising the moment function m i Mess τ. a) different bin times τ are set for the interval width and the evaluation is performed for each bin time τ and a distribution function p τ ( n) is ascertained, characterized in that for each bin time τ moments m i, τ Mess of the distribution function p τ ( n) are ascertained, from which bin-time-dependent moment functions m i Mess τ are presented, b) constants which characterize the particles in the system are ascertained from a numerical comparison of a theoretical signal function comprising moments m i sig τ of a theoretical signal distribution P sig ( n,τ) identifying an expected signal distribution ascertained via theoretical functions using a measured value function comprising the moment function m i Mess τ.
A data processing method performed by a computer for supporting a medical brain mapping procedure, comprising the steps of receiving a microscope image of a patient's cortex and superimposing stimulation response marks onto the microscope image, wherein a stimulation response mark indicates the patient's response to an electrical stimulation of the cortex by a stimulation probe at a position associated with the stimulation response mark; characterized by the step of determining the probed stimulation response mark from the position of the stimulation probe relative to the cortex or the microscope, wherein the position of the stimulation probe is determined by tracking a marker device attached to the stimulation probe.
A plurality of absorbent articles for pets being packaged as a stacked plurality of the absorbent article for pets, the absorbent article for pets including: a liquid-permeable top sheet; a liquid-impermeable back surface layer; and an absorbent core sandwiched between the top sheet and the back surface layer, and configured in a rectangular shape having: a first end portion and a second end portion opposite each other; and a pair of side portions opposite each other and perpendicular to the first end portion and the second end portion, wherein each absorbent article for pets of the stacked plurality is folded and a first outer face is formed by a back surface layer side in a vicinity of the first end portion, and wherein the absorbent article for pets comprises: a hook member disposed on the back surface layer side in the vicinity of the first end portion; an engaging section disposed on a top sheet side in a vicinity of the second end portion and engageable with the hook member; and a weak engagement section disposed at a position that comes into contact with the hook member of an adjacent absorbent article for pets in a stacked state, allowing the hook member to engage with a weaker force than an engagement force for the engaging section. absorbent article for pets including: a liquid-permeable top sheet; a liquid-impermeable back surface layer; and an absorbent core sandwiched between the top sheet and the back surface layer, and configured in a rectangular shape having: a first end portion and a second end portion opposite each other; and a pair of side portions opposite each other and perpendicular to the first end portion and the second end portion, a hook member disposed on the back surface layer side in the vicinity of the first end portion; an engaging section disposed on a top sheet side in a vicinity of the second end portion and engageable with the hook member; and a weak engagement section disposed at a position that comes into contact with the hook member of an adjacent absorbent article for pets in a stacked state, allowing the hook member to engage with a weaker force than an engagement force for the engaging section.
Method for detecting the position of an external temperature sensor of a heating system with a controller and compensation for incorrect positioning, wherein a weather detection service is also connected to the controller of the heating system, wherein the controller records and compares the temperature profile of the external temperature sensor and of the weather detection service, derives correction data therefrom and controls the heating depending on the data of the weather detection service which are adapted using the correction data, characterised in that, if the temperature difference between the external temperature sensor and the weather detection service during the day is greater than the temperature difference between the external temperature sensor and the weather detection service at night by at least a predefined limit value, a positioning warning message is output.
A vibration-proofing device comprising: a first member connected to a vibration receiving portion and formed in a substantially cylindrical shape; a second member having a central axis and connected to a vibration generating portion, the second member disposed on an inner peripheral side of the first member; and an elastic body which elastically connects the first member and the second member, wherein the vibration-proofing device is adapted so that an initial load can be input substantially parallel to the central axis of the second member, characterized in that a plurality of liquid chambers (161, 162) are disposed adjacent to each other around the central axis of the second member and a partition wall made of the elastic body is disposed between the adjacent liquid chambers (161, 162), and wherein, a displacement regulating member is connected to the first member and the displacement regulating member abuts a formation area of the partition wall in the elastic body when the second member has been displaced in a direction opposite to the input direction of the initial load when the input direction is substantially parallel to the central axis of the second member thereby regulating the displacement of the elastic body. a first member connected to a vibration receiving portion and formed in a substantially cylindrical shape; a second member having a central axis and connected to a vibration generating portion, the second member disposed on an inner peripheral side of the first member; and an elastic body which elastically connects the first member and the second member, wherein the vibration-proofing device is adapted so that an initial load can be input substantially parallel to the central axis of the second member, characterized in that a plurality of liquid chambers (161, 162) are disposed adjacent to each other around the central axis of the second member and a partition wall made of the elastic body is disposed between the adjacent liquid chambers (161, 162), and wherein, a displacement regulating member is connected to the first member and the displacement regulating member abuts a formation area of the partition wall in the elastic body when the second member has been displaced in a direction opposite to the input direction of the initial load when the input direction is substantially parallel to the central axis of the second member thereby regulating the displacement of the elastic body.
A charging roll comprising: a core member, a rubber base material disposed around the core member, and a surface layer disposed around the rubber base material, characterised by a density of peaks S pd, measured according to section "Measurement of Density of Peaks Spd" in the description, of the surface of the surface layer being equal to or greater than 93,406 (1/mm 2) and being equal to or less than 153,027 (1/mm 2). a core member, a rubber base material disposed around the core member, and a surface layer disposed around the rubber base material, characterised by a density of peaks S pd, measured according to section "Measurement of Density of Peaks Spd" in the description, of the surface of the surface layer being equal to or greater than 93,406 (1/mm 2) and being equal to or less than 153,027 (1/mm 2).
An outboard motor, comprising: an engine; an engine cover covering the engine; a drive shaft vertically extending from the engine, the drive shaft being configured to be rotated by the engine; an upper case covering the drive shaft; a propeller shaft extending perpendicularly to the drive shaft; a lower case covering the propeller shaft; a front handle disposed forward of the drive shaft; and a rear handle disposed rearward of the drive shaft, wherein the front handle is disposed below the engine cover; and the rear handle is disposed below the engine cover, the rear handle being disposed in a position lower than a position of the front handle, wherein the rear handle is provided on the lower case, and the lower case includes a cavitation plate, characterised in that the rear handle is provided on the cavitation plate. an engine; an engine cover covering the engine; a drive shaft vertically extending from the engine, the drive shaft being configured to be rotated by the engine; an upper case covering the drive shaft; a propeller shaft extending perpendicularly to the drive shaft; a lower case covering the propeller shaft; a front handle disposed forward of the drive shaft; and a rear handle disposed rearward of the drive shaft, wherein the front handle is disposed below the engine cover; and the rear handle is disposed below the engine cover, the rear handle being disposed in a position lower than a position of the front handle, wherein the rear handle is provided on the lower case, and the lower case includes a cavitation plate, characterised in that the rear handle is provided on the cavitation plate.
Microfluidic flow cell for carrying out an analysis, having a substrate made of plastic, which has cavities for forming channel structures and chambers, the cavities being closed on one side of the substrate by a film adhesively bonded or/and welded to the substrate, and having a structural housing part, which is produced by multi-component injection moulding as a composite part having a hard and a soft component and is connected to the substrate on a side of the substrate facing away from the film to complete a functional section that fulfils a function of the flow cell, characterized in that the structural housing part is embodied in the form of a multifunctional part that completes more than two functional sections in a single joining process, in that the structural housing part has a plurality of elastically deformable soft component sections, which are arranged separately from one another, and in that the hard component of the structural housing part completes, as a functional section of the flow cell, a storage chamber (33, 33', 33").
A cosmetic product having a cosmetic composition impregnated in a soft polyurethane foam, comprising the soft polyurethane foam; and the cosmetic composition impregnated in the soft polyurethane foam, wherein the soft polyurethane foam is prepared by foaming a soft urethane foam composition comprising a polyol, wherein the polyol is any one selected from a hydrocarbon polyol; any one selected from a vegetable oil and a dimer acid derived from a vegetable oil; and a mixture of a hydrocarbon polyol and any one selected from a vegetable oil and a dimer acid derived from a vegetable oil. any one selected from a vegetable oil and a dimer acid derived from a vegetable oil; and a mixture of a hydrocarbon polyol and any one selected from a vegetable oil and a dimer acid derived from a vegetable oil.
Litter collection device comprising a bag holder, of solid cross-section, and comprising an upper surface, substantially planar and horizontal in the normal position of use of said bag holder, above which is positioned substantially horizontally and without folds or creases, the edge of a disposable bag, and an opening allowing access to the inside of said disposable bag, said device also comprising a flap, movable relative to said bag holder, able to go from a so-called "raised" position to a so-called "lowered" position, and vice versa, said flap comprising a surface, which is flat and substantially horizontal in the lowered position, facing said surface of said bag holder in the lowered position, and an opening allowing access to the inside of said disposable bag, characterized in that said device comprises means for fastening said disposable bag, for keeping the substantially horizontal part of said disposable bag without folds or creases in place, by pinching between said horizontal upper surface of said bag holder and said horizontal lower surface of said flap in the lowered position, said means being disposed on at least said lower surface of said flap.