mhurhangee/ep-ind-claims huggingface dataset:
An evolved NodeB, eNB (12, 400) for coordination of self-organizing network, SON, functions comprising a capacity and coverage optimization, CCO, function and an energy saving management, ESM, function, the eNB comprising one or more processors operably coupled with at least one memory device (408, 410, 412), and the one or more processors configured to execute instructions to: identify a trigger for the eNB to operate in an energy saving, ES, compensate state to compensate for a neighbor eNB that is to enter an energy saving, ES, state; determine whether a binary semaphore stored in the memory of the eNB is in a locked or an unlocked state by performing a set and test command, wherein the eNB is configured to set the binary semaphore to the locked state to indicate that the CCO function of the eNB has recently adjusted, is currently adjusting, or will adjust one or more configuration parameters of the eNB; and in response to determining that the binary semaphore is in the locked state, instruct (324, 326) the eNB not to initiate the ES compensate state. identify a trigger for the eNB to operate in an energy saving, ES, compensate state to compensate for a neighbor eNB that is to enter an energy saving, ES, state; determine whether a binary semaphore stored in the memory of the eNB is in a locked or an unlocked state by performing a set and test command, wherein the eNB is configured to set the binary semaphore to the locked state to indicate that the CCO function of the eNB has recently adjusted, is currently adjusting, or will adjust one or more configuration parameters of the eNB; and in response to determining that the binary semaphore is in the locked state, instruct (324, 326) the eNB not to initiate the ES compensate state.
A network node (1 5), comprising: at least one communication interface (3 1-2); at least one memory; and at least one processor configured: - to receive an HTTP request for a data object on said at least one communication interface (3 1) from a downstream node (1 4), - to determine whether to bid for storing said requested data object in said at least one memory, - to calculate a bid value, - to forward said HTTP request to an upstream node (1 6) on said at least one communication interface (3 2), said HTTP request including said calculated bid value in dependence on at least said determination whether to bid, - to receive a response message comprising said requested data object from said upstream node (1 6) on said at least one communication interface (3 2), - to determine from at least said response message whether said network node (1 5) won said bid, - to store said data object in said at least one memory if said network node (1 5) won said bid, and - to forward said response message to said downstream node (1 4) on said at least one communication interface (3 1). at least one communication interface (3 1-2); at least one memory; and at least one processor configured: - to receive an HTTP request for a data object on said at least one communication interface (3 1) from a downstream node (1 4), - to determine whether to bid for storing said requested data object in said at least one memory, - to calculate a bid value, - to forward said HTTP request to an upstream node (1 6) on said at least one communication interface (3 2), said HTTP request including said calculated bid value in dependence on at least said determination whether to bid, - to receive a response message comprising said requested data object from said upstream node (1 6) on said at least one communication interface (3 2), - to determine from at least said response message whether said network node (1 5) won said bid, - to store said data object in said at least one memory if said network node (1 5) won said bid, and - to forward said response message to said downstream node (1 4) on said at least one communication interface (3 1). - to receive an HTTP request for a data object on said at least one communication interface (3 1) from a downstream node (1 4), - to determine whether to bid for storing said requested data object in said at least one memory, - to calculate a bid value, - to forward said HTTP request to an upstream node (1 6) on said at least one communication interface (3 2), said HTTP request including said calculated bid value in dependence on at least said determination whether to bid, - to receive a response message comprising said requested data object from said upstream node (1 6) on said at least one communication interface (3 2), - to determine from at least said response message whether said network node (1 5) won said bid, - to store said data object in said at least one memory if said network node (1 5) won said bid, and - to forward said response message to said downstream node (1 4) on said at least one communication interface (3 1).
A system for vertically adjusting a shelf, such as in refrigerating appliances, cabinets, lockers and similar, said system comprising horizontal support members (10, 11) arranged perpendicularly to vertical guides (1, 2) where they can be vertically adjusted, and a deposit plate, a drawer or similar, being attached to said horizontal support members (10, 11), said plate being fixed in a form-locking and friction-type manner in vertical guides (1, 2) by means of horizontal support members (10, 11), characterized in that said vertical guide (1, 2), having a C-shaped cross-section, comprises a web formed with a plurality of through holes for passing the air, and a side arranged opposite to said web, said side being formed with folds facing each other, where the free end of at least one fold (6, 7) is formed with a gearing (8, 9) extending preferably over the entire length of said guide (1, 2).
Method for printing a security feature on a medium comprising inkjet printing an ink including one or more pigments, wherein at least one pigment satisfies the formula 1 000 000 > π Δρ g d 4 12 k B T > 10 whereas Δρ is a density difference between pigment and ink vehicle g is an earth acceleration constant d is a pigment particle diameter D90; k B is a Boltzmann constant; and T is a temperature; wherein the pigment particle diameter D90 is from about 1 μm to about 50 μm; wherein the ink has a viscosity of less than 30 mPa*s at 1000s -1 and 25°C; whereas inkjet printing of the ink is performed by a flextensional ink jet print head structure; and printing is performed to provide one or more security features on the medium. wherein at least one pigment satisfies the formula 1 000 000 > π Δρ g d 4 12 k B T > 10 whereas Δρ is a density difference between pigment and ink vehicle g is an earth acceleration constant d is a pigment particle diameter D90; k B is a Boltzmann constant; and T is a temperature; Δρ is a density difference between pigment and ink vehicle g is an earth acceleration constant d is a pigment particle diameter D90; k B is a Boltzmann constant; and T is a temperature; wherein the pigment particle diameter D90 is from about 1 μm to about 50 μm; wherein the ink has a viscosity of less than 30 mPa*s at 1000s -1 and 25°C; whereas inkjet printing of the ink is performed by a flextensional ink jet print head structure; and printing is performed to provide one or more security features on the medium.
Method for producing a rod antenna for a vehicle, wherein a helical spring is connected at at least one of the two ends thereof to an antenna component, characterized in that the connection between the helical spring and the antenna component is carried out by expanding the inner diameter of the helical spring, by at least partially inserting the antenna component into the expanded helical spring and subsequently returning the helical spring in the direction of the original inner diameter thereof for the purposes of securing.
A method performed by a managed device of a network, the method comprising: receiving, by processing circuitry of the managed device, from a network management system, a single configuration change request representing a transaction having a plurality of sub-transactions, wherein each sub-transaction of the plurality of sub-transactions specifies one or more respective configuration changes for the managed device; selectively installing, by the processing circuitry, for each sub-transaction of the plurality of sub-transactions, the one or more respective configuration changes at the managed device; constructing, by the processing circuitry, a reply message based on the selectively installing, wherein the reply message comprises, for each sub-transaction of the plurality of sub-transactions, a respective response element indicating whether the managed device committed the one or more respective configuration changes in a running configuration for the managed device; and outputting, by the processing circuitry, to the network management system, the reply message. receiving, by processing circuitry of the managed device, from a network management system, a single configuration change request representing a transaction having a plurality of sub-transactions, wherein each sub-transaction of the plurality of sub-transactions specifies one or more respective configuration changes for the managed device; selectively installing, by the processing circuitry, for each sub-transaction of the plurality of sub-transactions, the one or more respective configuration changes at the managed device; constructing, by the processing circuitry, a reply message based on the selectively installing, wherein the reply message comprises, for each sub-transaction of the plurality of sub-transactions, a respective response element indicating whether the managed device committed the one or more respective configuration changes in a running configuration for the managed device; and outputting, by the processing circuitry, to the network management system, the reply message.
Archive apparatus for storing and archiving items including radio frequency identification means the apparatus comprising a support structure, a drawer translatable in a translation direction into and out of the support structure, item support means associated with the drawer, a radio frequency reader antenna connected to the support structure adjacent to the drawer and recording means (34, 38) adapted to operatively communicate with the reader antenna to store information obtained from the radio frequency identification means of items supported by the drawer, characterized in that said items are laboratory samples; the item support means is a sample support means for supporting an array of said laboratory samples spaced at a pitch along the translation direction for movement with the drawer; and the reader antenna is configured to emit a curtain of electromagnetic waves which has a maximum dimension in the translation direction which is less than the pitch of the laboratory samples whereby the reader antenna will only read one radio frequency identification means at any one time as the drawer is translated between its opened and closed positions. said items are laboratory samples; the item support means is a sample support means for supporting an array of said laboratory samples spaced at a pitch along the translation direction for movement with the drawer; and the reader antenna is configured to emit a curtain of electromagnetic waves which has a maximum dimension in the translation direction which is less than the pitch of the laboratory samples whereby the reader antenna will only read one radio frequency identification means at any one time as the drawer is translated between its opened and closed positions.
Servomotor, comprising: - a base body, - an operating body which is disposed at the base body, - a drive arrangement with at least one drive device which is coupled to a drive section of the operating body and which due to this coupling upon activation of the drive arrangement effects a movement of the drive section of the operating body in one of two directions which are directed opposed to each other, - a rotation guide, with which the operating body is rotatably guided on the base body and through which the movement of the drive section of the operating body into a rotational movement of the operating body is implemented, - a return assembly which couples the operating body and the base body to each other and exerts a restoring force between them, which counteracts the operating movement of the operating body, characterized by a magnet compensation device which reduces or eliminates the restoring force exerted by the return assembly. - a base body, - an operating body which is disposed at the base body, - a drive arrangement with at least one drive device which is coupled to a drive section of the operating body and which due to this coupling upon activation of the drive arrangement effects a movement of the drive section of the operating body in one of two directions which are directed opposed to each other, - a rotation guide, with which the operating body is rotatably guided on the base body and through which the movement of the drive section of the operating body into a rotational movement of the operating body is implemented, - a return assembly which couples the operating body and the base body to each other and exerts a restoring force between them, which counteracts the operating movement of the operating body,
Continuous process for thermally treating a polyamide, said process comprising the steps of introducing polyamide particles, which have a water content of 5% to 20% by weight, based on the dry weight of the polyamide, into the upper region of a first reaction space and removing the polyamide particles from a lower region of the first reaction space, wherein the polyamide particles, as a bulk material, at the exit from the first reaction space have a temperature in the range from 100 to 195°C and a moisture content of at most 1% by weight, based on the dry weight of the bulk material, wherein the polyamide particles gravimetrically descending through the first reaction space are countercurrently contacted with a process gas which on entry into the first reaction space has a water content of 0.8% to 20% by weight, based on the overall weight of the process gas, and also a temperature of 100 to 200 °C, characterized in that the ratio of the superficial space velocity of the process gas to the loosening velocity of the polyamide particles is in the range from 0.7 to 1.5, at least in the lower region of the first reaction space, and the polyamide particles are present as a loosened bed, at least in the lower region of the first reaction space, and in that the ratio of the mass flow of the process gas m g to the mass flow of the polyamide particles m p is in the range from 3.0 to 20.0, and the above parameters are chosen such that the process gas does not condense out in the upper region of the first reaction space.
A method comprising: receiving information regarding at least one content recording device (11, 25); receiving information regarding a recording subject; determining, based at least in part on the information regarding the at least one content recording device and the information regarding the recording subject, whether the at least one content recording device (11, 25) is eligible to receive at least one permission indicator, wherein the at least one permission indicator is configured to indicate whether the at least one content recording device (11, 25) is permitted to record content or to upload recorded content; and causing the at least one permission indicator to be provided to the at least one content recording device (11, 25) in an instance in which it is determined that the at least one content recording device (11, 25) is eligible to receive the at least one permission indicator. receiving information regarding at least one content recording device (11, 25); receiving information regarding a recording subject; determining, based at least in part on the information regarding the at least one content recording device and the information regarding the recording subject, whether the at least one content recording device (11, 25) is eligible to receive at least one permission indicator, wherein the at least one permission indicator is configured to indicate whether the at least one content recording device (11, 25) is permitted to record content or to upload recorded content; and causing the at least one permission indicator to be provided to the at least one content recording device (11, 25) in an instance in which it is determined that the at least one content recording device (11, 25) is eligible to receive the at least one permission indicator.
A method for detecting Cronobacter spp. in a sample comprising: incubating the sample with a recombinant bacteriophage derived from a Cronobacter -specific bacteriophage comprising an indicator gene inserted into a late gene region of the bacteriophage genome and, upstream of the indicator gene, a phage late gene promoter exogenous to the Cronobacter-specific bacteriophage, wherein the indicator gene is not contiguous with a gene encoding a structural bacteriophage protein and does not yield a fusion protein, and wherein expression of the indicator gene results in an indicator protein product; and detecting the indicator protein product produced by the recombinant bacteriophage, wherein positive detection of the indicator protein product indicates that Cronobacter spp. is present in the sample; wherein the sample is a sample of powdered infant formula. incubating the sample with a recombinant bacteriophage derived from a Cronobacter -specific bacteriophage comprising an indicator gene inserted into a late gene region of the bacteriophage genome and, upstream of the indicator gene, a phage late gene promoter exogenous to the Cronobacter-specific bacteriophage, wherein the indicator gene is not contiguous with a gene encoding a structural bacteriophage protein and does not yield a fusion protein, and wherein expression of the indicator gene results in an indicator protein product; and detecting the indicator protein product produced by the recombinant bacteriophage, wherein positive detection of the indicator protein product indicates that Cronobacter spp. is present in the sample; wherein the sample is a sample of powdered infant formula.
A slurry composition for a secondary battery negative electrode comprising a negative electrode active material, a particulate polymer, and water, wherein the negative electrode active material includes a carbon-based negative electrode active material having a surface oxygen atom-containing functional group content of at least 0.9% and not more than 1.5% as determined by X-ray photoelectron spectroscopy, and a BET specific surface area of 2.5 m 2 /g or less, and the particulate polymer has a surface acid content determined as described in the description of at least 0.2 mmol/g and not more than 2.0 mmol/g.
A method for obtaining a program intended to be executed by an electronic device, such as a smart card, comprising a non-volatile memory, the method comprising steps of - inserting, into a source code, a first function at the start of a block of source code instructions, and inserting a second function at the end of the block of source code instructions, - after the insertions, generating the executable program from the source code, wherein - the first function is configured to deactivate a wear reduction mechanism of the non-volatile memory, when the program is executed by the electronic device, - the second function is configured to reactivate the wear reduction mechanism of the non-volatile memory, when the program is executed by the electronic device. - inserting, into a source code, a first function at the start of a block of source code instructions, and inserting a second function at the end of the block of source code instructions, - after the insertions, generating the executable program from the source code, - the first function is configured to deactivate a wear reduction mechanism of the non-volatile memory, when the program is executed by the electronic device, - the second function is configured to reactivate the wear reduction mechanism of the non-volatile memory, when the program is executed by the electronic device.
An in vitro population of engineered neural cells, neural stem cells, or neural progenitor cells that comprise a nucleic acid sequence that encodes an adenovirus E4ORF1 polypeptide but that does not comprise the entire adenovirus E4 region, said E4ORF1 polypeptide having an ability to increase cell proliferation when expressed in glial cells, or an ability to increase axonal length when expressed in neuronal cells.
A method for a radio node for enabling communication between a first communication device and a second communication device over a device-to-device, D2D, connection in a radio communications network, the method comprising: - allocating radio resource bands of a carrier band for the D2D connection according to at least a first pattern for frequency hopping, wherein the radio resource bands are used for frequency hopping over the carrier band and are at a respective carrier band edge and/or at the respective carrier band edge plus or minus a margin of bandwidth such that a contiguous bandwidth of radio resources between the radio resource bands is not used by the first pattern; and - signalling an indication of the allocated radio resource bands to the first communication device and/or the second communication device. - allocating radio resource bands of a carrier band for the D2D connection according to at least a first pattern for frequency hopping, wherein the radio resource bands are used for frequency hopping over the carrier band and are at a respective carrier band edge and/or at the respective carrier band edge plus or minus a margin of bandwidth such that a contiguous bandwidth of radio resources between the radio resource bands is not used by the first pattern; and - signalling an indication of the allocated radio resource bands to the first communication device and/or the second communication device.
A method for monitoring a generator cable of a generator system including a prime mover and an alternator: receiving a first signal indicative of a generator output and a first connection of a generator cable to the generator system; receiving a second signal indicative of a second connection of the generator cable to a load; calculating a characteristic value being a resistance for the generator cable based on the first signal and the second signal; receiving temperature data for the generator cable, with a look-up table associating different metals of the cable to different thermal coefficients; querying the look-up table to select the thermal coefficient for the generator cable based on an input setting; calculating a resistance threshold value from the temperature data and at least one generator cable property value in the form of the thermal coefficient selected from the look-up table; performing a comparison of the characteristic value for the generator cable in the form of its resistance to the resistance threshold value calculated from the temperature data; and generating a generator status message or a generator command in response to the comparison. receiving a first signal indicative of a generator output and a first connection of a generator cable to the generator system; receiving a second signal indicative of a second connection of the generator cable to a load; calculating a characteristic value being a resistance for the generator cable based on the first signal and the second signal; receiving temperature data for the generator cable, with a look-up table associating different metals of the cable to different thermal coefficients; querying the look-up table to select the thermal coefficient for the generator cable based on an input setting; calculating a resistance threshold value from the temperature data and at least one generator cable property value in the form of the thermal coefficient selected from the look-up table; performing a comparison of the characteristic value for the generator cable in the form of its resistance to the resistance threshold value calculated from the temperature data; and generating a generator status message or a generator command in response to the comparison.