mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: allowing a user to set a power management policy on a server; monitoring power consumption of a plurality of blades in the server; automatically managing power consumption of the server in response to the power consumption of the plurality of blades based on the power management policy set by the user; characterized in that it comprises: powering on the plurality of blades sequentially; and performing a power compatibility check on each of the plurality of blades after powering on the corresponding blade and before powering on a next blade, wherein the plurality of blades are in a power domain and performing the power compatibility check on each of the plurality of blades comprises: obtaining a power rating of the corresponding blade from a blade management controller BMC of the corresponding blade; and checking the power rating against overall available power for the power domain. allowing a user to set a power management policy on a server; monitoring power consumption of a plurality of blades in the server; automatically managing power consumption of the server in response to the power consumption of the plurality of blades based on the power management policy set by the user; powering on the plurality of blades sequentially; and performing a power compatibility check on each of the plurality of blades after powering on the corresponding blade and before powering on a next blade, obtaining a power rating of the corresponding blade from a blade management controller BMC of the corresponding blade; and checking the power rating against overall available power for the power domain.
Flange connection on a building structure in the form of an offshore or onshore structure, comprising a first, lower connection profile and a second, upper connection profile, which is connected to the first, lower connection profile, wherein the first, lower connection profile with a cylindrical, continuous profile cross section and with at least one end-side, encircling flange, wherein the flange has a flange body (5, 5a, 5b) with a supporting surface for supporting a mating surface of a complementary connection profile, and the supporting surface has through-passage openings for fastening means, said openings being spaced apart from one another on an arc of a circle, passing through it, and the flange body extends essentially at right angles to the longitudinal axis of the continuous profile cross section, wherein the flange body (5, 5a, 5b) is formed on either side of the wall of the continuous profile cross section, wherein an inwardly protruding part of the flange body is designed to protrude further than an outwardly protruding part of the flange body, and wherein the inwardly oriented part of the flange body has through-passage openings, which are arranged in a common circle pattern of holes, passing through it, characterized in that the second, upper connection profile is designed in the form of a connection profile with an internally encircling annular flange, which is configured in the form of a normal annular flange with an L-shaped profile.
A method of processing data of at least one wireless communication network, the method comprising: receiving, by a device, geolocation information for data segments received at a plurality of distributed components of a data processing system, the data segments being received from a plurality of network elements of the wireless communication network, a plurality of geographic regions being defined within a coverage area of the wireless communication network; and identifying, by the device and for each respective data segment of the data segments, a particular geographic region, of the plurality of geographic regions, to which a respective data segment relates based on the geolocation information for the respective data segment; determining, by the device and for each respective data segment, a respective backend processing resource, of backend processing resources, assigned to the particular geographic region based on information that indicates assignments of each geographic region, of the plurality of geographic regions, to a respective backend processing resource; and forwarding, by the device, the data segments to the backend processing resources based at least partly on the respective backend processing resource determined for each respective data segment, characterised in that the forwarding of the data segments to the backend processing resources is further based on at least one of: an anticipated volume of data for individual geographical regions; and a processing capacity of backend processing resources. receiving, by a device, geolocation information for data segments received at a plurality of distributed components of a data processing system, the data segments being received from a plurality of network elements of the wireless communication network, a plurality of geographic regions being defined within a coverage area of the wireless communication network; and identifying, by the device and for each respective data segment of the data segments, a particular geographic region, of the plurality of geographic regions, to which a respective data segment relates based on the geolocation information for the respective data segment; determining, by the device and for each respective data segment, a respective backend processing resource, of backend processing resources, assigned to the particular geographic region based on information that indicates assignments of each geographic region, of the plurality of geographic regions, to a respective backend processing resource; and forwarding, by the device, the data segments to the backend processing resources based at least partly on the respective backend processing resource determined for each respective data segment, characterised in that the forwarding of the data segments to the backend processing resources is further based on at least one of: an anticipated volume of data for individual geographical regions; and a processing capacity of backend processing resources. an anticipated volume of data for individual geographical regions; and a processing capacity of backend processing resources.
A coating film forming method comprising: a step A of coating a continuously transported base material with a coating liquid to form a plurality of coating liquid films on the base material; and characterised by a step B of, in each of the plurality of coating liquid films, applying a solvent contained in the coating liquid on both end parts of a coating liquid film in a width direction in a case where a concentration of solid contents of the both end parts of the coating liquid film in the width direction is higher than a concentration of solid contents of a central part of the coating liquid film in the width direction, so that the concentration of solid contents of the both end parts of the coating liquid film in the width direction is to be equal to or lower than the concentration of solid contents of the central part of the coating liquid film in the width direction, wherein: the end parts refer to an inner region up to 5 mm from a width direction edge portion of each coating liquid film, and the central part refers to a region inside the both end parts of each coating liquid film in the width direction. a step A of coating a continuously transported base material with a coating liquid to form a plurality of coating liquid films on the base material; and characterised by a step B of, in each of the plurality of coating liquid films, applying a solvent contained in the coating liquid on both end parts of a coating liquid film in a width direction in a case where a concentration of solid contents of the both end parts of the coating liquid film in the width direction is higher than a concentration of solid contents of a central part of the coating liquid film in the width direction, so that the concentration of solid contents of the both end parts of the coating liquid film in the width direction is to be equal to or lower than the concentration of solid contents of the central part of the coating liquid film in the width direction, the end parts refer to an inner region up to 5 mm from a width direction edge portion of each coating liquid film, and the central part refers to a region inside the both end parts of each coating liquid film in the width direction.
A method of manufacturing a negative electrode for lithium secondary batteries, comprising: manufacturing a negative electrode by forming a negative electrode active material layer on a negative electrode current collector; manufacturing a pre-lithiated negative electrode by impregnating the negative electrode with a pre-lithiation solution to perform a pre-lithiation process; and compressing the pre-lithiated negative electrode to adjust a porosity of the pre-lithiated negative electrode, wherein the porosity of the pre-lithiated negative electrode is in a range of 20% to 45%, wherein the porosity is calculated by the following Equation 1: Porosity % = 1 − Real Density / True Density × 100 wherein real density is a density of the negative electrode active material layer comprising pores, and true density is a solids density of the negative electrode active material layer without pores, the real density and the true density being measured according to the method described in the description, wherein the negative electrode active material comprises a silicon-based negative electrode active material and a carbon-based negative electrode active material, wherein a weight ratio of the silicon-based negative electrode active material to the carbon-based negative electrode active material is 1:99 to 50:50. manufacturing a negative electrode by forming a negative electrode active material layer on a negative electrode current collector; manufacturing a pre-lithiated negative electrode by impregnating the negative electrode with a pre-lithiation solution to perform a pre-lithiation process; and compressing the pre-lithiated negative electrode to adjust a porosity of the pre-lithiated negative electrode, wherein the porosity of the pre-lithiated negative electrode is in a range of 20% to 45%, wherein the porosity is calculated by the following Equation 1: Porosity % = 1 − Real Density / True Density × 100 wherein real density is a density of the negative electrode active material layer comprising pores, and true density is a solids density of the negative electrode active material layer without pores, the real density and the true density being measured according to the method described in the description, wherein the negative electrode active material comprises a silicon-based negative electrode active material and a carbon-based negative electrode active material, wherein a weight ratio of the silicon-based negative electrode active material to the carbon-based negative electrode active material is 1:99 to 50:50. wherein real density is a density of the negative electrode active material layer comprising pores, and true density is a solids density of the negative electrode active material layer without pores, the real density and the true density being measured according to the method described in the description, wherein the negative electrode active material comprises a silicon-based negative electrode active material and a carbon-based negative electrode active material, wherein a weight ratio of the silicon-based negative electrode active material to the carbon-based negative electrode active material is 1:99 to 50:50.
A can body printing system comprising: a detection section configured to, when printing is performed on a can body by a user, detect whether a predetermined condition for the printing is satisfied, wherein the predetermined condition is set by a third party that is not the user based on an assumption that printing is performed on regular can bodies by the user; and characterised in that the system further comprises a control section configured to control a stoppage of the printing on the can body in response to detection of the satisfaction of the predetermined condition. a detection section configured to, when printing is performed on a can body by a user, detect whether a predetermined condition for the printing is satisfied, wherein the predetermined condition is set by a third party that is not the user based on an assumption that printing is performed on regular can bodies by the user; and characterised in that the system further comprises a control section configured to control a stoppage of the printing on the can body in response to detection of the satisfaction of the predetermined condition.
An axial flow machine, in particular a gas turbine with axial hot gas flow or an axial compressor, comprising rotor-side rotor blades with bases and roots and stator-side guide vanes, whereby the rotor blades are secured to a rotor shaft, comprising an axis, through the e.g. fir-tree formed roots, the roots positively engaging in correspondingly undercut axial channels in a rotor shaft, whereby the bases are formed as heat shields for the rotor shaft and have cavities which communicate with one another and with a source of cooling air, and whereby there is a gap between adjacent bases of adjacent rotor blades in the circumferential direction of the rotor shaft, the gap communicating with the cavities, whereby the gap extends between the bases transversely to the circumferential direction each side of a parting plane, the parting plane forms the center of the gap and the axis of the rotor shaft lies in the parting plane, whereby the respective gap is sealed on the gas flow side by flat-strip type sealing strips (8', 8"), which are arranged with their longitudinal edges in opposing grooves (9', 9") in the side faces of the bases which are facing the parting plane, a first sealing strip is arranged at the edges of the side faces on the gas flow side extending in the axial direction of the rotor shaft and a further sealing strip (8") is arranged at at least one end face of the adjacent bases at edges of the side faces of the gap which extend in the radial direction of the rotor shaft, characterized in that, a key-type rotary sliding member, which axially locks the root of a rotor blade to the rotor shaft, covers with an operating handle in the locked position the open radially inner ends of the grooves (9") which receive the further sealing strip (8").
Insertion system comprising a base unit for placing on the body of a patient and an insertion device that can be coupled to the base unit, wherein the insertion device includes an insertion needle holder for holding an insertion needle and a drive mechanism (4, 5, 6) for moving the insertion needle holder in a puncturing direction, and a locking mechanism that effects locking of the drive mechanism (4, 5, 6) in an active state, characterized in that the locking mechanism is transitioned to an inactive state, in which the locking is released, by coupling the insertion device to the base unit, the locking mechanism comprises a slider that is displaced from the active state to the inactive state upon a switch of the locking mechanism, the slider is coupled to a latching element that is slid into an engagement position when the insertion device is coupled to the base unit, in which engagement position it connects the insertion device to the base unit in a positive fit-type manner, and the slider is coupled to the latching element by means of an articulated joint.
An optical system, comprising: an OCT system, which is configured to generate a measurement beam, which is incident on the object region in a converging manner to generate a measurement focus, which comprises a beam waist; wherein the OCT system comprises a scanning system, an objective lens and a beam expander, wherein the beam expander is configured for a controllable beam expansion of the measurement beam, wherein the scanning system, the objective lens and the beam expander are disposed in the measurement beam; wherein the beam expander is disposed along the measurement beam between the scanning system and the objective lens and generates an intermediate focus of the measurement beam between the scanning system and the objective lens; wherein a portion or all of the optically effective surfaces of the beam expander generate a controllably variable focal length for focusing the measurement beam to the intermediate focus; and wherein further the optically effective surfaces of the beam expander, which generate the variable focal length, focus a section of the measurement beam, which is incident on the beam expander, into the intermediate focus. an OCT system, which is configured to generate a measurement beam, which is incident on the object region in a converging manner to generate a measurement focus, which comprises a beam waist; wherein the OCT system comprises a scanning system, an objective lens and a beam expander, wherein the beam expander is configured for a controllable beam expansion of the measurement beam, wherein the scanning system, the objective lens and the beam expander are disposed in the measurement beam; wherein the beam expander is disposed along the measurement beam between the scanning system and the objective lens and generates an intermediate focus of the measurement beam between the scanning system and the objective lens; wherein a portion or all of the optically effective surfaces of the beam expander generate a controllably variable focal length for focusing the measurement beam to the intermediate focus; and wherein further the optically effective surfaces of the beam expander, which generate the variable focal length, focus a section of the measurement beam, which is incident on the beam expander, into the intermediate focus.
An apparatus for diverting callers to Web sessions, comprising: a processor associated with a customer care support, CCS, facility receiving a query from a customer pursuant to an ongoing non-visual session; said processor associated with said customer care support facility being configured for automatically detecting a connected device that a customer can access at the moment (203, 640), checking with the customer on devices that said customer can access at the moment (103, 104)_to offer the customer the option of receiving service over a Web session, as well as voice by sending an email link to the customer by which the customer can access additional content, or predicting a type of devices that customer can access based on previous interaction that said customer had with said customer care support facility; said processor associated with said customer care support facility being configured for delivering information visually to said customer via said connected device (106, 206, 207, 720); and said processor associated with a customer care support being configured for coordinating between a first interpreter for the non visual session and a second interpreter for the information delivered visually (420, 430, 442, 450, 460), merging a call control for the non-visual session and a dialog control, across a browser, for the information delivered visually by combining execution environments into a unified, state chart XML, SCXML, interpreter (205 - 207, 650, 662, 664, 666, 668, 740, 750).. a processor associated with a customer care support, CCS, facility receiving a query from a customer pursuant to an ongoing non-visual session; said processor associated with said customer care support facility being configured for automatically detecting a connected device that a customer can access at the moment (203, 640), checking with the customer on devices that said customer can access at the moment (103, 104)_to offer the customer the option of receiving service over a Web session, as well as voice by sending an email link to the customer by which the customer can access additional content, or predicting a type of devices that customer can access based on previous interaction that said customer had with said customer care support facility; said processor associated with said customer care support facility being configured for delivering information visually to said customer via said connected device (106, 206, 207, 720); and said processor associated with a customer care support being configured for coordinating between a first interpreter for the non visual session and a second interpreter for the information delivered visually (420, 430, 442, 450, 460), merging a call control for the non-visual session and a dialog control, across a browser, for the information delivered visually by combining execution environments into a unified, state chart XML, SCXML, interpreter (205 - 207, 650, 662, 664, 666, 668, 740, 750)..
A comb comprising an upper or a basic part and a number of teeth attached to and pointing out from the upper or basic part, wherein the outer or free end of the teeth forms two curved shapes or curvatures where the first curvature is curved substantially perpendicular to the longitudinal direction of the teeth, and the second curvature is curved outwards in relation to the upper or basic part, characterized in that the first curvature having a single radius of curvature in the range of 3-14 cm, and the second curvature having a single radius of curvature in the range of 3-14 cm.
A stable pharmaceutical formulation comprising an anti-HER2 antibody, sorbitol, from 1.0 mM to 3.0 mM L-histidine and from 1.5 mM to 3.0 mM L-histidine hydrochloride, and polyethylene glycol, wherein sorbitol and anti-HER2 antibody is present in a molar ratio of 550 to 700 mole of sorbitol: 1 mole of anti-HER2 antibody, wherein the PEG to anti-HER2 antibody mole ratio is in a range of 2:1 to 50:1, and wherein the molecular weight of the PEG is from 2000g/mol to 5000g/mol, wherein the molar concentration of the anti-HER2 antibody is 0.10mM to 0.25mM, and wherein the formulation has a pH of 5.0 - 7.5. wherein the PEG to anti-HER2 antibody mole ratio is in a range of 2:1 to 50:1, and wherein the molecular weight of the PEG is from 2000g/mol to 5000g/mol, wherein the molar concentration of the anti-HER2 antibody is 0.10mM to 0.25mM, and wherein the formulation has a pH of 5.0 - 7.5.