mhurhangee/ep-ind-claims huggingface dataset:
Isolation ring for isolating the end windings of a stator of an electrical machine, comprising a protrusion with an insertion opening and a conductor guide, wherein an end of an electrical conductor is insertable through the insertion opening into the conductor guide, wherein the protrusion comprises a flexible arm with a sensor seat on an inner side of the flexible arm facing the conductor guide, and the flexible arm is at least partially moveable in a direction of the conductor guide, wherein the isolation ring and the protrusion are designed as one piece, a temperature sensor arranged in the sensor seat facing the conductor guide, and a rubber strap arranged around the protrusion in such a way that it exerts a force moving the flexible arm in the direction of the conductor guide, wherein the rubber strap is a heat shrink tube layer. a protrusion with an insertion opening and a conductor guide, wherein an end of an electrical conductor is insertable through the insertion opening into the conductor guide, wherein the protrusion comprises a flexible arm with a sensor seat on an inner side of the flexible arm facing the conductor guide, and the flexible arm is at least partially moveable in a direction of the conductor guide, wherein the isolation ring and the protrusion are designed as one piece, a temperature sensor arranged in the sensor seat facing the conductor guide, and a rubber strap arranged around the protrusion in such a way that it exerts a force moving the flexible arm in the direction of the conductor guide, wherein the rubber strap is a heat shrink tube layer.
A current-limiting and power-flow control device in which a superconductor is used for current-limiting via transition from a superconducting state to a normal conducting state caused by an overcurrent, comprising: - a superconducting current-limiting element including said superconductor; - a capacitor connected in series with said superconducting current-limiting element; and - a parallel circuit including a reactor connected in parallel with a series circuit including said superconducting current-limiting element and said capacitor and including either a thyristor switch or a tapped reactor connected in series with said reactor, characterized in that the current-limiting and power-flow control device comprises a control circuit which is configured to control the thyristor switch or the tapped reactor, respectively, so that said reactor included in said parallel circuit functions as a current-limiting reactor and for limiting said overcurrent after said transition to allow recovery of the superconducting current-limiting element to the superconducting state of the superconductor. - a superconducting current-limiting element including said superconductor; - a capacitor connected in series with said superconducting current-limiting element; and - a parallel circuit including a reactor connected in parallel with a series circuit including said superconducting current-limiting element and said capacitor and including either a thyristor switch or a tapped reactor connected in series with said reactor,
A method, comprising: at an electronic device (190, 1002) with one or more microphones (402, 516), a speaker, one or more processors, and memory storing one or more programs for execution by the one or more processors, the electronic device (190, 1002) being configured to be awakened by any of a plurality of affordances, the plurality of affordances including: (i) a voice-based affordance comprising a hotword, and (ii) an affordance other than the voice-based affordance: determining ambient noise of an environment associated with the electronic device (190, 1002), the ambient noise being characterized with a noise profile; determining whether the noise profile would interfere with recognition of the hotword in voice inputs detected by the electronic device (190, 1002), wherein determining whether the noise profile would interfere with recognition of the hotword in voice inputs comprises comparing the noise profile to a predetermined set of noise profiles, wherein the noise profiles of the predetermined set of noise profiles are known to negatively affect recognition of the hotword by the electronic device (190, 1002) in voice inputs; and in accordance with a determination that the ambient noise would interfere with recognition of the hotword, indicating to a user to use the affordance of the plurality of affordances other than the voice-based affordance. determining whether the noise profile would interfere with recognition of the hotword in voice inputs detected by the electronic device (190, 1002), wherein determining whether the noise profile would interfere with recognition of the hotword in voice inputs comprises comparing the noise profile to a predetermined set of noise profiles, wherein the noise profiles of the predetermined set of noise profiles are known to negatively affect recognition of the hotword by the electronic device (190, 1002) in voice inputs; and in accordance with a determination that the ambient noise would interfere with recognition of the hotword, indicating to a user to use the affordance of the plurality of affordances other than the voice-based affordance.
An apparatus for a long-term evolution, LTE, communication device, the apparatus comprising at least one processor, and at least one memory including computer program code, wherein the at least one memory and the computer program code are configured, with the at least one processor, to: support cell aggregation for communications with a multiple of cells of an LTE communication system based on a predefined maximum number of cells on a single carrier resource that can be aggregated by the LTE communication device; and signal information of the predefined maximum number of cells the LTE communication device supports for cell aggregation on a single carrier resource to an apparatus for controlling cell aggregation. support cell aggregation for communications with a multiple of cells of an LTE communication system based on a predefined maximum number of cells on a single carrier resource that can be aggregated by the LTE communication device; and signal information of the predefined maximum number of cells the LTE communication device supports for cell aggregation on a single carrier resource to an apparatus for controlling cell aggregation.
A cache write policy manager configured to: determine whether at least two caches among a plurality of parallel caches are active; instruct an active cache among the plurality of parallel caches to apply a write-back cache policy if all of one or more other caches among the plurality of parallel caches are not active; and instruct the active cache among the plurality of parallel caches to apply a write-through cache policy if any of the one or more other caches among the plurality of parallel caches are active; characterised in that the cache write policy manager is configured to instruct the active cache among the plurality of parallel caches to apply the write-back cache policy when all of the one or more other caches among the plurality of parallel caches become inactive. determine whether at least two caches among a plurality of parallel caches are active; instruct an active cache among the plurality of parallel caches to apply a write-back cache policy if all of one or more other caches among the plurality of parallel caches are not active; and instruct the active cache among the plurality of parallel caches to apply a write-through cache policy if any of the one or more other caches among the plurality of parallel caches are active; characterised in that the cache write policy manager is configured to instruct the active cache among the plurality of parallel caches to apply the write-back cache policy when all of the one or more other caches among the plurality of parallel caches become inactive.
A method of estimating the maximum power generation capacity of a gas turbine power plant having a controller which regulates the operation of the power plant, wherein said method comprises the steps of: a. calculating the actual power output and the maximum power generation capacity of the gas turbine power plant based on a mathematical model of the gas turbine power plant; b. measuring the actual power output of the gas turbine power plant; c. comparing said calculated actual power output and said measured power output to derive a model-estimation error; d. processing said model-estimation error to generate a correction signal; e. applying said correction signal to said calculated maximum power generation capacity to obtain a corrected estimate of the maximum power generation capacity of the gas turbine power plant. a. calculating the actual power output and the maximum power generation capacity of the gas turbine power plant based on a mathematical model of the gas turbine power plant; b. measuring the actual power output of the gas turbine power plant; c. comparing said calculated actual power output and said measured power output to derive a model-estimation error; d. processing said model-estimation error to generate a correction signal; e. applying said correction signal to said calculated maximum power generation capacity to obtain a corrected estimate of the maximum power generation capacity of the gas turbine power plant.
A method of purifying peptides and/or polypeptides, said peptides and/or polypeptides being the result of a tryptic digest of a sample of biological origin, said method comprising or consisting of: (a) loading a sample comprising peptides and/or polypeptides under acidic or neutral aqueous conditions on mixed-phase solid phase extraction material, wherein said material consists of or comprises reversed phase/ion exchange material; (b) washing said mixed-phase SPE material with (ba) an acidic or neutral composition comprising at least 50% (v/v) ethanol, 2-propanol, or butanol; and (bb) an acidic or neutral aqueous solution; and (c) eluting said peptides and/or polypeptides from said mixed-phase SPE material with an alkaline composition comprising at least 50% (v/v) organic solvent. (a) loading a sample comprising peptides and/or polypeptides under acidic or neutral aqueous conditions on mixed-phase solid phase extraction material, wherein said material consists of or comprises reversed phase/ion exchange material; (b) washing said mixed-phase SPE material with (ba) an acidic or neutral composition comprising at least 50% (v/v) ethanol, 2-propanol, or butanol; and (bb) an acidic or neutral aqueous solution; and (ba) an acidic or neutral composition comprising at least 50% (v/v) ethanol, 2-propanol, or butanol; and (bb) an acidic or neutral aqueous solution; and (c) eluting said peptides and/or polypeptides from said mixed-phase SPE material with an alkaline composition comprising at least 50% (v/v) organic solvent.
Preform without a supporting ring for producing plastic containers, in particular plastic bottles, in a stretch-blow-moulding process, the preform comprising an essentially elongated preform body, one longitudinal end of which is of a closed form and which at its opposite longitudinal end adjoins a neck portion, which is provided with a pouring opening and on the outer wall of which fastening means for the form-fitting fixing of a closure part equipped with corresponding engagement means are formed, wherein, at the transition from the preform body to the neck portion, a flange is formed on, running around peripherally, at least in certain regions, in an annular manner and protruding radially beyond an outer wall of the preform body, and wherein the neck portion has in a region between the flange and the fastening means a peripheral annular groove, which is bounded by the flange and, in the direction of the fastening means, by an outer shoulder, characterized in that the outer shoulder extends obliquely from a base of the annular groove to the outer wall of the neck portion and at an inner wall of the neck portion forms an inner shoulder, which runs around peripherally, at least in certain regions, in an annular manner and, as seen in the direction of the preform body, extends axially above the annular groove and merges into an inner wall of the preform body in a manner essentially free of undercuts.
A valve comprising an inlet connector arranged to receive fluid from a fluid flow line to an interior part of a closed housing, and an outlet connector arranged to deliver fluid to the fluid flow line from the interior part of the closed housing, a fluid flow path through the valve thereby being defined, the fluid flow path providing a fluid connection from the inlet connector to the outlet connector, a first valve member and a second valve member arranged inside the housing, the first valve member and the second valve member being movable relative to each other, and the first valve member and the second valve member defining a fluid passage arranged in the fluid flow path, a size of the fluid passage being determined by a relative position of the first valve member and the second valve member, an actuator arranged inside the housing for driving movements of the first valve member and/or the second valve member, said actuator being arranged directly in a flow of fluid flowing in the fluid flow path during operation of the valve, and a first housing part and a second housing part, the first housing part and the second housing part forming a closed housing of the valve, wherein the first housing part and the second housing part are made from a sheet metal material, and wherein the first housing part and the second housing part have been joined to form the closed housing by means of welding, characterized by a first sealing member arranged to provide sealing between the first valve member and the second valve member at an outlet side of the fluid passage, and a second sealing member arranged to provide sealing between the first valve member and the second valve member at an inlet side of the fluid passage.
An ion sensor for measuring ion concentration of a measurement target liquid, based on an output from a reference electrode and a working electrode, comprising: a field effect transistor functioning as the working electrode; a container containing the field effect transistor and the measurement target liquid, and being fixed at a predetermined potential and functioning as the reference electrode, the container having such a volume that, when the field effect transistor is immersed in the measurement target liquid, the field effect transistor is away from a liquid surface of the measurement target liquid and away from a side surface and a bottom surface of the container, the container being composed of metal or being composed of an insulating container and a conductive film composed of a conductive material coated on an inner wall surface of the insulating container; a support base made of an insulating member at the bottom surface of the container, the field effect transistor being placed on the support base such that the field effect transistor is away from the bottom surface of the container; and a driving circuit configured to cause a potential difference between a source electrode and a drain electrode of the field effect transistor. a field effect transistor functioning as the working electrode; a container containing the field effect transistor and the measurement target liquid, and being fixed at a predetermined potential and functioning as the reference electrode, the container having such a volume that, when the field effect transistor is immersed in the measurement target liquid, the field effect transistor is away from a liquid surface of the measurement target liquid and away from a side surface and a bottom surface of the container, the container being composed of metal or being composed of an insulating container and a conductive film composed of a conductive material coated on an inner wall surface of the insulating container; a support base made of an insulating member at the bottom surface of the container, the field effect transistor being placed on the support base such that the field effect transistor is away from the bottom surface of the container; and a driving circuit configured to cause a potential difference between a source electrode and a drain electrode of the field effect transistor.
A door or window frame with high resistance atmospheric agents, comprising a wooden supporting structure, and at least one metallic lamina applied to said wooden supporting structure at least at one of its two faces, said metallic lamina being in turn covered with a protective film, said metallic lamina being glued to said wooden supporting structure; said metallic lamina being shaped continuously onto said wooden profiled element and hooked to the surface concerned along the entire length of the wooden supporting structure to grip said wooden supporting structure so as to be coupled to said wooden structure also by way of mechanical anchoring; said protective film being a film of plastic material or based on acrylic resin, and said protective film being glued to the surface of said metallic lamina; characterized by the fact of comprising a lamina of PVC or other material interposed between the metallic lamina and the wooden supporting structure, said lamina being glued by way of a layer of adhesive (8, 5) to the wooden supporting structure and to the metallic lamina.
A method for evaluating the magnetic field of a main magnet of a magnetic resonance imaging system, comprising the steps of providing a phantom with a set of resonating volumes positioned in a base body, whereby the base body has a spherical or ellipsoid shape in accordance with a volume of interest of the MR imaging system, wherein the resonating volumes are arranged in different planes, which are arranged in parallel to each other such that all resonating volumes are arranged in circular or elliptic rings, and the resonating volumes are located at a circumference of the base body, the resonating volumes having a spherical shape with a diameter of less than one centimeter, positioning the phantom within the main magnet, performing a 3D spectroscopic MR measurement of the phantom with spatial encoding in three dimensions in which all spatial information is encoded in three dimensions by phase encoding gradients, using the MR imaging system, thereby measuring resonances of the resonating volumes, assigning the measured resonances to the resonating volumes, and evaluating the magnetic field of the main magnet from the MR measurement of the phantom based on the measured resonances of the resonating volumes. providing a phantom with a set of resonating volumes positioned in a base body, whereby the base body has a spherical or ellipsoid shape in accordance with a volume of interest of the MR imaging system, wherein the resonating volumes are arranged in different planes, which are arranged in parallel to each other such that all resonating volumes are arranged in circular or elliptic rings, and the resonating volumes are located at a circumference of the base body, the resonating volumes having a spherical shape with a diameter of less than one centimeter, positioning the phantom within the main magnet, performing a 3D spectroscopic MR measurement of the phantom with spatial encoding in three dimensions in which all spatial information is encoded in three dimensions by phase encoding gradients, using the MR imaging system, thereby measuring resonances of the resonating volumes, assigning the measured resonances to the resonating volumes, and evaluating the magnetic field of the main magnet from the MR measurement of the phantom based on the measured resonances of the resonating volumes.
A composition Z comprising a component B, a component C, a component D, a component E and a component P, wherein the component B is a polyethylene glycol, the component C is a polyglycerol ester, the component D is an earth alkali carbonate, the component E is a phyllosilicate, and the component P is a polystyrene and/or an alloy thereof.
A sealing member for sealing between a roll and at least one printer component, comprising: a first surface engageable with the roll and the at least one printer component, the roll and the at least one printer component forming a nip region (62, 64) therebetween, the first surface including at least one groove, a first portion of the first surface engageable with a corresponding portion of the roll at a first contact pressure; and a second surface biasing the first surface to be engageable with the roll and the at least one printer component, a first portion of the second surface providing the first contact pressure in a substantially uniform manner along the first portion of the first surface; characterised in that a nip region portion of the first surface abuts an end of the first portion of the first surface and is engageable with the roll and the at least one printer component along said nip region at a second contact pressure; and a nip region portion of the second surface providing the second contact pressure along the nip region portion of the first surface that is greater than the first contact pressure, and wherein the second surface includes a pair of projecting ribs (66-1, 66-2), each rib having a first stiffness along the first portion of the second surface to provide the first contact pressure and a second stiffness along the nip region portion of the second surface that is greater than the first stiffness to provide the second contact pressure. a first surface engageable with the roll and the at least one printer component, the roll and the at least one printer component forming a nip region (62, 64) therebetween, the first surface including at least one groove, a first portion of the first surface engageable with a corresponding portion of the roll at a first contact pressure; and a second surface biasing the first surface to be engageable with the roll and the at least one printer component, a first portion of the second surface providing the first contact pressure in a substantially uniform manner along the first portion of the first surface; characterised in that a nip region portion of the first surface abuts an end of the first portion of the first surface and is engageable with the roll and the at least one printer component along said nip region at a second contact pressure; and a nip region portion of the second surface providing the second contact pressure along the nip region portion of the first surface that is greater than the first contact pressure, and wherein the second surface includes a pair of projecting ribs (66-1, 66-2), each rib having a first stiffness along the first portion of the second surface to provide the first contact pressure and a second stiffness along the nip region portion of the second surface that is greater than the first stiffness to provide the second contact pressure.