mhurhangee/ep-ind-claims huggingface dataset:
A case assembly for a gas turbine engine comprising: an outer case having circumferentially spaced apart bosses including a recess; a vane assembly received in the outer case; an axial retention ring having uninstalled and installed conditions, the axial retention ring outside of the recess in the uninstalled condition and received in the recess in the installed condition; and an anti-rotation ring having a locked condition preventing rotation of the axial retention ring between the installed and uninstalled conditions; characterised in that: a gap is provided between adjacent bosses, and the anti-rotation feature includes a ring having a first projection received in the gap; in that the boss includes first and second recesses (66,77), and the vane assembly includes a hook received in the first recess, and the axial retention ring is received in the second recess in the installed condition; and in that the axial retention ring includes inner and outer circumferential tabs (73,75), the inner tabs abutting the hook and the outer tabs being received in the second recess in the installed condition. an outer case having circumferentially spaced apart bosses including a recess; a vane assembly received in the outer case; an axial retention ring having uninstalled and installed conditions, the axial retention ring outside of the recess in the uninstalled condition and received in the recess in the installed condition; and an anti-rotation ring having a locked condition preventing rotation of the axial retention ring between the installed and uninstalled conditions; characterised in that: a gap is provided between adjacent bosses, and the anti-rotation feature includes a ring having a first projection received in the gap; in that the boss includes first and second recesses (66,77), and the vane assembly includes a hook received in the first recess, and the axial retention ring is received in the second recess in the installed condition; and in that the axial retention ring includes inner and outer circumferential tabs (73,75), the inner tabs abutting the hook and the outer tabs being received in the second recess in the installed condition. a gap is provided between adjacent bosses, and the anti-rotation feature includes a ring having a first projection received in the gap; in that the boss includes first and second recesses (66,77), and the vane assembly includes a hook received in the first recess, and the axial retention ring is received in the second recess in the installed condition; and in that the axial retention ring includes inner and outer circumferential tabs (73,75), the inner tabs abutting the hook and the outer tabs being received in the second recess in the installed condition.
A smart device, comprising: a camera comprising a lens and an iris of electrochromic material positioned over the lens, the iris comprising a layer film; and a controller configured to cause the iris to adjust a size of an aperture formed in the film to adjust quantity of light incident on the lens, by varying the transparency of the film characterized in that the iris comprises a multitude of adjacent, separated films (311, 312, 313, 314) disposed concentrically in a same layer and having a plurality of apertures (351, 352, 353, 354) respectively, each of the plurality of apertures (351, 352, 353, 354) having a different size, wherein the iris further comprises electrodes (321, 322, 323, 324) that are connected to the plurality of films (311, 312, 313, 314), the electrodes (321, 322, 323, 324) being configured to apply voltage to the films (311, 312, 313, 314), and wherein each of the films (311, 312, 313, 314) is discontinuous at at least one spot to be connected to a corresponding one of the electrodes (321, 322, 323, 324) that is configured to apply the voltage to the corresponding film. a camera comprising a lens and an iris of electrochromic material positioned over the lens, the iris comprising a layer film; and a controller configured to cause the iris to adjust a size of an aperture formed in the film to adjust quantity of light incident on the lens, by varying the transparency of the film characterized in that the iris comprises a multitude of adjacent, separated films (311, 312, 313, 314) disposed concentrically in a same layer and having a plurality of apertures (351, 352, 353, 354) respectively, each of the plurality of apertures (351, 352, 353, 354) having a different size, wherein the iris further comprises electrodes (321, 322, 323, 324) that are connected to the plurality of films (311, 312, 313, 314), the electrodes (321, 322, 323, 324) being configured to apply voltage to the films (311, 312, 313, 314), and wherein each of the films (311, 312, 313, 314) is discontinuous at at least one spot to be connected to a corresponding one of the electrodes (321, 322, 323, 324) that is configured to apply the voltage to the corresponding film.
An electronic fuel control system comprising a carburettor comprising a throttle bore and a fuel chamber, the system further comprising an idle fuel circuit extending between the fuel chamber and the throttle bore and controlled by an idle speed adjustment member, and a high-speed fuel circuit extending between the fuel chamber and the throttle bore and controlled by a high-speed adjustment member, the idle speed adjustment member and the high speed adjustment member being adapted to be manually adjusted; and an actuator operable to automatically adjust at least one of adjustment members (18, 20) in response to one or more engine operating parameters, the actuator comprising a motor, a first lever driven by the motor, a second lever driving the at least one adjustment member (18, 20), and a link connecting the first and second levers (40, 44) together.
Method for decelerating a utility vehicle, characterised in that - in a determination step a target deceleration value for the utility vehicle is determined using pedal information, wherein the pedal information represents a pedal position of a brake pedal of the utility vehicle; - in an acquisition step an offset value is acquired using deceleration information and the target deceleration value, wherein the deceleration information represents a current change in speed (Δv) of the utility vehicle; and - in a provision step a brake signal is provided for a brake system of the utility vehicle using the offset value and the pedal information, in order to decelerate the utility vehicle. - in a determination step a target deceleration value for the utility vehicle is determined using pedal information, wherein the pedal information represents a pedal position of a brake pedal of the utility vehicle; - in an acquisition step an offset value is acquired using deceleration information and the target deceleration value, wherein the deceleration information represents a current change in speed (Δv) of the utility vehicle; and - in a provision step a brake signal is provided for a brake system of the utility vehicle using the offset value and the pedal information, in order to decelerate the utility vehicle.
Method for the operation of a picking device with - a store with storage spaces and a retrieval space, - a handling device for the loading of items in the storage spaces and the retrieval of items from the storage spaces, - an input detection unit for identification of the loaded item, - an input unit (8,9) to determine the retrieved item as well as - a controller, which controls the handling device independently of the signals from the input detection unit, wherein items that have already been determined as retrievable by means of the input unit (8,9) prior to identification through the input detection unit are transported directly to the retrieval space by means of the handling device, characterised in that a plurality of retrievable items are combined into one order by means of the input unit (8,9), wherein the items of the order are collected at the retrieval space before retrieval and a plurality of retrieval spaces are available, wherein various orders are each allocated one or many retrieval spaces. - a store with storage spaces and a retrieval space, - a handling device for the loading of items in the storage spaces and the retrieval of items from the storage spaces, - an input detection unit for identification of the loaded item, - an input unit (8,9) to determine the retrieved item as well as - a controller, which controls the handling device independently of the signals from the input detection unit,
A method for fabricating a porous structure suitable for a medical implant comprising the steps of: creating a model of a porous structure, said creating step comprising the steps of: defining a three dimensional space having an outer boundary and an inner volume, placing a plurality of outer spatial coordinates along the outer boundary, placing a plurality of inner spatial coordinates in the inner volume, moving a finite distance in a random direction at least one spatial coordinate from one of said plurality of outer spatial coordinates and said plurality of inner spatial coordinates; dividing the volume of the three dimensional space among the outer and inner spatial coordinates, defining the boundary of a portion of said divided volume with one or more struts and one or more nodes to form a scaffold, where each strut has a first end, a second end, and a continuous elongated body between the first and second ends for each strut, and each node is an intersection of at least two struts, and selecting at least one thickness and at least one shape for one or more struts; fabricating the porous structure according to the model by exposing fusible material to an energy source. defining a three dimensional space having an outer boundary and an inner volume, placing a plurality of outer spatial coordinates along the outer boundary, placing a plurality of inner spatial coordinates in the inner volume, moving a finite distance in a random direction at least one spatial coordinate from one of said plurality of outer spatial coordinates and said plurality of inner spatial coordinates; dividing the volume of the three dimensional space among the outer and inner spatial coordinates, defining the boundary of a portion of said divided volume with one or more struts and one or more nodes to form a scaffold, where each strut has a first end, a second end, and a continuous elongated body between the first and second ends for each strut, and each node is an intersection of at least two struts, and selecting at least one thickness and at least one shape for one or more struts; fabricating the porous structure according to the model by exposing fusible material to an energy source.
An ultrashort pulsed fiber laser, comprising: a fiber booster extending over free space and having a light-emitter-doped multimode, MM, core (76, 78, 80) which is configured to guide sub-nanosecond pulses of single mode, SM, linearly polarized signal light in a propagation direction; a pump provided with a pump light delivery fiber which is configured to guide pump light in the propagation direction and coextends with the fiber booster over the free space; a portable laser head receiving downstream regions of the fiber booster and the pump light delivery fiber, respectively; and a flexible sleeve surrounding the fiber booster and the pump light delivery fiber over the free space, wherein the portable laser head is configured to: redirect the pump light in a counter-propagation direction so that the redirected pump light is coupled into a downstream end of the MM core (76, 78, 80), output amplified signal light in the propagation direction in substantially a single fundamental mode; and a linearly chirped fiber Bragg grating, FBG, upstream from and coupled to the fiber booster; and a tunable pulse stretcher supporting the linearly chirped FBG and operable to induce changes in a length of the FBG, wherein the tunable pulse stretcher includes a flexure mount which supports the FBG, and a piezoelectric actuator mounted to the flexure mount, so as to controllably tune a pulse duration of the signal light in a desired pulse duration range. a fiber booster extending over free space and having a light-emitter-doped multimode, MM, core (76, 78, 80) which is configured to guide sub-nanosecond pulses of single mode, SM, linearly polarized signal light in a propagation direction; a pump provided with a pump light delivery fiber which is configured to guide pump light in the propagation direction and coextends with the fiber booster over the free space; a portable laser head receiving downstream regions of the fiber booster and the pump light delivery fiber, respectively; and a flexible sleeve surrounding the fiber booster and the pump light delivery fiber over the free space, redirect the pump light in a counter-propagation direction so that the redirected pump light is coupled into a downstream end of the MM core (76, 78, 80), output amplified signal light in the propagation direction in substantially a single fundamental mode; and a linearly chirped fiber Bragg grating, FBG, upstream from and coupled to the fiber booster; and a tunable pulse stretcher supporting the linearly chirped FBG and operable to induce changes in a length of the FBG, wherein the tunable pulse stretcher includes a flexure mount which supports the FBG, and a piezoelectric actuator mounted to the flexure mount, so as to controllably tune a pulse duration of the signal light in a desired pulse duration range.
Method for the production of a water vapour permeable laminar sheet, wherein the method comprises the steps of: a) Feeding of a laminar carrier sheet to a first roll and application of an adhesive onto one side of the carrier sheet at a first location in conveying direction of the carrier sheet, wherein the adhesive is a hot melt adhesive and is applied onto the carrier sheet in a molten state; b) Application of a water vapour permeable molten material onto that side of the carrier sheet which is provided with the adhesive at a second location in conveying direction of the carrier sheet which is located downstream from the first location; c) Pressing of the composite of carrier sheet, adhesive and water vapour permeable material in a rolling gap which is formed by the first roll and a second roll which cooperates with the first roll; d) Cooling of the pressed composite of carrier sheet, adhesive and water vapour permeable material in conveying direction downstream the rolling gap and hauling of the composite from the roll arrangement (3, 5), characterized in that the adhesive is applied by means of a sheet die onto the carrier sheet. a) Feeding of a laminar carrier sheet to a first roll and application of an adhesive onto one side of the carrier sheet at a first location in conveying direction of the carrier sheet, wherein the adhesive is a hot melt adhesive and is applied onto the carrier sheet in a molten state; b) Application of a water vapour permeable molten material onto that side of the carrier sheet which is provided with the adhesive at a second location in conveying direction of the carrier sheet which is located downstream from the first location; c) Pressing of the composite of carrier sheet, adhesive and water vapour permeable material in a rolling gap which is formed by the first roll and a second roll which cooperates with the first roll; d) Cooling of the pressed composite of carrier sheet, adhesive and water vapour permeable material in conveying direction downstream the rolling gap and hauling of the composite from the roll arrangement (3, 5),
A continuous process for direct reduction of iron ore in a solid state includes: transporting briquettes of iron ore fragments and biomass through a preheating chamber and preheating iron ore and biomass to a temperature of at least 400°C as iron ore and biomass move through the chamber; and transporting preheated briquettes through a reaction chamber that has an anoxic environment and exposing iron ore and biomass in briquettes to electromagnetic energy in the form of microwave energy under anoxic conditions and generating heat within iron ore, and biomass acting as a reductant and reducing iron ore in a solid state, as briquettes move through the chamber.
A contacting part made of a thermoplastic resin composition comprising: 20 to 65 parts by mass of a rubber-reinforced vinyl resin; and 35 to 80 parts by mass of a polycarbonate resin (provided that the total amount of and is 100 parts by mass); wherein: the rubber-reinforced vinyl resin comprises a rubber-reinforced vinyl resin obtained by polymerizing a vinyl monomer in the presence of an ethylene-α-olefin rubber polymer having Tm (melting point) of 0°C or higher; and a rubber-reinforced vinyl resin obtained by polymerizing a vinyl monomer in the presence of a diene rubber polymer; and the total amount of the ethylene-α-olefin rubber polymer and the diene rubber polymer is 5 to 30% by mass based on 100% by mass of the thermoplastic resin composition; wherein Tm is measured by DSC (differential scanning calorimetry) in which an endothermic change is measured at a constant heating rate of 20°C/minute and a peak temperature of the obtained endothermic pattern is read. 20 to 65 parts by mass of a rubber-reinforced vinyl resin; and 35 to 80 parts by mass of a polycarbonate resin (provided that the total amount of and is 100 parts by mass); the rubber-reinforced vinyl resin comprises a rubber-reinforced vinyl resin obtained by polymerizing a vinyl monomer in the presence of an ethylene-α-olefin rubber polymer having Tm (melting point) of 0°C or higher; and a rubber-reinforced vinyl resin obtained by polymerizing a vinyl monomer in the presence of a diene rubber polymer; and the total amount of the ethylene-α-olefin rubber polymer and the diene rubber polymer is 5 to 30% by mass based on 100% by mass of the thermoplastic resin composition; wherein Tm is measured by DSC (differential scanning calorimetry) in which an endothermic change is measured at a constant heating rate of 20°C/minute and a peak temperature of the obtained endothermic pattern is read.
A method comprising: receiving a request at a network entity from a source for registration information of a user; verifying that the source is authorized to receive the information, the verifying further comprising: comparing the source of the request against all non-barred public user identities of the user, and comparing the source of the request against all network entities identified in a Path header contained in a previous Register request related to the user; and generating a response authorizing the request if the source is authorized to receive the information, wherein the source is authorized to receive the information if there is a match in any of the comparisons. receiving a request at a network entity from a source for registration information of a user; verifying that the source is authorized to receive the information, the verifying further comprising: comparing the source of the request against all non-barred public user identities of the user, and comparing the source of the request against all network entities identified in a Path header contained in a previous Register request related to the user; and comparing the source of the request against all non-barred public user identities of the user, and comparing the source of the request against all network entities identified in a Path header contained in a previous Register request related to the user; and generating a response authorizing the request if the source is authorized to receive the information, wherein the source is authorized to receive the information if there is a match in any of the comparisons.
A flow path member comprising: a base; and a flow path which includes an inlet and an outlet in the base; wherein the base is made of ceramics whose surface resistance is 1X10 7 Ω /sq or more, and the flow path includes a low resistance portion whose surface resistance is less than 1X10 7 Ω /sq in at least a part thereof, wherein the flow path includes an inflow path on the inlet side, an outflow path on the outlet side, and a circulation path between the inflow path and the outflow path, and the low resistance portion is provided in the inflow path, characterized in that a surface resistance of the low resistance portion of the inflow path decreases stepwise towards the inlet. a base; and a flow path which includes an inlet and an outlet in the base; wherein the base is made of ceramics whose surface resistance is 1X10 7 Ω /sq or more, and the flow path includes a low resistance portion whose surface resistance is less than 1X10 7 Ω /sq in at least a part thereof, wherein the flow path includes an inflow path on the inlet side, an outflow path on the outlet side, and a circulation path between the inflow path and the outflow path, and the low resistance portion is provided in the inflow path, characterized in that a surface resistance of the low resistance portion of the inflow path decreases stepwise towards the inlet.
A pivoted residential roof window or pivoted-hinged residential roof window, comprising a sliding guide device for constraining the pivot position of the sash frame of the residential roof window, comprising a base body fixed to the blind frame of the residential roof window, which has a first sliding surface of a sliding guide channel for a guide piece fixed to the sash frame, characterised by a channel element, which is held on the base body by means of an adjusting device and which has a second sliding surface, which forms a clamping passage, which can be adjusted at clamp distance, with the first sliding surface for the guide piece.