mhurhangee/ep-ind-claims huggingface dataset:
An X-ray detector comprising: a detector element including a cathode electrode and an anode electrode which are spaced apart from each other and a photoconductive layer located between the cathode electrode and the anode electrode, and configured to absorb X-rays and generate electric charges; characterised by a first temperature controller (120; 120a; 120b; 120c; 120d) configured to contact a first surface of the detector element and is configured to control a temperature of the cathode electrode; and a second temperature controller configured to contact a second surface of the detector element opposite to the first surface of the detector element and configured to control a temperature of the anode electrode. a detector element including a cathode electrode and an anode electrode which are spaced apart from each other and a photoconductive layer located between the cathode electrode and the anode electrode, and configured to absorb X-rays and generate electric charges; characterised by a first temperature controller (120; 120a; 120b; 120c; 120d) configured to contact a first surface of the detector element and is configured to control a temperature of the cathode electrode; and a second temperature controller configured to contact a second surface of the detector element opposite to the first surface of the detector element and configured to control a temperature of the anode electrode.
A programmable integrated circuit comprising: an array of signal processing accelerators, SPAs, on a first die, a field programmable gate array, FPGA, on a second die that is separate from the first die, and an interposer between the first and second dice (120, 122), the interposer comprising connections facilitating communication between the FPGA and the array of SPAs, wherein the array of SPAs is configured to receive input data from the FPGA and is programmable to perform at least a filtering function on the input data to obtain output data. an array of signal processing accelerators, SPAs, on a first die, a field programmable gate array, FPGA, on a second die that is separate from the first die, and an interposer between the first and second dice (120, 122), the interposer comprising connections facilitating communication between the FPGA and the array of SPAs, wherein the array of SPAs is configured to receive input data from the FPGA and is programmable to perform at least a filtering function on the input data to obtain output data.
A method for wind turbine component replacement, comprising: - movably coupling a trolley to a structural member of the wind turbine - coupling a light-duty hoist to the trolley - removably coupling a light-duty crane to a structural member of the wind turbine - lifting a spreader (300, 400) to the nacelle of the wind turbine in a vertical orientation - coupling the spreader (300, 400) to a wind turbine component; - raising a hoist by the light-duty hoist in a substantially vertical orientation and a spool of cable into the nacelle of the wind turbine; - mounting the hoist on a member of the nacelle; - rotatably coupling the spool to a mount disposed within the nacelle; - decouple light-duty hoist from trolley, moving the hoist onto the trolley by light-duty crane and coupling the hoist to the trolley; - routing the cable from the spool to the hoist; and - routing the cable between at least one sheave (214, 216) disposed on the hoist and at least one sheave disposed on the spreader (300, 400). - movably coupling a trolley to a structural member of the wind turbine - coupling a light-duty hoist to the trolley - removably coupling a light-duty crane to a structural member of the wind turbine - lifting a spreader (300, 400) to the nacelle of the wind turbine in a vertical orientation - coupling the spreader (300, 400) to a wind turbine component; - raising a hoist by the light-duty hoist in a substantially vertical orientation and a spool of cable into the nacelle of the wind turbine; - mounting the hoist on a member of the nacelle; - rotatably coupling the spool to a mount disposed within the nacelle; - decouple light-duty hoist from trolley, moving the hoist onto the trolley by light-duty crane and coupling the hoist to the trolley; - routing the cable from the spool to the hoist; and - routing the cable between at least one sheave (214, 216) disposed on the hoist and at least one sheave disposed on the spreader (300, 400).
Process for the removal of acidic compounds from a solvent-containing metal oxide dispersion, characterized by the following steps: a) conversion of solvent to the gas phase; b) allowing the solvent to condense; c) bringing the condensed solvent into contact with a neutralization medium which has spatial separation from the metal oxide dispersion; d) returning the condensed solvent to the metal oxide dispersion; wherein the solvent is an organic solvent immiscible with water and the metal oxide has been selected from the group consisting of metal oxides of the 3rd and 4th main group, transition metal oxides, and oxides of the lanthanoids and actinoids. a) conversion of solvent to the gas phase; b) allowing the solvent to condense; c) bringing the condensed solvent into contact with a neutralization medium which has spatial separation from the metal oxide dispersion; d) returning the condensed solvent to the metal oxide dispersion;
A method for checking the hardware configuration of an actually built control system using a mobile device that comprises a camera and a storage device in which a digital representation of a desired hardware configuration of the actually built control system is stored, wherein the actually built control system comprises a control module with a plurality of connection devices, wherein an I/O module is connected to each connection device in such a way that the control module is coupled to the I/O modules in a mechanically detachable manner, wherein there is provided on the control module an optical mark for unambiguous identification of the control module and on each of the I/O modules at least one optical mark (100-107; 110-113) for unambiguous identification of the respective I/O module, and wherein the optical marks (31, 100-107; 110, 113) are arranged at predetermined locations on the control module and the I/O modules, comprising the following steps: a) capturing, with the mobile device, a digital image of the actually built control system and extracting the optical marks (31; 100-107; 110-113) comprised in the captured digital image and respectively arranging the extracted optical marks in one of the fields of a first two-dimensional matrix, wherein the representation of the desired hardware configuration of the actually built control system, stored in the mobile device, comprises a second two-dimensional matrix, wherein predetermined fields of the second matrix each comprise a unique identifier for identifying the control module and the I/O modules; b) checking the hardware configuration of the actually built control system in the mobile device by comparing the digital representation stored in the mobile device with the digital image captured in step a) by evaluating the optical marks (31, 100-107; 110-113), wherein the contents of the corresponding fields of the first and second matrices are compared with each other, and wherein the mobile device, in response to the comparison performed in step b), can detect a faulty hardware configuration in the actually built control system and determine the location within the faulty hardware configuration. a) capturing, with the mobile device, a digital image of the actually built control system and extracting the optical marks (31; 100-107; 110-113) comprised in the captured digital image and respectively arranging the extracted optical marks in one of the fields of a first two-dimensional matrix, wherein the representation of the desired hardware configuration of the actually built control system, stored in the mobile device, comprises a second two-dimensional matrix, wherein predetermined fields of the second matrix each comprise a unique identifier for identifying the control module and the I/O modules; b) checking the hardware configuration of the actually built control system in the mobile device by comparing the digital representation stored in the mobile device with the digital image captured in step a) by evaluating the optical marks (31, 100-107; 110-113), wherein the contents of the corresponding fields of the first and second matrices are compared with each other,
A gas compression system for compressing gas transported by a gas pipeline, wherein the gas compression system comprises a gas turbine engine and a reciprocating compressor, wherein the gas turbine engine comprises an axial compressor section, a combustor section, and a turbine section, wherein the turbine section comprises a high-pressure turbine section and a low-pressure turbine section located downstream the high-pressure turbine section, wherein the low-pressure turbine section is fluidly coupled to the high-pressure turbine section, wherein the high-pressure turbine section has a shaft, wherein the low-pressure turbine section has a shaft mechanically coupled through a mechanical connection to a crankshaft of the reciprocating compressor so to transmit a rotation motion from the low-pressure turbine section to the reciprocating compressor, wherein the mechanical connection comprises a gearbox, wherein the shaft of the low-pressure turbine section is mechanically decoupled from the shaft of the-high-pressure turbine section whereby the low-pressure turbine section operates as a free turbine, the gas compression system being characterised in that the mechanical connection further comprises an elastomeric coupling and a flywheel. wherein the gas compression system comprises a gas turbine engine and a reciprocating compressor, wherein the gas turbine engine comprises an axial compressor section, a combustor section, and a turbine section, wherein the turbine section comprises a high-pressure turbine section and a low-pressure turbine section located downstream the high-pressure turbine section, wherein the low-pressure turbine section is fluidly coupled to the high-pressure turbine section, wherein the high-pressure turbine section has a shaft, wherein the low-pressure turbine section has a shaft mechanically coupled through a mechanical connection to a crankshaft of the reciprocating compressor so to transmit a rotation motion from the low-pressure turbine section to the reciprocating compressor, wherein the mechanical connection comprises a gearbox, wherein the shaft of the low-pressure turbine section is mechanically decoupled from the shaft of the-high-pressure turbine section whereby the low-pressure turbine section operates as a free turbine, the gas compression system being characterised in that the mechanical connection further comprises an elastomeric coupling and a flywheel.
A piezoelectric device comprising: a support; an oxide film formed on the support; a piezoelectric thin film formed on a surface of the oxide film opposite a surface thereof closer to the support; and comb-shaped electrodes formed on a surface of the piezoelectric film opposite a surface thereof closer to the oxide film; wherein the oxide film is a film of silicon oxide; the thickness of the piezoelectric thin film is 1μm or less; a film thickness of the oxide film is about 0.1 to 10 μm; a composition of the oxide film satisfies the relationship 1.6 ≤ y/x ≤ 1.99 in SixOy; and the resistivity of the oxide film is 10 6 Ω·cm or more. a support; an oxide film formed on the support; a piezoelectric thin film formed on a surface of the oxide film opposite a surface thereof closer to the support; and comb-shaped electrodes formed on a surface of the piezoelectric film opposite a surface thereof closer to the oxide film; wherein the oxide film is a film of silicon oxide; the thickness of the piezoelectric thin film is 1μm or less; a film thickness of the oxide film is about 0.1 to 10 μm; a composition of the oxide film satisfies the relationship 1.6 ≤ y/x ≤ 1.99 in SixOy; and the resistivity of the oxide film is 10 6 Ω·cm or more.
Method for exploiting for petroleum in a sedimentary basin, said basin comprising at least one layer of carbonate sediments, by means of a stratigraphic simulator that makes it possible to reconstruct the sedimentary history of said basin from a geological time t up to a current time, by means of at least one sample of rock from said layer and a Representative Elementary Volume scale, said scale being determined according to said sample, characterized in that the following steps are carried out for said layer: A. on the basis of measurements performed on said sample, parameters of a microstructural model representative of the diagenetic state of said layer at said current time are determined, said parameters of said microstructural model being defined at said scale; B. on the basis of measurements performed on said sample, at least one diagenetic step undergone by said sediments of said layer from said geological time t up to said current time is identified, and minimum and maximum variations in said parameters of said microstructural model are determined for each of said diagenetic steps; C. at least one mechanical parameter of said sediments of said layer is determined for each of said diagenetic steps, by means of effective medium modelling and of said variations in said parameters of said microstructural model which are determined for each of said diagenetic steps; and in that the following steps are carried out: D. the petroleum potential of said basin is evaluated at least by means of said simulator and of said mechanical parameters determined for each of said diagenetic steps, and at least one zone of said basin exhibiting said highest petroleum potential is selected; E. said basin is exploited according to said selected zone. A. on the basis of measurements performed on said sample, parameters of a microstructural model representative of the diagenetic state of said layer at said current time are determined, said parameters of said microstructural model being defined at said scale; B. on the basis of measurements performed on said sample, at least one diagenetic step undergone by said sediments of said layer from said geological time t up to said current time is identified, and minimum and maximum variations in said parameters of said microstructural model are determined for each of said diagenetic steps; C. at least one mechanical parameter of said sediments of said layer is determined for each of said diagenetic steps, by means of effective medium modelling and of said variations in said parameters of said microstructural model which are determined for each of said diagenetic steps; D. the petroleum potential of said basin is evaluated at least by means of said simulator and of said mechanical parameters determined for each of said diagenetic steps, and at least one zone of said basin exhibiting said highest petroleum potential is selected; E. said basin is exploited according to said selected zone.
An absorbent article having a longitudinal direction, a lateral direction intersecting the longitudinal direction, and a front-back direction intersecting the longitudinal direction and the lateral direction, the absorbent article comprising: a front waist portion extending along the lateral direction; a back waist portion extending along the lateral direction; and an absorbent main body including an absorbent body that absorbs liquid, and being provided between the front waist portion and the back waist portion, a one-side end portion of the back waist portion on a one side in the lateral direction being joined by a first joining portion to a one-side end portion of the front waist portion on the one side in the lateral direction, the back waist portion including a fastening portion on another side in the lateral direction, the fastening portion being fastened to the front waist portion when putting on the absorbent article, the front waist portion having a first region located on the one side relative to a lateral center of the absorbent main body, the front waist portion having a second region located on the other side relative to the lateral center of the absorbent main body, an elastic region stretching/contracting in the lateral direction, the elastic region being provided in at least a part of the first region, characterized in that the elastic region is not provided in a region of the second region, thereby forming a non-elastic region which is provided in at least a region located on the other side relative to an end of the absorbent main body on the other side. a front waist portion extending along the lateral direction; a back waist portion extending along the lateral direction; and an absorbent main body including an absorbent body that absorbs liquid, and being provided between the front waist portion and the back waist portion, a one-side end portion of the back waist portion on a one side in the lateral direction being joined by a first joining portion to a one-side end portion of the front waist portion on the one side in the lateral direction, the back waist portion including a fastening portion on another side in the lateral direction, the fastening portion being fastened to the front waist portion when putting on the absorbent article, the front waist portion having a first region located on the one side relative to a lateral center of the absorbent main body, the front waist portion having a second region located on the other side relative to the lateral center of the absorbent main body, an elastic region stretching/contracting in the lateral direction, the elastic region being provided in at least a part of the first region, characterized in that the elastic region is not provided in a region of the second region, thereby forming a non-elastic region which is provided in at least a region located on the other side relative to an end of the absorbent main body on the other side.
A wheel-rail lubrication and noise fleet management system configured to control the lubrication needs of a fleet of rail-based vehicles comprising: a. at least one central fleet management server comprising a lubrication application; b. a plurality of lubrication systems remote from the at least one central fleet management server; and c. a plurality of lubrication controllers remote from the at least one central fleet management server, wherein each of the plurality of lubrication controllers is associated with and is configured to control at least one of the plurality of lubrication systems, wherein each of the plurality of lubrication controllers is further configured: i. to communicate with the associated at least one of the plurality of lubrication systems; ii. to communicate with at least one sensor; and iii. to communicate with the central fleet management server, wherein the lubrication application of the at least one central fleet management server is configured to control the operation of and receive communications from the plurality of lubrication controllers. a. at least one central fleet management server comprising a lubrication application; b. a plurality of lubrication systems remote from the at least one central fleet management server; and c. a plurality of lubrication controllers remote from the at least one central fleet management server, wherein each of the plurality of lubrication controllers is associated with and is configured to control at least one of the plurality of lubrication systems, wherein each of the plurality of lubrication controllers is further configured: i. to communicate with the associated at least one of the plurality of lubrication systems; ii. to communicate with at least one sensor; and iii. to communicate with the central fleet management server, wherein the lubrication application of the at least one central fleet management server is configured to control the operation of and receive communications from the plurality of lubrication controllers. i. to communicate with the associated at least one of the plurality of lubrication systems; ii. to communicate with at least one sensor; and iii. to communicate with the central fleet management server, wherein the lubrication application of the at least one central fleet management server is configured to control the operation of and receive communications from the plurality of lubrication controllers.
An oil transfer device for lubricating a rotatable planet carrier of an epicyclic gear train for a turbomachine, the device extending around an axis and having: - an annular casing extending around the axis, the casing comprising a plurality of axially juxtaposed oil feed grooves, each having a predominantly radial oil ejection opening for leading oil from said groove to the epicyclic gear train, the grooves comprising at least one first groove, referred to as a high-pressure groove, for conveying oil at a first pressure, referred to as high-pressure, and at least one second groove, referred to as a low-pressure groove, for conveying oil at a second pressure, referred to as low-pressure, lower than the high-pressure, at least one low-pressure groove being axially juxtaposed to at least one high-pressure groove, the grooves being axially arranged along the axis so that oil can be transferred axially from the high-pressure groove to the low-pressure groove, the device being characterized in that a high-pressure groove is located axially between two low-pressure grooves. - an annular casing extending around the axis, the casing comprising a plurality of axially juxtaposed oil feed grooves, each having a predominantly radial oil ejection opening for leading oil from said groove to the epicyclic gear train, the grooves comprising at least one first groove, referred to as a high-pressure groove, for conveying oil at a first pressure, referred to as high-pressure, and at least one second groove, referred to as a low-pressure groove, for conveying oil at a second pressure, referred to as low-pressure, lower than the high-pressure, at least one low-pressure groove being axially juxtaposed to at least one high-pressure groove, the grooves being axially arranged along the axis so that oil can be transferred axially from the high-pressure groove to the low-pressure groove, the device being characterized in that a high-pressure groove is located axially between two low-pressure grooves.