mhurhangee/ep-ind-claims huggingface dataset:
A transparency, comprising: a substrate having a first major surface and a second major surface; a first coating provided over at least a portion of the first major surface, the first coating comprising a first coating layer and a second coating layer, wherein the first coating layer comprises a gradient layer comprising silica and tin oxide having a thickness in the range of 100 Å to 1,200 Å and the second coating layer is a doped metal oxide layer having a thickness in the range of 500 Å to 5,000 Å; a second coating provided over at least a portion of the second major surface, the second coating comprising at least one dielectric layer and at least one metallic layer; and a protective coating provided over the second coating. a substrate having a first major surface and a second major surface; a first coating provided over at least a portion of the first major surface, the first coating comprising a first coating layer and a second coating layer, wherein the first coating layer comprises a gradient layer comprising silica and tin oxide having a thickness in the range of 100 Å to 1,200 Å and the second coating layer is a doped metal oxide layer having a thickness in the range of 500 Å to 5,000 Å; a second coating provided over at least a portion of the second major surface, the second coating comprising at least one dielectric layer and at least one metallic layer; and a protective coating provided over the second coating.
A slitting machine for removing a strip from a sheet of material, the slitting machine comprising: a blade assembly comprising: first and second cutting blades configured to cut the sheet of material to define the strip; a perforating blade arranged between the first and second cutting blades, the perforating blade configured to perforate the sheet of material to define an end of the strip, wherein the perforating blade has a greater diameter than the first and second cutting blades; and a shaft, wherein the first and second cutting blades and the perforating blade are coupled to the shaft; the slitting machine further comprising: a mechanism configured to move the shaft relative to the sheet of material to selectively engage the cutting blades and/or the perforating blade with the sheet of material. a blade assembly comprising: first and second cutting blades configured to cut the sheet of material to define the strip; a perforating blade arranged between the first and second cutting blades, the perforating blade configured to perforate the sheet of material to define an end of the strip, wherein the perforating blade has a greater diameter than the first and second cutting blades; and a shaft, wherein the first and second cutting blades and the perforating blade are coupled to the shaft; first and second cutting blades configured to cut the sheet of material to define the strip; a perforating blade arranged between the first and second cutting blades, the perforating blade configured to perforate the sheet of material to define an end of the strip, wherein the perforating blade has a greater diameter than the first and second cutting blades; and a shaft, wherein the first and second cutting blades and the perforating blade are coupled to the shaft; the slitting machine further comprising: a mechanism configured to move the shaft relative to the sheet of material to selectively engage the cutting blades and/or the perforating blade with the sheet of material.
A process for producing a ballistic-resistant curved molded article said process comprising - forming a stack of a plurality of composite sheets - pressing the stack comprising the composite sheets at a temperature of between 80°C to 150°C and a pressure of between 10 and 400 bar for at least 5 minutes to obtain a curved molded article, - cooling the compacted stack to a temperature below 80°C while maintaining the pressure above 10 bar, - releasing the pressure from the cooled curved molded article; wherein the composite sheets comprise unidirectionally aligned high tenacity polyethylene fibers and a matrix comprising a polyethylene resin being a homopolymer or copolymer of ethylene, characterised in that said ethylene has a density of between 870 to 980 kg/m 3 when measured according to ISO 1183 and a melt flow index of between 0.5 and 50 g/10min when measured in a dried state and according to ASTM 1238B-13 at a temperature of 190°C and a weight of 21.6 kg. - forming a stack of a plurality of composite sheets - pressing the stack comprising the composite sheets at a temperature of between 80°C to 150°C and a pressure of between 10 and 400 bar for at least 5 minutes to obtain a curved molded article, - cooling the compacted stack to a temperature below 80°C while maintaining the pressure above 10 bar, - releasing the pressure from the cooled curved molded article;
An optical data-recording system comprising: a laser; a dynamic digital hologram including a plurality of independently modulated pixels arranged in a plurality of holographic zones, the dynamic digital hologram being configured to split a received laser beam into a plurality of independently modulated child beams and to direct the child beams to an optical recording medium; an electronic controller operatively coupled to the dynamic digital hologram to control irradiance of the child beams by individually addressing each of a plurality of hologram pixels in each of the plurality of holographic zones; and a scanning mechanism configured to change a relative positioning of the laser versus the dynamic digital hologram so that irradiance from the laser is directed in sequence over each of the holographic zones whereby the exposure of the dynamic digital hologram is split into multiple exposures to increase the instantaneous laser power per child beam above a critical power density. a laser; a dynamic digital hologram including a plurality of independently modulated pixels arranged in a plurality of holographic zones, the dynamic digital hologram being configured to split a received laser beam into a plurality of independently modulated child beams and to direct the child beams to an optical recording medium; an electronic controller operatively coupled to the dynamic digital hologram to control irradiance of the child beams by individually addressing each of a plurality of hologram pixels in each of the plurality of holographic zones; and a scanning mechanism configured to change a relative positioning of the laser versus the dynamic digital hologram so that irradiance from the laser is directed in sequence over each of the holographic zones whereby the exposure of the dynamic digital hologram is split into multiple exposures to increase the instantaneous laser power per child beam above a critical power density.
A high voltage DC cable comprising an electrical insulation material, wherein the electrical insulation material comprises a cross-linked polyolefin obtainable by mixing a polyolefin with an azo compound of formula wherein X is a bond or an oxy-carbonyl (-C -O-) group, and R 1 and R 2 are each independently selected from non-polar moieties. X is a bond or an oxy-carbonyl (-C -O-) group, and R 1 and R 2 are each independently selected from non-polar moieties.
An apparatus for laser assisted eye treatment, comprising: a laser device configured to provide focused laser radiation and having a coupling port; a first accessory module having a contact surface for an eye and configured to detachably couple to the laser device at the coupling port; and a second accessory module including a measuring device that performs measurements of the laser radiation, the second accessory module being configured to detachably couple to the laser device at the coupling port in place of the first accessory module; characterized in that the coupling port includes a slide-in structure adapted to slidingly receive a selected one of the first and second accessory modules (16; 52). a laser device configured to provide focused laser radiation and having a coupling port; a first accessory module having a contact surface for an eye and configured to detachably couple to the laser device at the coupling port; and a second accessory module including a measuring device that performs measurements of the laser radiation, the second accessory module being configured to detachably couple to the laser device at the coupling port in place of the first accessory module;
Thermal printing mechanism comprising: - a printer chassis, - a thermal printhead comprising a thermal dotline arranged on a thermal printhead surface that is in contact with a platen roller, said thermal printhead being fixedly mounted on the printer chassis, - a motor for rotating a platen roller, with a motor spur gear, - a platen roller with a platen roller shaft and a platen roller gear mounted on it, said platen roller gear being a worm wheel, - pushing means arranged so as to urge the platen roller against the thermal printhead, characterized in that said motor is mounted on the printer chassis so as a gear axis of the motor is substantially parallel to said thermal printhead surface, which is in contact with the platen roller, and is perpendicular to the platen roller shaft, and in that the thermal printing mechanism further comprises a gear shaft mounted substantially parallel to the motor gear axis, said gear shaft having at one end a spur gear, mounted so as to engage with the motor spur gear, and at the other end - a worm screw, mounted so as to engage with the platen roller gear. - a printer chassis, - a thermal printhead comprising a thermal dotline arranged on a thermal printhead surface that is in contact with a platen roller, said thermal printhead being fixedly mounted on the printer chassis, - a motor for rotating a platen roller, with a motor spur gear, - a platen roller with a platen roller shaft and a platen roller gear mounted on it, said platen roller gear being a worm wheel, - pushing means arranged so as to urge the platen roller against the thermal printhead,
Method for simulating two-dimensional shadow images of an object, particularly an asymmetrical object, the method comprising: a) obtaining a three-dimensional representation of the surface of said object; b) inputting a perspective viewing direction defining a virtual path line; c) calculating intersections between the virtual path line and the surface of the object; d) calculating the distance between couples of consecutive intersections; e) calculating simulated beam intensity attenuation between such couples of consecutive intersections from an input parameter related to the attenuation coefficient of the object and the distance as calculated in d); f) displaying the simulated beam intensity attenuation as pixel brightness in a grey or colour scale in the form of a shadow image. a) obtaining a three-dimensional representation of the surface of said object; b) inputting a perspective viewing direction defining a virtual path line; c) calculating intersections between the virtual path line and the surface of the object; d) calculating the distance between couples of consecutive intersections; e) calculating simulated beam intensity attenuation between such couples of consecutive intersections from an input parameter related to the attenuation coefficient of the object and the distance as calculated in d); f) displaying the simulated beam intensity attenuation as pixel brightness in a grey or colour scale in the form of a shadow image.
A first device management server (DMG-1) in a service layer of an M2M network, the first device management server (DMG-1) comprising a processor and a memory, the first device management server (DMG-1) further including computer-executable instructions stored in the memory of the first device management server (DMG-1) which, when executed by the processor of the first device management server (DMG-1), cause the first device management server (DMG-1) to: receive, from a second device management server (DMG-2) in the service layer of the M2M network, a delegation request message indicating a request to transfer authority to manage a client from the second device management server (DMG-2) or from a third device management server (DMS-1) in a management layer of the M2M network, to the first device management server (DMG-1); send, to the second device management server (DMG-2), a delegation response message indicating acceptance of the transfer of authority to manage the client; establish a device management session with the client; send, to the second device management server (DMG-2), a delegation complete message indicating that the transfer of authority from the second device management server (DMG-2) or the third device management server (DMS-1) to the first device management server (DMG-1) is complete. receive, from a second device management server (DMG-2) in the service layer of the M2M network, a delegation request message indicating a request to transfer authority to manage a client from the second device management server (DMG-2) or from a third device management server (DMS-1) in a management layer of the M2M network, to the first device management server (DMG-1); send, to the second device management server (DMG-2), a delegation response message indicating acceptance of the transfer of authority to manage the client; establish a device management session with the client; send, to the second device management server (DMG-2), a delegation complete message indicating that the transfer of authority from the second device management server (DMG-2) or the third device management server (DMS-1) to the first device management server (DMG-1) is complete.
Magnetoresistive element for sensing an external magnetic field, comprising: a tunnel barrier layer sandwiched between a ferromagnetic reference layer having a pinned reference magnetization, and a ferromagnetic sense layer having a sense magnetization that can be freely oriented in the external magnetic field; wherein the reference, tunnel barrier, and sense layers (21, 22, 23) are stacked perpendicular to a layer plane (P L) thereof; wherein the reference magnetization is oriented substantially perpendicular to the layer plane (P L), and the sense magnetization is oriented substantially parallel to the layer plane (P L); characterized in that at least a portion of the magnetoresistive element has an annular cross-section in the layer plane (P L) forming an interior part and an exterior part of said at least a portion, the interior part having an inner diameter (D int) and the exterior part having an outer diameter (D out); wherein said at least a portion comprises the sense layer, and wherein the sense magnetization has a closed flux path configuration being orientable either in the clockwise or counterclockwise direction; and wherein the inner diameter (D int) being larger than 300 nm, and a difference between the inner and outer diameters (D int, D out) is greater than 150 nm. a tunnel barrier layer sandwiched between a ferromagnetic reference layer having a pinned reference magnetization, and a ferromagnetic sense layer having a sense magnetization that can be freely oriented in the external magnetic field; wherein the reference, tunnel barrier, and sense layers (21, 22, 23) are stacked perpendicular to a layer plane (P L) thereof; wherein the reference magnetization is oriented substantially perpendicular to the layer plane (P L), and the sense magnetization is oriented substantially parallel to the layer plane (P L); characterized in that at least a portion of the magnetoresistive element has an annular cross-section in the layer plane (P L) forming an interior part and an exterior part of said at least a portion, the interior part having an inner diameter (D int) and the exterior part having an outer diameter (D out); wherein said at least a portion comprises the sense layer, and wherein the sense magnetization has a closed flux path configuration being orientable either in the clockwise or counterclockwise direction; and wherein the inner diameter (D int) being larger than 300 nm, and a difference between the inner and outer diameters (D int, D out) is greater than 150 nm.
A method for wireless communication, comprising: receiving an uplink resource allocation for transmission of a transmission time interval, TTI, the TTI comprising two or more orthogonal frequency division multiplexing, OFDM, symbols within a slot, the uplink resource allocation indicating a demodulation reference signal, DMRS, configuration for the TTI, a symbol location within the TTI of a DMRS being based on the DMRS configuration, the DMRS configuration being further based at least in part on a position of the TTI in the slot; and transmitting the DMRS based at least in part on the DMRS configuration. receiving an uplink resource allocation for transmission of a transmission time interval, TTI, the TTI comprising two or more orthogonal frequency division multiplexing, OFDM, symbols within a slot, the uplink resource allocation indicating a demodulation reference signal, DMRS, configuration for the TTI, a symbol location within the TTI of a DMRS being based on the DMRS configuration, the DMRS configuration being further based at least in part on a position of the TTI in the slot; and transmitting the DMRS based at least in part on the DMRS configuration.
An apparatus for atomic probe tomography APT, the apparatus comprising a vacuum chamber, a sample holder for holding a sample inside the vacuum chamber, the sample having a free-standing tip, a 2-dimensional APT detector for detecting atoms evaporated from the tip, a voltage source for applying a voltage difference between the sample and the APT detector, an APT processing tool for reconstructing the material of the tip based on the detected atoms, wherein the apparatus further comprises: • a beam nozzle for delivering a coherent photon beam into the vacuum chamber, the beam being directed at the tip and having a beam energy in the soft X-ray energy range, the apparatus characterised by further comprising: • a 2-dimensional photon detector positioned for detecting photons from the X-ray beam which have interacted with the tip, wherein the beam nozzle is configured for permitting or enabling the scanning by the X-ray beam of adjacent and overlapping areas of the tip, and wherein the photon detector is configured for detecting interference patterns generated by detected photons originating from said adjacent areas, • a data processing tool configured to apply a ptychography or ankylography algorithm to the detected interference patterns and to derive therefrom respectively a 2-dimensional or 3-dimensional image of the tip area. • a beam nozzle for delivering a coherent photon beam into the vacuum chamber, the beam being directed at the tip and having a beam energy in the soft X-ray energy range, the apparatus characterised by further comprising: • a 2-dimensional photon detector positioned for detecting photons from the X-ray beam which have interacted with the tip, wherein the beam nozzle is configured for permitting or enabling the scanning by the X-ray beam of adjacent and overlapping areas of the tip, and wherein the photon detector is configured for detecting interference patterns generated by detected photons originating from said adjacent areas, • a data processing tool configured to apply a ptychography or ankylography algorithm to the detected interference patterns and to derive therefrom respectively a 2-dimensional or 3-dimensional image of the tip area. • a 2-dimensional photon detector positioned for detecting photons from the X-ray beam which have interacted with the tip, wherein the beam nozzle is configured for permitting or enabling the scanning by the X-ray beam of adjacent and overlapping areas of the tip, and wherein the photon detector is configured for detecting interference patterns generated by detected photons originating from said adjacent areas, • a data processing tool configured to apply a ptychography or ankylography algorithm to the detected interference patterns and to derive therefrom respectively a 2-dimensional or 3-dimensional image of the tip area.
A blade track apparatus for a gas turbine engine comprising: a blade track including a segment portion having a first surface and a second surface opposite the first surface, wherein the first surface is arcuate; a first attachment portion extending from the second surface, wherein a coupling region of the attachment portion has a dovetail shaped cross section; and a second attachment portion extending from the second surface, the second attachment portion having an open channel with a substantially C-shaped cross section, wherein the first and second attachment portions and the segment portion of the blade track is formed from a ceramic matrix composite material. a blade track including a segment portion having a first surface and a second surface opposite the first surface, wherein the first surface is arcuate; a first attachment portion extending from the second surface, wherein a coupling region of the attachment portion has a dovetail shaped cross section; and a second attachment portion extending from the second surface, the second attachment portion having an open channel with a substantially C-shaped cross section, wherein the first and second attachment portions and the segment portion of the blade track is formed from a ceramic matrix composite material.
Battery (10, 58) for a vehicle having a battery connection device (44, 46) for connecting the battery (10, 58) to the vehicle, a plurality of battery cells (22, 62) and a contacting device (36, 68) for electrically coupling the battery cells (22, 62) to the connection device (44, 46), wherein the contacting device (36, 68) has a first (40,72) and a second (42, 74) plate-shaped electrical conductive element (40, 42, 72, 74), of which each extends from the battery connection device (44, 46) to each of the battery cells (22, 62), the plus and minus pole of which is electrically connected to the conductive elements (40, 42, 72, 74), characterised in that the two conductive elements (40,42, 72, 74) are connected via an electrically insulating layer, which is formed by an adhered film or a laminating film, to each other to form a single component, wherein the contacting device (36, 68) has at least one recess (50', 78) and at least one of the conductive elements (40, 42, 74) is electrically connected to a connection pole (34, 48) of one of the battery cells (22, 62) via a wire which is led through the recess (50', 78).