mhurhangee/ep-ind-claims huggingface dataset:
A scintillator, comprising a sintered body which has a volume of ≤ 1 mm 3 and includes - crystal grains having a crystal region of a rare earth oxysulfide of the formula (Gd 1-a-b Pr a M b) 2 O 2 S, wherein M is at least one of Ce, Yb, Eu and Tb, a is a number satisfying 0.0001 ≤ a ≤ 0.01, and b is a number satisfying 0 ≤ b ≤ 0.005, the crystal grains having an average crystal grain diameter of 5-30 μm and a maximum diameter of ≤ 50 μm; and - a grain boundary between the crystal grains and having a polycrystal region of polycrystal bodies, each polycrystal body (i) has a composition different from that of the rare earth oxysulfide and (ii) contains iron and phosphorous, wherein the number of the polycrystal bodies is ≤ 200 per a unit area of 100 μm × 100 μm of a cross section of the sintered body. - crystal grains having a crystal region of a rare earth oxysulfide of the formula (Gd 1-a-b Pr a M b) 2 O 2 S, wherein M is at least one of Ce, Yb, Eu and Tb, a is a number satisfying 0.0001 ≤ a ≤ 0.01, and b is a number satisfying 0 ≤ b ≤ 0.005, the crystal grains having an average crystal grain diameter of 5-30 μm and a maximum diameter of ≤ 50 μm; and - a grain boundary between the crystal grains and having a polycrystal region of polycrystal bodies, each polycrystal body (i) has a composition different from that of the rare earth oxysulfide and (ii) contains iron and phosphorous,
A method for reconfiguring an electric power network, said network including: - an electric line, connected between first and second sources (S1, S2) able to apply a high voltage level to the line, the line including a plurality of meshes (10, 20, 30, 40) connected one after the other by a plurality of bars (101, 112, 123, 134, 102) forming nodes of the network, each of both ends of a mesh being electrically connected to a bar via a circuit breaker (11, 12; 21, 22; 31, 32; 41, 42) capable of being in an open position or a closed position, a bar that is not at a high voltage level being at a low voltage level; - a failure detection system, including, associated with each mesh, a pair of relays (13, 14; 23, 24; 33, 34; 43, 44) in communication with one another, a relay being able to control a local circuit breaker located at one end of the mesh in question when a failure is detected from the result of the differential measurement of the currents circulating at the ends of the mesh in question, characterized in that said method for reconfiguring is carried out by the relay of the failure detection system, and in that it consists of acquiring a value of the voltage level on a local bar to which is connected the circuit breaker controlled by the relay in question; acquire a value of the voltage level on a remote bar to which is connected the circuit breaker that is controlled by the other relay of the pair of relays to which the relay in question belongs; and commanding the closing of the local circuit breaker when the measured values of the voltage levels of the local bar and the remote bar are opposite, the local circuit breaker is in the open position, and no failure has been detected on the mesh in question, and in that the electric power network does not include a system dedicated to reconfiguring the network. - an electric line, connected between first and second sources (S1, S2) able to apply a high voltage level to the line, the line including a plurality of meshes (10, 20, 30, 40) connected one after the other by a plurality of bars (101, 112, 123, 134, 102) forming nodes of the network, each of both ends of a mesh being electrically connected to a bar via a circuit breaker (11, 12; 21, 22; 31, 32; 41, 42) capable of being in an open position or a closed position, a bar that is not at a high voltage level being at a low voltage level; - a failure detection system, including, associated with each mesh, a pair of relays (13, 14; 23, 24; 33, 34; 43, 44) in communication with one another, a relay being able to control a local circuit breaker located at one end of the mesh in question when a failure is detected from the result of the differential measurement of the currents circulating at the ends of the mesh in question,
Apparatus (14, 141) to apply a coating to media, comprising: a first roller for receiving a continuous belt, the continuous belt for receiving a coating from a second roller and for transferring the coating to media, the first roller being arranged to provide, in use, an adjustable width of the continuous belt to the second roller, wherein the width of the continuous belt provided to the second roller is adjustable to substantially correspond to the width of the media; and a controller for determining a width of the media and for controlling the first roller to provide a width of the continuous belt to the second roller corresponding to the determined width of the media. a first roller for receiving a continuous belt, the continuous belt for receiving a coating from a second roller and for transferring the coating to media, the first roller being arranged to provide, in use, an adjustable width of the continuous belt to the second roller, wherein the width of the continuous belt provided to the second roller is adjustable to substantially correspond to the width of the media; and a controller for determining a width of the media and for controlling the first roller to provide a width of the continuous belt to the second roller corresponding to the determined width of the media.
A process for producing a component, the process comprising the steps of: producing a former corresponding to the internal dimensions of the component to be formed; providing a layer of a second material on at least one surface of the former; locating the former in a containment and filling the containment with a first material; subjecting the containment to hot isostatic pressing such that the second material diffuses into the first material.
A device for applying a properly formatted trace of glue to semi-finished packaging products, having a discharge head, which comprises a plurality of glue outlet openings, wherein one glue valve (3, Va-f) is assigned to each glue outlet opening, having a glue guiding system (20, 21, 23a-f, 24, 25), with which the glue can be guided via the respective glue valve (3, Va-f) to the respective glue outlet opening, and having a control device, characterized in that a pressure sensor (DSc) is integrated in each glue valve, wherein with each pressure sensor the pressure in the glue guiding system (20, 21, 23a-f, 24, 25) can be measured in the glue flow direction behind the respective glue valve (3, Va-f), and that the control device is configured in such a manner that the time course of the measured values of the respective pressure sensor is compared with a target course of the corresponding value and wherein a change in the control of the valves is carried out by means of the time difference from the actual to the target course of the corresponding value.
A method performed in a first network node in a first wireless network of enabling a wireless device, being unable to access the first wireless network via a first network node, to access the first wireless network, the method comprising the steps: - receiving from a second network node in a second wireless network information indicating an inability of the wireless device to access the first wireless network, and - reconfiguring an access procedure parameter or access procedures parameters provided in the first wireless network based on the received information in order to improve the conditions for the wireless device when accessing first wireless network. - receiving from a second network node in a second wireless network information indicating an inability of the wireless device to access the first wireless network, and - reconfiguring an access procedure parameter or access procedures parameters provided in the first wireless network based on the received information in order to improve the conditions for the wireless device when accessing first wireless network.
A safety device against the removal of one or both hands of a driver from the steering wheel of a moving motor vehicle while driving the vehicle, comprising: • two sensing areas (2a, 2b) associated with respective left and right halves of the rim of the steering wheel of the motor vehicle or with portions thereof intended for placing the hands of the driver of the motor vehicle for correctly driving it, each of said sensing areas (2a, 2b) being able to provide detection of contact of a respective hand of the driver, • a processing unit which is able to compare the hand contact detections provided by said sensing areas (2a, 2b) with stored data in order to verify the simultaneous contact of both of the driver's hands with said sensing areas (2a, 2b), and • an alarm device controlled by said processing unit so as to be actuated in case of disagreement between said detections and said stored data characterized in that • each hand contact detection is an electrical capacity value measured between the driver's hand and the mass of the vehicle through the driver's body; • said stored data are human body capacity data indicative of the driver's body identity. • two sensing areas (2a, 2b) associated with respective left and right halves of the rim of the steering wheel of the motor vehicle or with portions thereof intended for placing the hands of the driver of the motor vehicle for correctly driving it, each of said sensing areas (2a, 2b) being able to provide detection of contact of a respective hand of the driver, • a processing unit which is able to compare the hand contact detections provided by said sensing areas (2a, 2b) with stored data in order to verify the simultaneous contact of both of the driver's hands with said sensing areas (2a, 2b), and • an alarm device controlled by said processing unit so as to be actuated in case of disagreement between said detections and said stored data characterized in that • each hand contact detection is an electrical capacity value measured between the driver's hand and the mass of the vehicle through the driver's body; • said stored data are human body capacity data indicative of the driver's body identity.
A tunable laser comprising: a front mirror, FM,; a gain section coupled to the FM; a phase section coupled to the gain section; and a back mirror, BM, coupled to the phase section, wherein the BM comprises a splitter, a delay line coupled to the splitter, followed by a high-reflection, HR, coating configured to provide a first optical path for a first light; and a first comb reflector, CR, also coupled to the splitter, followed by a terminator, configured to provide a second optical path for a second light; the BM is configured to: split, by the splitter, a received light into the first light and the second light; reflect, by the first CR, the first light to form a first reflected light, whereby the terminator is configured to prevent unwanted reflection; reflect, by the delay line and the HR coating, the second light to form a second reflected light; and cause the first reflected light and the second reflected light to interfere and combine to form a combined light, wherein a reflectivity peak spectrum width of the combined light is narrower than a reflectivity peak spectrum width of the first reflected light or the second reflected light. a front mirror, FM,; a gain section coupled to the FM; a phase section coupled to the gain section; and a back mirror, BM, coupled to the phase section, wherein the BM comprises a splitter, a delay line coupled to the splitter, followed by a high-reflection, HR, coating configured to provide a first optical path for a first light; and a first comb reflector, CR, also coupled to the splitter, followed by a terminator, configured to provide a second optical path for a second light; the BM is configured to: split, by the splitter, a received light into the first light and the second light; reflect, by the first CR, the first light to form a first reflected light, whereby the terminator is configured to prevent unwanted reflection; reflect, by the delay line and the HR coating, the second light to form a second reflected light; and cause the first reflected light and the second reflected light to interfere and combine to form a combined light, wherein a reflectivity peak spectrum width of the combined light is narrower than a reflectivity peak spectrum width of the first reflected light or the second reflected light. split, by the splitter, a received light into the first light and the second light; reflect, by the first CR, the first light to form a first reflected light, whereby the terminator is configured to prevent unwanted reflection; reflect, by the delay line and the HR coating, the second light to form a second reflected light; and cause the first reflected light and the second reflected light to interfere and combine to form a combined light, wherein a reflectivity peak spectrum width of the combined light is narrower than a reflectivity peak spectrum width of the first reflected light or the second reflected light.
A movable gantry for delivery of a particle beam using beam scanning technique, for example for the cancer treatment in human tissue; comprising: a) an inlet section for an accelerated particle beam comprising a number of quadrupole magnets; b) a first bending section and optionally a second bending section comprising a number of dipole and quadrupole magnets and optionally further magnets for beam correction; c) a transfer section comprising a number of quadrupole magnets and optionally further magnets for beam correction, wherein the transfer section further comprises a degrader wherein the degrader is placed at the end of the transfer section as seen in the direction of the particle beam only being followed by a collimator or a collimator system in this transfer section; d) a last beam bending section comprising a number of separate and/or combined dipole/quadrupole/higher order multipole magnets forming an achromatic section, wherein all magnets of this achromatic last bending section are located downstream of the degrader; wherein any dispersion in this achromatic last bending section is suppressed so that it will have a momentum acceptance of more than ±5%; e) a scanning section comprising two separate or one combined fast deflection magnets (K1, K2) that deflect the beam at the iso-center in a direction perpendicular to the beam direction to perform lateral scanning; and f) a beam nozzle section comprising a beam nozzle and optionally beam handling equipment, such as further beam degrading or modifying elements and/or beam quality related beam verifying elements. a) an inlet section for an accelerated particle beam comprising a number of quadrupole magnets; b) a first bending section and optionally a second bending section comprising a number of dipole and quadrupole magnets and optionally further magnets for beam correction; c) a transfer section comprising a number of quadrupole magnets and optionally further magnets for beam correction, wherein the transfer section further comprises a degrader wherein the degrader is placed at the end of the transfer section as seen in the direction of the particle beam only being followed by a collimator or a collimator system in this transfer section; d) a last beam bending section comprising a number of separate and/or combined dipole/quadrupole/higher order multipole magnets forming an achromatic section, wherein all magnets of this achromatic last bending section are located downstream of the degrader; wherein any dispersion in this achromatic last bending section is suppressed so that it will have a momentum acceptance of more than ±5%; e) a scanning section comprising two separate or one combined fast deflection magnets (K1, K2) that deflect the beam at the iso-center in a direction perpendicular to the beam direction to perform lateral scanning; and f) a beam nozzle section comprising a beam nozzle and optionally beam handling equipment, such as further beam degrading or modifying elements and/or beam quality related beam verifying elements.
A coating composition comprising: - a polymeric coating binder; wherein the polymeric coating binder is selected from the group comprising: a (meth)acrylic coating binder, a vinylic coating binder, a silicone-based coating binder, a siloxane-based binder, or any mixture thereof; and, wherein the polymeric coating binder has a glass temperature Tg of at least 0°C and at most 30°C as measured according to ISO 11357-2; - at least one first filler, wherein the first filler comprises expanded polymeric microspheres; and - at least one second filler, wherein the second filler comprises expanded glass particles, preferably expanded silica glass particles; wherein said coating composition comprises at least 0.1% by weight and at most 25% by weight of said at least one first filler and at least one second filler combined, based on the total weight of the composition. - a polymeric coating binder; wherein the polymeric coating binder is selected from the group comprising: a (meth)acrylic coating binder, a vinylic coating binder, a silicone-based coating binder, a siloxane-based binder, or any mixture thereof; and, wherein the polymeric coating binder has a glass temperature Tg of at least 0°C and at most 30°C as measured according to ISO 11357-2; - at least one first filler, wherein the first filler comprises expanded polymeric microspheres; and - at least one second filler, wherein the second filler comprises expanded glass particles, preferably expanded silica glass particles;
A method for producing a diesel particle filter containing a ceramic wall flow filter substrate and a coating of refractory material applied to the inlet channels, provided in such a manner that it closes the wall pores connecting the inlet channels and discharge channels for soot particles on the inlet side without blocking the passage of the gaseous exhaust components, comprising the following method steps: a. Suspending an oxide in a quantity of water that is at least twice as large as the pore volume of the oxide; b. Grinding the aqueous suspension obtained in step a. until the oxide has a particle size distribution that is adapted to the pore size distribution in the wall of the wall flow filter substrate; c. Pumping the suspension obtained into the inlet channels of the wall flow filter substrate until said channels are completely filled with suspension; d. Suctioning supernatant suspension from the wall flow filter substrate, wherein the suction force is to be selected such that at the end of the process, a predetermined loading quantity of solid remains in the inlet channel; e. Drying the wall flow filter substrate resulting from step d. in a stream of hot air at 80 - 180 °C; f. Calcining the wall flow filter substrate resulting from step e. at 250 - 600 °C. a. Suspending an oxide in a quantity of water that is at least twice as large as the pore volume of the oxide; b. Grinding the aqueous suspension obtained in step a. until the oxide has a particle size distribution that is adapted to the pore size distribution in the wall of the wall flow filter substrate; c. Pumping the suspension obtained into the inlet channels of the wall flow filter substrate until said channels are completely filled with suspension; d. Suctioning supernatant suspension from the wall flow filter substrate, wherein the suction force is to be selected such that at the end of the process, a predetermined loading quantity of solid remains in the inlet channel; e. Drying the wall flow filter substrate resulting from step d. in a stream of hot air at 80 - 180 °C; f. Calcining the wall flow filter substrate resulting from step e. at 250 - 600 °C.
A thermal shield for inhibiting a transfer of heat between components on a vehicle, the thermal shield comprising: an outer shell layer formed from a first solid material that is impermeable to liquids and has an outer surface, an inner surface, a thickness between the inner surface and the outer surface, and at least one curved portion extending out-of-plane to form a shape in three-dimensions; a core insulation layer coupled to the inner surface and conforming to the shape of the outer shell layer, the core insulation layer being formed from at least one layer (934, 936) of dried fibrous insulation material having a thickness greater than about ten times the thickness of the outer shell layer; and an inner shell layer formed from a second solid and impermeable material, wherein the inner shell layer is coupled to the perimeter of the outer shell layer to cover an opposite surface of the core insulation layer, the thermal shield being characterized in that the core insulation layer comprises a first consolidated layer of dried fibrous insulation material and a second consolidated layer of dried fibrous insulation material that is different from the first consolidated layer. an outer shell layer formed from a first solid material that is impermeable to liquids and has an outer surface, an inner surface, a thickness between the inner surface and the outer surface, and at least one curved portion extending out-of-plane to form a shape in three-dimensions; a core insulation layer coupled to the inner surface and conforming to the shape of the outer shell layer, the core insulation layer being formed from at least one layer (934, 936) of dried fibrous insulation material having a thickness greater than about ten times the thickness of the outer shell layer; and an inner shell layer formed from a second solid and impermeable material, the thermal shield being characterized in that the core insulation layer comprises a first consolidated layer of dried fibrous insulation material and a second consolidated layer of dried fibrous insulation material that is different from the first consolidated layer.
A shift device comprising: a rotation body that is rotatable to change a shift position; a movement member that is configured to be moved to one side to restrict rotation of the rotation body, and to be moved to another side to release restriction of rotation of the rotation body; and a cam member that is rotatable, that is provided with a cam face (38A, 38B), and that is configured to be rotated in one direction or another direction, such that the movement member is moved by the cam face (38A, 38B) of the cam member on which it abuts toward the one side or the another side in a state in which the movement member is abutted on the cam face (38A, 38B) at a location that excludes a position at which a line extending from a center of rotation of the cam member in a moving direction of the movement member intersects with the cam face (38A, 38B). a rotation body that is rotatable to change a shift position; a movement member that is configured to be moved to one side to restrict rotation of the rotation body, and to be moved to another side to release restriction of rotation of the rotation body; and a cam member that is rotatable, that is provided with a cam face (38A, 38B), and that is configured to be rotated in one direction or another direction, such that the movement member is moved by the cam face (38A, 38B) of the cam member on which it abuts toward the one side or the another side in a state in which the movement member is abutted on the cam face (38A, 38B) at a location that excludes a position at which a line extending from a center of rotation of the cam member in a moving direction of the movement member intersects with the cam face (38A, 38B).