mhurhangee/ep-ind-claims huggingface dataset:
A pendulum device for low-energy impact tests, of the type used to assess materials using the Charpy method, that includes a base plate upon which wings are erected that house the rotation shaft, arm and breaking system, - the base plate has an entirely even and accessible surface and the wings arranged at the ends thereof support the rotation axis, - the arm connected to the rotation axis has through holes and a mass that slides along the arm and is fixed thereto, - the breaking system is a pneumatic brake whose calipers are anchored to the wings and the disks on the rotation axis, both the disks and the calipers of the pneumatic brake being situated on the inner face of the wings, and - it has a control system connected to the brake through an angle transducer arranged on the rotation axis, which prevents a striker arranged on the mass from rebounding and from perforating a specimen that is to be impacted, - it has fixing means of the base plate outside the wings configured to arrange said base plate on the specimen. - the base plate has an entirely even and accessible surface and the wings arranged at the ends thereof support the rotation axis, - the arm connected to the rotation axis has through holes and a mass that slides along the arm and is fixed thereto, - the breaking system is a pneumatic brake whose calipers are anchored to the wings and the disks on the rotation axis, both the disks and the calipers of the pneumatic brake being situated on the inner face of the wings, and - it has a control system connected to the brake through an angle transducer arranged on the rotation axis, which prevents a striker arranged on the mass from rebounding and from perforating a specimen that is to be impacted, - it has fixing means of the base plate outside the wings configured to arrange said base plate on the specimen.
A reciprocal saw for cutting an item comprising: a. a handle; b. a cutting blade distal from the handle; c. a chassis between the handle and the cutting blade, wherein the chassis comprises a receiving area thereupon, wherein the receiving area may receive the item, d. a clamp attached to the chassis proximal to the cutting blade, the clamp having an open position and a closed position, wherein the clamp has a pivot and a clamp jaw distal from the pivot, characterized in that the receiving area is an indentation in the chassis, wherein in the closed position the clamp jaw is immediately adjacent to the receiving area, forms part of the indentation, and protrudes from the indentation, wherein in the open position the clamp jaw is not immediately adjacent to the receiving area, and wherein, when the reciprocal saw is moved, the item may be held by the clamp. a. a handle; b. a cutting blade distal from the handle; c. a chassis between the handle and the cutting blade, wherein the chassis comprises a receiving area thereupon, wherein the receiving area may receive the item, d. a clamp attached to the chassis proximal to the cutting blade, the clamp having an open position and a closed position, wherein the clamp has a pivot and a clamp jaw distal from the pivot,
An imaging apparatus comprising: a first set of optical components (131, 132, 140) having an objective, wherein the first set of optical components (131, 132, 140) is arranged to (a) route excitation light into the objective so as to generate a sweeping sheet of excitation light through the objective and (b) simultaneously route image light returning through the objective along a detection path; a second set of optical components (151, 152, 153, 155, 160) disposed in the detection path arranged to receive light from the first set of optical components (131, 132, 140), and to produce an oblique real image; and a light detector array (190, 290) positioned to sample the oblique real image; characterized in that the second set of optical components (151, 152, 153, 155, 160) produces an asymmetrically magnified oblique real image by magnifying in a first radial direction at a power of at least 1.5 times that in a second radial direction perpendicular to the first radial direction. a first set of optical components (131, 132, 140) having an objective, wherein the first set of optical components (131, 132, 140) is arranged to (a) route excitation light into the objective so as to generate a sweeping sheet of excitation light through the objective and (b) simultaneously route image light returning through the objective along a detection path; a second set of optical components (151, 152, 153, 155, 160) disposed in the detection path arranged to receive light from the first set of optical components (131, 132, 140), and to produce an oblique real image; and a light detector array (190, 290) positioned to sample the oblique real image; characterized in that the second set of optical components (151, 152, 153, 155, 160) produces an asymmetrically magnified oblique real image by magnifying in a first radial direction at a power of at least 1.5 times that in a second radial direction perpendicular to the first radial direction.
A cooling circuit with cooling fluid for lithium ion batteries comprising: - a battery pack comprising a plurality of cells electrically connected to each other, suitable for powering an electric machine for traction, - said cells being perimetrally delimited by outer walls, - at least one bag containing cooling fluid associated with contact with said outer walls of the cells, - wherein said at least one bag is made of electrically insulating and deformable material so as to be counter-shaped to said outer walls to adhere perimetrally to said outer walls, - forced circulation means of the cooling fluid through said at least one bag, characterised in that - between the cells adjacent to each other spacers are arranged which have the function of creating abutments for the packing of the cells composing the battery pack, wherein the bag interposed between adjacent cells has a thickness/shape less than that of an interspace between the adjacent cells, so that is not compressed between adjacent cells. - a battery pack comprising a plurality of cells electrically connected to each other, suitable for powering an electric machine for traction, - said cells being perimetrally delimited by outer walls, - at least one bag containing cooling fluid associated with contact with said outer walls of the cells, - wherein said at least one bag is made of electrically insulating and deformable material so as to be counter-shaped to said outer walls to adhere perimetrally to said outer walls, - forced circulation means of the cooling fluid through said at least one bag, characterised in that - between the cells adjacent to each other spacers are arranged which have the function of creating abutments for the packing of the cells composing the battery pack, wherein the bag interposed between adjacent cells has a thickness/shape less than that of an interspace between the adjacent cells, so that is not compressed between adjacent cells.
A method in a first network node for managing a transmit power of a first wireless device that is capable of device-to-device, D2D, communication, the method comprising: receiving (520, 620, 720, or 816) at least one measurement report from at least one of the first wireless device and a second wireless device in D2D communication with the first wireless device, the measurement report indicating a received signal measurement or path loss with respect to the other of the first wireless device and the second wireless device and/or a received signal measurement or path loss with respect to a victim node; receiving a reference signal of the victim node, the reference signal of the victim node received via one of the first wireless device or the second wireless device that forwards the reference signal from the victim node to the first network node; and sending (528, 624, 724, or 824) the first wireless device instructions to make an adjustment of the transmit power that the first wireless device uses in the D2D communication, wherein the adjustment is at least partially based on the received measurement report, and wherein the adjustment of the transmit power that the first wireless device uses in the D2D communication is partially based on the received reference signal. receiving (520, 620, 720, or 816) at least one measurement report from at least one of the first wireless device and a second wireless device in D2D communication with the first wireless device, the measurement report indicating a received signal measurement or path loss with respect to the other of the first wireless device and the second wireless device and/or a received signal measurement or path loss with respect to a victim node; receiving a reference signal of the victim node, the reference signal of the victim node received via one of the first wireless device or the second wireless device that forwards the reference signal from the victim node to the first network node; and sending (528, 624, 724, or 824) the first wireless device instructions to make an adjustment of the transmit power that the first wireless device uses in the D2D communication, wherein the adjustment is at least partially based on the received measurement report, and wherein the adjustment of the transmit power that the first wireless device uses in the D2D communication is partially based on the received reference signal.
A server apparatus providing a cloud print service that receives a print job and causes an image forming apparatus to perform print processing for the received print job, the server apparatus comprising: a first reception unit configured to receive a print job from a client terminal or another server apparatus that provides another cloud print service; characterized by further comprising: a second reception unit configured to receive an instruction to change setting of the print job received by the first reception unit, the instruction being given via the image forming apparatus; and a notification unit (S1010, S1011) configured to notify the other server apparatus of a content of the instruction in a case where the instruction received by the second reception unit is an instruction for the print job received by the first reception unit from the other server apparatus (S1010:YES). a first reception unit configured to receive a print job from a client terminal or another server apparatus that provides another cloud print service; characterized by further comprising: a second reception unit configured to receive an instruction to change setting of the print job received by the first reception unit, the instruction being given via the image forming apparatus; and a notification unit (S1010, S1011) configured to notify the other server apparatus of a content of the instruction in a case where the instruction received by the second reception unit is an instruction for the print job received by the first reception unit from the other server apparatus (S1010:YES). a second reception unit configured to receive an instruction to change setting of the print job received by the first reception unit, the instruction being given via the image forming apparatus; and a notification unit (S1010, S1011) configured to notify the other server apparatus of a content of the instruction in a case where the instruction received by the second reception unit is an instruction for the print job received by the first reception unit from the other server apparatus (S1010:YES).
An exothermic natural massage shell, comprising a natural bivalve shell comprising a first half and a second half of the natural bivalve shell adhered together with an adhesive to form a hollow chamber; an aperture formed in the first half to provide a portal to the hollow chamber of the bivalve shell for removable placement of a reactant inside the hollow chamber of the bivalve shell; wherein combining the reactant with an activator inside the hollow chamber of the bivalve shell causes an exothermic reaction that heats the bivalve shell and maintains the bivalve shell at a substantially constant elevated temperature for a duration of time; and wherein the adhesive adhering the first half of the bivalve shell to the second half of the bivalve shell comprises a first elastomeric polymer bonding agent with balanced coefficient of expansion properties to withstand repeated heating and cooling cycles, and a second flexible resin sealant that makes the adhesive moisture-proof.
An 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 cause the apparatus to: transform a signal constellation based on one or more parameter values, wherein the one or more parameter values indicate a shape of the transformed signal constellation; and transmit one or more signals based at least partly on the transformed signal constellation, wherein the signal constellation is transformed by adjusting a scaling of an imaginary axis of the signal constellation based on a first parameter value of the one or more parameter values, and controlling a level of asymmetry of the signal constellation based on a second parameter value of the one or more parameter values. transform a signal constellation based on one or more parameter values, wherein the one or more parameter values indicate a shape of the transformed signal constellation; and transmit one or more signals based at least partly on the transformed signal constellation, wherein the signal constellation is transformed by adjusting a scaling of an imaginary axis of the signal constellation based on a first parameter value of the one or more parameter values, and controlling a level of asymmetry of the signal constellation based on a second parameter value of the one or more parameter values.
An environmental control system, comprising: - a controller; a first environmental control system pack having a first inlet that receives a first fluid flow from a first air source and a first outlet; a first recirculation fan assembly having a first recirculation inlet that receives a first cabin air fluid flow from an aircraft cabin, a fan housing, a fan, a fan motor, a fan controller, an cabin air sensor unit, and a first recirculation outlet, wherein the fan is driven by the fan motor, and the fan motor is in communication with the fan controller; and characterised in that the cabin air sensor unit is integrated into the fan housing of the first recirculation fan assembly such that the fan induces flow across sensing elements of the cabin air sensor unit; wherein the fan controller is in communication with the controller and the cabin air sensor unit, wherein the fan controller is configured to provide power to the cabin air sensor unit and an air quality signal from the cabin air sensor unit to the controller. a first environmental control system pack having a first inlet that receives a first fluid flow from a first air source and a first outlet; a first recirculation fan assembly having a first recirculation inlet that receives a first cabin air fluid flow from an aircraft cabin, a fan housing, a fan, a fan motor, a fan controller, an cabin air sensor unit, and a first recirculation outlet, wherein the fan is driven by the fan motor, and the fan motor is in communication with the fan controller; and characterised in that the cabin air sensor unit is integrated into the fan housing of the first recirculation fan assembly such that the fan induces flow across sensing elements of the cabin air sensor unit; wherein the fan controller is in communication with the controller and the cabin air sensor unit, wherein the fan controller is configured to provide power to the cabin air sensor unit and an air quality signal from the cabin air sensor unit to the controller.
Method for coating a substrate made of an AA3000 or AA5000 series aluminium alloy in a H19 or H39 temper and having a thickness between 150 and 270 μm, comprising the steps of: a) coating by (co-)extrusion at a temperature between 250 and 280°C, an adhesive layer made of maleic anhydride-modified polypropylene onto each face of said aluminium alloy substrate, and a surface layer made of polypropylene comprising at least one slip agent, covering at least one of said adhesive layers, so as to form a metalloplastic strip; b) calendering said metalloplastic strip so as to obtain an overall thickness of the set of adhesive and surface layers between 4 and 20 μm per face; c) heat treating said metalloplastic strip with a strip temperature between 120 and 160°C; d) cooling the metalloplastic strip so as to obtain a H48 temper and a coefficient of friction of 0.06 or less. a) coating by (co-)extrusion at a temperature between 250 and 280°C, an adhesive layer made of maleic anhydride-modified polypropylene onto each face of said aluminium alloy substrate, and a surface layer made of polypropylene comprising at least one slip agent, covering at least one of said adhesive layers, so as to form a metalloplastic strip; b) calendering said metalloplastic strip so as to obtain an overall thickness of the set of adhesive and surface layers between 4 and 20 μm per face; c) heat treating said metalloplastic strip with a strip temperature between 120 and 160°C; d) cooling the metalloplastic strip so as to obtain a H48 temper and a coefficient of friction of 0.06 or less.
Method for testing a rotor blade unit of a gas turbine, the rotor blade unit comprising a radially outwardly arranged outer shroud which is integrally bonded to a radially inwardly adjoining rotor blade, the rotor blade having a flow cross section comprising a pressure side and a suction side, and having an axial leading edge and an axial trailing edge which connect the pressure side and the suction side to one another, the method comprising the following steps: providing a rotor blade unit; characterized by the following steps: machining the outer shroud on its axially leading or axially trailing side (26, 28), the side (26, 28) that is selected for machining being that which is at the greater distance (AB1, AB2) from the adjacent axial leading edge or axial trailing edge of the rotor blade, a contact surface being generated by the machining of the selected side in such a way that the rotor blade unit can be positioned in a measuring device in a referenced manner; positioning the rotor blade unit comprising the bearing surface in a measuring device which is designed to determine a bend or twist of the rotor blade unit about its thread axis or its longitudinal axis. providing a rotor blade unit; characterized by the following steps: machining the outer shroud on its axially leading or axially trailing side (26, 28), the side (26, 28) that is selected for machining being that which is at the greater distance (AB1, AB2) from the adjacent axial leading edge or axial trailing edge of the rotor blade, a contact surface being generated by the machining of the selected side in such a way that the rotor blade unit can be positioned in a measuring device in a referenced manner; positioning the rotor blade unit comprising the bearing surface in a measuring device which is designed to determine a bend or twist of the rotor blade unit about its thread axis or its longitudinal axis. machining the outer shroud on its axially leading or axially trailing side (26, 28), the side (26, 28) that is selected for machining being that which is at the greater distance (AB1, AB2) from the adjacent axial leading edge or axial trailing edge of the rotor blade, a contact surface being generated by the machining of the selected side in such a way that the rotor blade unit can be positioned in a measuring device in a referenced manner; positioning the rotor blade unit comprising the bearing surface in a measuring device which is designed to determine a bend or twist of the rotor blade unit about its thread axis or its longitudinal axis.
A flour characterized by a. a modulus of greater than 25 Pa and less than 150 Pa; b. a tangent delta of greater than 0.25 and less than 1.0; and c. solution stability, wherein solution stability is indicated by the absence or disappearance of divot formation within five minutes such that the solution levels out again, when a spoonful is taken out of an aequous starch solution, which has been fully cooked out at 9% solids and a pH of 3, wherein the flour is a granular low amylose rice flour and the modulus and tangent delta are measured using Rheology Method B1, the rice flour has an amylose content of from 5 to 15% by weight of starch in the flour and the rice flour does not gel in a high water moisture environment, wherein high water moisture environment means with at least 50% water or moisture by weight of the environment. a. a modulus of greater than 25 Pa and less than 150 Pa; b. a tangent delta of greater than 0.25 and less than 1.0; and c. solution stability,
A light assembly configured to selectively illuminate an operating region in a surgical suite, the assembly comprising: a plurality of lighting modules comprising a plurality of light sources configured to emit light; at least one imager configured to capture image data disposed in at least one of the lighting modules; an articulating head assembly configured to support each of the lighting modules, wherein the articulating head assembly comprises a plurality of actuators (102a and 102b), the actuators (102a and 102b) configured to rotate each of the lighting modules about a first axis and a second axis; a wearable device comprising one or more guidance systems configured to indicate a location where a wearer of the wearable device is looking in the operating region, wherein the guidance system includes a laser emitting visible and/or nonvisible light and the imager is configured to track the light emitted from the guidance system; and a controller configured to process the data from the imager and to control the plurality of actuators (102a and 102b) to direct the light from one or more of the lighting modules the location indicated by the guidance system of the wearable device. a plurality of lighting modules comprising a plurality of light sources configured to emit light; at least one imager configured to capture image data disposed in at least one of the lighting modules; an articulating head assembly configured to support each of the lighting modules, wherein the articulating head assembly comprises a plurality of actuators (102a and 102b), the actuators (102a and 102b) configured to rotate each of the lighting modules about a first axis and a second axis; a wearable device comprising one or more guidance systems configured to indicate a location where a wearer of the wearable device is looking in the operating region, wherein the guidance system includes a laser emitting visible and/or nonvisible light and the imager is configured to track the light emitted from the guidance system; and a controller configured to process the data from the imager and to control the plurality of actuators (102a and 102b) to direct the light from one or more of the lighting modules the location indicated by the guidance system of the wearable device.