mhurhangee/ep-ind-claims huggingface dataset:
A ferrule holder to be mounted on a fusion splicer while holding a ferrule member, in execution of a fusion splice between a built-in fiber held by a ferrule body in the ferrule member and an optical fiber of an optical cord, the ferrule body having a dust cap put thereon, a string being attached to a tip of the dust cap, the ferrule holder comprising: a main body configured to house the ferrule body (22, 22A) and a flange portion fixed to the ferrule body (22, 22A), and having a mount portion on which the dust cap covering the ferrule body (22, 22A) is to be mounted; the mount portion having a first mount surface and a second mount surface provided on the rear side of the first mount surface, and a lid arranged so as to be freely opened and closed with respect to the main body and configured to hold the ferrule body (22, 22A) between the lid and the main body, the main body comprising a first groove and a second groove, the first groove being provided on the front side of the first mount surface, the second groove being provided on the rear side of the second mount surface, characterized in that between the first mount surface and the second mount surface there is a step portion provided so as to make the second mount surface higher than the first mount surface. a main body configured to house the ferrule body (22, 22A) and a flange portion fixed to the ferrule body (22, 22A), and having a mount portion on which the dust cap covering the ferrule body (22, 22A) is to be mounted; the mount portion having a first mount surface and a second mount surface provided on the rear side of the first mount surface, and a lid arranged so as to be freely opened and closed with respect to the main body and configured to hold the ferrule body (22, 22A) between the lid and the main body, the main body comprising a first groove and a second groove, the first groove being provided on the front side of the first mount surface, the second groove being provided on the rear side of the second mount surface, characterized in that between the first mount surface and the second mount surface there is a step portion provided so as to make the second mount surface higher than the first mount surface.
Sensor arrangement for a vehicle, having at least two control units (ECU1, ECU2), each comprising at least one evaluation and control unit (10, 10A, 10B, 10C), and a plurality of sensor elements (DF1, DF2, DF3, DF4, DF5, DF6), which are each assigned to a brakeable vehicle wheel (VL, VR, HL, HR) and one of the evaluation and control units (10A, 10B, 10C) of the control units (ECU1, ECU2) and are designed to capture at least one physical variable of the assigned vehicle wheel (VL, VR, HL, HR) and to output it directly to the assigned evaluation and control unit (10A, 10B, 10C) as an output signal (ASVL, ASVR, ASHL1, ASHR1, ASHL2, ASHR2), wherein a first control unit of the at least two control units (ECU1, ECU2) comprises a first evaluation and control unit and a second control unit of the at least two control units (ECU1, ECU2) comprises a second evaluation and control unit and a third evaluation and control unit, wherein the control units (ECU1, ECU2) are each designed to perform at least one braking function of the vehicle based on the captured physical variables of the brakeable vehicle wheels (VL, VR, HL, HR), wherein a sensor element (DF1, DF2) is arranged at least on each of the brakeable vehicle wheels (VL, VR) of a first vehicle axle, the output signals (ASVL, ASVR) from which sensor elements are output to different evaluation and control units (10B, 10C) which are arranged in a common control unit, and wherein two sensor elements (DF3, DF5; DF4, DF6) are arranged at least on each of the brakeable vehicle wheels (VL, VR) of a second vehicle axle, the output signals (ASHL1, ASHL2, ASHR1, ASHR2) from which sensor elements are output to evaluation and control units (10A, 10B) which are arranged in different control units (ECU1, ECU2), wherein the evaluation and control units (10B, 10C) assigned to the first vehicle axle are designed to respectively output the received output signal (ASVL, ASVR) to at least one evaluation and control unit of another control unit, with the result that the individual control units (ECU1, ECU2) respectively receive the corresponding at least one captured physical variable from all brakeable vehicle wheels (VL, VR, HL, HR).
A method for the unmanned installation of a tank inner lining into a tank, with the following steps: - providing the tank, which has a tank wall, surrounding an inner region, and a tank opening, - providing the tank inner lining, which has an inner cover and an intermediate layer, and - lining the inner region of the tank, wherein the lining comprises introducing the tank inner lining into the inner region of the tank through the tank opening and unfolding the tank inner lining in the inner region of the tank and wherein in the lined state the intermediate layer is arranged between the inner covering and the tank wall and the intermediate layer lies at least in sections against the tank wall, wherein during lining, the tank inner lining is positioned and/or aligned in a non-unfolded or at least partially unfolded state with the assistance of an auxiliary installation device. - providing the tank, which has a tank wall, surrounding an inner region, and a tank opening, - providing the tank inner lining, which has an inner cover and an intermediate layer, and - lining the inner region of the tank, wherein the lining comprises introducing the tank inner lining into the inner region of the tank through the tank opening and unfolding the tank inner lining in the inner region of the tank and wherein in the lined state the intermediate layer is arranged between the inner covering and the tank wall and the intermediate layer lies at least in sections against the tank wall, wherein during lining, the tank inner lining is positioned and/or aligned in a non-unfolded or at least partially unfolded state with the assistance of an auxiliary installation device.
Connector for fluid dispenser, comprising an assembly with a first end configured for connection to a fluid reservoir, in particular configured for connection to a bag-in-box container, and a second end configured for connection to a fluid dispensing tube, said assembly defining a fluid passage from said first end to said second end, said assembly comprising: - a first portion which comprises said first end and a second portion which comprises said second end; - a first check valve configured with an opening movement towards said first end; - a second check valve arranged between said first valve and said second end and configured with an opening movement towards said second end; characterised by - a third portion arranged between said first portion and said second portion, said third portion comprising a pin projecting towards said first end, whereby, in an assembled configuration of said assembly, said pin interacts with said first valve to take said first valve into an open position. - a first portion which comprises said first end and a second portion which comprises said second end; - a first check valve configured with an opening movement towards said first end; - a second check valve arranged between said first valve and said second end and configured with an opening movement towards said second end; - a third portion arranged between said first portion and said second portion, said third portion comprising a pin projecting towards said first end, whereby, in an assembled configuration of said assembly, said pin interacts with said first valve to take said first valve into an open position.
A delivery system for use with a prosthetic heart valve having a stent frame to which a valve structure is attached, the system comprising: a shaft assembly including a distal end, an intermediate portion, and a first coupling structure disposed near the distal end and configured to be coupled to a distal end of the prosthetic heart valve via a first tether; a sheath assembly defining a lumen sized to slidably receive the shaft assembly; and wherein the delivery system is configured to transition from a loaded state in which the sheath assembly encompasses the prosthetic heart valve to a deployed state in which the sheath assembly is withdrawn from the prosthetic heart valve, and wherein the first coupling structure is configured to be manipulated in a first direction to provide a controlled expansion or contraction of the distal end of the prosthetic heart valve; characterised in that the first tether is configured to be released from the first coupling structure by rotation of the first coupling structure and/or wherein a second tether is configured to be released from a second coupling structure (117; 304) of the shaft assembly by rotation of the second coupling structure (117; 304). a shaft assembly including a distal end, an intermediate portion, and a first coupling structure disposed near the distal end and configured to be coupled to a distal end of the prosthetic heart valve via a first tether; a sheath assembly defining a lumen sized to slidably receive the shaft assembly; and wherein the delivery system is configured to transition from a loaded state in which the sheath assembly encompasses the prosthetic heart valve to a deployed state in which the sheath assembly is withdrawn from the prosthetic heart valve, and wherein the first coupling structure is configured to be manipulated in a first direction to provide a controlled expansion or contraction of the distal end of the prosthetic heart valve; the first tether is configured to be released from the first coupling structure by rotation of the first coupling structure and/or wherein a second tether is configured to be released from a second coupling structure (117; 304) of the shaft assembly by rotation of the second coupling structure (117; 304).
Spheroidal graphite or flake graphite cast-iron alloy comprising the following elements in weight %: - Carbon between 1.2 % and 3.5 %, - Silicon (Si) between 1.0 % and 3 %, - Nickel (Ni) between 26 % and 31 %, - Cobalt (Co) between 15 % and 20 %, optionally: - Magnesium (Mg) between 0.02 % and 0.10 %, - Manganese (Mn) ≤ 1.5 %, - Chromium (Cr) ≤ 0.5 %, and/or - Phosphorus ≤ 0.12 or ≤ 0.04 %, and/or - Sulfur ≤ 0.11 or ≤ 0.03 %, and/or - Molybdenum (Mo) ≤ 0.5 %, and/or - Copper (Cu) ≤ 0.5 %, the remainder being iron and inevitable impurities. - Carbon between 1.2 % and 3.5 %, - Silicon (Si) between 1.0 % and 3 %, - Nickel (Ni) between 26 % and 31 %, - Cobalt (Co) between 15 % and 20 %, - Magnesium (Mg) between 0.02 % and 0.10 %, - Manganese (Mn) ≤ 1.5 %, - Chromium (Cr) ≤ 0.5 %, and/or - Phosphorus ≤ 0.12 or ≤ 0.04 %, and/or - Sulfur ≤ 0.11 or ≤ 0.03 %, and/or - Molybdenum (Mo) ≤ 0.5 %, and/or - Copper (Cu) ≤ 0.5 %,
A method to facilitate identifying material as comprises an object being assessed along a beam path, relative to the object, comprising: developing a first radiation-detection view as corresponds to the material along the beam path using a first interlaced-energy x-ray pulse and a first detector of a stacked detector; developing a second radiation-detection view as corresponds to the material along substantially the beam path using the first interlaced-energy x-ray pulse and a second detector of the stacked detector, wherein the second detector has a different spectral response than the first detector; developing at least a third radiation-detection view as corresponds to the material along substantially the beam path using a second interlaced energy x-ray pulse and the first detector of the stacked detector, wherein the second interlaced-energy x-ray pulse has a different source spectra as compared to the first interlaced-energy x-ray pulse; and using the first, second, and third radiation-detection views to identify the material by, at least in part, differentiating the material from other possible materials. developing a first radiation-detection view as corresponds to the material along the beam path using a first interlaced-energy x-ray pulse and a first detector of a stacked detector; developing a second radiation-detection view as corresponds to the material along substantially the beam path using the first interlaced-energy x-ray pulse and a second detector of the stacked detector, wherein the second detector has a different spectral response than the first detector; developing at least a third radiation-detection view as corresponds to the material along substantially the beam path using a second interlaced energy x-ray pulse and the first detector of the stacked detector, wherein the second interlaced-energy x-ray pulse has a different source spectra as compared to the first interlaced-energy x-ray pulse; and using the first, second, and third radiation-detection views to identify the material by, at least in part, differentiating the material from other possible materials.
A method in a radio network access node (1, 200) in a radio access network, for indicating characteristics of a cell of said access node to a mobile terminal accessing said cell through said access node characterized by providing a node identifier string to said terminal from said access node, said identifier string being indicative of cell specific properties specifically applicable with said terminal within said cell, wherein the node identifier string is provided to the terminal comprised in a handover command message or in a radio resource control, RRC, connection setup message.
An inverter apparatus comprising: - an inverter including a plurality of pairs of switching elements (Q1-Q6), each of the pairs of the switching elements (Q1-Q6) being electrically connected to a direct current power source; - a rotational speed detecting component that detects a rotational speed of a motor that is electrically connected to the pairs of the switching elements (Q1-Q6); and - a control component that controls an on-off status of the switching elements (Q1-Q6) to convert a direct current electric power from the direct current power source into alternating current electric power, - the control component further alternately executing a first switching control and a second switching control upon detection of the rotational speed being larger than a prescribed rotational speed, - the first switching control turning on all of the switching elements (Q1-Q6) of the pairs of the switching elements (Q1-Q6) connected to a positive electrode of the direct current electric power source and turning off all of the switching elements (Q1-Q6) of the pairs of the switching elements (Q1-Q6) connected to a negative electrode of the direct current electric power source, and - the second switching control turning on all of the switching elements (Q1-Q6) of the pairs of the switching elements (Q1-Q6) connected to the negative electrode of the direct current electric power source and turning off all of the switching elements (Q1-Q6) of the pairs of the switching elements (Q1-Q6) connected to the positive electrode of the direct current electric power source. - an inverter including a plurality of pairs of switching elements (Q1-Q6), each of the pairs of the switching elements (Q1-Q6) being electrically connected to a direct current power source; - a rotational speed detecting component that detects a rotational speed of a motor that is electrically connected to the pairs of the switching elements (Q1-Q6); and - a control component that controls an on-off status of the switching elements (Q1-Q6) to convert a direct current electric power from the direct current power source into alternating current electric power, - the control component further alternately executing a first switching control and a second switching control upon detection of the rotational speed being larger than a prescribed rotational speed, - the first switching control turning on all of the switching elements (Q1-Q6) of the pairs of the switching elements (Q1-Q6) connected to a positive electrode of the direct current electric power source and turning off all of the switching elements (Q1-Q6) of the pairs of the switching elements (Q1-Q6) connected to a negative electrode of the direct current electric power source, and - the second switching control turning on all of the switching elements (Q1-Q6) of the pairs of the switching elements (Q1-Q6) connected to the negative electrode of the direct current electric power source and turning off all of the switching elements (Q1-Q6) of the pairs of the switching elements (Q1-Q6) connected to the positive electrode of the direct current electric power source.
A method to detect the presence or absence of an MREJ type xii methicillin-resistant Staphylococcus aureus (MRSA) strain characterized by SEQ ID NO: 20 comprising: contacting a sample to be analyzed for the presence or absence of said MREJ type xii MRSA strain characterized by SEQ ID NO: 20 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 20 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 20; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xii MRSA strain; and detecting the absence or presence of said amplicon.
Cooling cabinet comprising a conditioned space with an access door, which access door comprises a first, substantially flat plate body and a substantially plane-parallel second plate body, which second plate body comprises a central part which lies offset over a step height (s) relative to a peripheral edge part and encloses with the first plate body a cavity, wherein the access door is provided with a handle device whereby the access door can be manually manipulated between a closed position and an opened position, wherein the handle device comprises a base member at the position of the peripheral edge part of the second plate body, characterized in that said base member is connected permanently to a free surface of the first plate body, in that said handle device comprises a grip member, having a handle, which can be connected to the base member without tools via a second connection, and in that the base member extends less than said step height (s) above the surface of the first plate body.
A method of creating customized products, the method comprising: providing a multiple stream filling system suited for producing an array of products, the multiple stream filling system including a conveyor for moving a plurality of product packages and a nozzle manifold (216 A-E) for dispensing a plurality of ingredients (202, 204) through a plurality of nozzles into the plurality of product packages; reading information from the plurality of product packages by a reader as the plurality of product packages moves down the conveyor; receiving an order for a customized product from the array of products, the order indicating at least one characteristic of the customized product, the at least one characteristic comprising one or more of the following: a product formulation, a product additive, a package size, a package shape, or label content; and instructing the multiple stream filling system based on the information to produce the customized product by dispensing at least two ingredients (202, 204) through the nozzle manifold (216 A-E) so that the ingredients meet and mix in one of the product packages, the multiple stream filling system producing the customized product without performing an operation to reduce contamination of the customized product with ingredients from a previously produced product. providing a multiple stream filling system suited for producing an array of products, the multiple stream filling system including a conveyor for moving a plurality of product packages and a nozzle manifold (216 A-E) for dispensing a plurality of ingredients (202, 204) through a plurality of nozzles into the plurality of product packages; reading information from the plurality of product packages by a reader as the plurality of product packages moves down the conveyor; receiving an order for a customized product from the array of products, the order indicating at least one characteristic of the customized product, the at least one characteristic comprising one or more of the following: a product formulation, a product additive, a package size, a package shape, or label content; and instructing the multiple stream filling system based on the information to produce the customized product by dispensing at least two ingredients (202, 204) through the nozzle manifold (216 A-E) so that the ingredients meet and mix in one of the product packages, the multiple stream filling system producing the customized product without performing an operation to reduce contamination of the customized product with ingredients from a previously produced product.
A laundry treatment apparatus comprising: a cabinet having a receiving space for reception of laundry; a feeder (71, 72) configured to feed at least one of air or moisture into the receiving space; a support structure placed in the receiving space, the support structure providing a support space to allow a surface of the laundry to be supported by the support space; and a press structure separably coupled to the support structure, the press structure being configured to apply pressure to the laundry positioned in the support space; characterized by a door rotatably coupled to the cabinet to open or close the receiving space, wherein the support structure is formed in an inner surface of the door and wherein the press structure is rotatably coupled to the support structure or to the door, and a guide affixed to an inner surface of the door, the guide being configured to set a movement range of the laundry to prevent the laundry from deviating from the support space, the guide including: a first guide configured to receive one end of the laundry parallel to a height direction of the door; and a second guide configured to receive the other end of the laundry parallel to the height direction of the door. a cabinet having a receiving space for reception of laundry; a feeder (71, 72) configured to feed at least one of air or moisture into the receiving space; a support structure placed in the receiving space, the support structure providing a support space to allow a surface of the laundry to be supported by the support space; and a press structure separably coupled to the support structure, the press structure being configured to apply pressure to the laundry positioned in the support space; characterized by a door rotatably coupled to the cabinet to open or close the receiving space, wherein the support structure is formed in an inner surface of the door and wherein the press structure is rotatably coupled to the support structure or to the door, and a guide affixed to an inner surface of the door, the guide being configured to set a movement range of the laundry to prevent the laundry from deviating from the support space, the guide including: a first guide configured to receive one end of the laundry parallel to a height direction of the door; and a second guide configured to receive the other end of the laundry parallel to the height direction of the door. a first guide configured to receive one end of the laundry parallel to a height direction of the door; and a second guide configured to receive the other end of the laundry parallel to the height direction of the door.