mhurhangee/ep-ind-claims huggingface dataset:
A gusset bag (10, 30) comprising: a pair of flat surface portions (11, 31) facing each other; and a pair of side surface portions (12, 32) facing each other which are folded toward the inside thereof, wherein the gusset bag (10, 30) has a side edge sealing portion (13, 33) in which the flat surface portion (11, 31) and the side surface portion (12, 32) are heat-sealed together at side edge portions thereof, characterized in that one flat surface portion (11, 31) and the pair of side surface portions (12, 32) are formed of one film member, and side edge portions of the side surface portions (12, 32) opposite to the one flat surface portion (11, 31) formed of the film member and side edge portions of the other flat surface portion (11, 31) are heat-sealed together to form the two side edge sealing portions (13, 33), and the gusset bag (10, 30) has a folded-back portion (13b, 33c) in which the entire side edge sealing portion (13, 33) is folded back and adhesively fixed to the flat surface portion (11, 31) or the side surface portion (12, 32) so that the entire side edge sealing portion (13, 33) is overlapped with the flat surface portion (11, 31) or the side surface portion (12, 32). a pair of flat surface portions (11, 31) facing each other; and a pair of side surface portions (12, 32) facing each other which are folded toward the inside thereof, wherein the gusset bag (10, 30) has a side edge sealing portion (13, 33) in which the flat surface portion (11, 31) and the side surface portion (12, 32) are heat-sealed together at side edge portions thereof, one flat surface portion (11, 31) and the pair of side surface portions (12, 32) are formed of one film member, and side edge portions of the side surface portions (12, 32) opposite to the one flat surface portion (11, 31) formed of the film member and side edge portions of the other flat surface portion (11, 31) are heat-sealed together to form the two side edge sealing portions (13, 33), and the gusset bag (10, 30) has a folded-back portion (13b, 33c) in which the entire side edge sealing portion (13, 33) is folded back and adhesively fixed to the flat surface portion (11, 31) or the side surface portion (12, 32) so that the entire side edge sealing portion (13, 33) is overlapped with the flat surface portion (11, 31) or the side surface portion (12, 32).
An assembly comprising a fuse holder and a fuse cover, and including a fixing structure for assembling the fuse holder and the fuse cover, wherein the fuse holder holds a fuse to be connected to a bus-bar module with the fuse cover that insulates the fuse, wherein the fuse holder includes a projecting portion, wherein the fuse cover includes an engagement portion that is brought into engagement with the projecting portion, wherein the engagement portion is a through hole that penetrates the fuse cover along the assembling direction, and the through hole has a step portion that is formed by making an edge of an opening on a side facing the fuse cover in the assembling direction concave towards the side facing the fuse holder, and wherein the projecting portion has a return portion that is inserted through the through hole to be brought into engagement with the step portion, characterized in that, the projecting portion projects in an assembling direction with the fuse cover, and wherein in the return portion that is in engagement with the step portion, an end portion on the side facing the fuse cover in the assembling direction is positioned near a circumferential edge of the opening of the through hole on the side facing the fuse cover, so that the return portion is held between the step portion and the circumferential edge of the opening and a hole wall portion of the through holes, wherein a return length of the return portion in the assembling direction is set substantially the same as a step height of the step portion in the assembling direction, so that the whole of the return portion interferes with the hole wall portion of the engagement portion.
An electrical contact assembly comprising: a first electrical contact having a first mating element; a second electrical contact having a second mating element, the first and second electrical contacts being configured to mate together at the first and second mating elements such that the first and second mating elements engage each other at a contact interface; and wherein the first mating element of the first electrical contact comprises a mating side having a periodic surface topology that includes parallel valleys that are separated by peaks, characterized in that the second mating element of the second electrical contact comprises a curved protrusion, the curved protrusion having a radius of curvature, wherein the curved protrusion is configured to engage with the mating side at the peaks such that the contact interface is defined by the peaks, wherein a sinus wavelength of the periodic surface topology is between 0.2 and 0.8 times the radius of curvature of the curved protrusion, and a height of the peaks is at least 3% of the sinus wavelength of the periodic surface topology, such that a distribution of contact pressure across the contact interface coincides with a distribution of electrical current flow across the contact interface. a first electrical contact having a first mating element; a second electrical contact having a second mating element, the first and second electrical contacts being configured to mate together at the first and second mating elements such that the first and second mating elements engage each other at a contact interface; and wherein the first mating element of the first electrical contact comprises a mating side having a periodic surface topology that includes parallel valleys that are separated by peaks, characterized in that the second mating element of the second electrical contact comprises a curved protrusion, the curved protrusion having a radius of curvature, wherein the curved protrusion is configured to engage with the mating side at the peaks such that the contact interface is defined by the peaks, wherein a sinus wavelength of the periodic surface topology is between 0.2 and 0.8 times the radius of curvature of the curved protrusion, and a height of the peaks is at least 3% of the sinus wavelength of the periodic surface topology, such that a distribution of contact pressure across the contact interface coincides with a distribution of electrical current flow across the contact interface.
A snap-fitment system for an aerosol disbursement system comprising a container, the snap-fitment system comprising: a valve cup having at least one radially extending finger; a valve system supported by the valve cup; and a retaining ring, comprising at least one lip, characterised in that the at least one lip of the retaining ring is snap-fitted about the at least one radially extending finger of the valve cup such that the retaining ring and valve cup are thereby connected as a single distributable unit prior to securing the snap-fitment system to the container of said aerosol disbursement system.
A ferry comprising an arrangement for assembling weights on underwater pipes, the arrangement comprising means for attaching a set of weights to the ferry so that the weights are under the water line, wherein said means for attaching said weights to the ferry comprises a beam to which said weights are attachable, the arrangement further comprising a winch for lifting up and/or lowering said beam with said set of weights attached thereto under the ferry, wherein the arrangement is configured for attaching the set of weights to the ferry in such a way that the center of gravity of the weights directs about the center of the ferry, wherein the arrangement is configured for transferring the beam in a horizontal configuration with the set of weights attached thereto to an assembly site with the beam and the weights remaining all the time under water, and then arranging said weights on an underwater pipe.
A method in a radio base station (110, 320) for handling a Guaranteed Bit Rate, GBR, bearer, which radio base station (110, 320) is comprised in a communications system, the method comprising: allocating to a user equipment, a GBR bearer for a data transmission, further being characterized in comprising starting a first timer, when scheduling data for the data transmission on the GBR bearer is interrupted, releasing the GBR bearer, when the first timer has expired, when there is a request for a bearer from a second network node, and when there are no further bearer resources available within the first radio base station. allocating to a user equipment, a GBR bearer for a data transmission, further being characterized in comprising starting a first timer, when scheduling data for the data transmission on the GBR bearer is interrupted, releasing the GBR bearer, when the first timer has expired, when there is a request for a bearer from a second network node, and when there are no further bearer resources available within the first radio base station.
An organic light-emitting display panel, comprising: a substrate including a plurality of sub-pixels, each sub-pixel comprising: an emission portion, a non-emission portion, and a first electrode disposed in at least the emission portion; a bank disposed in the non-emission portions; a first common layer (131, 231) disposed on the first electrodes in the emission portions and on the bank; an auxiliary pattern (132, 232) disposed on the first common layer, only above the bank between the emission portions of at least two adjacent of the sub-pixels and in direct contact with the first common layer, the auxiliary pattern (132, 232) having an electron transport property; a second common layer (133, 233) disposed on the auxiliary pattern and the first common layer, wherein the auxiliary pattern is in direct contact with the second common layer (133, 233); and the sub-pixels comprising a light-emitting layer (141, 142, 143, 240) disposed on the second common layer; wherein the first common layer (131, 231) and the second common layer (133, 233) have hole transport properties and wherein the first common layer and the second common layer are in direct contact in the emission portion. a substrate including a plurality of sub-pixels, each sub-pixel comprising: an emission portion, a non-emission portion, and a first electrode disposed in at least the emission portion; a bank disposed in the non-emission portions; a first common layer (131, 231) disposed on the first electrodes in the emission portions and on the bank; an auxiliary pattern (132, 232) disposed on the first common layer, only above the bank between the emission portions of at least two adjacent of the sub-pixels and in direct contact with the first common layer, the auxiliary pattern (132, 232) having an electron transport property; a second common layer (133, 233) disposed on the auxiliary pattern and the first common layer, wherein the auxiliary pattern is in direct contact with the second common layer (133, 233); and the sub-pixels comprising a light-emitting layer (141, 142, 143, 240) disposed on the second common layer; wherein the first common layer (131, 231) and the second common layer (133, 233) have hole transport properties and wherein the first common layer and the second common layer are in direct contact in the emission portion.
Method of operating a secondary Metal-Air electrochemical cell with a metal anode and an air cathode, said air cathode comprising a matrix with hollow spaces in front of an active layer, the method comprising the steps of: a) at start of a charging session, creating in less than 2 seconds an oxygen gas-shield on the electrolyte side of the air-electrode obstructing ion passage between the bulk of the electrolyte and the air-electrode, wherein oxygen forming the oxygen gas-shield evolves from the electrolyte at the time of charging, b) charging the cell without anodic polarization of the air-electrode with the help of (i) electric conductive material placed between the electrolyte side of air-electrode and the bulk of electrolyte, and, (ii) the said oxygen gas-shield being retained in the said hollow spaces and obstructing passage of ions of the electrolyte between the electrolyte side of air-electrode and the bulk of electrolyte, c) removing the oxygen gas-shield at start of a discharging session, wherein the step of removing oxygen gas-shield at start of a discharging session is performed by the air-electrode consuming oxygen from its electrolyte-side under cathodic polarization. a) at start of a charging session, creating in less than 2 seconds an oxygen gas-shield on the electrolyte side of the air-electrode obstructing ion passage between the bulk of the electrolyte and the air-electrode, wherein oxygen forming the oxygen gas-shield evolves from the electrolyte at the time of charging, b) charging the cell without anodic polarization of the air-electrode with the help of (i) electric conductive material placed between the electrolyte side of air-electrode and the bulk of electrolyte, and, (ii) the said oxygen gas-shield being retained in the said hollow spaces and obstructing passage of ions of the electrolyte between the electrolyte side of air-electrode and the bulk of electrolyte, c) removing the oxygen gas-shield at start of a discharging session,
An anti-tumor drug for use in a method of treating colon cancer in a patient, wherein the dosage of the anti-tumor drug administered to the patient is controlled by a method comprising: determining a first level of each of tumor-responsive biomarkers miR-21-3p, miR-101-5p, miR-122-3p, miR-197-3p, miR-429, miR-501-3p, miR-509-3p, miR-598, miR-206, miR-885-5p, miR-1972, miR-30d-3p, miR-483-5p, and miR-708-3p in a first biological sample of the patient, wherein the first sample is obtained before administering to the patient a first dose of the anti-tumor drug; determining a second level of each of the tumor-responsive biomarkers in a subsequent biological sample of the patient, wherein the subsequent sample is obtained after administering to the patient the first dose of the anti-tumor drug; wherein thereafter, the patient receives a second dose of the anti-tumor drug, wherein the dosage regimen of the second dose of the anti-tumor drug is changed if the level of each of miR-30d-3p, miR-483-5p, and miR-708-3p is not increased and if the level of each of miR-21-3p, miR-101-5p, miR-122-3p, miR-197-3p, miR-429, miR-501-3p, miR-509-3p, miR-598, miR-206, miR-885-5p, and miR-1972 is not decreased in the subsequent biological sample of the patient following administration of the first dose of the anti-tumor drug. determining a first level of each of tumor-responsive biomarkers miR-21-3p, miR-101-5p, miR-122-3p, miR-197-3p, miR-429, miR-501-3p, miR-509-3p, miR-598, miR-206, miR-885-5p, miR-1972, miR-30d-3p, miR-483-5p, and miR-708-3p in a first biological sample of the patient, wherein the first sample is obtained before administering to the patient a first dose of the anti-tumor drug; determining a second level of each of the tumor-responsive biomarkers in a subsequent biological sample of the patient, wherein the subsequent sample is obtained after administering to the patient the first dose of the anti-tumor drug; wherein thereafter, the patient receives a second dose of the anti-tumor drug, wherein the dosage regimen of the second dose of the anti-tumor drug is changed if the level of each of miR-30d-3p, miR-483-5p, and miR-708-3p is not increased and if the level of each of miR-21-3p, miR-101-5p, miR-122-3p, miR-197-3p, miR-429, miR-501-3p, miR-509-3p, miR-598, miR-206, miR-885-5p, and miR-1972 is not decreased in the subsequent biological sample of the patient following administration of the first dose of the anti-tumor drug.
A seal assembly for a gas turbine engine comprising: a first member including a first seal land for contacting a first structure; a second member including a second seal land for contacting a second structure and a third seal land for contacting a third structure, wherein the first member and the second member form a pivotable connection; wherein the first member and the second member each form a circumferential ring; and characterised in that the pivotable connection includes a male portion on one of the first member and the second member received within a female portion on the other of the first member and the second member, and wherein the pivotable connection is spring loaded. a first member including a first seal land for contacting a first structure; a second member including a second seal land for contacting a second structure and a third seal land for contacting a third structure, wherein the first member and the second member form a pivotable connection; wherein the first member and the second member each form a circumferential ring; and characterised in that the pivotable connection includes a male portion on one of the first member and the second member received within a female portion on the other of the first member and the second member, and wherein the pivotable connection is spring loaded.
Joining system with a processing station for a film, having a processing tool at the processing station, which tool can be opened and closed with a closing movement, the film being translated through the joining system in a machine direction and a driven insertion device being provided for inserting the film into the open processing tool, which device has a gripper (10, 11) adapted to keep the film gripped during advancement and to move away from the film with a spacing movement, characterized in that the joining system is adapted to perform the spacing movement of the gripper (10, 11) in timed coordination with the closing movement of the processing tool, which provides for the spacing movement of the gripper (10, 11) to start before the closing movement of the processing tool ends, in particular before the closing movement of the processing tool causes the processing tool to collide with the gripper (10, 11). characterized in that the joining system is adapted to perform the spacing movement of the gripper (10, 11) in timed coordination with the closing movement of the processing tool, which provides for the spacing movement of the gripper (10, 11) to start before the closing movement of the processing tool ends, in particular before the closing movement of the processing tool causes the processing tool to collide with the gripper (10, 11).
A pallet comprising: a cargo layer; a base layer comprising a pair of spaced apart end deck boards, and a pair of spaced apart connector boards orthogonal to said pair of spaced apart end deck boards, each connector board and each end deck board having respective ends; a strength plate (100") coupled to each respective end of said connector boards in said base layer and with each respective end of said pair of end deck boards being devoid of a strength plate; a plurality of spaced apart support blocks between said base and cargo layers (20, 30), and forming a gap therebetween for receiving a lifting member; a first plurality of fasteners (104") for coupling said cargo layer to an upper surface of said plurality of support blocks; and a second plurality of fasteners (106") for coupling said base layer to a lower surface of said plurality of support blocks, with the ends of said connector boards and said corresponding strength plates (100") being coupled to a first area of the lower surface of said plurality of support blocks, and with the ends of said end deck boards being coupled to a second area of the lower surface of said plurality of support blocks while being devoid of a strength plate. a cargo layer; a base layer comprising a pair of spaced apart end deck boards, and a pair of spaced apart connector boards orthogonal to said pair of spaced apart end deck boards, each connector board and each end deck board having respective ends; a strength plate (100") coupled to each respective end of said connector boards in said base layer and with each respective end of said pair of end deck boards being devoid of a strength plate; a plurality of spaced apart support blocks between said base and cargo layers (20, 30), and forming a gap therebetween for receiving a lifting member; a first plurality of fasteners (104") for coupling said cargo layer to an upper surface of said plurality of support blocks; and a second plurality of fasteners (106") for coupling said base layer to a lower surface of said plurality of support blocks, with the ends of said connector boards and said corresponding strength plates (100") being coupled to a first area of the lower surface of said plurality of support blocks, and with the ends of said end deck boards being coupled to a second area of the lower surface of said plurality of support blocks while being devoid of a strength plate.
A method for geolocating a fixed, non-cooperative object using a system on board a moving platform, said system being equipped with a rangefinder capable of measuring the distance between said object and said system and means for acquiring the position of said system, said method comprising the following steps: - acquiring two distance measurements (D1, D2) of said object relative to two distinct positions (P1, P2) of said system, thus defining two pairs "position-distance of the object", said positions being those of said system and being obtained by said position acquisition means, and the distances being obtained by said rangefinder; - acquiring a third pair "position-distance of the object", the position being that of the centre of the earth and the distance being that of said object relative to the centre of the earth, said distance being obtained on the basis of a digital terrain model MNT or of a digital elevation model MNE; - computing the geolocation of said object on the basis of said three pairs "position-distance of the object", said computation comprising a sub-step of computing two first surfaces, namely a hyperboloid as a function of two positions (P1, P2) and of the difference in the two distances (D1, D2) associated with said positions, and an ellipsoid as a function of said two positions and of the sum of the same two distances, said object being located at the intersection of said two surfaces and a third surface that is determined on the basis of the third pair (P3, D3). - acquiring two distance measurements (D1, D2) of said object relative to two distinct positions (P1, P2) of said system, thus defining two pairs "position-distance of the object", said positions being those of said system and being obtained by said position acquisition means, and the distances being obtained by said rangefinder; - acquiring a third pair "position-distance of the object", the position being that of the centre of the earth and the distance being that of said object relative to the centre of the earth, said distance being obtained on the basis of a digital terrain model MNT or of a digital elevation model MNE; - computing the geolocation of said object on the basis of said three pairs "position-distance of the object", said computation comprising a sub-step of computing two first surfaces, namely a hyperboloid as a function of two positions (P1, P2) and of the difference in the two distances (D1, D2) associated with said positions, and an ellipsoid as a function of said two positions and of the sum of the same two distances, said object being located at the intersection of said two surfaces and a third surface that is determined on the basis of the third pair (P3, D3).