mhurhangee/ep-ind-claims huggingface dataset:
Tube device for administering a medical fluid to a patient, comprising: - a tube comprising at least one opening constituted to allow body fluid to enter into the tube, and - a guide device having a guide wire which is insertable into the tube for introducing the tube into a body opening of a patient, wherein the guide wire comprises a probe device for testing or obtaining a sample of a body fluid present in the body opening, characterized in that the guide wire in a first position is placed in the tube to close off the opening such that body fluid is prevented from entering into the tube and in a second position is placed in the tube to uncover the opening such that body fluid is allowed to enter into the tube to interact with the probe device. - a tube comprising at least one opening constituted to allow body fluid to enter into the tube, and - a guide device having a guide wire which is insertable into the tube for introducing the tube into a body opening of a patient, wherein the guide wire comprises a probe device for testing or obtaining a sample of a body fluid present in the body opening, characterized in that the guide wire in a first position is placed in the tube to close off the opening such that body fluid is prevented from entering into the tube and in a second position is placed in the tube to uncover the opening such that body fluid is allowed to enter into the tube to interact with the probe device.
A blue-green algal proteoglycan extract or a composition comprising the blue-green algal proteoglycan extract for use in treating or preventing pancreatic cancer, wherein the blue-green algal proteoglycan extract is obtained by the following steps: (a) dissolving blue-green algae powder in 5-20 fold volume of water, and breaking cell wall; (b) heating the resulting mixture in step (a) at a temperature of 60-100°C, and performing solid-liquid separation after cooling; (c) adjusting the pH of the resulting liquid in step (b) to less than 7, and performing solid-liquid separation again; and (d) adjusting the resulting liquid in step (c) to a neutral pH, concentrating, and drying if necessary. (a) dissolving blue-green algae powder in 5-20 fold volume of water, and breaking cell wall; (b) heating the resulting mixture in step (a) at a temperature of 60-100°C, and performing solid-liquid separation after cooling; (c) adjusting the pH of the resulting liquid in step (b) to less than 7, and performing solid-liquid separation again; and (d) adjusting the resulting liquid in step (c) to a neutral pH, concentrating, and drying if necessary.
A pharmaceutical composition comprising an oxidized phospholipid having a structure according to Formula: wherein R 1 is C 14 -C 30 straight or branched alkyl; R 3 is selected from phosphorylethanolamine, phosphorylcholine, phosphorylethanolamine-N-glutaric acid, and phosphorylserine; R 5 is a member selected from H, a negative charge, and C 1 -C 6 straight or branched alkyl; and X 1 is C 2 -C 6 alkylene, a polyethylene glycol or a poloxamer as a thermosoftening carrier, and talc as an anti-adherent agent, wherein the weight ratio of said anti-adherent agent to said oxidized phospholipid is from about 1:5 to about 5:1. R 1 is C 14 -C 30 straight or branched alkyl; R 3 is selected from phosphorylethanolamine, phosphorylcholine, phosphorylethanolamine-N-glutaric acid, and phosphorylserine; R 5 is a member selected from H, a negative charge, and C 1 -C 6 straight or branched alkyl; and X 1 is C 2 -C 6 alkylene,
A chain-tensioning rod, of the type used in an internal combustion engine with an overhead camshaft valvetrain to keep in tension a timing chain, comprising a shoe, which is pressed against the timing chain, and a supporting arm of the shoe, characterized in that: • the shoe is formed by a monolithic piece having, on one side thereof a sliding surface and, on the opposite side, a supporting surface and a contact element, which is connected to the supporting surface at a central portion of the shoe by means of a connecting rib longitudinally developing along the supporting surface and in the centre thereof, the supporting surface extending from a proximal end, thereat the chain-tensioning rod is hinged, and a distal end; • the supporting arm is formed by an elongated blade having a longitudinal pass-through slit extending from a distal end thereof, wherein it is open, for at least half length of the supporting arm, so that the insertion of the supporting arm on the supporting surface takes place by making the supporting arm to slide on the supporting surface from said proximal end, by inserting said connecting rib into said slit, the connecting rib operating as a transversal locking device of the supporting arm on the supporting surface. • the shoe is formed by a monolithic piece having, on one side thereof a sliding surface and, on the opposite side, a supporting surface and a contact element, which is connected to the supporting surface at a central portion of the shoe by means of a connecting rib longitudinally developing along the supporting surface and in the centre thereof, the supporting surface extending from a proximal end, thereat the chain-tensioning rod is hinged, and a distal end; • the supporting arm is formed by an elongated blade having a longitudinal pass-through slit extending from a distal end thereof, wherein it is open, for at least half length of the supporting arm,
A method for mounting facade elements (12,12b-c) on a multi-storey building by means of a profile system comprising a first type of vertical profile having a slot extending along the longitudinal axis of the profile, and an inner part of the slot being designed to receive an edge of a first facade element and an outer part of the slot being designed to receive and support a second type of vertical profile arranged to support the first facade element, and the second type of profile is provided with a groove extending along the longitudinal axis of the profile and designed to receive and support an edge of a second facade element, wherein the method comprises: a) mounting two vertical profiles (1a-b) of the first type at a second floor of the building so that the slots are facing each other, and above profiles (1c-d) of the first and second type previously mounted on a first floor, and so that the longitudinal axes of the profiles are aligned, b) transporting a facade element in a vertical direction guided by the grooves of the second type of profiles mounted on the first floor until it reaches the vertical profiles mounted on the second floor, c) entering the facade element into the outer part of the slots of the vertical profiles mounted on the second floor, d) continuing transporting the facade element in a vertical direction guided by the outer part of the slots of the vertical profiles mounted on the second floor until it reaches a mounting position, e) pushing the facade element from the outer part of the slots to the inner part of the slots, f) attaching the facade element to the building, and g) inserting vertical profiles of the second type into the outer part of the slots so that the grooves are facing each other. a) mounting two vertical profiles (1a-b) of the first type at a second floor of the building so that the slots are facing each other, and above profiles (1c-d) of the first and second type previously mounted on a first floor, and so that the longitudinal axes of the profiles are aligned, b) transporting a facade element in a vertical direction guided by the grooves of the second type of profiles mounted on the first floor until it reaches the vertical profiles mounted on the second floor, c) entering the facade element into the outer part of the slots of the vertical profiles mounted on the second floor, d) continuing transporting the facade element in a vertical direction guided by the outer part of the slots of the vertical profiles mounted on the second floor until it reaches a mounting position, e) pushing the facade element from the outer part of the slots to the inner part of the slots, f) attaching the facade element to the building, and g) inserting vertical profiles of the second type into the outer part of the slots so that the grooves are facing each other.
A method for a user equipment, UE, for authenticating the UE by a network for wireless communications, to protect sequence numbers, SQNs, used in authentication and key agreement, AKA, protocols, comprising: receiving, from the network, an authentication request comprising at least a random challenge, after receiving the authentication request, generating a synchronization parameter, AUTS, based at least in part on a key, K, shared by the network and the UE, the random challenge, and a first message authentication code, MAC-S; wherein generating the synchronization parameter, AUTS, comprises: generating an anonymity key, AK 1, based on the random challenge, the key K and the first MAC-S, according to the following: AK 1 = f5 ∗ K (R, MAC-S), protecting a first sequence number, SQN MS, with the anonymity key and generating the synchronization parameter, AUTS, based on the protected first sequence number; and transmitting, in response to the authentication request, the synchronization parameter and the first MAC-S to the network. receiving, from the network, an authentication request comprising at least a random challenge, after receiving the authentication request, generating a synchronization parameter, AUTS, based at least in part on a key, K, shared by the network and the UE, the random challenge, and a first message authentication code, MAC-S; wherein generating the synchronization parameter, AUTS, comprises: generating an anonymity key, AK 1, based on the random challenge, the key K and the first MAC-S, according to the following: AK 1 = f5 ∗ K (R, MAC-S), protecting a first sequence number, SQN MS, with the anonymity key and generating the synchronization parameter, AUTS, based on the protected first sequence number; and generating an anonymity key, AK 1, based on the random challenge, the key K and the first MAC-S, according to the following: AK 1 = f5 ∗ K (R, MAC-S), protecting a first sequence number, SQN MS, with the anonymity key and generating the synchronization parameter, AUTS, based on the protected first sequence number; and transmitting, in response to the authentication request, the synchronization parameter and the first MAC-S to the network.
A unit length element for an undersea fluid transport pipe, the element comprising an inner tube, an outer tube mounted coaxially around the inner tube, and at least one anti-slip and self-centering device that is interposed between the inner tube and the outer tube, each anti-slip and self-centering device comprising a ring made of elastomer material sandwiched between two annular metal plates (6, 8) having an inside diameter ( d) that corresponds substantially to the diameter of the inner tube and an outside diameter that corresponds substantially to the diameter of the outer tube, and clamping means (10, 12) for clamping the plates together in order to compress the ring made of elastomer material, characterised in that the anti-slip and self-centering device is disposed around an annular shoulder of the inner tube.
A solid oxide fuel cell (SOFC) comprising a multilayer structure comprising: a porous metal-ceramic anode comprising a NiO or CuO blend with a cerium comprising electrolyte in its oxidized or reduced form, which electrolyte is a cerium oxide comprising compound selected from Ce 1-x Sm x O 2-δ, Ce 1-x Gd x O 2-δ or Sm x Nd y Ce 1-x-y O 2-δ, wherein x ranges from 0.01 to 0.5, y is 0.01 to 0.49, and x+y ranges from 0.1 to 0.5; an anodic functional layer wherein the AFL is a cerium oxide comprising compound; a bilayer electrolyte comprising a cerium oxide comprising layer and a bismuth oxide comprising layer, wherein the cerium oxide comprising layer contacts the AFL and is Ce 1-x SM x O 2-δ, Ce 1-x Gd x O 2-δ, or Sm x Nd y Ce 1-x-y O 2-δ, wherein x ranges from 0.01 to 0.5, y is 0.01 to 0.49, and x+y ranges from 0.1 to 0.5, and a porous ceramic cathode, wherein the porous ceramic cathode comprises Bi 2 Ru 2 O 7, BRO7-(Er 2 O 3) 0.2 (Bi 2 O 3) 0.8 blend, BRO-(Dy 2 O 3) 0.2 (Bi 2 O 3) 0.8) blend, BRO-(Y 2 O 3) 0.2 (Bi 2 O 3) 0.8) blend or BRO-Bi 2-(x+y) Dy x W y O 3 (DWSB) blend, x ranges from 0.01 to 0.5, y is 0.01 to 0.49, and x+y ranges from 0.1 to 0.5, wherein the AFL comprises a cerium oxide comprising compound of like composition to the cerium oxide comprising compound in the metal-ceramic anode and/or of the cerium oxide comprising layer of the bilayer electrolyte, wherein the cerium oxide comprising compound of the AFL is of a smaller particle size than the particles of the cerium oxide comprising compound in the anode. a porous metal-ceramic anode comprising a NiO or CuO blend with a cerium comprising electrolyte in its oxidized or reduced form, which electrolyte is a cerium oxide comprising compound selected from Ce 1-x Sm x O 2-δ, Ce 1-x Gd x O 2-δ or Sm x Nd y Ce 1-x-y O 2-δ, wherein x ranges from 0.01 to 0.5, y is 0.01 to 0.49, and x+y ranges from 0.1 to 0.5; an anodic functional layer wherein the AFL is a cerium oxide comprising compound; a bilayer electrolyte comprising a cerium oxide comprising layer and a bismuth oxide comprising layer, wherein the cerium oxide comprising layer contacts the AFL and is Ce 1-x SM x O 2-δ, Ce 1-x Gd x O 2-δ, or Sm x Nd y Ce 1-x-y O 2-δ, wherein x ranges from 0.01 to 0.5, y is 0.01 to 0.49, and x+y ranges from 0.1 to 0.5, and a porous ceramic cathode, wherein the porous ceramic cathode comprises Bi 2 Ru 2 O 7, BRO7-(Er 2 O 3) 0.2 (Bi 2 O 3) 0.8 blend, BRO-(Dy 2 O 3) 0.2 (Bi 2 O 3) 0.8) blend, BRO-(Y 2 O 3) 0.2 (Bi 2 O 3) 0.8) blend or BRO-Bi 2-(x+y) Dy x W y O 3 (DWSB) blend, x ranges from 0.01 to 0.5, y is 0.01 to 0.49, and x+y ranges from 0.1 to 0.5,
An air conditioner, comprising a fan, a humidification component (1, 4, 8), and a heat exchanger, wherein the fan is disposed at an air outlet of the heat exchanger; the humidification component (1, 4, 8) comprises a circulating water tank, wherein the circulating water tank is configured to contain water; a humidification module, comprising a wet film covering an air inlet of the heat exchanger, and further comprising a manifold, wherein a water outlet of the manifold faces the wet film and is connected to an upper part of the wet film, a water inlet of the manifold communicates with the circulating water tank by using a pipe, and a circulating water pump configured to pump water inside the circulating water tank into the manifold to form a water film on the wet film, the circulating water pump is disposed on the pipe; and a water division tray, located below the humidification module, and configured to recycle water dripping from the wet film, wherein the water division tray is connected to a return pipe that communicates with the circulating water tank, and water in the water division tray flows into the circulating water tank through the return pipe; wherein the heat exchanger is configured to heat the water film on the wet film; wherein the water outlet of the manifold faces the wet film and is connected to the upper part of the wet film, so that water flowing from the water outlet of the manifold flows from the upper part of the wet film to the lower part, and water is evenly distributed on the wet film; wherein a thickness of the wet film is between 20 mm and 200 mm. the fan is disposed at an air outlet of the heat exchanger; the humidification component (1, 4, 8) comprises a circulating water tank, wherein the circulating water tank is configured to contain water; a humidification module, comprising a wet film covering an air inlet of the heat exchanger, and further comprising a manifold, wherein a water outlet of the manifold faces the wet film and is connected to an upper part of the wet film, a water inlet of the manifold communicates with the circulating water tank by using a pipe, and a circulating water pump configured to pump water inside the circulating water tank into the manifold to form a water film on the wet film, the circulating water pump is disposed on the pipe; and a water division tray, located below the humidification module, and configured to recycle water dripping from the wet film, wherein the water division tray is connected to a return pipe that communicates with the circulating water tank, and water in the water division tray flows into the circulating water tank through the return pipe; wherein the heat exchanger is configured to heat the water film on the wet film; wherein the water outlet of the manifold faces the wet film and is connected to the upper part of the wet film, so that water flowing from the water outlet of the manifold flows from the upper part of the wet film to the lower part, and water is evenly distributed on the wet film; wherein a thickness of the wet film is between 20 mm and 200 mm.
A method for producing paper comprising a step of adding a polymer having a polyalkylene oxide moiety to papermaking process water containing a suspended solid containing a papermaking raw material and unfixed starch, wherein a concentration of the suspended solid contained in the papermaking process water is 100 mg/L or more, a concentration of the unfixed starch contained in the papermaking process water is 10 mg/L or more, and a salt viscosity of the polymer measured by the following method is 3 mPa·s or more and 500 mPa·s or less, wherein the viscosity is measured as the viscosity of an aqueous solution containing 4% by weight of common salt and 0.5% by weight of the polymer under the conditions of 25°C and a rotor rotating speed of 60 rpm, wherein the viscosity measurement method is based on JIS K 7117-2. wherein a concentration of the suspended solid contained in the papermaking process water is 100 mg/L or more, a concentration of the unfixed starch contained in the papermaking process water is 10 mg/L or more, and a salt viscosity of the polymer measured by the following method is 3 mPa·s or more and 500 mPa·s or less, wherein the viscosity is measured as the viscosity of an aqueous solution containing 4% by weight of common salt and 0.5% by weight of the polymer under the conditions of 25°C and a rotor rotating speed of 60 rpm, wherein the viscosity measurement method is based on JIS K 7117-2.
A corrosion sensor comprising: a. a plurality of direct write deposited conductive portions; and b. at least one direct write deposited non-conductive portion between adjacent direct write deposited conductive portions, wherein the at least one direct write deposited non-conductive portion between adjacent direct write deposited conductive portions has a dimension less than 500 microns; characterized in that it further comprises c. direct write deposited brazing material around each of the plurality of direct write deposited conductive portions, wherein the direct write deposited brazing material is cured to form a seamless joint between the direct write deposited conductive portions and the at least one direct write deposited non-conductive portion between adjacent direct write deposited conductive portions. a. a plurality of direct write deposited conductive portions; and b. at least one direct write deposited non-conductive portion between adjacent direct write deposited conductive portions, wherein the at least one direct write deposited non-conductive portion between adjacent direct write deposited conductive portions has a dimension less than 500 microns; characterized in that it further comprises c. direct write deposited brazing material around each of the plurality of direct write deposited conductive portions, wherein the direct write deposited brazing material is cured to form a seamless joint between the direct write deposited conductive portions and the at least one direct write deposited non-conductive portion between adjacent direct write deposited conductive portions.
A pretensioner wheel for a motor vehicle seat belt pretensioner having a pretensioner rod, a housing, a guide plate and a pretensioner tube, the pretensioner wheel comprising: a body portion having an annular shape; a pair of flanges radially extending from the body portion of the pretensioner wheel; a plurality of vanes extending between the pair of flanges along radials extending from a central axis of rotation of the body portion, the plurality of vanes each having a first sidewall and a second sidewall formed as a triangular shape on a cross-section plane of the pretensioner wheel perpendicular to the central axis, the first and second sidewall (116,118) forming a radially outer tip; and a cavity formed between adjacent two of the plurality of vanes, wherein the tip of each of the plurality of vanes lies on the radials extending from the central axis of rotation of the pretensioner wheel, and has a first angle formed between the radial and the first sidewall and a second angle formed between the radial and the second sidewall, and wherein the second sidewall of the vanes is angled to contract with a chamfered surface of a distal end portion of the pretensioner rod when the pretensioner rod is exited from the pretensioner tube characterized in, that the first angle is greater than the second angle. a body portion having an annular shape; a pair of flanges radially extending from the body portion of the pretensioner wheel; a plurality of vanes extending between the pair of flanges along radials extending from a central axis of rotation of the body portion, the plurality of vanes each having a first sidewall and a second sidewall formed as a triangular shape on a cross-section plane of the pretensioner wheel perpendicular to the central axis, the first and second sidewall (116,118) forming a radially outer tip; and a cavity formed between adjacent two of the plurality of vanes, wherein the tip of each of the plurality of vanes lies on the radials extending from the central axis of rotation of the pretensioner wheel, and has a first angle formed between the radial and the first sidewall and a second angle formed between the radial and the second sidewall, and wherein the second sidewall of the vanes is angled to contract with a chamfered surface of a distal end portion of the pretensioner rod when the pretensioner rod is exited from the pretensioner tube