mhurhangee/ep-ind-claims huggingface dataset:
A gas burner for a cooking appliance, comprising: a burner body comprising: a first combustion chamber with a first gas inlet and a second combustion chamber with a second gas inlet, the first and second combustion chambers (20, 22) being separate and being independently supplied with combustible gas via the first and second gas inlets (24, 26), respectively, the first and second combustion chambers (20,22) cooperating to form a substantially annular outer flame ring and a substantially annular inner flame ring; and a plurality of flame channels (70, 72) disposed between the first and second combustion chambers (20, 22), each of the flame channels (70, 72) including at least one transfer burner port (80, 82) in gas-flow communication with the combustible gas in one of the first and second combustion chambers (20, 22) characterised in that the gas burner further comprises a plurality of vanes positioned on a bottom side of the burner body and configured to direct air; and an electric igniter configured to ignite the inner and outer flame rings. a burner body comprising: a first combustion chamber with a first gas inlet and a second combustion chamber with a second gas inlet, the first and second combustion chambers (20, 22) being separate and being independently supplied with combustible gas via the first and second gas inlets (24, 26), respectively, the first and second combustion chambers (20,22) cooperating to form a substantially annular outer flame ring and a substantially annular inner flame ring; and a plurality of flame channels (70, 72) disposed between the first and second combustion chambers (20, 22), each of the flame channels (70, 72) including at least one transfer burner port (80, 82) in gas-flow communication with the combustible gas in one of the first and second combustion chambers (20, 22) characterised in that the gas burner further comprises a plurality of vanes positioned on a bottom side of the burner body and configured to direct air; and an electric igniter configured to ignite the inner and outer flame rings. a first combustion chamber with a first gas inlet and a second combustion chamber with a second gas inlet, the first and second combustion chambers (20, 22) being separate and being independently supplied with combustible gas via the first and second gas inlets (24, 26), respectively, the first and second combustion chambers (20,22) cooperating to form a substantially annular outer flame ring and a substantially annular inner flame ring; and a plurality of flame channels (70, 72) disposed between the first and second combustion chambers (20, 22), each of the flame channels (70, 72) including at least one transfer burner port (80, 82) in gas-flow communication with the combustible gas in one of the first and second combustion chambers (20, 22) characterised in that the gas burner further comprises a plurality of vanes positioned on a bottom side of the burner body and configured to direct air; and an electric igniter configured to ignite the inner and outer flame rings.
A base station (111, 112, 113, 1900) configured to operate in accordance with a periodically repeated synchronization period, wherein the synchronization period comprises a plurality of successive pilot slots (202, 203, 204, 205), the pilot slots being associated with groups of base stations in a one-to-one relationship, wherein the base station is configured to be a member of a first group among the groups of base stations and to transmit, in each repetition of the synchronization period, one or more pilot signals in the pilot slot associated with the first group, characterized in that the plurality of successive pilot slots (202, 203, 204, 205) includes one or more pilot slots that each overlap partly with their respective predecessor. wherein the synchronization period comprises a plurality of successive pilot slots (202, 203, 204, 205), the pilot slots being associated with groups of base stations in a one-to-one relationship, wherein the base station is configured to be a member of a first group among the groups of base stations and to transmit, in each repetition of the synchronization period, one or more pilot signals in the pilot slot associated with the first group, characterized in that the plurality of successive pilot slots (202, 203, 204, 205) includes one or more pilot slots that each overlap partly with their respective predecessor.
A magnetic tape assembly comprising: a magnetic coating layer configured to magnetically store information for a card assembly; and a metal layer that provides at least one of a security feature, a decorative feature, or other functional feature of the card assembly, wherein the metal layer is optically continuous without magnification and has a thickness of less than 1500 angstrom, such that the metal layer prevents conduction of electrostatic discharge through the card assembly wherein the metal layer of the magnetic stripe assembly has an optical density of at least 0.25 and no greater than 4.0. a magnetic coating layer configured to magnetically store information for a card assembly; and a metal layer that provides at least one of a security feature, a decorative feature, or other functional feature of the card assembly, wherein the metal layer is optically continuous without magnification and has a thickness of less than 1500 angstrom, such that the metal layer prevents conduction of electrostatic discharge through the card assembly wherein the metal layer of the magnetic stripe assembly has an optical density of at least 0.25 and no greater than 4.0.
A polymeric composition, comprising: a first ethylene-based copolymer comprising ethylene and at least one C3 to C20 alpha-olefin comonomer, said first ethylene-based copolymer having a weight percent of ethylene-derived units based on the weight of the first ethylene-based copolymer ranging from 35 wt% to 52 wt% and a weight-average molecular weight (MwA) of less than 120,000; and a second ethylene-based copolymer comprising ethylene and at least one C3 to C20 alpha-olefin comonomer, said second ethylene-based copolymer having a weight percent of ethylene-derived units based on the weight of the second ethylene-based copolymer ranging from 65 wt% to 85 wt% and a weight-average molecular weight (MwB) of from above 75,000 to less than 130,000. a first ethylene-based copolymer comprising ethylene and at least one C3 to C20 alpha-olefin comonomer, said first ethylene-based copolymer having a weight percent of ethylene-derived units based on the weight of the first ethylene-based copolymer ranging from 35 wt% to 52 wt% and a weight-average molecular weight (MwA) of less than 120,000; and a second ethylene-based copolymer comprising ethylene and at least one C3 to C20 alpha-olefin comonomer, said second ethylene-based copolymer having a weight percent of ethylene-derived units based on the weight of the second ethylene-based copolymer ranging from 65 wt% to 85 wt% and a weight-average molecular weight (MwB) of from above 75,000 to less than 130,000.
A laminate structure comprising an alternating stack of layers of different types of polymer blends AC and BD having the sequence -AC-[BD-AC-] n with n from 4 to 36, a layer thickness of layers AC and layers BD of less than 3 μm, wherein A and B are thermoplastic polymers, the thermoplastic polymer B has functional barrier properties against transmission of oxygen, nitrogen, carbon dioxide, organic vapors and moisture, the polymers A and B are each blended with a thermoplastic elastomer C and D forming the polymer blends AC and BD, in which the amount of the thermoplastic elastomers C and D in the blends is each from 3 to 45 wt.-%, and the thermoplastic polymer B and elastomer D are essentially incompatible forming separate phases, and the structure has a water vapor transmission rate of less than 5 g H 2 O per m 2 in 24 hours at 23 °C and 85 Vol.-% relative humidity (DIN 53122) and an oxygen transmission rate of less than 10 cm 3 O 2 per m 2 in 24 hours at 23 °C and 50 Vol.-% relative humidity (ASTM D 3985).
A compound of Formula V-A2: or a pharmaceutically acceptable salt thereof, wherein B is a moiety of Formula II: wherein W c is aryl, heteroaryl, heterocycloalkyl, or cycloalkyl; q is an integer of 0 or 1; R 1 is hydrogen, alkyl, or halo; R 2 is alkyl or halo; R 3 is halo; and R 9 is alkyl, or heterocycloalkyl. B is a moiety of Formula II: wherein W c is aryl, heteroaryl, heterocycloalkyl, or cycloalkyl; q is an integer of 0 or 1; R 1 is hydrogen, alkyl, or halo; R 2 is alkyl or halo; R 3 is halo; and R 9 is alkyl, or heterocycloalkyl.
An apparatus for the removal of the central core of a cable with at least two conductors, preferably comprising a holding arrangement/clamping apparatus for clamping the stripped cable which has exposed conductors and which is preferably provided with a support sleeve, preferably with a centring device and a sensor and control device which is configured if required as a module of a higher-level system controller, wherein a processing device has - at least two movable grippers (8a, 8b), wherein a first gripper is configured for gripping a first conductor and/or first conductor pair of the cable and a second gripper is configured for gripping a second conductor and/or second conductor pair of the cable, so that the central core of the cable is able to be exposed by the movable grippers (8a, 8b), and - a dedicated cutting device for cutting the central core of the cable exposed by the grippers (8a, 8b), characterised in that each gripper (8a, 8b) in its state holding the conductor and/or the conductor pair (4a, 4b) is preferably able to be pivoted away about an axis oriented substantially transversely to the cable axis, by an angle of approximately 90°. - at least two movable grippers (8a, 8b), wherein a first gripper is configured for gripping a first conductor and/or first conductor pair of the cable and a second gripper is configured for gripping a second conductor and/or second conductor pair of the cable, so that the central core of the cable is able to be exposed by the movable grippers (8a, 8b), and - a dedicated cutting device for cutting the central core of the cable exposed by the grippers (8a, 8b),
A postal sorting machine comprising an unstacker in a mailpiece feed inlet via which mailpieces are fed in, a sorting conveyor designed to put the mailpieces unstacked from the feed inlet in series and on edge, and sorting outlets, each of which is provided with a receptacle designed to store the mailpieces coming from said sorting conveyor in a stack and on edge, each sorting outlet being provided with a wheel having a helical blade, which wheel projects through an opening in the bottom of the receptacle, and is mounted on a transmission shaft disposed under the receptacle to impart a rotary movement to the helical blade so that the helical blade pushes the base of a current mailpiece in the receptacle against the stack of mailpieces that is being formed, said postal sorting machine being characterized in that the wheel is mounted on the transmission shaft by being clipped by moving in translation across the axis of rotation of the transmission shaft.
A nanofiber forming process for making a fibrous web comprising the steps of: supplying a spinning solution having at least one polymer dissolved in at least one solvent at a temperature between about 100°C and the freezing point of the solvent to a rotating spin disk with a rotational speed between about 4,000 rpm and about 100,000 rpm, the spin disk having a flat surface and a forward surface discharge edge; providing a porous collector and a vacuum device to pull vaporized solvent away from the nanofibers and pin the nanofibers to the collector; issuing the spinning solution from the spin disk along the flat surface so as to fully wet the flat surface of the spin disk and to distribute the spinning solution as a film toward the forward surface of the discharge edge of the spin disk; and forming separate fibrous streams from the spinning solution while the solvent vaporizes to produce polymeric nanofibers. supplying a spinning solution having at least one polymer dissolved in at least one solvent at a temperature between about 100°C and the freezing point of the solvent to a rotating spin disk with a rotational speed between about 4,000 rpm and about 100,000 rpm, the spin disk having a flat surface and a forward surface discharge edge; providing a porous collector and a vacuum device to pull vaporized solvent away from the nanofibers and pin the nanofibers to the collector; issuing the spinning solution from the spin disk along the flat surface so as to fully wet the flat surface of the spin disk and to distribute the spinning solution as a film toward the forward surface of the discharge edge of the spin disk; and forming separate fibrous streams from the spinning solution while the solvent vaporizes to produce polymeric nanofibers.
Module for pumping fuel for a vehicle, the module comprising a body (12, 14) defining a low-pressure space in which there is arranged a pump at the outlet of which there is placed a pressure limiter itself comprising a tubular body extending along a main axis between a front end, where there is arranged a valve seat at the centre of which there emerges a fuel return duct, and a remote rear end, the limiter moreover comprising a core provided with a shut-off member arranged slideably in the tubular body between a closed position in which its front face is in complementary bearing engagement against the seat shutting off the return duct, and an open position in which its front face is moved away from the seat allowing some of the fuel to be discharged towards the low-pressure space, the core being moveover provided with an elastic member permanently urging the shut-off member towards the closed position, characterized in that the said front face of the shut-off member is a flat discal surface and in which the elastic element is a helical spring axially compressed between the rear face of the shut-off member, i.e. the face opposite the said front face, and the rear end of the tubular body, and in which the shut-off member is fixed to one end of the spring, the core moreover comprising another end member arranged on the opposite side to the shut-off member, between the rear end of the body and the spring, and in which the shut-off member and the said other end member are identical and symmetrically arranged and maintained at the opposite ends of the spring such that the core formed by the spring, the shut-off member and the said other end member is symmetrical, being able to be arranged in the tubular body such that either one of the two members cooperates with the seat.
An assembly of an insertion member and a receiving member configured to be engaged by screw-less, snap-in installation, the insertion member comprising: one or more bracket extended from a plane of the insertion member, a lower end of the one or more bracket including one or more tooth unit; and at least one guiding unit for securely engaging the insertion member with the receiving member, the receiving member comprising: one or more opening for complementarily engaging the one or more bracket of the insertion member, one or more resting surface thereof including plurality of slots for engaging the one or more tooth unit of the one or more bracket; and at least one recess for receiving the at least one guiding unit, wherein, a first engagement of the assembly restricts linear movement of the insertion member along a first axis, a second axis and a third axis, and rotation about the first axis and the second axis, and a second engagement of the assembly restricts rotation about the third axis thereby securely engaging the insertion member with the receiving member. one or more bracket extended from a plane of the insertion member, a lower end of the one or more bracket including one or more tooth unit; and at least one guiding unit for securely engaging the insertion member with the receiving member, one or more opening for complementarily engaging the one or more bracket of the insertion member, one or more resting surface thereof including plurality of slots for engaging the one or more tooth unit of the one or more bracket; and at least one recess for receiving the at least one guiding unit, wherein, a first engagement of the assembly restricts linear movement of the insertion member along a first axis, a second axis and a third axis, and rotation about the first axis and the second axis, and a second engagement of the assembly restricts rotation about the third axis thereby securely engaging the insertion member with the receiving member.
A process for preparing a cobalt-containing hydrocarbon synthesis catalyst, which process includes - in a carbide formation step, treating an initial catalyst precursor comprising a catalyst support supporting cobalt, with a CO containing gas for longer than 1 hour at a temperature T 1, where 210°C<T 1 <260°C, to convert the cobalt to cobalt carbide thereby obtaining a cobalt carbide containing catalyst precursor, the CO containing gas, when it contains H 2, not having a CO to H 2 molar ratio equal to or less than 33:1, the carbide formation step being carried out under non-oxidative conditions and wherein the cobalt of the catalyst support supporting cobalt is formed in a reduction step wherein the catalyst support supporting a cobalt compound is subjected to reduction in a reducing gas to reduce the cobalt compound to cobalt; and - in a subsequent activation step, subjecting the cobalt carbide containing catalyst precursor to treatment with a hydrogen containing gas at a temperature T 2, where T 2 is at least 300°C, to convert the cobalt carbide to cobalt metal thereby activating the cobalt carbide containing catalyst precursor and obtaining a cobalt-containing hydrocarbon synthesis catalyst. - in a carbide formation step, treating an initial catalyst precursor comprising a catalyst support supporting cobalt, with a CO containing gas for longer than 1 hour at a temperature T 1, where 210°C<T 1 <260°C, to convert the cobalt to cobalt carbide thereby obtaining a cobalt carbide containing catalyst precursor, the CO containing gas, when it contains H 2, not having a CO to H 2 molar ratio equal to or less than 33:1, the carbide formation step being carried out under non-oxidative conditions and wherein the cobalt of the catalyst support supporting cobalt is formed in a reduction step wherein the catalyst support supporting a cobalt compound is subjected to reduction in a reducing gas to reduce the cobalt compound to cobalt; and - in a subsequent activation step, subjecting the cobalt carbide containing catalyst precursor to treatment with a hydrogen containing gas at a temperature T 2, where T 2 is at least 300°C, to convert the cobalt carbide to cobalt metal thereby activating the cobalt carbide containing catalyst precursor and obtaining a cobalt-containing hydrocarbon synthesis catalyst.
A planar CO 2 -sensing device comprising an electrode with an ion-selective layer, an electrolyte layer, and an outer layer, wherein the electrolyte layer is arranged between the ion-selective layer and the outer layer, and wherein the electrolyte layer comprises osmotically active species in an amount of 0.8-6.0 milliosmol per m 2 of the electrolyte layer area, characterized in that the electrolyte layer comprises a hydrophilic osmolarity increasing component which does not add bicarbonate ions or chloride ions to the electrolyte layer.
Method for igniting and/or reigniting a welding arc between a wire end of a fusible welding wire electrode and a workpiece after an incident, comprising the steps of: (a) determining a path length or time period required by the free wire end of the fusible welding wire electrode before contact or short circuit with a surface of the workpiece; and (b) igniting the welding arc with an ignition energy (E Z) set as a function of the determined path length or time period. (a) determining a path length or time period required by the free wire end of the fusible welding wire electrode before contact or short circuit with a surface of the workpiece; and (b) igniting the welding arc with an ignition energy (E Z) set as a function of the determined path length or time period.
A method for measuring respiratory vibration on a human or animal skin (10, 14), comprising: emitting an emission light at a first position (222, 326) on the skin (10, 14); receiving a diffused light from the emission light at a second position (232, 336) on the skin (10, 14), wherein the second position (232, 336) is at a distance apart from the first position (222, 326); wherein the distance between the first (222, 326) and the second position (232, 336) is such that the light is received from having traversed the dermis layer and not the underlying subcutaneous fat layer, obtaining and storing a vibration signal (410, 610, 700, 750, 1010, 1020) comprising a light intensity of the diffused light received over time; wherein the vibration signal (410, 610, 700, 750, 1010, 1020) corresponds to a mechanical vibration of the dermis layer; and extracting a respiratory parameter from the vibration signal. emitting an emission light at a first position (222, 326) on the skin (10, 14); receiving a diffused light from the emission light at a second position (232, 336) on the skin (10, 14), wherein the second position (232, 336) is at a distance apart from the first position (222, 326); wherein the distance between the first (222, 326) and the second position (232, 336) is such that the light is received from having traversed the dermis layer and not the underlying subcutaneous fat layer, obtaining and storing a vibration signal (410, 610, 700, 750, 1010, 1020) comprising a light intensity of the diffused light received over time; wherein the vibration signal (410, 610, 700, 750, 1010, 1020) corresponds to a mechanical vibration of the dermis layer; and extracting a respiratory parameter from the vibration signal.
A portable electronic device (112-1, 400), comprising an interface circuit (114-2, 418) configured to communicate with other electronic devices in an enterprise-hosted network operated by an entity, wherein the portable electronic device is configured to: discover (210, 312) the EHN by receiving one or more messages that include information about the EHN; connect (212, 314) to the EHN using a quarantine zone, wherein the quarantine zone restricts access to the EHN, and wherein the quarantine zone is bounded or isolated in the EHN and its associated memory; provide valid credentials to establish a level of trust with the EHN; receive a request for a credential; provide the credential to the EHN, wherein the credential includes authorization information, authentication information, or both; and receive provisioning information that customizes an application on the portable electronic device to a venue associated with the entity such that the customized application implements a venue-specific function, and wherein the provisioning information allows the portable electronic device to connect to the EHN outside of the quarantine zone. discover (210, 312) the EHN by receiving one or more messages that include information about the EHN; connect (212, 314) to the EHN using a quarantine zone, wherein the quarantine zone restricts access to the EHN, and wherein the quarantine zone is bounded or isolated in the EHN and its associated memory; provide valid credentials to establish a level of trust with the EHN; receive a request for a credential; provide the credential to the EHN, wherein the credential includes authorization information, authentication information, or both; and receive provisioning information that customizes an application on the portable electronic device to a venue associated with the entity such that the customized application implements a venue-specific function, and wherein the provisioning information allows the portable electronic device to connect to the EHN outside of the quarantine zone.