mhurhangee/ep-ind-claims huggingface dataset:
A power supply device for a microwave oven, said power supply device receiving from the mains an input voltage (V IN) and an input current (I IN) having mains semi-cycles of predefined duration (T 1), said power supply device comprising a switching converter for driving a magnetron device of said microwave oven and control means for operating of said power supply device, characterised in that said control means comprise an array of first controllers of said switching converter for regulating said input current (I IN), each of said first controllers being activated at one associated activation period (Tk) belonging to a plurality of activation periods (Tk, T(k-1)) comprised in a mains semi-cycle.
Steam circuit in a power station comprising at least one evaporator (12; 14; 16) and at least one overheater (24; 26; 28), characterised in that a condensate collector and return line is provided between the overheater (24; 26; 28) and the evaporator (12; 14; 16) in order to trap condensate present in the overheater (24; 26; 28) and to return the condensate to the evaporator (12; 14; 16).
A device comprising: a stator; and a rotor configured to rotate at least partially within the stator or around the stator, the rotor being separated from the stator by a gap comprising a partial vacuum, the rotor comprising: a shaft configured to permit a flow of coolant; and a plurality of microchannels formed within the rotor and fluidly coupled to the shaft, the microchannels configured to permit the coolant to pass from the shaft through at least a portion of the rotor in order to provide cooling for the rotor; and wherein the rotor comprises: a plurality of rotor teeth; a plurality of rotor windings; and wherein at least one of the microchannels passes through at least a portion of one of the rotor teeth along a longitudinal direction aligned with a rotation axis of the rotor. a stator; and a rotor configured to rotate at least partially within the stator or around the stator, the rotor being separated from the stator by a gap comprising a partial vacuum, the rotor comprising: a shaft configured to permit a flow of coolant; and a plurality of microchannels formed within the rotor and fluidly coupled to the shaft, the microchannels configured to permit the coolant to pass from the shaft through at least a portion of the rotor in order to provide cooling for the rotor; and wherein the rotor comprises: a plurality of rotor teeth; a plurality of rotor windings; and wherein at least one of the microchannels passes through at least a portion of one of the rotor teeth along a longitudinal direction aligned with a rotation axis of the rotor. a shaft configured to permit a flow of coolant; and a plurality of microchannels formed within the rotor and fluidly coupled to the shaft, the microchannels configured to permit the coolant to pass from the shaft through at least a portion of the rotor in order to provide cooling for the rotor; and wherein the rotor comprises: a plurality of rotor teeth; a plurality of rotor windings; and a plurality of rotor teeth; a plurality of rotor windings; and wherein at least one of the microchannels passes through at least a portion of one of the rotor teeth along a longitudinal direction aligned with a rotation axis of the rotor.
A print fluid cartridge (30, 130, 230) for being detachably mounted in a cartridge receiving portion (110, 210) that includes a connecting part and a contact member, the print fluid cartridge comprising: a main body having a front surface facing in a front direction and a rear surface (41, 43), the rear surface being apart from the front surface in a rearward direction, the main body further having a chamber configured to store print fluid at a position between the front surface and the rear surface (41, 43); a print fluid outlet part provided on the main body, having an opening at the front surface, and configured to be connected with the connecting part and direct the print fluid from the chamber to the connecting part; and an electric interface provided at an external surface of the main body, characterized by the electric interface being configured to move relative to the main body in the forward direction and in the rearward direction between a first position and a second position that are apart from each other in the forward direction and the rearward direction, the main body being configured to support the electric interface at the second position against contact pressure that is applied to the electric interface from the contact member. a main body having a front surface facing in a front direction and a rear surface (41, 43), the rear surface being apart from the front surface in a rearward direction, the main body further having a chamber configured to store print fluid at a position between the front surface and the rear surface (41, 43); a print fluid outlet part provided on the main body, having an opening at the front surface, and configured to be connected with the connecting part and direct the print fluid from the chamber to the connecting part; and an electric interface provided at an external surface of the main body, characterized by the electric interface being configured to move relative to the main body in the forward direction and in the rearward direction between a first position and a second position that are apart from each other in the forward direction and the rearward direction,
Automatic parking brake for motor vehicles having multiple brake actuators (4a, 4b) and having an operator control element for actuating the parking brake, characterized in that the brake actuators (4a, 4b) are connected to a regulator (1, 11) which can perform wheel-specific slip regulation in particular driving situations, wherein the regulator (1, 11) is configured such that, in slip regulation at a first wheel, the slip (λ 2) of a second wheel is taken into consideration.
A dental tray for use in taking an impression of a person's teeth, comprising an outer tray member having a longitudinal axis and an inner tray member sized and shaped so as to be mounted at least partially within said outer tray member and including a compression section which includes first and second compression members (56a, 56b), said outer tray member and inner tray member being sized and shaped so as to define a trough between an outer wall of the outer tray member and the compression section for receiving an impression-taking material, said inner tray member being movable relative to said outer tray member in an axial direction which is substantially parallel to said longitudinal axis of said outer tray member, said first and second compression members (56a, 56b) being movably attached to said inner tray member, each of said first and second compression members (56a, 56b) being movable in a lateral direction substantially perpendicular to said longitudinal axis thereby moving in the lateral direction away from each other in response to the movement of said inner tray member in said axial direction.
An elastic sheet for an absorbent article having a first surface and a second surface opposite to the first surface, and comprising a first fibrous layer located on the first surface and a second fibrous layer located on the second surface respectively constructed of continuous fibers of thermoplastic resin; a plurality of elastic members being secured between the first fibrous layer and the second fibrous layer in a contractible manner; the first fibrous layer and the second fibrous layer having a plurality of gathers formed in a direction intersecting with a direction in which the elastic members extend between the elastic members adjacent to each other; characterised in that an average flexural rigidity value (B1, B2) of the first fibrous layer and the second fibrous layer in accordance with a KES method being 0.0035 ×10 -4 to 0.022 ×10 -4 (N·m 2 /m), and a thickness (Tm) under a compression load of 49.03 hPa to the gathers in accordance with the KES method being 0.22 to 1.5 mm; wherein the average flexural rigidity value (B1, B2) and the thickness (Tm) are measured as described in the description, and the KES method is as described in the description. a plurality of elastic members being secured between the first fibrous layer and the second fibrous layer in a contractible manner; the first fibrous layer and the second fibrous layer having a plurality of gathers formed in a direction intersecting with a direction in which the elastic members extend between the elastic members adjacent to each other; characterised in that an average flexural rigidity value (B1, B2) of the first fibrous layer and the second fibrous layer in accordance with a KES method being 0.0035 ×10 -4 to 0.022 ×10 -4 (N·m 2 /m), and a thickness (Tm) under a compression load of 49.03 hPa to the gathers in accordance with the KES method being 0.22 to 1.5 mm; wherein the average flexural rigidity value (B1, B2) and the thickness (Tm) are measured as described in the description, and the KES method is as described in the description.
An electrically-heated catalytic converter (1A-1C) comprising a catalyst support which produces heat when electric current is applied, a holding member made of an electrically insulating material, the holding member being provided so as to cover an outer circumference of the catalyst support, and a case which houses the catalyst support and holds the catalyst support via the holding member, wherein a catalyst supported on the catalyst support is configured so as to treat gas flowing in the case, wherein the holding member has a water-absorbing property, and characterized in that an insulation layer made of an electrically insulating material including glass components and wherein water is not absorbed is provided between the case and the holding member around the entire circumference in a circumferential direction.
A method of protecting a Rijndael-type algorithm executed by an electronic circuit against side channel attacks, wherein: each block (t) of data to be encrypted or decrypted is masked with a first mask (m) before applying (33; 33') a non-linear block substitution operation based on a first substitution box (S'; S), and is then unmasked with a second mask (m') after the substitution; the substitution box is recalculated (44, 45, 46, 47, 48, 24; 44, 23', 24, 47, 48', 49), block by block, before applying the non-linear operation, the order of processing of the blocks of the substitution box being submitted to a random permutation (φ); and the recalculation of the substitution box uses the second mask (m') and is performed in two steps using third and fourth masks, respectively, the sum of the third and fourth masks being equal to the first mask (m). each block (t) of data to be encrypted or decrypted is masked with a first mask (m) before applying (33; 33') a non-linear block substitution operation based on a first substitution box (S'; S), and is then unmasked with a second mask (m') after the substitution; the substitution box is recalculated (44, 45, 46, 47, 48, 24; 44, 23', 24, 47, 48', 49), block by block, before applying the non-linear operation, the order of processing of the blocks of the substitution box being submitted to a random permutation (φ); and the recalculation of the substitution box uses the second mask (m') and is performed in two steps using third and fourth masks, respectively, the sum of the third and fourth masks being equal to the first mask (m).
An applicator (10, 100 200) applying microneedles to a skin, the applicator (10, 100, 200) comprising: a transmission member (20, 120, 220) that transmits biasing force of a biasing member (40, 140, 240) to a microneedle array including microneedles characterized in that the microneedles have a needle density of 500 needles/cm 2 or more, a mass of the transmission member (20, 120, 220) is 1.5 g or less, and a momentum of the transmission member (20, 120, 220) activated by the biasing force of the biasing member (40, 140, 240) is from 0.0083 (N·s) to 0.015 (N·s). a transmission member (20, 120, 220) that transmits biasing force of a biasing member (40, 140, 240) to a microneedle array including microneedles characterized in that the microneedles have a needle density of 500 needles/cm 2 or more, a mass of the transmission member (20, 120, 220) is 1.5 g or less, and a momentum of the transmission member (20, 120, 220) activated by the biasing force of the biasing member (40, 140, 240) is from 0.0083 (N·s) to 0.015 (N·s).
A vacuum pump, in particular a molecular vacuum pump, with a rotor, which comprises a shaft a hub connected to the shaft and a first sleeve connected to a first side of the hub and concentric with the shaft, wherein the first sleeve is arranged in the gas stream following a second sleeve, wherein the at least one second sleeve is concentric with the shaft and is connected to the hub on a second side of the hub lying opposite to the first side in the axial direction, characterised in that the hub comprises an outer surface, which is configured to co-operate with a stator to convey gas.
An apoptotically active substance, characterised in that it comprises at least one peptide portion having one of the amino acid sequences shown in SEQ ID NOs 12, 18 and 19 and induces apoptosis.
A method for producing an electrical energy storage module containing electrical energy storage elements, this module comprising: - a parallelepiped casing made of sheet metal, inside of which are housed said electrical energy storage elements, said casing comprising a bottom assembled to a hood with five faces, said electrical energy storage elements being held in place and immobilized in the casing by a first resin layer which extends from said bottom over only a portion of the height of said electrical energy storage elements, and by a second resin layer which extends from one of the faces of the hood over only a portion of the height of said electrical energy storage elements, - at least one electronic card disposed in a facade element, itself attached to one of the faces of said parallelepiped casing, characterized in that it comprises the steps of: - assembling the electrical energy storage element in pairs using connecting bars, - implementing the electrical cabling and installing the insulators so as to form an isolated power block, - placing said power block inside the casing, - assembling the bottom and the hood of said casing, - injecting resin through a first opening of the casing to form said first resin layer, - waiting for the polymerization of the resin, - turning the module over, - injecting resin through a second opening of the casing to form a second resin layer, - attaching the facade element containing the electronic card to the casing. - a parallelepiped casing made of sheet metal, inside of which are housed said electrical energy storage elements, said casing comprising a bottom assembled to a hood with five faces, said electrical energy storage elements being held in place and immobilized in the casing by a first resin layer which extends from said bottom over only a portion of the height of said electrical energy storage elements, and by a second resin layer which extends from one of the faces of the hood over only a portion of the height of said electrical energy storage elements, - at least one electronic card disposed in a facade element, itself attached to one of the faces of said parallelepiped casing, - assembling the electrical energy storage element in pairs using connecting bars, - implementing the electrical cabling and installing the insulators so as to form an isolated power block, - placing said power block inside the casing, - assembling the bottom and the hood of said casing, - injecting resin through a first opening of the casing to form said first resin layer, - waiting for the polymerization of the resin, - turning the module over, - injecting resin through a second opening of the casing to form a second resin layer, - attaching the facade element containing the electronic card to the casing.
A method of monitoring an HVAC system, the HVAC system comprising a plurality of HVAC devices and a plurality of HVAC controllers, each of the HVAC controllers comprising a communication module, the method comprising: receiving and storing in a cloud-based computer system HVAC data reporting messages, each HVAC data reporting message including one or more operational data values included by one of the HVAC controllers; generating by the cloud-based computer system of remote diagnoses for a particular HVAC device of the HVAC system; and transmitting by the cloud-based computer system of a diagnosis message to a diagnosis processing system for the particular HVAC device, the diagnosis message including a remote diagnosis for the particular HVAC device, characterized in that the cloud-based computer system generates the remote diagnosis for the particular HVAC device using a plurality of HVAC data reporting messages received in the cloud-based computer system from a plurality of the HVAC controllers of more than one HVAC systems, wherein each remote diagnosis is generated by using more than one operational data value. receiving and storing in a cloud-based computer system HVAC data reporting messages, each HVAC data reporting message including one or more operational data values included by one of the HVAC controllers; generating by the cloud-based computer system of remote diagnoses for a particular HVAC device of the HVAC system; and transmitting by the cloud-based computer system of a diagnosis message to a diagnosis processing system for the particular HVAC device, the diagnosis message including a remote diagnosis for the particular HVAC device, characterized in that the cloud-based computer system generates the remote diagnosis for the particular HVAC device using a plurality of HVAC data reporting messages received in the cloud-based computer system from a plurality of the HVAC controllers of more than one HVAC systems, wherein each remote diagnosis is generated by using more than one operational data value.
A nasal respiratory assembly comprising: a pair of sheets, each sheet defining an opening sized and shaped to fit over a nostril of a patient, with a ferromagnetic ring positioned at an underside of the sheet and circumferentially aligned with the opening, with an upper side of the sheet configured for sealable engagement with the nostril; a pair of posts, each post including a magnetic ring positioned at a first end and a receptacle positioned at a second end with a passageway extending from the first to the second ends, the magnetic ring removably attachable to the ferromagnetic ring; a pair of conduit adapters defining openings therethrough for fluid flow, a post end of each conduit adapter including a socket, each socket shaped to receive the receptacle in an interference fit to form a substantially airtight connection therewith; wherein a connector end of the conduit adapter cooperates with a channel opening of a connector of a continuous positive airway pressure CPAP machine to form a substantially airtight connection therewith. a pair of sheets, each sheet defining an opening sized and shaped to fit over a nostril of a patient, with a ferromagnetic ring positioned at an underside of the sheet and circumferentially aligned with the opening, with an upper side of the sheet configured for sealable engagement with the nostril; a pair of posts, each post including a magnetic ring positioned at a first end and a receptacle positioned at a second end with a passageway extending from the first to the second ends, the magnetic ring removably attachable to the ferromagnetic ring; a pair of conduit adapters defining openings therethrough for fluid flow, a post end of each conduit adapter including a socket, each socket shaped to receive the receptacle in an interference fit to form a substantially airtight connection therewith; wherein a connector end of the conduit adapter cooperates with a channel opening of a connector of a continuous positive airway pressure CPAP machine to form a substantially airtight connection therewith.
A method for purifying dimethyl sulfoxide, comprising distilling a dimethyl sulfoxide-containing liquid in the presence of sodium carbonate in an inert gas atmosphere under atmospheric pressure to distill out dimethyl sulfoxide, an amount of the sodium carbonate with respect to 100 g of pure dimethyl sulfoxide in a residual liquid after the distillation being 6 times or more the amount of the sodium carbonate with respect to 100 g of the pure dimethyl sulfoxide in the dimethyl sulfoxide-containing liquid before the distillation.
A method comprising: generating, by a routing protocol daemon "RPD" operating on a control plane of a network device, a marker timestamp that initiates a consistency check; in response to the marker timestamp, calculating (612, 614, 616), by each of the RPD, a control plane kernel, and packet forwarding engines of the network device, zonal checksums for a plurality of zones within a routing information base "RIB", a forwarding information base "FIB", and corresponding forwarding tables respectively, wherein each zone comprises one or more routing objects and wherein each zonal checksum is calculated based on checksums for routing objects in the zone having timestamps prior to the marker timestamp; performing (624, 712), by a collector daemon operating on the control plane of the network device, the consistency check based on comparing the zonal checksums calculated for each zone of the plurality of zones within the RIB, the FIB, and the forwarding tables to determine whether the routing objects in each of the RIB, the FIB, and the forwarding tables are consistent with each other; and when the RIB, the FIB, and the forwarding tables are not consistent with each other, performing an action related to at least one of RIB, the FIB, or the forwarding tables. generating, by a routing protocol daemon "RPD" operating on a control plane of a network device, a marker timestamp that initiates a consistency check; in response to the marker timestamp, calculating (612, 614, 616), by each of the RPD, a control plane kernel, and packet forwarding engines of the network device, zonal checksums for a plurality of zones within a routing information base "RIB", a forwarding information base "FIB", and corresponding forwarding tables respectively, wherein each zone comprises one or more routing objects and wherein each zonal checksum is calculated based on checksums for routing objects in the zone having timestamps prior to the marker timestamp; performing (624, 712), by a collector daemon operating on the control plane of the network device, the consistency check based on comparing the zonal checksums calculated for each zone of the plurality of zones within the RIB, the FIB, and the forwarding tables to determine whether the routing objects in each of the RIB, the FIB, and the forwarding tables are consistent with each other; and when the RIB, the FIB, and the forwarding tables are not consistent with each other, performing an action related to at least one of RIB, the FIB, or the forwarding tables.
A conformable tank comprising: a body with a plurality of walls defining a cavity in the body; and an internal support connected to an internal surface of one of the plurality of walls of the body and protruding into the cavity of the body; characterized in that the body and the internal support are an additively manufactured integral structure formed by a fiber filament reinforced composite material. a body with a plurality of walls defining a cavity in the body; and an internal support connected to an internal surface of one of the plurality of walls of the body and protruding into the cavity of the body; characterized in that the body and the internal support are an additively manufactured integral structure formed by a fiber filament reinforced composite material.