mhurhangee/ep-ind-claims huggingface dataset:
An air conditioner indoor unit for being wall-mounted, comprising a front housing and a rear housing forming a housing of the indoor unit, the housing being provided with main air intake portions, and heat exchangers being disposed inside the housing, wherein a lower portion of the front housing is provided with a mixed air outlet, a position that is on the rear housing and that is corresponding to the mixed air outlet is provided with a non-hot exchange air inlet, a flow air apparatus is disposed inside the housing, the flow air apparatus comprises at least two airduct bodies (31, 32, 33) that are go-through in the middle and that have front and rear openings, the airduct bodies are sequentially arranged in a column, and a go-through passage that is go-through from the front to the back is disposed in the middle, the go-through passage connects the mixed air outlet and the non-hot exchange air inlet, at least one hot exchange air passage (34, 35) with each hot exchange air passage being disposed between two adjacent airduct bodies of the airduct bodies, a volute and a centrifugal fan located inside the volute are disposed inside the housing and above the flow air apparatus, wherein an air exhaust portion of the volute faces the hot exchange air passage, characterized in that the air exhaust portion of the volute is further provided with a surrounding portion that extends to the flow air apparatus and that surrounds the hot exchange air passage, and at least one air mixed cavity (63, 64) is disposed between the surrounding portion and the hot exchange air passage.
Nacelle for an engine of an aircraft, the nacelle comprising an inner fixed structure which has two inner cowls (204a-b) and, for each inner cowl (204a-b), a heat exchanger in which a two-phase heat transfer fluid circulates and which is secured to said inner cowl (204a-b), wherein the heat exchanger comprises: - a tube which forms a loop with a front strand, a rear strand, a lower strand and an upper strand, and - an evaporator zone located on the rear strand, the nacelle being such that the heat exchanger comprises: - a first complementary strand which fluidically connects a central zone of the front strand to a central zone of the upper strand, - a second complementary strand which fluidically connects a central zone of the front strand to a central zone of the lower strand, - a third complementary strand which fluidically connects a central zone of the rear strand to a central zone of the upper strand, and - a fourth complementary strand which fluidically connects a central zone of the rear strand to a central zone of the lower strand. - a tube which forms a loop with a front strand, a rear strand, a lower strand and an upper strand, and - an evaporator zone located on the rear strand, - a first complementary strand which fluidically connects a central zone of the front strand to a central zone of the upper strand, - a second complementary strand which fluidically connects a central zone of the front strand to a central zone of the lower strand, - a third complementary strand which fluidically connects a central zone of the rear strand to a central zone of the upper strand, and - a fourth complementary strand which fluidically connects a central zone of the rear strand to a central zone of the lower strand.
A centrifugal compressor comprising: an impeller connected to a rotary shaft via a hub; and a diffuser provided downstream of the impeller, the diffuser having a flow passage which extends in a direction away from the rotary shaft and an outlet which is directed in a radial direction in a meridian plane, wherein the centrifugal compressor satisfies θ-α>0° where θ is an angle formed by a diffuser inlet hub-side line with the radial direction in the meridian plane at a point closest to an outlet of the impeller in the diffuser inlet hub-side line, the diffuser inlet hub-side line being a line on the hub side in an inlet of the diffuser, and α is an angle formed by a tangent line of an impeller hub-side line with the radial direction in the meridian plane at a point closest to the inlet of the diffuser in the impeller hub-side line, the impeller hub-side line being a line on the hub side in the impeller, and characterized in that the angle θ is such that 20°<θ<30° when the diffuser inlet hub-side line is a straight line, β is such that 0°≤β≤35° where β is an angle formed by a rear edge of the impeller with an axial direction. an impeller connected to a rotary shaft via a hub; and a diffuser provided downstream of the impeller, the diffuser having a flow passage which extends in a direction away from the rotary shaft and an outlet which is directed in a radial direction in a meridian plane, wherein the centrifugal compressor satisfies θ-α>0° where θ is an angle formed by a diffuser inlet hub-side line with the radial direction in the meridian plane at a point closest to an outlet of the impeller in the diffuser inlet hub-side line, the diffuser inlet hub-side line being a line on the hub side in an inlet of the diffuser, and α is an angle formed by a tangent line of an impeller hub-side line with the radial direction in the meridian plane at a point closest to the inlet of the diffuser in the impeller hub-side line, the impeller hub-side line being a line on the hub side in the impeller, and characterized in that the angle θ is such that 20°<θ<30° when the diffuser inlet hub-side line is a straight line, β is such that 0°≤β≤35° where β is an angle formed by a rear edge of the impeller with an axial direction. θ is an angle formed by a diffuser inlet hub-side line with the radial direction in the meridian plane at a point closest to an outlet of the impeller in the diffuser inlet hub-side line, the diffuser inlet hub-side line being a line on the hub side in an inlet of the diffuser, and α is an angle formed by a tangent line of an impeller hub-side line with the radial direction in the meridian plane at a point closest to the inlet of the diffuser in the impeller hub-side line, the impeller hub-side line being a line on the hub side in the impeller, and characterized in that the angle θ is such that 20°<θ<30° when the diffuser inlet hub-side line is a straight line, β is such that 0°≤β≤35° where β is an angle formed by a rear edge of the impeller with an axial direction.
An electric switch, in particular for an electric tool housing having electric tools, such as drilling machines, grinders, saws, planes, right-angle grinders, circular saws or the like, with a contact system that can be switched between a switch-off status and a switch-on status, with a switch housing for receiving the contact system, with a movable actuating element for switching the contact system, wherein a tappet is in cooperation with the actuating element as well as the contact system for switching the contact system, wherein the actuating element is arranged pivotable about a pivot bearing on the switch housing, wherein the tappet is hinged at the actuating element in the form of an eccentric spaced apart from the pivot bearing, such that the pivoting movement of the actuating element is substantially transformed into a sliding movement of the tappet, and with a locking element movable between an initial position and an actuation position, such that the actuating element can be maintained and/or blocked in the switch-off status in the form of a lock-OFF and/or in the switch-on status in the form of a lock-ON of the contact system, characterized in that an extension piece in the form of an extension turned away from the switch housing is located on the tappet, and that the locking element interacts with the extension piece on the tappet in order to maintain and/or block the actuating element.
A process for the production of chlorine dioxide, said process comprising the steps of continuously: feeding to a reactor an acid, alkali metal chlorate and a reducing agent; reacting the alkali metal chlorate with the acid and the reducing agent to form a product stream comprising chlorine dioxide, water and alkali metal salt of the acid; and, bringing the product stream including any liquid and gas in the reactor from the reactor to an eductor and mixing it with a gaseous motive stream fed to the eductor and thereby forming a diluted product stream. feeding to a reactor an acid, alkali metal chlorate and a reducing agent; reacting the alkali metal chlorate with the acid and the reducing agent to form a product stream comprising chlorine dioxide, water and alkali metal salt of the acid; and, bringing the product stream including any liquid and gas in the reactor from the reactor to an eductor and mixing it with a gaseous motive stream fed to the eductor and thereby forming a diluted product stream.
A network element, comprising: a memory device configured to store instructions; and a processor configured to execute the instructions by: dividing a first plurality of data packets of a data flow into a first plurality of sub-flows; and causing the first plurality of sub-flows to be transmitted to a second NE via a network, wherein the first plurality of sub-flows are transmitted using a first Internet Protocol Security, IPsec, security association, SA, cluster comprising a plurality of parallel sub-SAs, and the plurality of parallel sub-SAs are set up independently for the first plurality of sub-flows, respectively. a memory device configured to store instructions; and a processor configured to execute the instructions by: dividing a first plurality of data packets of a data flow into a first plurality of sub-flows; and causing the first plurality of sub-flows to be transmitted to a second NE via a network, dividing a first plurality of data packets of a data flow into a first plurality of sub-flows; and causing the first plurality of sub-flows to be transmitted to a second NE via a network, wherein the first plurality of sub-flows are transmitted using a first Internet Protocol Security, IPsec, security association, SA, cluster comprising a plurality of parallel sub-SAs, and the plurality of parallel sub-SAs are set up independently for the first plurality of sub-flows, respectively.
Rotating electric machine comprising a front pole wheel, a rear pole wheel and a shaft comprising four axially distributed segments (110, 115, 120, 125) of respective diameters (D1, D2, D3, D4), the machine being configured such that: - the first segment comprises a knurled part configured to ensure radial retention between the shaft and the front pole wheel, - the second segment is configured to allow the indexing and the centring of the front and rear pole wheels (230, 205), the second segment being a part that has a circular cross section and a smooth surface, - the third segment comprises a knurled part configured to ensure radial retention between the shaft and the rear pole wheel and - the fourth segment comprises a collar configured to ensure axial retention between the shaft and at least one pole wheel (205, 230), such that the diameters (D1, D2, D3, D4) of the shaft satisfy the following relationship: D1 < D2 < D3 < D 4, and such that the front pole wheel comprises: - a clamping region which is complementary to at least part of the first segment and - a centring region which is complementary to at least part of the second segment, and the rear pole wheel comprises: - a centring region which is complementary to at least part of the second segment and - a clamping region which is complementary to at least part of the third segment. - the first segment comprises a knurled part configured to ensure radial retention between the shaft and the front pole wheel, - the second segment is configured to allow the indexing and the centring of the front and rear pole wheels (230, 205), the second segment being a part that has a circular cross section and a smooth surface, - the third segment comprises a knurled part configured to ensure radial retention between the shaft and the rear pole wheel and - the fourth segment comprises a collar configured to ensure axial retention between the shaft and at least one pole wheel (205, 230), - a clamping region which is complementary to at least part of the first segment and - a centring region which is complementary to at least part of the second segment, - a centring region which is complementary to at least part of the second segment and - a clamping region which is complementary to at least part of the third segment.
A system comprising: a gas meter comprising one or more sensors and/or components, wherein the gas meter is configured to determine, a meter health factor of the gas meter based on a power management criteria that relates to voltage level and energy level of the gas meter, ageing criteria that relates to age and long-term of pressure and temperature of the gas meter, wear out criteria that relates to a total volume counted and a flow rate indicator for the gas meter, accuracy impacting criteria, and an alarm state of the gas meter obtained from the one or more sensors, wherein the power management criteria, ageing criteria, wear out criteria, accuracy impacting criteria and the alarm state are based on a functioning of the plurality of sensors and/or components, wherein the gas meter is adapted to determine if the meter health factor indicates if functioning is intact or if assistance or repair is needed immediately or at a future time interval based on the power management criteria, ageing criteria, wear out criteria, accuracy impacting criteria, and the alarm state; and a head end system configured to receive information about the meter health factor of the gas meter that indicates that the assistance and repair is required, wherein the head end system is adapted to obtain the required assistance and the repair from one or more external sources. a gas meter comprising one or more sensors and/or components, wherein the gas meter is configured to determine, a meter health factor of the gas meter based on a power management criteria that relates to voltage level and energy level of the gas meter, ageing criteria that relates to age and long-term of pressure and temperature of the gas meter, wear out criteria that relates to a total volume counted and a flow rate indicator for the gas meter, accuracy impacting criteria, and an alarm state of the gas meter obtained from the one or more sensors, wherein the power management criteria, ageing criteria, wear out criteria, accuracy impacting criteria and the alarm state are based on a functioning of the plurality of sensors and/or components, wherein the gas meter is adapted to determine if the meter health factor indicates if functioning is intact or if assistance or repair is needed immediately or at a future time interval based on the power management criteria, ageing criteria, wear out criteria, accuracy impacting criteria, and the alarm state; and a head end system configured to receive information about the meter health factor of the gas meter that indicates that the assistance and repair is required, wherein the head end system is adapted to obtain the required assistance and the repair from one or more external sources.
A system for an autonomous vehicle, the system comprising: a communication interface (123; 41) configured to receive driving environment information corresponding to a driving environment provided by another autonomous vehicle; and circuitry configured to determine a navigation route based on a degree of reliability of the driving environment information provided by the another autonomous vehicle, wherein the degree of reliability of the driving environment information is determined based on information indicating a time at which the driving environment information was acquired, wherein the system is an electronic system configured to be implemented by the autonomous vehicle, wherein the circuitry is configured to control a driving system of the autonomous vehicle based on the navigation route determined based on the degree of reliability of the driving environment information, wherein the circuitry is configured to control the driving system in a safe driving mode if the degree of reliability of the driving environment information is lower than a first threshold value, wherein the circuitry is configured to control changing a driving mode of the autonomous vehicle to a manual driving mode if the degree of reliability of the driving environment information is lower than a second threshold value which is lower than the first threshold value. a communication interface (123; 41) configured to receive driving environment information corresponding to a driving environment provided by another autonomous vehicle; and circuitry configured to determine a navigation route based on a degree of reliability of the driving environment information provided by the another autonomous vehicle, wherein the degree of reliability of the driving environment information is determined based on information indicating a time at which the driving environment information was acquired, wherein the system is an electronic system configured to be implemented by the autonomous vehicle, wherein the circuitry is configured to control a driving system of the autonomous vehicle based on the navigation route determined based on the degree of reliability of the driving environment information, wherein the circuitry is configured to control the driving system in a safe driving mode if the degree of reliability of the driving environment information is lower than a first threshold value, wherein the circuitry is configured to control changing a driving mode of the autonomous vehicle to a manual driving mode if the degree of reliability of the driving environment information is lower than a second threshold value which is lower than the first threshold value.
A resin composition comprising: 100 parts by mass of a thermoplastic resin; 1 to 60 parts by mass of a carbon nanotube; and 1 to 60 parts by mass of an acetylene black, wherein the thermoplastic resin is a polyethylene satisfying the following properties (p) and (q): (p) a highest melting point among peak top melting points in a DSC melting curve is 120°C or higher; and (q) a fraction of melting enthalpy in a temperature range of 110°C or lower relative to total melting enthalpy in a DSC melting curve is 50 to 80%, wherein the DSC melting curve is a second melting curve that is a melting curve determined during the last temperature elevation process determined by using a differential scanning calorimeter with a program to retain at 190°C for 5 minutes, cool to -10°C at 10°C/min, retain at -10°C for 5 minutes and raise the temperature to 190°C at 10°C/min. 100 parts by mass of a thermoplastic resin; 1 to 60 parts by mass of a carbon nanotube; and 1 to 60 parts by mass of an acetylene black, (p) a highest melting point among peak top melting points in a DSC melting curve is 120°C or higher; and (q) a fraction of melting enthalpy in a temperature range of 110°C or lower relative to total melting enthalpy in a DSC melting curve is 50 to 80%, wherein the DSC melting curve is a second melting curve that is a melting curve determined during the last temperature elevation process determined by using a differential scanning calorimeter with a program to retain at 190°C for 5 minutes, cool to -10°C at 10°C/min, retain at -10°C for 5 minutes and raise the temperature to 190°C at 10°C/min.
A peptide represented by the following Formula: in Formula, R 1 is selected from the group consisting of a hydrogen atom, an amino acid and a derivative thereof, and, with or without substituent(s), an acyl group having 1 to 10 carbon atoms, a benzyloxycarbonyl group, a 9-fluorenylmethyloxycarbonyl group and a phenylisothiocyanate group, X 1 and X 2 are each independently selected from the group consisting of Ala, Gly, Trp, Met, Pro, Phe, Val, Leu, Ile, and Tyr, X 3 is any amino acid, and X 4 is selected from the group consisting of His, Ala, Thr, and Ser, with the proviso that, when X 2 is Phe, X 4 is Thr, when X 4 is Ala, X 1 is Ala, and when X 4 is Thr, X 3 is Trp or Ala.
Resistive skin shell for an aircraft air intake acoustic panel or inner wall, comprising metal bands (10; 110; 210), the metal bands having a frontal face, called outer face, intended to be in contact with an aerodynamic flow, and an opposite frontal face called inner face, said metal bands (10, 110; 210) being linked to each other by solid bands (20, 120; 220), the solid bands (20, 120; 220) having an outer frontal face flush with the outer faces of the metal bands, the resistive skin shell consequently having a smooth outer face, characterized in that said metal bands (10; 110; 210) are perforated and extend in a longitudinal direction and are spaced apart from one another in a transverse direction, and in that the solid bands (20, 120; 220) are made of composites and extend in the longitudinal direction, which composite solid bands are made of a fibrereinforced polymer, the composite solid bands (20, 120; 220) having in addition a thickness greater than that of the perforated metal bands (10, 110; 210), the composite solid bands consequently having an inner face that is raised with respect to the inner face of the perforated metal bands. characterized in that said metal bands (10; 110; 210) are perforated and extend in a longitudinal direction and are spaced apart from one another in a transverse direction, and in that the solid bands (20, 120; 220) are made of composites and extend in the longitudinal direction, which composite solid bands are made of a fibrereinforced polymer, the composite solid bands (20, 120; 220) having in addition a thickness greater than that of the perforated metal bands (10, 110; 210), the composite solid bands consequently having an inner face that is raised with respect to the inner face of the perforated metal bands.
A drive device for an adjustment installation for adjusting a vehicle part, in particular a power window actuator, having - a carrier element which has an opening; - a cable drum which by way of a portion is inserted into the opening of the carrier element in such a manner that the portion at least partially extends through the opening; - a cable exit housing which is disposed on a first side of the carrier element and which has a bearing element which on the first side of the carrier element mounts the cable drum so to be rotatable about a rotation axis; - a drive wheel that is drivable by a motor unit and - a drive housing which is disposed on a second side, facing away from the first side, of the carrier element and which has a further, second bearing element for mounting the drive wheel so as to be rotatable about the rotation axis, wherein the bearing element of the cable exit housing is configured as a cylindrical bearing dome which projects from a base of the cable exit housing and the portion of the cable drum is formed by a ring gear by way of which the cable drum is connected in a rotationally fixed manner to the drive wheel, characterized in that at least one bearing element which projects radially to the rotation axis from the portion is disposed on the portion of the cable drum, said bearing element engaging radially across a counter bearing on a periphery of the carrier element surrounding the opening of the carrier element in such a manner that the counter bearing blocks a movement of the cable drum through the opening of the carrier element, and the cable drum has a plurality of bearing elements that are mutually spaced apart circumferentially on the portion. - a carrier element which has an opening; - a cable drum which by way of a portion is inserted into the opening of the carrier element in such a manner that the portion at least partially extends through the opening; - a cable exit housing which is disposed on a first side of the carrier element and which has a bearing element which on the first side of the carrier element mounts the cable drum so to be rotatable about a rotation axis; - a drive wheel that is drivable by a motor unit and - a drive housing which is disposed on a second side, facing away from the first side, of the carrier element and which has a further, second bearing element for mounting the drive wheel so as to be rotatable about the rotation axis,