mhurhangee/ep-ind-claims huggingface dataset:
Switching power converter configured to control at least one phase of a polyphase electrical receiver at least at three phases, comprising at least one block of two converter arms, wherein each converter arm half-arm comprises a first assembly of N switches, N being greater than or equal to two, arranged electrically in series and 2N power diodes which are arranged N to N electrically in series and in parallel, forming second and third assemblies (ENS2, ENS3) of N diodes each comprising N diodes which are electrically in series, the second and third assemblies (ENS2, ENS3) being mounted electrically in parallel with each other and in series with the N switches in series, the first assembly of N switches in series being arranged physically between the second and third assemblies (ENS2, ENS3) of N diodes in series; the block of two arms comprising a coplanar electrical power supply, provided with a positive line (DCBUS+) and a negative line (DCBUS-) arranged physically so as to separate two arms of the converter, and comprising one power interface per arm (52, 56, 54, 58), each power interface being arranged physically so that the two half-arms of the corresponding arm are located between the coplanar electrical power supply and the corresponding power interface (52, 56, 54, 58).
A continuous process for the synthesis of beta aminocrotonates, the process comprising reacting a ketonic ester with an ammonia or an amine optionally in presence of an organic solvent and/or an acid catalyst to obtain said beta aminocrotonates, wherein said process is a zero water discharge process.
A device (203, 204, 205, 206, 207) intended to be inserted between two parts (201, 202) of a rotary-wing aircraft that are able to undergo a repeated relative movement, the device comprising: - at least two frame elements (203A, 204A, 205A, 206A, 207A; 203B, 204B, 205B, 206B, 207B) intended to be mounted on at least one of the two parts (201, 202), and - at least one elastomer layer positioned between the two frame elements, characterized in that the elastomer forming said at least one elastomer layer is translucent. - at least two frame elements (203A, 204A, 205A, 206A, 207A; 203B, 204B, 205B, 206B, 207B) intended to be mounted on at least one of the two parts (201, 202), and - at least one elastomer layer positioned between the two frame elements,
A method of producing a solution of hypochlorous acid and water ("the product solution") having a pH in a range of from 4.5 to 5.5 and a HOCI concentration of greater than 100 mg/L (w/v) and of 400 mg/L (w/v) or less, the method including subjecting a solution of hydrochloric acid and water ("the reaction solution") to electrolysis and thus obtaining HOCI in an electrolysis reaction; wherein magnesium carbonate (MgCO 3) or strontium carbonate (SrCO 3) is added to the product solution, the MgCO 3 or SrCO 3 being added to the product solution in a range of increments 60 g to 90 g of MgCO 3 or SrCO 3 per 100 L of product solution; and wherein the subjecting of the reaction solution to electrolysis is effected under a pressure greater than the hydrostatic pressure of the reaction solution, the pressure being maintained for the duration of the electrolysis reaction, wherein when MgCO 3 is used, the pressure is in a range of 5 kPa to 100 kPa; and when SrCO 3 is used, the pressure is in a range of 0.1 kPa to 2 kPa. wherein magnesium carbonate (MgCO 3) or strontium carbonate (SrCO 3) is added to the product solution, the MgCO 3 or SrCO 3 being added to the product solution in a range of increments 60 g to 90 g of MgCO 3 or SrCO 3 per 100 L of product solution; and wherein the subjecting of the reaction solution to electrolysis is effected under a pressure greater than the hydrostatic pressure of the reaction solution, the pressure being maintained for the duration of the electrolysis reaction, wherein when MgCO 3 is used, the pressure is in a range of 5 kPa to 100 kPa; and when SrCO 3 is used, the pressure is in a range of 0.1 kPa to 2 kPa.
A polyalkylene terephthalate flame retardant composition that comprises: (a) 20 to 70 parts by weight of a polyalkylene terephthalate or a mixture of polyalkylene terephthalates; (b) 5 to 15 parts by weight of poly(pentabromobenzyl acrylate); (c) 0.1 to 5 parts by weight of an antimony synergist; and (d) 0.5 to 3 parts by weight of bisphenol A diphenyl phosphate; (e) 0.5 to 5 parts by weight of a nucleating agent which is talc; (f) 0.01 to 2 parts by weight of sodium or potassium carbonate; (g) 0 to 60 parts by weight of a reinforcing agent; and (h) 0 to 70 parts by weight of a polycarbonate; wherein the flame retardant composition has a UL-94 rating of V-0 at 0.4 millimeter thickness. (a) 20 to 70 parts by weight of a polyalkylene terephthalate or a mixture of polyalkylene terephthalates; (b) 5 to 15 parts by weight of poly(pentabromobenzyl acrylate); (c) 0.1 to 5 parts by weight of an antimony synergist; and (d) 0.5 to 3 parts by weight of bisphenol A diphenyl phosphate; (e) 0.5 to 5 parts by weight of a nucleating agent which is talc; (f) 0.01 to 2 parts by weight of sodium or potassium carbonate; (g) 0 to 60 parts by weight of a reinforcing agent; and (h) 0 to 70 parts by weight of a polycarbonate;
Method for annealing cold rolled aluminium strips, where a cold rolled strip of aluminium is continuously transported along a transport path where a ramp of Direct Flame Impingement burners are located, for heating the strip, where said ramp is located perpendicular, or substantially perpendicular, to the direction of movement of the strip, where the DFI-burners are mutually located such that the whole width of the strip is heated to the same, or substantially the same, temperature, characterised in that the strip has a thickness between 0,5 mm and a maximum thickness at which the strips can be coiled, in that the velocity of the strip passing the said ramp and the heating power of said burners are adapted to heat treat the strip such that annealing of the strip is carried out without causing surface damages and in that the heat treated strip is wound to a coil.
A computer-implemented method of ensuring safety which is applied to a safety ensuring system comprising a physiological detection device and an exercise machine, wherein the physiological detection device has a data storage unit, the physiological detection device detects a physiological state of a human body and saves the physiological state in the data storage unit; the exercise machine including a control device and a working device, the control device is electrically connected to the physiological detection device, the computer-implemented method of ensuring safety comprises the steps of: A. establishing a correspondence between an identity code and a physiological state of a user; B. inputting the identity code into the exercise machine; and C. retrieving the physiological state corresponding to the inputted identity code; characterized in the further step of: D. determining if the exercise machine is allowed to be used or not according to the retrieved physiological state; wherein the exercise machine is allowed to be used if the retrieved physiological state is classified as a normal condition; the exercise machine is prohibited from being used if the retrieved physiological state is classified as an abnormal condition; wherein the exercise machine is allowed to be used with an alert being sent out if the physiological state is classified as a critical condition; wherein the exercise machine is allowed to be used with limited intensity if the physiological state is classified as a critical condition. A. establishing a correspondence between an identity code and a physiological state of a user; B. inputting the identity code into the exercise machine; and C. retrieving the physiological state corresponding to the inputted identity code;
A female coupling device (200, 400, 500), comprising: a main body (204, 410, 510) defining a fluid passage therethrough; and a clip member (250, 412, 512) coupled to the main body, with the clip member including two opposing arms that extend from the clip member at generally a 45 degree angle relative to a mating male coupling device, wherein the clip member is movable, in a first direction that is perpendicular to a second direction that is axial to the main body, between a locked position and an unlocked position, wherein in the locked position, the arms are positioned to engage a clip groove of the male coupling device when the male coupling device is mated to the female coupling device and retain the male coupling device in the female coupling device, and in the unlocked position, the clip member is in a clearance position so that the arms are located below the clip groove of the male coupling device. a main body (204, 410, 510) defining a fluid passage therethrough; and a clip member (250, 412, 512) coupled to the main body, with the clip member including two opposing arms that extend from the clip member at generally a 45 degree angle relative to a mating male coupling device, wherein the clip member is movable, in a first direction that is perpendicular to a second direction that is axial to the main body, between a locked position and an unlocked position, wherein in the locked position, the arms are positioned to engage a clip groove of the male coupling device when the male coupling device is mated to the female coupling device and retain the male coupling device in the female coupling device, and in the unlocked position, the clip member is in a clearance position so that the arms are located below the clip groove of the male coupling device. in the locked position, the arms are positioned to engage a clip groove of the male coupling device when the male coupling device is mated to the female coupling device and retain the male coupling device in the female coupling device, and in the unlocked position, the clip member is in a clearance position so that the arms are located below the clip groove of the male coupling device.
A method for securely connecting a watch to a remote server of a service provider including the following steps: - authenticating the wearer of the watch executed by said watch, authorising access to use the functions of this watch, and - selecting executed by said wearer of the watch, one of said functions from an input interface of said watch aiming at establishing a connection between said watch and the remote server; - identifying the wearer of the watch executed by said watch, from at least one biometric information element comprised in a portion of this wearer's skin; - transmitting to said remote server an authentication element relating to the selected function once the wearer is identified, and - carrying out an authentication of the wearer by the remote server from said authentication element in order to authorise an exchange of data between the watch and this remote server. - authenticating the wearer of the watch executed by said watch, authorising access to use the functions of this watch, and - selecting executed by said wearer of the watch, one of said functions from an input interface of said watch aiming at establishing a connection between said watch and the remote server; - identifying the wearer of the watch executed by said watch, from at least one biometric information element comprised in a portion of this wearer's skin; - transmitting to said remote server an authentication element relating to the selected function once the wearer is identified, and - carrying out an authentication of the wearer by the remote server from said authentication element in order to authorise an exchange of data between the watch and this remote server.
Thermoelectric temperature-control unit, - having a first contact plate, - having a second contact plate, - having at least one plate-shaped thermoelectric transducer which has a first transducer side and a second transducer side, facing away therefrom, - wherein the respective thermoelectric transducer is arranged between the first contact plate and the second contact plate, is coupled in a heat-transmitting fashion by its first transducer side to the first contact plate, and is coupled in a heat-transmitting fashion by its second transducer side to the second contact plate, - wherein in the region of the respective thermoelectric transducer, at least one such contact plate (15, 16) has, on an inner side (23, 24) facing the respective other contact plate (15, 16), a coupling zone characterized in that the coupling zone is surrounded along its circumference by a groove formed in the inner side (23, 24), - in that a heat-conducting material is arranged in the groove and along the coupling zone, - in that the heat-conducting material is directly in contact with the inner side (23, 24) of the respective contact plate (15, 16), on the one hand, and with the respective transducer side (20, 21), on the other. - having a first contact plate, - having a second contact plate, - having at least one plate-shaped thermoelectric transducer which has a first transducer side and a second transducer side, facing away therefrom, - wherein the respective thermoelectric transducer is arranged between the first contact plate and the second contact plate, is coupled in a heat-transmitting fashion by its first transducer side to the first contact plate, and is coupled in a heat-transmitting fashion by its second transducer side to the second contact plate, - wherein in the region of the respective thermoelectric transducer, at least one such contact plate (15, 16) has, on an inner side (23, 24) facing the respective other contact plate (15, 16), a coupling zone characterized in that the coupling zone is surrounded along its circumference by a groove formed in the inner side (23, 24), - in that a heat-conducting material is arranged in the groove and along the coupling zone, - in that the heat-conducting material is directly in contact with the inner side (23, 24) of the respective contact plate (15, 16), on the one hand, and with the respective transducer side (20, 21), on the other.
A thermal dissipation and shielding system, comprising: an electronic device having a case; a first component which comprises a heat source adjacent an external surface of the device to which the first component transmits heat and a second component to which the first component transmits heat; a conformable thermal solution comprising two major surfaces (10a 10b), the thermal solution positioned such that it is in operative contact with the first component and attached to the case of the device and being interposed between the first and the second components, wherein the thermal solution shields the external surface of the device and the second component from heat from the first component; wherein the thermal solution 10 comprises at least one sheet of compressed particles of exfoliated graphite having an in-plane thermal conductivity of at least about 140 W/m °K, the in-plane thermal conductivity of the at least one sheet of compressed particles of exfoliated graphite being greater than its through-plane thermal conductivity, the through-plane thermal conductivity being no greater than about 12 W/m °K. an electronic device having a case; a first component which comprises a heat source adjacent an external surface of the device to which the first component transmits heat and a second component to which the first component transmits heat; a conformable thermal solution comprising two major surfaces (10a 10b), the thermal solution positioned such that it is in operative contact with the first component and attached to the case of the device and being interposed between the first and the second components, wherein the thermal solution shields the external surface of the device and the second component from heat from the first component; wherein the thermal solution 10 comprises at least one sheet of compressed particles of exfoliated graphite having an in-plane thermal conductivity of at least about 140 W/m °K, the in-plane thermal conductivity of the at least one sheet of compressed particles of exfoliated graphite being greater than its through-plane thermal conductivity, the through-plane thermal conductivity being no greater than about 12 W/m °K.
A terminal monopole antenna based on coupled feeding, wherein the antenna comprises a feed stub and a radiation stub; the radiation stub comprises at least one radiator, and ends on two sides of the radiator are coupled to a reference ground through a first capacitor and a second capacitor, respectively; the feed stub is not connected to the radiation stub, the feed stub is arranged between the radiation stub and the reference ground, a feed point is provided on the feed stub, and the feed stub is used to perform coupled feeding on the radiation stub; and a length of the radiation stub is less than one quarter of an operating wavelength of the terminal monopole antenna, characterised in that the feed stub comprises a first feed portion and a second feed portion, one end of the first feed portion is coupled to one end of the feed point, one end of the second feed portion is coupled to the other end of the feed point, and the first feed portion and the second feed portion are axisymmetrical about a longitudinal axis on which the feed point is located; and the other end of each of the first feed portion and the second feed portion away from the feed point is coupled to the reference ground, wherein the other end of each of the first feed portion and the second feed portion away from the feed point is coupled to the reference ground through a capacitor. the antenna comprises a feed stub and a radiation stub; the radiation stub comprises at least one radiator, and ends on two sides of the radiator are coupled to a reference ground through a first capacitor and a second capacitor, respectively; the feed stub is not connected to the radiation stub, the feed stub is arranged between the radiation stub and the reference ground, a feed point is provided on the feed stub, and the feed stub is used to perform coupled feeding on the radiation stub; and a length of the radiation stub is less than one quarter of an operating wavelength of the terminal monopole antenna, characterised in that the feed stub comprises a first feed portion and a second feed portion, one end of the first feed portion is coupled to one end of the feed point, one end of the second feed portion is coupled to the other end of the feed point, and the first feed portion and the second feed portion are axisymmetrical about a longitudinal axis on which the feed point is located; and the other end of each of the first feed portion and the second feed portion away from the feed point is coupled to the reference ground, wherein the other end of each of the first feed portion and the second feed portion away from the feed point is coupled to the reference ground through a capacitor.
Pump unit for pressurising a hydraulic actuating system, in particular for pressurising an automotive actuating system, like a convertible roof system, boot lid or hood cover system, wherein the pump unit comprises a pump housing including a pump chamber for housing a rotary piston pump, wherein the rotary piston pump comprises: - a stator which is stationary positioned inside the pump chamber, which stator has a longitudinal stator body which defines an axial axis, in which the stator includes at least two channels serving respectively as an inlet or outlet channel (43, 44); - a rotor positioned around the stator, which rotor has a rotor body which is drivable in a rotational direction about the axial axis, wherein the rotor body includes several cylinder holes for receiving pistons which are slidable with respect to the rotor body in a radial direction; - an eccentric ring positioned around the rotor body, in which the eccentric ring is movable positioned with respect to the rotor body to provide an adjustable eccentricity E in between an outer circumferential rotor surface of the rotor body and an inner running surface of the eccentric ring, in which the eccentricity E is adjustable by a ring actuator which includes an actuator, characterised in that the actuator is mated with an end face of the eccentric ring and in the axial direction spaced at a distance from the end face of the eccentric ring, wherein the eccentric ring has an outer circumferential ring surface including an outer ring contour, wherein - seen in an axial projection - the actuator engages the eccentric ring at a position within said outer ring contour. - a stator which is stationary positioned inside the pump chamber, which stator has a longitudinal stator body which defines an axial axis, in which the stator includes at least two channels serving respectively as an inlet or outlet channel (43, 44); - a rotor positioned around the stator, which rotor has a rotor body which is drivable in a rotational direction about the axial axis, wherein the rotor body includes several cylinder holes for receiving pistons which are slidable with respect to the rotor body in a radial direction; - an eccentric ring positioned around the rotor body, in which the eccentric ring is movable positioned with respect to the rotor body to provide an adjustable eccentricity E in between an outer circumferential rotor surface of the rotor body and an inner running surface of the eccentric ring, in which the eccentricity E is adjustable by a ring actuator which includes an actuator, characterised in that the actuator is mated with an end face of the eccentric ring and in the axial direction spaced at a distance from the end face of the eccentric ring, wherein the eccentric ring has an outer circumferential ring surface including an outer ring contour, wherein - seen in an axial projection - the actuator engages the eccentric ring at a position within said outer ring contour.