mhurhangee/ep-ind-claims huggingface dataset:
A method for secure communication between a mobile device and a secure server, the method comprising: generating, by the mobile device, encrypted data including an encrypted version of a card reader ID and an encrypted version of a request for a card reader to process, using a secure server public key; and sending the encrypted data, by the mobile device, to a secure server for decrypting using a secure server private key, the method further comprising: decrypting the encrypted data, by the secure server, using the secure server private key, to obtain the card reader ID; using the card reader ID to obtain a shared key associated with the card reader ID; generating a response, by the secure server, wherein the response is encrypted using the shared key; and sending, by the secure server, the encrypted response to the mobile device; and sending, by the mobile device, the encrypted response to a card reader having the card reader ID. generating, by the mobile device, encrypted data including an encrypted version of a card reader ID and an encrypted version of a request for a card reader to process, using a secure server public key; and sending the encrypted data, by the mobile device, to a secure server for decrypting using a secure server private key, the method further comprising: decrypting the encrypted data, by the secure server, using the secure server private key, to obtain the card reader ID; using the card reader ID to obtain a shared key associated with the card reader ID; generating a response, by the secure server, wherein the response is encrypted using the shared key; and sending, by the secure server, the encrypted response to the mobile device; and sending, by the mobile device, the encrypted response to a card reader having the card reader ID. decrypting the encrypted data, by the secure server, using the secure server private key, to obtain the card reader ID; using the card reader ID to obtain a shared key associated with the card reader ID; generating a response, by the secure server, wherein the response is encrypted using the shared key; and sending, by the secure server, the encrypted response to the mobile device; and sending, by the mobile device, the encrypted response to a card reader having the card reader ID.
A machine for making covered elastic yarns, comprising a plurality of covering units, wherein each of the covering units comprises a feeding spool of an elastic yarn, a feeding system of a non-elastic yarn, a tensioning member of the covered elastic yarn and a collecting bobbin of the covered elastic yarn, wherein the feeding system of the non-elastic yarn comprises a microspindle which is rotatable about an axis and at least one feeding bobbin of the non-elastic yarn separated from and arranged upstream of the microspindle along the sliding path of the non-elastic yarn and arranged external to the rotation axis of the microspindle, said microspindle comprising a channel which is coaxial to the rotation axis for the passage of the elastic yarn, characterised in that the microspindle comprises a lower portion and an upper portion, a yarn guide feeding ring being arranged close to the lower portion configured so that the non-elastic yarn unwound by the feeding bobbin is kept close to the rotating surface of the microspindle, at the base thereof, and therefore may wind about the microspindle and wherein the upper portion of the microspindle comprises a flange, wherein at least one hole is made for running the non-elastic yarn, through which the non-elastic yarn is caused to pass and therefore to spirally wind about the elastic yarn sliding along the axis.
Pneumatic single-grain seed drill comprising a closed housing having at least one seed storage container, and at least one rotatably driven separating device having perforations arranged in a circular manner, and a fan, by means of which a pressure difference can be generated between the housing and the interior of the separating device such that the separating device is designed to separate seeds with the aid of the pressure difference by means of the perforations, the separated seeds being detachable from the perforation by interruption of the pressure difference by means of a hole-covering element such that the detached, separated seeds are supplied to a discharge line, the separating device being designed as a closed hollow drum having two lateral walls which are spaced apart from one another, the perforations being arranged in at least one of said lateral walls, the hollow drum being separable by a separating plane, the hollow drum being formed by a rotary plate and a perforated disk having the perforations, the separating plane being located between the rotary plate and the perforated disk and being sealed by means of a seal in the non-separated state, and the separated seeds being accelerated by the pressure difference into the discharge line after interruption of the pressure difference, with a drive shaft being guided through at least one of the lateral walls, characterized in that the hollow drum is sealed off from the drive shaft (9, 9') by means of a sealing element, and in that the distance of the perforated disk from the stationary housing part (1 S) can be adjusted by means of a threaded connection between the drive shaft and the lateral wall.
A chain guard housing and clutch assembly (100, 200) for a blind comprising, a first end (100', 200') which is inserted into a roller blind tube; a second end (100", 200") engageable with a wall mounting bracket; a drive spline (110, 210) forming the outer part of the chain guard housing and clutch assembly which engages with the inside of a roller blind tube; a chain wheel (120, 220), connected to the drive spline (110, 210); a chain cover module (130, 230) comprising a rim (132, 232), the rim covering part of the chain wheel (120, 220); a central pin (114, 214) extending from the drive spline at the first end, the central pin comprising at least one deformable leg (115, 215) engaged with the chain cover (131, 231) via an outward facing catch face (116, 216) on the leg, thus preventing axial movement of the chain cover module relative to the drive spline; characterized in that a quick release actuator (140, 240) is located at a second end of the assembly comprising an inner annular abutment surface (145, 245) in contact with the at least one leg (115, 215).
Rankine cycle plant for the regasification of liquefied gas, comprising: a Rankine closed loop system comprising at least: one evaporator; an expansion turbine (6; 6', 6") provided with an inflow opening (10; 10', 10"), an outflow opening (11; 11', 11") and at least one auxiliary outlet (12, 13, 14; 12', 13', 14"); a generator operatively connected to the expansion turbine (6; 6', 6"); a condenser; a pump; conduits configured to connect the evaporator, the expansion turbine (6; 6', 6"), the condenser and the pump according to a closed cycle in which a working fluid circulates; a source of liquefied gas at a cryogenic temperature, wherein the source of liquefied gas is operatively coupled to the condenser to receive heat from the working fluid flowing out from the expansion turbine (6; 6', 6") so as to take the liquefied gas to the gaseous state; a source of a heating fluid at a higher temperature than the cryogenic temperature, wherein the source of heating fluid is operatively coupled to the evaporator to transfer heat to the working fluid coming from the condenser; characterised in that the expansion turbine (6; 6', 6") is a radial centrifugal, wherein said at least one auxiliary outlet (12, 13, 14; 12', 13', 14") is interposed between successive stages of said expansion turbine (6; 6', 6"); and in that the condenser is multilevel and comprises at least two condensing chambers (25, 26, 27, 28), wherein a lower chamber of said at least two condensing chambers (25, 26, 27, 28) is connected to the outflow opening (11; 11") and an upper chamber (26, 27, 28) of said at least two condensing chambers (25, 26, 27, 28) is connected to said at least one auxiliary outlet (12, 13, 14; 12', 13', 14"). a Rankine closed loop system comprising at least: one evaporator; an expansion turbine (6; 6', 6") provided with an inflow opening (10; 10', 10"), an outflow opening (11; 11', 11") and at least one auxiliary outlet (12, 13, 14; 12', 13', 14"); a generator operatively connected to the expansion turbine (6; 6', 6"); a condenser; a pump; conduits configured to connect the evaporator, the expansion turbine (6; 6', 6"), the condenser and the pump according to a closed cycle in which a working fluid circulates; one evaporator; an expansion turbine (6; 6', 6") provided with an inflow opening (10; 10', 10"), an outflow opening (11; 11', 11") and at least one auxiliary outlet (12, 13, 14; 12', 13', 14"); a generator operatively connected to the expansion turbine (6; 6', 6"); a condenser; a pump; conduits configured to connect the evaporator, the expansion turbine (6; 6', 6"), the condenser and the pump according to a closed cycle in which a working fluid circulates; a source of liquefied gas at a cryogenic temperature, wherein the source of liquefied gas is operatively coupled to the condenser to receive heat from the working fluid flowing out from the expansion turbine (6; 6', 6") so as to take the liquefied gas to the gaseous state; a source of a heating fluid at a higher temperature than the cryogenic temperature, wherein the source of heating fluid is operatively coupled to the evaporator to transfer heat to the working fluid coming from the condenser;
A continuous process for producing a polyether product by polymerizing an alkylene oxide mixture containing 55 to 75% by weight ethylene oxide and correspondingly 25 to 45% by weight, based on the weight of the alkylene oxide mixture, comprising: a) forming in a continuous reactor a mixture of a double metal cyanide catalyst, the alkylene oxide mixture, at least one initiator compound, a Group 3 - Group 15 metal or lanthanide series compound not present during the preparation of the double metal cyanide catalyst and a polymerizate consisting of alkoxylated species having molecular weights greater than the initiator compound and up to and including molecular weight of the polyether product, and b) continuously adding additional catalyst, additional Group 3 - Group 15 metal or lanthanide series compound, additional alkylene oxide oxide mixture and additional initiator compound to the continuous reactor under polymerization conditions and continuously withdrawing a product stream containing the polyether product from the continuous reactor, wherein the magnesium, Group 3 - Group 15 metal or lanthanide series compound includes a magnesium, Group 3 - Group 15 metal or lanthanide series metal bonded to at least one alkoxide, aryloxy, carboxylate, acyl, pyrophosphate, phosphate, thiophosphate, dithiophosphate, phosphate ester, thiophosphate ester, amide, siloxide, hydride, carbamate or hydrocarbon anion, and the magnesium, Group 3 - Group 15 or lanthanide series metal compound is devoid of halide anions. a) forming in a continuous reactor a mixture of a double metal cyanide catalyst, the alkylene oxide mixture, at least one initiator compound, a Group 3 - Group 15 metal or lanthanide series compound not present during the preparation of the double metal cyanide catalyst and a polymerizate consisting of alkoxylated species having molecular weights greater than the initiator compound and up to and including molecular weight of the polyether product, and b) continuously adding additional catalyst, additional Group 3 - Group 15 metal or lanthanide series compound, additional alkylene oxide oxide mixture and additional initiator compound to the continuous reactor under polymerization conditions and continuously withdrawing a product stream containing the polyether product from the continuous reactor,
Calendar mechanism for a timepiece, said calendar mechanism being adapted to indicate information having a period varying according to at least a first cycle and a second cycle, said mechanism comprising: - a month-wheel comprising a wheel having a number of fixed teeth, said number being chosen on the basis of the maximum period of the information to be displayed, characterized in that the wheel further comprises a control-lever arranged to move between an inactive position and an active position and being provided with at least one retractable tooth, and in that said mechanism comprises: - a drive-wheel comprising a first driving organ arranged to engage with said fixed teeth and a second driving organ angularly offset relative to the first driving organ and arranged to interact with said retractable tooth when said lever is in its active position; - a first cam representing the variations of said period according to the first cycle; - at least one second cam representing the variations of said period according to the second cycle; - an indexing system kinematically linked to said wheel, with said first cam and with said second cam and adapted to index each of said cams (15, 17) relative to said wheel in function of said cycles; - an actuating system for said lever, the actuating system comprising a first feeler-spindle intended to come into contact with the first cam and a second feeler-spindle intended to come into contact with the second cam, said feeler-spindles (21a, 23a) being kinematically linked with each other and the actuating system being arranged to move said lever from its inactive position to its active position under the control of each of said cams (15, 17). - a month-wheel comprising a wheel having a number of fixed teeth, said number being chosen on the basis of the maximum period of the information to be displayed, characterized in that the wheel further comprises a control-lever arranged to move between an inactive position and an active position and being provided with at least one retractable tooth, - a drive-wheel comprising a first driving organ arranged to engage with said fixed teeth and a second driving organ angularly offset relative to the first driving organ and arranged to interact with said retractable tooth when said lever is in its active position; - a first cam representing the variations of said period according to the first cycle; - at least one second cam representing the variations of said period according to the second cycle; - an indexing system kinematically linked to said wheel, with said first cam and with said second cam and adapted to index each of said cams (15, 17) relative to said wheel in function of said cycles; - an actuating system for said lever, the actuating system comprising a first feeler-spindle intended to come into contact with the first cam and a second feeler-spindle intended to come into contact with the second cam, said feeler-spindles (21a, 23a) being kinematically linked with each other and the actuating system being arranged to move said lever from its inactive position to its active position under the control of each of said cams (15, 17).
2,4-dinitrophenol for use in a method of treating an infection of Borrelia burgdorferi, Mycobacterium leprae, Treponema pallidum, HIV, hepatitis C, or herpes virus in a subject by inducing intracellular hyperthermia comprising the step of administering to the subject having an infection of Borrelia burgdorferi, Mycobacterium leprae, Treponema pallidum, HIV, hepatitis C, or herpes virus, an amount of 2,4-dinitrophenol sufficient to induce whole body intracellular hyperthermia in the subject, wherein the whole body intracellular hyperthermia is sufficient to treat the Borrelia burgdorferi, Mycobacterium leprae, Treponema pallidum, HIV, hepatitis C, or herpes virus infection in the subject.
A method of manufacturing an outwardly flanged metal member comprising outward flange portions protruding radially outwardly from a plurality of positions along a circumferential direction on one side of an outer peripheral surface in an axial direction, the method comprising: providing a die and a punch, the die comprising a stationary die and a movable die to which an elastic force toward the stationary die is applied, at least one of the stationary die and the movable die forming flange molding cavities (32, 32a, 32b) adapted to work the outward flange portions, the punch being movable through inside the movable die; and plastically working, while surrounding a periphery of a metal blank (13, 13a), by the die and butting a distal face of the movable die and a distal face of the stationary die, an axial end face of the blank (13, 13a) by pressing the axial end face with the punch under a warm or hot condition, wherein the plastically working comprises forming the outward flange portions by filling the flange molding cavities (32, 32a, 32b) with a portion of the blank (13, 13a), wherein a magnitude of the elastic force that presses the movable die toward the stationary die is set such that, while the movable die is butted against the stationary die along with a downward movement of the punch, the movable die cannot be retrained from floating up from the stationary die when the flange molding cavities (32, 32a, 32b) are filled with the blank (13, 13a), and wherein, until the blank (13, 13a) enters partway into the flange molding cavities (32, 32a, 32b), the movable die is butted against the stationary die by, in addition to the elastic force, a friction force acting on a contact portion between an outer peripheral surface of the blank (13, 13a) and an inner peripheral surface of the movable die, and subsequently, in a course of filling the flange molding cavities (32, 32a, 32b) with the blank (13, 13a), the butting of the movable die against the stationary die is maintained by, in addition to the elastic force and the friction force, an elastic force of an elastic member disposed around the punch. providing a die and a punch, the die comprising a stationary die and a movable die to which an elastic force toward the stationary die is applied, at least one of the stationary die and the movable die forming flange molding cavities (32, 32a, 32b) adapted to work the outward flange portions, the punch being movable through inside the movable die; and plastically working, while surrounding a periphery of a metal blank (13, 13a), by the die and butting a distal face of the movable die and a distal face of the stationary die, an axial end face of the blank (13, 13a) by pressing the axial end face with the punch under a warm or hot condition,
A thermal ink jet ink composition comprising one or more volatile organic solvents, one or more humectants, one or more binder resins, and one or more dyes, wherein the humectants are present in an amount not more than 30% by weight of the ink jet ink composition, wherein the one or more volatile organic solvents are selected from the group consisting of C 1 -C 4 alcohols, C 4 -C 8 ethers, C 3 -C 6 ketones, C 3 -C 6 esters, and mixtures thereof; wherein the binder resin is present in an amount from 0.3 to 8% of the ink jet ink composition; wherein the ink jet ink composition optionally includes water up to about 5% by weight of the ink jet ink composition; and wherein the thermal ink jet ink further includes a polymeric surfactant selected from siloxanes, silicones and silanols and a plasticizer.
A method of mass spectrometry comprising: providing a flight region for ions to travel through between an acceleration electrode and a detector, wherein ions are accelerated into the flight region by applying a voltage pulse to the acceleration electrode; maintaining a potential profile along the flight region such that ions travel towards the detector, wherein ions having a range of different mass to charge ratios are passed into the flight region and separate spatially according to mass to charge ratio as they travel towards the detector; and changing the potential at which a first length of the flight region is maintained from a first potential to a second potential whilst at least some ions are travelling within said first length of flight region, the changed potential providing a first potential difference at an exit of said length of flight region, whereby said at least some ions are accelerated through the potential difference as they leave said length of flight region so as to arrive at the detector with increased kinetic energy so as to increase the ion detection efficiency of these ions. providing a flight region for ions to travel through between an acceleration electrode and a detector, wherein ions are accelerated into the flight region by applying a voltage pulse to the acceleration electrode; maintaining a potential profile along the flight region such that ions travel towards the detector, wherein ions having a range of different mass to charge ratios are passed into the flight region and separate spatially according to mass to charge ratio as they travel towards the detector; and changing the potential at which a first length of the flight region is maintained from a first potential to a second potential whilst at least some ions are travelling within said first length of flight region, the changed potential providing a first potential difference at an exit of said length of flight region, whereby said at least some ions are accelerated through the potential difference as they leave said length of flight region so as to arrive at the detector with increased kinetic energy so as to increase the ion detection efficiency of these ions.
A microchannel cooling device (20, 30, 40, 50, 60, 70), comprising: a heat sink having a liquid refrigerant flow channel having a microscopic cross section and connected to a heat source thermally; and a thermoelectric element provided on the heat sink; characterized in that the thermoelectric element extends parallel to a direction of extension of the liquid refrigerant flow channel in a part between an electrode at a high temperature side and an electrode at a low temperature side. a heat sink having a liquid refrigerant flow channel having a microscopic cross section and connected to a heat source thermally; and a thermoelectric element provided on the heat sink; characterized in that the thermoelectric element extends parallel to a direction of extension of the liquid refrigerant flow channel in a part between an electrode at a high temperature side and an electrode at a low temperature side.
Crushing mill, comprising a crushing chamber and a feed unit (11, 11') to feed the waste to be crushed positioned upstream of said crushing chamber, upstream of the feed unit (11, 11') there being positioned a first aperture for the inlet of the waste to be treated in the feed unit (11, 11') and, downstream of the feed unit (11, 11'), there being positioned a second transfer aperture to transfer the waste to be treated toward the crushing chamber, characterized in that said feed unit (11, 11') comprises a member rotatable around a determinate axis and provided with at least a pair of cylindrical sectors (28a, 28b, 29a) angularly offset with respect to said axis, provided with corresponding inlet and discharge apertures (30a, 30b) of the waste to be crushed and configured so that, in any loading and/or crushing step of the waste (R1, R2) to be crushed in the crushing mill, they prevent said first and second apertures (26, 14) from coming into communication with each other.