mhurhangee/ep-ind-claims huggingface dataset:
A method for generating a digital value for a physically unclonable function, the method comprising: receiving a first voltage value; receiving a second voltage value; generating a thermometer code, wherein the thermometer code includes a number of consecutive bits of a first bit value and wherein the number of consecutive bits of a first bit value is proportional to a magnitude of a voltage difference between the first voltage value and the second voltage value; and in which generating a thermometer code includes one of: (i) applying a voltage corresponding to the first voltage value to even numbered inverters in an inverter chain and applying a voltage corresponding to the second voltage value to odd numbered inverters in the inverter chain; or (ii) applying a first edge associated with the first voltage to a first delay chain and applying a second edge associated with the second voltage to a second delay chain, wherein the second edge trails the first edge by a predetermined value. receiving a first voltage value; receiving a second voltage value; generating a thermometer code, wherein the thermometer code includes a number of consecutive bits of a first bit value and wherein the number of consecutive bits of a first bit value is proportional to a magnitude of a voltage difference between the first voltage value and the second voltage value; and in which generating a thermometer code includes one of: (i) applying a voltage corresponding to the first voltage value to even numbered inverters in an inverter chain and applying a voltage corresponding to the second voltage value to odd numbered inverters in the inverter chain; or (ii) applying a first edge associated with the first voltage to a first delay chain and applying a second edge associated with the second voltage to a second delay chain, wherein the second edge trails the first edge by a predetermined value. (i) applying a voltage corresponding to the first voltage value to even numbered inverters in an inverter chain and applying a voltage corresponding to the second voltage value to odd numbered inverters in the inverter chain; or (ii) applying a first edge associated with the first voltage to a first delay chain and applying a second edge associated with the second voltage to a second delay chain, wherein the second edge trails the first edge by a predetermined value.
Method for filling a container to be filled with a filling product, comprising the steps: - receiving the container to be filled in a treatment chamber in a sealing manner, - applying a filling device to the container in a sealing manner, - after applying the filling device to the container in a sealing manner, rinsing the container with a rinsing gas introduced into the container through a rinsing gas channel; - after rinsing the container with the rinsing gas, filling the container with the filling product, - pre-pressurisation of the treatment chamber with a pressurisation gas through a pressurisation gas channel, - after filling the container and pre-pressurising the treatment chamber, removing the filling device from the container, - after removing the filling device from the container, closing the container received in the treatment chamber with a container closure, - after closing the container, relieving the pre-pressurisation pressure in the treatment chamber and removing the container from the treatment chamber, characterised in that the pre-pressurisation pressure in the treatment chamber is relieved at least partly into the rinsing gas channel. - receiving the container to be filled in a treatment chamber in a sealing manner, - applying a filling device to the container in a sealing manner, - after applying the filling device to the container in a sealing manner, rinsing the container with a rinsing gas introduced into the container through a rinsing gas channel; - after rinsing the container with the rinsing gas, filling the container with the filling product, - pre-pressurisation of the treatment chamber with a pressurisation gas through a pressurisation gas channel, - after filling the container and pre-pressurising the treatment chamber, removing the filling device from the container, - after removing the filling device from the container, closing the container received in the treatment chamber with a container closure, - after closing the container, relieving the pre-pressurisation pressure in the treatment chamber and removing the container from the treatment chamber,
A power generating device including: a support structure (12A, 12B); one or more mounts for rotatably mounting the support structure, the support structure being rotatable on the mount(s) about a first axis of rotation; a plurality of aerofoil blades each being rotatably mounted on the support structure and freely rotatable relative thereto about a respective second axis of rotation, the second axes of rotation each being substantially parallel to and radially spaced from the first axis of rotation; and a means of actuating each of the aerofoil blades between a first condition, wherein the aerofoil blade has a first lifting aerofoil section (14'A) for generating a lift force in a first direction (L P) thereby to impart a torque on the support structure in a first rotational direction, and a second condition, wherein the aerofoil blade has a second lifting aerofoil section (14'B) for generating a lift force in a second direction to impart a torque on the support structure in the same first rotational direction such that the support structure is operatively driveable in repeating 360 degree rotary cycles; wherein the first and the second lifting aerofoil sections are reversed sections of one another; characterised in that: the first and the second lifting aerofoil sections are reflexed camber aerofoil sections such that, in use, fluid flow acting over the aerofoil blades automatically sets an angle of attack of the aerofoil blades relative to the direction of the fluid flow; and the actuating means operably deforms or inverts the aerofoil blades between the first and second conditions. a support structure (12A, 12B); one or more mounts for rotatably mounting the support structure, the support structure being rotatable on the mount(s) about a first axis of rotation; a plurality of aerofoil blades each being rotatably mounted on the support structure and freely rotatable relative thereto about a respective second axis of rotation, the second axes of rotation each being substantially parallel to and radially spaced from the first axis of rotation; and a means of actuating each of the aerofoil blades between a first condition, wherein the aerofoil blade has a first lifting aerofoil section (14'A) for generating a lift force in a first direction (L P) thereby to impart a torque on the support structure in a first rotational direction, and a second condition, wherein the aerofoil blade has a second lifting aerofoil section (14'B) for generating a lift force in a second direction to impart a torque on the support structure in the same first rotational direction such that the support structure is operatively driveable in repeating 360 degree rotary cycles; wherein the first and the second lifting aerofoil sections are reversed sections of one another; the first and the second lifting aerofoil sections are reflexed camber aerofoil sections such that, in use, fluid flow acting over the aerofoil blades automatically sets an angle of attack of the aerofoil blades relative to the direction of the fluid flow; and the actuating means operably deforms or inverts the aerofoil blades between the first and second conditions.
A metal plate material hot molding apparatus, wherein in a metal plate material hot molding apparatus for press molding a heated metal plate material, supply piping for a cooling medium is provided in a mold comprising a die and a punch, ejection holes for the cooling medium ate provided in a molding surface of the mold (2, 3), and the supply piping and the ejection holes communicate with each other, characterized in that at least part of the punch and/or at least part of the die is formed of porous metal having plural holes as ejection holes and discharge holes, and the apparatus is adapted to perform molding while the cooling medium is ejected to a gap between the metal plate material and the mold from the ejection holes during holding the metal plate material at a press bottom dead center.
A device for filling a container of a collapsible type with a product in the form of powder or liquid, said container having a compartment which is defined by flexible walls and whose volume is dependent on the relative position of the walls and which communicates with the surroundings through a filling duct of the container, comprising a valve housing with a filling tube, which is insertable into said filling duct of the container to supply a product to the compartment of the container through a product path which is defined by the valve housing and its filling tube a piston element arranged in the product path and comprising a valve body and, arranged downstream thereof, an end element, the piston element being movable between a first position, in which the valve body abuts against a valve seat of the valve housing to block the product path and the end element is arranged in or adjacent to an outlet portion of the filling tube to counteract dripping, and a second position, in which the valve body is displaced from the valve seat to open the product path and the end element takes a position, in which it defines, together with the outlet portion, a filling passage, and a squeezing means which is arranged to grip the filling tube and the filling duct when said filling tube is inserted in said filling duct to establish a seal between the filling tube and the filling duct, said filling tube being made of a rigid material, wherein the outer diameter of the end element is smaller than the inner diameter of the filling tube.
A flame pipe of a condensing heat exchanger having pairs of longitudinal dents shaped coaxially with respect to the axis of the pipe, where the dents are trapezoid in longitudinal section, positioned opposite each other, pointing towards the centre of the pipe and forming a section, and the distance between the dents in the section measured inside the pipe is 0.5 mm or less, and the adjacent dent sections are positioned at an angle of 90° to one another, where the ratio of the pipe length to the inner diameter of the pipe measured in the cylindrical part devoid of dents falls within the range from 26 to 29, characterised in that a bottom of each dent is flat with additional dents pointing towards the centre of the pipe.
A silicone hydrogel formed from a reactive monomer mixture comprising: a. at least one hydroxyalkyl (meth)acrylate monomer; b. at least one first mono-functional hydroxyl-substituted poly(disubstituted siloxane) having 4 to 8 siloxane repeating units; c. at least one second hydroxyl-substituted poly(disubstituted siloxane) selected from the group consisting of mono-functional hydroxyl-substituted poly(disubstituted siloxane) having 10 to 200 or 10-100 siloxane repeating units, multifunctional hydroxyl-substituted poly(disubstituted siloxanes) having 10 to 200 or 10-100 siloxane repeating units, and mixtures thereof; d. at least 15 wt% at least one polyamide, based on the total weight of reactive components in the reactive monomer mixture; and e. optional further constituents. a. at least one hydroxyalkyl (meth)acrylate monomer; b. at least one first mono-functional hydroxyl-substituted poly(disubstituted siloxane) having 4 to 8 siloxane repeating units; c. at least one second hydroxyl-substituted poly(disubstituted siloxane) selected from the group consisting of mono-functional hydroxyl-substituted poly(disubstituted siloxane) having 10 to 200 or 10-100 siloxane repeating units, multifunctional hydroxyl-substituted poly(disubstituted siloxanes) having 10 to 200 or 10-100 siloxane repeating units, and mixtures thereof; d. at least 15 wt% at least one polyamide, based on the total weight of reactive components in the reactive monomer mixture; and e. optional further constituents.
A curable fluoropolymer composition comprising: an amorphous fluoropolymer, wherein the amorphous fluoropolymer comprises at least one of an iodine-, a bromine- and a nitrogen-containing cure site group; and particles of a metal fluoride, wherein the particles comprise less than 10% by weight of organic moieties on the particles' surface and wherein the metal of the metal fluoride comprises at least one of an alkaline earth metal, a Group III transition metals, and a Lanthanide metals. an amorphous fluoropolymer, wherein the amorphous fluoropolymer comprises at least one of an iodine-, a bromine- and a nitrogen-containing cure site group; and particles of a metal fluoride, wherein the particles comprise less than 10% by weight of organic moieties on the particles' surface and wherein the metal of the metal fluoride comprises at least one of an alkaline earth metal, a Group III transition metals, and a Lanthanide metals.
A zoom lens unit comprising only four lens groups which are, in order from an object side to an image side: a first lens group having positive refractive power and a focus function; a second lens group having negative refractive power, which is configured to move when changing a magnification; a third lens group which is configured to move when changing a magnification; and a fourth lens group having positive refractive power, which is fixed when changing a magnification, wherein the following condition is fulfilled: M 2 ⁢ W ⋅ M 3 ⁢ W ⋅ M 4 ⁢ W < 0.14 where M 2W represents a lateral imaging magnification of the second lens group at a wide-angle end, M 3W represents a lateral imaging magnification of the third lens group at the wide-angle end, and M 4W represents a lateral imaging magnification of the fourth lens group at the wide-angle end, and characterised in that the entire fourth lens group is adapted to move so as to correct a change in focus position with a temperature change at least at the wide-angle end; wherein the following condition is fulfilled: 0.3 < 1 − M 4 ⁢ W 2 < 1.5 where M 4W represents the imaging magnification of the fourth lens group at the wide-angle end. a first lens group having positive refractive power and a focus function; a second lens group having negative refractive power, which is configured to move when changing a magnification; a third lens group which is configured to move when changing a magnification; and a fourth lens group having positive refractive power, which is fixed when changing a magnification, wherein where M 2W represents a lateral imaging magnification of the second lens group at a wide-angle end, M 3W represents a lateral imaging magnification of the third lens group at the wide-angle end, and M 4W represents a lateral imaging magnification of the fourth lens group at the wide-angle end, and characterised in that the entire fourth lens group is adapted to move so as to correct a change in focus position with a temperature change at least at the wide-angle end; wherein the following condition is fulfilled: 0.3 < 1 − M 4 ⁢ W 2 < 1.5 where M 4W represents the imaging magnification of the fourth lens group at the wide-angle end.
A system, comprising: a network interface (32, 36) and a processor (34, 38); wherein the processor (34, 38) is configured to: receive, via the network interface, a request originating from a request-origin application and directed to a request-destination application that runs on a request-destination device, subsequently to receiving the request, communicate the request to the request-destination application, subsequently to communicating the request to the request-destination application: identify, from among multiple log entries recorded by the request-destination application, at least one log entry as having been recorded responsively to the request, and receive a response, from the request-destination application, to the request, while holding the response, identify information contained in the at least one log entry, and perform a function in response to the information. a network interface (32, 36) and a processor (34, 38); wherein the processor (34, 38) is configured to: receive, via the network interface, a request originating from a request-origin application and directed to a request-destination application that runs on a request-destination device, subsequently to receiving the request, communicate the request to the request-destination application, subsequently to communicating the request to the request-destination application: identify, from among multiple log entries recorded by the request-destination application, at least one log entry as having been recorded responsively to the request, and receive a response, from the request-destination application, to the request, while holding the response, identify information contained in the at least one log entry, and perform a function in response to the information. receive, via the network interface, a request originating from a request-origin application and directed to a request-destination application that runs on a request-destination device, subsequently to receiving the request, communicate the request to the request-destination application, subsequently to communicating the request to the request-destination application: identify, from among multiple log entries recorded by the request-destination application, at least one log entry as having been recorded responsively to the request, and receive a response, from the request-destination application, to the request, while holding the response, identify information contained in the at least one log entry, and perform a function in response to the information. receive a response, from the request-destination application, to the request, while holding the response, identify information contained in the at least one log entry, and perform a function in response to the information.
A medicine for use in a method of treating psoriasis by inhibiting absent in melanoma 2 protein activity, wherein the medicine comprises a compound (C 28 H 35 N 3 O 3) as shown in a formula I, and the formula I is expressed as follows:
An implantable device for sealing an aperture in a tissue of a body lumen, the implantable device comprising: a sealable member and an anchorable member positionable against the sealable member to retain the sealable member at a sealing position, wherein the sealable member is adapted to be disposed against the anchorable member, characterized in that, the sealable member comprises: a flexible substrate, and a mesh layer on the flexible substrate and having a textured surface which is adapted to engage against the internal surface of tissue adjacent the aperture; the anchorable member is configured such that the mesh layer is engagable against an internal surface of the tissue adjacent the aperture when the implantable device is in the sealing position, and in that the mesh layer: is structured to promote platelet capture; comprises a plurality of electrospun fibres having a diameter in the range of from 0.3μm to 8μm; has a first thickness between about 5μm and 500μm; comprises Polydioxanone; and the flexible substrate has a second thickness which is between about 40μm and 500μm. a flexible substrate, and a mesh layer on the flexible substrate and having a textured surface which is adapted to engage against the internal surface of tissue adjacent the aperture; is structured to promote platelet capture; comprises a plurality of electrospun fibres having a diameter in the range of from 0.3μm to 8μm; has a first thickness between about 5μm and 500μm; comprises Polydioxanone; and the flexible substrate has a second thickness which is between about 40μm and 500μm.
A vehicle suspension, comprising a hub carrier, on which a wheel hub is suitable for mounting, at least one suspension arm having an outer end connected to the hub carrier by a spherical hinge and an inner end suitable for attachment to a suspended structure of the vehicle, and a shock absorber wherein at least one load responsive device is arranged on the suspension arm, said load responsive device comprising a sensor able to generate an output signal in response to a load applied to the suspension arm, wherein a control unit is provided configured to receive the output signal generated by the sensor and to adjust the stiffness of the shock absorber through a valve adapted to vary passage cross-sections of the fluid contained in the shock absorber, said suspension being characterized in that said load responsive device is located on the spherical hinge of the outer end of the suspension arm. wherein at least one load responsive device is arranged on the suspension arm, said load responsive device comprising a sensor able to generate an output signal in response to a load applied to the suspension arm, wherein a control unit is provided configured to receive the output signal generated by the sensor and to adjust the stiffness of the shock absorber through a valve adapted to vary passage cross-sections of the fluid contained in the shock absorber, said suspension being characterized in that said load responsive device is located on the spherical hinge of the outer end of the suspension arm.
An assembly of stator modules for a planar drive system, comprising a first stator module and a second stator module, the first stator module and/or the second stator module each comprising stator segments with a segment width, wherein the stator segments are embodied to be energizable, wherein with the aid of the stator segments a magnetic field may be provided for interacting with magnet arrangements of a rotor of the planar drive system in order to drive and/or hold the rotor, wherein the first stator module and the second stator module are arranged at a distance from each other and a gap is formed as a result, wherein the gap comprises a gap width, wherein the gap width is smaller than or equal to the segment width, wherein at least one functional element is arranged in the region of the gap, wherein the functional element provides further functions that go beyond the moving of the rotors, characterized in that the functional element comprises a movable door, or wherein the functional element comprises a light source and a light detector, wherein with the aid of the light source and of the light detector a detection of the movable rotor and/or a determination of a movement of an object between the light source and the light detector may be carried out or wherein the functional element provides an air curtain, or wherein the functional element comprises a cleaning brush, wherein the cleaning brush has a stationary or rotatable embodiment or wherein the functional element comprises a nozzle for applying a fluid or wherein the functional element comprises a disinfecting element or wherein the functional element comprises a suction device, or wherein the functional element comprises a retaining element. characterized in that the functional element comprises a movable door, or wherein the functional element comprises a light source and a light detector, wherein with the aid of the light source and of the light detector a detection of the movable rotor and/or a determination of a movement of an object between the light source and the light detector may be carried out or wherein the functional element provides an air curtain, or wherein the functional element comprises a cleaning brush, wherein the cleaning brush has a stationary or rotatable embodiment or wherein the functional element comprises a nozzle for applying a fluid or wherein the functional element comprises a disinfecting element or wherein the functional element comprises a suction device, or wherein the functional element comprises a retaining element.