mhurhangee/ep-ind-claims huggingface dataset:
An engine assembly comprising: a first engine comprising a first exhaust duct coupled in fluid communication only to said first engine, said first exhaust duct comprises a primary outlet and a secondary outlet; and a second engine comprising a second exhaust duct coupled in fluid communication only to said second engine, said second exhaust duct comprises a primary outlet and a secondary outlet, a portion of said first engine secondary outlet is aligned substantially concentrically within a portion of said second engine secondary outlet; wherein said first engine secondary outlet is coupled in fluid communication with a first rotor blade duct, wherein said first rotor blade duct extends through opposed portions of the rotor in directions oriented from a first rotor plenum center to the rotor blade end for discharge of exhaust gases therefrom to facilitate rotation of said rotor; and said second engine secondary outlet is coupled in fluid communication with a second rotor blade duct, wherein said second rotor blade duct extends through opposed portions of the rotor in directions oriented from a second rotor plenum center to the rotor blade end for discharge of exhaust gases therefrom to facilitate rotation of said rotor. a first engine comprising a first exhaust duct coupled in fluid communication only to said first engine, said first exhaust duct comprises a primary outlet and a secondary outlet; and a second engine comprising a second exhaust duct coupled in fluid communication only to said second engine, said second exhaust duct comprises a primary outlet and a secondary outlet, a portion of said first engine secondary outlet is aligned substantially concentrically within a portion of said second engine secondary outlet; wherein said first engine secondary outlet is coupled in fluid communication with a first rotor blade duct, wherein said first rotor blade duct extends through opposed portions of the rotor in directions oriented from a first rotor plenum center to the rotor blade end for discharge of exhaust gases therefrom to facilitate rotation of said rotor; and said second engine secondary outlet is coupled in fluid communication with a second rotor blade duct, wherein said second rotor blade duct extends through opposed portions of the rotor in directions oriented from a second rotor plenum center to the rotor blade end for discharge of exhaust gases therefrom to facilitate rotation of said rotor.
Covering comprising elements that can be connected to each other mechanically, wherein at least one of the elements (1, 2, 2a, 2b, 2c) is a panel, wherein the elements (1, 2, 2a, 2b, 2c) have a complementary profiling on their opposing sides and can be locked together via said profiling, wherein the locking is caused by at least one tongue element (11, 11a, 11b, 11c) which is connected to one of the elements (2, 2a, 2b, 2c) in an articulated manner and which can be pivoted during the joining motion behind a locking edge of the adjacent element, said locking edge extending substantially in a horizontal direction, wherein the tongue element (11, 11a, 11b, 11b) is in part connected to a core of the element (2, 2a, 2b, 2c) by means of an elastic material and is a one-piece component of the element (2, 2a, 2b, 2c) before the joining motion, characterised in that the one-piece connection between the tongue element (11, 11a, 11b, 11c) and the element (2, 2a, 2b, 2c) is configured as a predetermined breaking point which is provided to fail, in particular break, when the tongue element (11, 11a, 11b, 11c) is pivoted, in that by means of the profiling of the sides thereof adjacent elements (1, 2, 2a, 2b, 2c) can be locked together in a horizontal and vertical direction by a substantially vertical or pivoting joining motion and in that when joining the adjacent elements (1, 2, 2a, 2b, 2c), the tongue element (11, 11a, 11b, 11c) slides with the bottom side thereof on a support surface opposing the locking edge.
An endoscope (100, 200, 300, 300A, 400, 400A, 500) comprising: an insertion portion that has a tip portion to be inserted into an examination target from a tip side of the tip portion; a circular lens unit that is disposed at the tip portion; an image sensor that is disposed on an opposite side to the tip side of the tip portion with respect to the lens unit; wherein the image sensor has a square, quadrangular, hexagonal or octagonal shape as seen from the forward-rearward direction of the tip portion; and a linear conductor that has a tip disposed at the tip side with respect to the image sensor and has a proximal end which is extended from the tip through inside the insertion portion characterized in that the tip of the linear conductor is disposed, in a view along an optical axis of the lens unit, between an outer periphery of the lens unit surrounded by an angular outline of the image sensor and a corner portion of the image sensor. an insertion portion that has a tip portion to be inserted into an examination target from a tip side of the tip portion; a circular lens unit that is disposed at the tip portion; an image sensor that is disposed on an opposite side to the tip side of the tip portion with respect to the lens unit; wherein the image sensor has a square, quadrangular, hexagonal or octagonal shape as seen from the forward-rearward direction of the tip portion; and a linear conductor that has a tip disposed at the tip side with respect to the image sensor and has a proximal end which is extended from the tip through inside the insertion portion characterized in that the tip of the linear conductor is disposed, in a view along an optical axis of the lens unit, between an outer periphery of the lens unit surrounded by an angular outline of the image sensor and a corner portion of the image sensor.
Firebox for a combustion apparatus, advantageously but not exclusively using biomass or biofuel, comprising a base structure defining a combustion chamber and a chimney for the smoke, a door being present, wherein said chimney comprises at least a segment with a flue, cooperating with the combustion chamber, said segment being provided with a first pipe and a second pipe for the passage of the smoke, said first pipe defining a channel in which choking means are disposed, filter means being disposed in said second pipe before the first pipe merges with the second pipe, according to the direction in which the smoke travels from the combustion chamber toward the outside, the filter means and the choking means being reciprocally disposed so that the smoke can only pass through the second pipe or a part thereof, and then through the filter in a closed condition of the choking valve, or can pass both through the second pipe, or a part thereof, and through the channel, in a open or semi-open condition of the choking valve, said choking means being associated, by means of connection means, to the position of the door, so that, with the door open, the choking means are automatically in a position of opening the first pipe and with the door closed the choking means are automatically in a position of closing the first pipe, characterized in that a snap-in attachment mechanism is provided to associate said second pipe to said filter means, comprising a first connection part made on said filter means and a second connection part made on an internal wall of the chamber, in correspondence with the aperture of the chimney toward said chamber, said first connection part and said second connection part being configured to reciprocally cooperate on a common lying plane transverse to the direction defined by the direction of travel of the smoke along the first pipe and the second pipe, said first connection part being suitable to cooperate tangentially in rotation with said second connection part so as to selectively pass from an axially released condition to a condition axially engaged with said internal wall of the chamber.
Method for forming an audio signal from a data stream of coded audiodata, wherein a) frequency components of the audio signal that are allotted to a first, low subband are formed by means of a subband decoder on the basis of fundamental period values (λ LTP) contained in the audiodata and indicating each a fundamental period of the audio signal, b) frequency components of the audio signal that are allotted to a second, high subband, are formed by excitation of an audio synthesis filter (ASYN) by means of an excitation signal (u(k)) specific for the second subband, and c) for the generation of the excitation signal (u(k)) by an excitation signal generator - a fundamental period parameter (λ p) is derived from the fundamental period values (λ LTP) and - pulses with a pulse shape dependent on the fundamental period parameter (λ p) are formed in a time interval determined by the fundamental period parameter (λ p) and are mixed with a noise signal. a) frequency components of the audio signal that are allotted to a first, low subband are formed by means of a subband decoder on the basis of fundamental period values (λ LTP) contained in the audiodata and indicating each a fundamental period of the audio signal, b) frequency components of the audio signal that are allotted to a second, high subband, are formed by excitation of an audio synthesis filter (ASYN) by means of an excitation signal (u(k)) specific for the second subband, and c) for the generation of the excitation signal (u(k)) by an excitation signal generator - a fundamental period parameter (λ p) is derived from the fundamental period values (λ LTP) and - pulses with a pulse shape dependent on the fundamental period parameter (λ p) are formed in a time interval determined by the fundamental period parameter (λ p) and are mixed with a noise signal. - a fundamental period parameter (λ p) is derived from the fundamental period values (λ LTP) and - pulses with a pulse shape dependent on the fundamental period parameter (λ p) are formed in a time interval determined by the fundamental period parameter (λ p) and are mixed with a noise signal.
A mini-channel heat-exchanger for a refrigeration circuit, comprising: an inlet manifold; a first return manifold defining a first storage area; a first heat exchange pass in fluid communication between said inlet manifold and said first return manifold, said first heat exchange pass including a plurality of mini-channels; a system charge tank in direct fluid communication with said first return manifold, said system charge tank defining a second storage area; a first conduit at or near the top of the first return manifold placing top portions of said first return manifold and said system charge tank in direct fluid communication with one another; and a second conduit at or near the bottom of the first return manifold placing bottom portions of said first return manifold and said system charge tank in direct fluid communication with one another; wherein the heat exchanger further comprises: a second return manifold, a third return manifold, an outlet manifold, a second heat exchange pass between the first return manifold and the second return manifold; a third heat exchange pass between the second return manifold and the third return manifold; and a fourth heat exchange pass being in fluid communication between said third return manifold and said outlet manifold. an inlet manifold; a first return manifold defining a first storage area; a first heat exchange pass in fluid communication between said inlet manifold and said first return manifold, said first heat exchange pass including a plurality of mini-channels; a system charge tank in direct fluid communication with said first return manifold, said system charge tank defining a second storage area; a first conduit at or near the top of the first return manifold placing top portions of said first return manifold and said system charge tank in direct fluid communication with one another; and a second conduit at or near the bottom of the first return manifold placing bottom portions of said first return manifold and said system charge tank in direct fluid communication with one another; wherein the heat exchanger further comprises: a second return manifold, a third return manifold, an outlet manifold, a second return manifold, a third return manifold, an outlet manifold, a second heat exchange pass between the first return manifold and the second return manifold; a third heat exchange pass between the second return manifold and the third return manifold; and a fourth heat exchange pass being in fluid communication between said third return manifold and said outlet manifold.
Arrangement for air management of a room, comprising - ventilating means for enabling exchange of air between the inside environment of the room and the outside environment of the room; - a stand-alone air purifier, which is arranged separately from the ventilating means, and which is adapted to remove pollutants from the air in the inside environment of the room; and characterised by comprising - a control system (30, 31, 32), which is in communication with both the ventilating means and the air purifier, and which is adapted to control operation of the ventilating means and the air purifier in dependence of air quality data relating to the inside environment of the room and the outside environment of the room, the control system (30,31,32) being configured to control the ventilating means and the air purifier differently depending on whether the air quality data relating to the outside environment of the room is above or below a predetermined reference. - ventilating means for enabling exchange of air between the inside environment of the room and the outside environment of the room; - a stand-alone air purifier, which is arranged separately from the ventilating means, and which is adapted to remove pollutants from the air in the inside environment of the room; and characterised by comprising - a control system (30, 31, 32), which is in communication with both the ventilating means and the air purifier, and which is adapted to control operation of the ventilating means and the air purifier in dependence of air quality data relating to the inside environment of the room and the outside environment of the room, the control system (30,31,32) being configured to control the ventilating means and the air purifier differently depending on whether the air quality data relating to the outside environment of the room is above or below a predetermined reference.
Spirometer apparatus utilizing the Venturi effect comprising: a) an inhale-exhale tube including a mouthpiece at a first end thereof into which a patient inhales and exhales, a main interior, and an air inlet/outlet at a second end thereof, wherein a cross-sectional dimension of the inhale-exhale tube is reduced along its length; b) first and second mutually parallel vessels that are perpendicular to an axis of the inhale-exhale tube, the first vessel being closer to the mouthpiece than the second vessel, wherein the first and second vessels are in fluid communication with said main interior via a plurality of evenly spaced openings; and c) a pressure sensor operative to measure an air pressure differential between the first and second vessels by which a signal indicative of said air pressure differential is generated, characterized in that the second vessel is positioned at a location at which the cross-section of the inhale-exhale tube is less than the cross-section of the inhale-exhale tube adjacent the first vessel, the first and second vessels are located internally within the main interior and intersect the internal surface of the inhale-exhale tube so as to divide the cross-section of the inhale-exhale tube in two, wherein the first and second intersecting tubes are in fluid communication with said main interior via a plurality of evenly spaced first intersecting tube openings and a plurality of evenly spaced second intersecting tube openings, respectively. a) an inhale-exhale tube including a mouthpiece at a first end thereof into which a patient inhales and exhales, a main interior, and an air inlet/outlet at a second end thereof, wherein a cross-sectional dimension of the inhale-exhale tube is reduced along its length; b) first and second mutually parallel vessels that are perpendicular to an axis of the inhale-exhale tube, the first vessel being closer to the mouthpiece than the second vessel, wherein the first and second vessels are in fluid communication with said main interior via a plurality of evenly spaced openings; and c) a pressure sensor operative to measure an air pressure differential between the first and second vessels by which a signal indicative of said air pressure differential is generated, characterized in that the second vessel is positioned at a location at which the cross-section of the inhale-exhale tube is less than the cross-section of the inhale-exhale tube adjacent the first vessel, the first and second vessels are located internally within the main interior and intersect the internal surface of the inhale-exhale tube so as to divide the cross-section of the inhale-exhale tube in two, wherein the first and second intersecting tubes are in fluid communication with said main interior via a plurality of evenly spaced first intersecting tube openings and a plurality of evenly spaced second intersecting tube openings, respectively.
A user terminal for a radio communication system employing Listen Before Talk, LBT, in carrier aggregation performed using a licensed band and an unlicensed band, the user terminal comprising: a receiving section configured to receive Received Signal Strength Indicator, RSSI, measurement timing configuration, MTC, information for the unlicensed band, wherein the MTC information includes information indicating a duration of the RSSI measurement, information indicating a frequency of the RSSI measurement, information indicating a cycle of the RSSI measurement and information indicating a timing of the RSSI measurement with reference to a subframe timing of a connecting cell, a measurement section configured to make an RSSI measurement for a specific frequency carrier, based on the MTC information and Measurement Gap Configuration, MGC; and a transmission section configured to transmit a measurement result. a receiving section configured to receive Received Signal Strength Indicator, RSSI, measurement timing configuration, MTC, information for the unlicensed band, wherein the MTC information includes information indicating a duration of the RSSI measurement, information indicating a frequency of the RSSI measurement, information indicating a cycle of the RSSI measurement and information indicating a timing of the RSSI measurement with reference to a subframe timing of a connecting cell, a measurement section configured to make an RSSI measurement for a specific frequency carrier, based on the MTC information and Measurement Gap Configuration, MGC; and a transmission section configured to transmit a measurement result.
A method of moving a floating wind turbine relative to a body of water, the floating wind turbine having a buoyant body with a nacelle at the upper end thereof, the method comprising: floating the floating wind turbine in the body of water; and towing the floating wind turbine whilst holding the buoyant body in an inclined position, whereby the nacelle is held clear of the water. floating the floating wind turbine in the body of water; and towing the floating wind turbine whilst holding the buoyant body in an inclined position, whereby the nacelle is held clear of the water.
A device for encryption of a message m ∈ Z / p ⁢ Z to obtain a ciphertext, the device comprising a processor configured to: - compute in E () a first point C 1 = [ r 1] P and a second point C 2 = [ r 2] Y, wherein r 1 and r 2 are integers derived from an integer r ∈ Z / q ⁢ Z, E is an elliptic curve defined over, P ∈ E F p is a point of finite order q, Y = s ⁢ P ∈ E F p is an encryption key for an integer s ∈ Z / q ⁢ Z; U is a generator of cyclic group defined as the subset of points of E ( Z / p 2 Z) that reduce to the neutral element modulo p; V = p ⁢ Ψ P - compute the class β of Ψ( C 2), where Ψ is a mapping function that maps points of E () onto points of E Z / p 2 ⁢ Z; the class of a point Ψ is defined as the unique integer b such that Ψ = [b] U +[a] V for a in Z / qZ and b in Z / pZ; - compute a first value c 2 by performing an elementary arithmetic operation modulo p between the message m and the class β; - combine the first point C 1 and the first value c 2 to obtain the ciphertext ( C 1, c 2); and - output the ciphertext ( C 1, c 2). - compute in E () a first point C 1 = [ r 1] P and a second point C 2 = [ r 2] Y, wherein r 1 and r 2 are integers derived from an integer r ∈ Z / q ⁢ Z, E is an elliptic curve defined over, P ∈ E F p is a point of finite order q, Y = s ⁢ P ∈ E F p is an encryption key for an integer s ∈ Z / q ⁢ Z; U is a generator of cyclic group defined as the subset of points of E ( Z / p 2 Z) that reduce to the neutral element modulo p; V = p ⁢ Ψ P - compute the class β of Ψ( C 2), where Ψ is a mapping function that maps points of E () onto points of E Z / p 2 ⁢ Z; the class of a point Ψ is defined as the unique integer b such that Ψ = [b] U +[a] V for a in Z / qZ and b in Z / pZ; - compute a first value c 2 by performing an elementary arithmetic operation modulo p between the message m and the class β; - combine the first point C 1 and the first value c 2 to obtain the ciphertext ( C 1, c 2); and - output the ciphertext ( C 1, c 2).
An artemisinin derivative or a pharmaceutically acceptable salt thereof for use in the treatment or adjuvant treatment of an inflammatory bowel disease, wherein the artemisinin derivative is selected from the group consisting of the following compounds:
A method for manufacturing vacuum insulation panels with a core of fibers, comprising the steps of: providing a core blank of fibers, arranging foil sections on large faces of the core blank, compressing the core blank to a predetermined thickness for forming the core, wherein in the compression step the core blank is arranged between the foil sections and is mechanically compressed therebetween, wherein the compression step is performed at the place of manufacture at room temperature without thermal impact, connecting the foil sections for forming the foil sleeve, wherein a partial section of the foil sleeve still remains open, evacuating the foil sleeve enveloping the core up to a pressure of ≤ 1 mbar, and complete closing of the foil sleeve, wherein the mechanical compression of the core is maintained until a foil sleeve is completely closed, wherein the foil sleeve is made of a plastic composite foil, and wherein the mechanical compression is performed at a pressure of greater than 1 bar. providing a core blank of fibers, arranging foil sections on large faces of the core blank, compressing the core blank to a predetermined thickness for forming the core, wherein in the compression step the core blank is arranged between the foil sections and is mechanically compressed therebetween, wherein the compression step is performed at the place of manufacture at room temperature without thermal impact, connecting the foil sections for forming the foil sleeve, wherein a partial section of the foil sleeve still remains open, evacuating the foil sleeve enveloping the core up to a pressure of ≤ 1 mbar, and complete closing of the foil sleeve, wherein the mechanical compression of the core is maintained until a foil sleeve is completely closed, wherein the foil sleeve is made of a plastic composite foil, and wherein the mechanical compression is performed at a pressure of greater than 1 bar.