mhurhangee/ep-ind-claims huggingface dataset:
A therapy device for the treatment of human respiratory diseases, consisting of - a mouthpiece in which a passage duct is worked, - a hose attached to the mouthpiece arranged flush with the opening of the passage duct and which - is formed from a flexible elastic material, the free end of which facing away from the passage duct is open and of - a support body connected to the mouthpiece with a curved or bent cross-sectional structure, in which an adjusting device is provided at a distance from the mouthpiece in the support body which is aligned perpendicular or at an angle to the support body and can be moved in relation to the support body, with a guide plate having varying elasticity serving as an intermediate element being arranged between the adjusting device and the hose, with the adjusting device acting on the guide plate or in a driving connection with it, and that all of the hose or at least an area of it lies loose on the guide plate, in which case the adjusting device is connected via the intermediate element to the hose between the mouthpiece and the free end of the hose and in that due to the changing position of the adjusting device, the distance from the hose to the support body can be variably adjusted so that the curvature of the hose can be set independently from the radius of curvature of the support body. - a mouthpiece in which a passage duct is worked, - a hose attached to the mouthpiece arranged flush with the opening of the passage duct and which - is formed from a flexible elastic material, the free end of which facing away from the passage duct is open and of - a support body connected to the mouthpiece with a curved or bent cross-sectional structure,
A method of producing at least part of an aircraft airframe, the method comprising: providing a plurality of component parts of the at least part of the aircraft airframe; measuring a surface of each of the component parts; for each component part, creating a digital model of that component part using the measurements of the surface of that component part; digitally assembling together the digital models of the component parts thereby to produce a digital model of the at least part of the aircraft airframe; using the digital model of the at least part of the aircraft airframe, creating a digital model of a shim, the digital model of the shim filling a gap between at least two digital models of component parts in the digital model of at least part of the aircraft airframe; producing a physical shim using the digital model of the shim; attaching the physical shim to a component part; measuring a surface of the component part with the shim attached thereto; creating a new digital model of the component part with the shim attached thereto using the measurements of the surface of that component part with the shim attached thereto; using the new digital model of the component part with the shim attached thereto to provide an updated digital model of the airframe; and using the updated digital model of the airframe, assembling together the plurality of component parts thereby to produce the at least part of the aircraft airframe. providing a plurality of component parts of the at least part of the aircraft airframe; measuring a surface of each of the component parts; for each component part, creating a digital model of that component part using the measurements of the surface of that component part; digitally assembling together the digital models of the component parts thereby to produce a digital model of the at least part of the aircraft airframe; using the digital model of the at least part of the aircraft airframe, creating a digital model of a shim, the digital model of the shim filling a gap between at least two digital models of component parts in the digital model of at least part of the aircraft airframe; producing a physical shim using the digital model of the shim; attaching the physical shim to a component part; measuring a surface of the component part with the shim attached thereto; creating a new digital model of the component part with the shim attached thereto using the measurements of the surface of that component part with the shim attached thereto; using the new digital model of the component part with the shim attached thereto to provide an updated digital model of the airframe; and using the updated digital model of the airframe, assembling together the plurality of component parts thereby to produce the at least part of the aircraft airframe.
A cooking utensil for cooking food under pressure and comprising a vessel and a lid for co-operating with said vessel to form a cooking enclosure, said lid having a top wall presenting a peripheral outline that is substantially circular or oval and from which there extends an annular skirt, said utensil also having a sealing gasket interposed between the lid and the vessel in order to enable the pressure inside the cooking enclosure to rise, said sealing gasket comprising a peripheral annular ring together with a first flexible lip projecting from said ring towards the inside of the utensil in a direction that is mainly radially inwards, between a root secured to the ring and a free end portion in sealing contact with said top wall of the lid, said utensil being characterized in that it includes a leakage opening formed through said top wall above the sealing gasket so as to be hermetically closed by the gasket so long as the pressure that exists inside the enclosure does not exceed a safety threshold, the annular skirt forming a stop abutment for the ring preventing any outward radial movement of the gasket in register with the leakage opening, said first lip presenting flexibility that is appropriate for the free end portion to be pushed back locally through the leakage opening as soon as the pressure that exists inside the enclosure exceeds said safety threshold, thus causing the inside of the enclosure to communicate with the outside via the leakage opening in order to cause the pressure inside the enclosure to drop.
A method for receiving downlink signal at a relay in a wireless communication system, the method comprising: monitoring first control information for downlink scheduling in a first slot of a resource block, RB, pair to receive the first control information, wherein the first control information includes resource allocation information on one or more resource units for data; receiving the data related with the first control information in a second slot of the RB pair based on that the resource allocation information informing the one or more resource units for the data exist in the RB pair in response to a reception of the first control information for downlink scheduling in the first slot of the RB pair; and monitoring second control information for uplink scheduling in the second slot of the RB pair based on that resource allocation information informing the one or more resource units for the data do not exist in the RB pair. monitoring first control information for downlink scheduling in a first slot of a resource block, RB, pair to receive the first control information, wherein the first control information includes resource allocation information on one or more resource units for data; receiving the data related with the first control information in a second slot of the RB pair based on that the resource allocation information informing the one or more resource units for the data exist in the RB pair in response to a reception of the first control information for downlink scheduling in the first slot of the RB pair; and monitoring second control information for uplink scheduling in the second slot of the RB pair based on that resource allocation information informing the one or more resource units for the data do not exist in the RB pair.
Method for manufacturing at least one timepiece component comprising the following steps of: a) providing a substrate, depositing a first electrically conductive layer thereon and applying a first photoresist layer; b) hot-pressing the first photoresist layer using a stamp, by pressing the stamp down as far as the substrate, in order to shape the first photoresist layer and define a first level of the timepiece component; c) irradiating the first shaped photoresist layer through a mask defining the at least one first level of the timepiece component and dissolving the non-irradiated areas of the first photoresist layer to reveal, in places, the first electrically conductive layer; d) applying a second photoresist layer covering the structure produced in step c), then irradiating the second photoresist layer through a mask (4") defining a second level of the timepiece component and dissolving the non-irradiated areas of the second photoresist layer to form a mould comprising a first and a second level; e) depositing a metal layer in the mould by electroforming from the first electrically conductive layer to form the timepiece component, the metal layer substantially reaching the upper surface of the second photoresist layer; f) successively removing the substrate, the first electrically conductive layer and the first and second photoresist layers (3, 6) to release the timepiece component. a) providing a substrate, depositing a first electrically conductive layer thereon and applying a first photoresist layer; b) hot-pressing the first photoresist layer using a stamp, by pressing the stamp down as far as the substrate, in order to shape the first photoresist layer and define a first level of the timepiece component; c) irradiating the first shaped photoresist layer through a mask defining the at least one first level of the timepiece component and dissolving the non-irradiated areas of the first photoresist layer to reveal, in places, the first electrically conductive layer; d) applying a second photoresist layer covering the structure produced in step c), then irradiating the second photoresist layer through a mask (4") defining a second level of the timepiece component and dissolving the non-irradiated areas of the second photoresist layer to form a mould comprising a first and a second level; e) depositing a metal layer in the mould by electroforming from the first electrically conductive layer to form the timepiece component, the metal layer substantially reaching the upper surface of the second photoresist layer; f) successively removing the substrate, the first electrically conductive layer and the first and second photoresist layers (3, 6) to release the timepiece component.
Ternary herbicidal compositions comprising: a) a herbicide A which is 4-amino-3,6-dichloropyridine-2-carboxylic acid and 2-[ -4-isopropyl-4-methyl-5-oxo-2-imidazolin-2-yl]-5-methoxymethyl-nicotinic acid; and b) at least one herbicide B which is a chloroacetanilide selected from dimethenamid-P and dimethachlor. a) a herbicide A which is 4-amino-3,6-dichloropyridine-2-carboxylic acid and 2-[ -4-isopropyl-4-methyl-5-oxo-2-imidazolin-2-yl]-5-methoxymethyl-nicotinic acid; and b) at least one herbicide B which is a chloroacetanilide selected from dimethenamid-P and dimethachlor.
Film chamber for receiving a test object to be tested for the presence of a leak, comprising at least two film layers (14, 16) and at least two frame elements (24, 26), each of which has a sealing surface so that the two frame elements (24, 26) lie against each other in a gas-tight manner in order to hermetically seal the film chamber, wherein each of the two film layers (14, 16) has at least one retaining profile in an edge portion, characterized in that each of the two frame elements (24, 26) has at least one retaining groove in their sealing surface in order to receive a retaining profile such that the two film layers (14, 16) are held between the two frame elements (24, 26) substantially by a form-fitting connection.
A method of transmitting a signal, which is transmitted to a base station by a user equipment configured to use 4 antennas, the method comprising: obtaining transmission rank information; outputting a precoded signal by precoding layer signals, the number of which corresponds to the transmission rank using a specific precoding matrix corresponding to the transmission rank, wherein the specific precoding matrix is selected from a 4-antenna codebook; and transmitting the precoded signal to the base station, wherein the 4-antenna codebook includes precoding matrices for a rank 3 as shown in below, 1 0 0 e jθ 1 0 − e jθ 1 0 1 1 0 e jθ 2 − e jθ 2, where θ 1, θ 2 ∈ 2 ⁢ π N i, i = 0,..., N − 1, and N is 4 or 8. obtaining transmission rank information; outputting a precoded signal by precoding layer signals, the number of which corresponds to the transmission rank using a specific precoding matrix corresponding to the transmission rank, wherein the specific precoding matrix is selected from a 4-antenna codebook; and transmitting the precoded signal to the base station, wherein the 4-antenna codebook includes precoding matrices for a rank 3 as shown in below, 1 0 0 e jθ 1 0 − e jθ 1 0 1 1 0 e jθ 2 − e jθ 2, where θ 1, θ 2 ∈ 2 ⁢ π N i, i = 0,..., N − 1, and N is 4 or 8.
A device for use with a breathing assistance apparatus (115, 118, 121, 128) which in use conveys gases to an infant or neonate requiring breathing assistance, comprising: a housing, having an inlet, an outlet and an aperture, said inlet adapted to in use be in fluid communication or integrated with said breathing assistance and/or resuscitation apparatus, said outlet adapted to in use be in fluid communication with said infant, said aperture adapted to receive a surfactant delivery means, and sealing means (305, 320) adapted to prevent gas flow through said aperture and allow said surfactant delivery means to be introduced and removed and surfactant to be delivered to said infant or neonate through said aperture while said breathing assistance apparatus provides resuscitation or breathing assistance, characterized by a flange integrally formed with the housing at said outlet and extending outwardly therefrom such that in use the device can be manually operated one handed by an operator when used with a mask to enable the operator to place a finger and thumb on the flange to apply pressure to fluidically seal the mask to an infant's or neonate's nose and mouth. a housing, having an inlet, an outlet and an aperture, said inlet adapted to in use be in fluid communication or integrated with said breathing assistance and/or resuscitation apparatus, said outlet adapted to in use be in fluid communication with said infant, said aperture adapted to receive a surfactant delivery means, and sealing means (305, 320) adapted to prevent gas flow through said aperture and allow said surfactant delivery means to be introduced and removed and surfactant to be delivered to said infant or neonate through said aperture while said breathing assistance apparatus provides resuscitation or breathing assistance, characterized by a flange integrally formed with the housing at said outlet and extending outwardly therefrom such that in use the device can be manually operated one handed by an operator when used with a mask to enable the operator to place a finger and thumb on the flange to apply pressure to fluidically seal the mask to an infant's or neonate's nose and mouth.
A retracting device for furniture, comprising a retracting assembly, which has a retracting spring, and comprising a damping device, wherein the retracting spring and the damping device are connected indirectly or directly to a coupling element, which can be displaced between a parking position and a retraction position, wherein the retracting device moves the coupling element from the parking position into the retraction position at least in some ranges and the damping device damps the displacement motion of the coupling element from the parking position into the retraction position at least in some ranges, the retracting assembly has at least one additional retracting element, which applies an additional retracting force to the coupling element from an intermediate position located between the parking position and the retraction position, and wherein one end of the additional retracting element is coupled to a locking segment, which holds the additional retracting element under tension and wherein the other end of the additional retracting element is coupled to the housing, wherein in an opening movement, the retracting spring and the additional retracting element are simultaneously tensioned and charged with energy, wherein the force transfer occurs by means of the coupling element, characterised in that the coupling element transfers the force via a carriage both onto the retracting spring as well as onto the locking segment and thus onto the additional retracting element.
A fan drive gear system comprising: a sun gear rotatable about an axis of rotation; a plurality of intermediate gears rotatable about an intermediate gear rotation axis in meshing engagement with the sun gear; a ring gear circumscribing the intermediate gears; and a bearing assembly supporting at least one of the plurality of intermediate gears, the bearing assembly including a first beam extending in a first direction and a second beam extending from an end of the first beam in a second direction; characterised in that the bearing assembly further comprises: a journal bearing including a bearing surface, the journal bearing being an integral part with the second beam wherein the first and second beams (76, 78) are configured to maintain the bearing surface substantially parallel to the intermediate gear rotation axis during operation. a sun gear rotatable about an axis of rotation; a plurality of intermediate gears rotatable about an intermediate gear rotation axis in meshing engagement with the sun gear; a ring gear circumscribing the intermediate gears; and a bearing assembly supporting at least one of the plurality of intermediate gears, the bearing assembly including a first beam extending in a first direction and a second beam extending from an end of the first beam in a second direction; characterised in that the bearing assembly further comprises: a journal bearing including a bearing surface, the journal bearing being an integral part with the second beam wherein the first and second beams (76, 78) are configured to maintain the bearing surface substantially parallel to the intermediate gear rotation axis during operation.
A method for controlling at least one array of M cross-directional actuators in a moving web manufacturing process, comprising: determining N sets of cross-directional property profiles from at least two at different locations on said moving web and generating an N x M array of nominal responses, according to R = R 11 R 12 ⋯ R 1 ⁢ M R 21 R 22 ⋯ R 2 ⁢ M ⋯ ⋯ ⋯ ⋯ R N 1 R N 2 ⋯ R NM where R ij is the nominal response from the j th array of cross-directional actuators to the i th set of cross-directional property profiles; generating a set of multivariable profile predictions calculated from said nominal responses to said cross-directional property profiles; generating a set of multivariable control targets based on said plurality of cross-directional property profiles; and adjusting control of said at least one array of M cross-directional actuators by minimizing error between said set of multivariable control targets and said set of multivariable profile predictions, wherein different ones of said profiles have different resolutions and individual mapping arrays to each of the actuator arrays. determining N sets of cross-directional property profiles from at least two at different locations on said moving web and generating an N x M array of nominal responses, according to R = R 11 R 12 ⋯ R 1 ⁢ M R 21 R 22 ⋯ R 2 ⁢ M ⋯ ⋯ ⋯ ⋯ R N 1 R N 2 ⋯ R NM where R ij is the nominal response from the j th array of cross-directional actuators to the i th set of cross-directional property profiles; generating a set of multivariable profile predictions calculated from said nominal responses to said cross-directional property profiles; generating a set of multivariable control targets based on said plurality of cross-directional property profiles; and adjusting control of said at least one array of M cross-directional actuators by minimizing error between said set of multivariable control targets and said set of multivariable profile predictions, wherein different ones of said profiles have different resolutions and individual mapping arrays to each of the actuator arrays.
A data transfer method in a wireless device having a short range communication link with a receiving device, comprising: determining whether data to be transmitted is to be transmitted as high-speed data; if it is determined that the data to be transmitted is not to be transmitted as high-speed data, modulating a data packet comprising the data to be transmitted in accordance with a predetermined transmission protocol by spreading all data bits in the data packet, thereby transferring data at a first data rate; and if it is determined that the data to be transmitted is to be transmitted as high-speed data, modulating the data packet comprising the data to be transmitted by, within a media access control, MAC, module of the wireless device: obtaining a spread-modulated synchronization header, SHR, structure; processing at least a data payload portion so that the data payload portion is not spread, and generating a high-speed data frame comprising the spread-modulated SHR structure and the non-spread data payload, thereby transferring data at a second higher data rate. determining whether data to be transmitted is to be transmitted as high-speed data; if it is determined that the data to be transmitted is not to be transmitted as high-speed data, modulating a data packet comprising the data to be transmitted in accordance with a predetermined transmission protocol by spreading all data bits in the data packet, thereby transferring data at a first data rate; and if it is determined that the data to be transmitted is to be transmitted as high-speed data, modulating the data packet comprising the data to be transmitted by, within a media access control, MAC, module of the wireless device: obtaining a spread-modulated synchronization header, SHR, structure; processing at least a data payload portion so that the data payload portion is not spread, and generating a high-speed data frame comprising the spread-modulated SHR structure and the non-spread data payload, thereby transferring data at a second higher data rate. obtaining a spread-modulated synchronization header, SHR, structure; processing at least a data payload portion so that the data payload portion is not spread, and generating a high-speed data frame comprising the spread-modulated SHR structure and the non-spread data payload, thereby transferring data at a second higher data rate.