mhurhangee/patent-ind-claim-en huggingface dataset:
A catheter comprising: a proximal end , a distal end , and a longitudinal axis ; an inner liner ; a braided wire support structure disposed around the inner liner ; a metallic tubular reinforcing layer disposed around the braided wire support structure , the reinforcing layer comprising one or more axial segments configured to give different stiffness properties to at least a portion of the catheter; and a plurality of outer polymer jackets disposed around the tubular reinforcing layer , the plurality of outer polymer jackets bonding the reinforcing layer to the braided wire support structure ; the at least one of the one or more axial segments comprising one or more ribbon cut segments configured in a longitudinally extending spiral around the longitudinal axis ; and the at least one of the one or more axial segments further comprising one or more axial hole patterns cut from the tubular reinforcing layer . a proximal end , a distal end , and a longitudinal axis ; an inner liner ; a braided wire support structure disposed around the inner liner ; a metallic tubular reinforcing layer disposed around the braided wire support structure , the reinforcing layer comprising one or more axial segments configured to give different stiffness properties to at least a portion of the catheter; and a plurality of outer polymer jackets disposed around the tubular reinforcing layer , the plurality of outer polymer jackets bonding the reinforcing layer to the braided wire support structure ; the at least one of the one or more axial segments comprising one or more ribbon cut segments configured in a longitudinally extending spiral around the longitudinal axis ; and the at least one of the one or more axial segments further comprising one or more axial hole patterns cut from the tubular reinforcing layer .
A mobile body , - comprising a reflection control layer that is formed on a surface of the mobile body - wherein the reflection control layer includes: - a reflection prevention layer that is configured to reduce surface reflection of light in a wavelength region from 0.3 micrometer to 0.75 micrometer, and - a wavelength control layer - that is formed between the reflection prevention layer and a surface of the mobile body and - that is configured: - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers. - comprising a reflection control layer that is formed on a surface of the mobile body - wherein the reflection control layer includes: - a reflection prevention layer that is configured to reduce surface reflection of light in a wavelength region from 0.3 micrometer to 0.75 micrometer, and - a wavelength control layer - that is formed between the reflection prevention layer and a surface of the mobile body and - that is configured: - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers. - a reflection prevention layer that is configured to reduce surface reflection of light in a wavelength region from 0.3 micrometer to 0.75 micrometer, and - a wavelength control layer - that is formed between the reflection prevention layer and a surface of the mobile body and - that is configured: - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers. - that is formed between the reflection prevention layer and a surface of the mobile body and - that is configured: - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers. - to absorb light in a wavelength region from 0.3 micrometer to 0.75 micrometer of incident sunlight and - to emit light in a wavelength region from 0.75 micrometer to 100 micrometers.
Magnetic resonance device with a scanner unit , a moveable patient couch , a patient couch controller and a user interface for a user input for adjusting a movement of the patient couch, wherein the user interface has a control element which comprises a rotary switch , wherein the patient couch controller comprises at least two control paths and a computing unit , wherein a first of the at least two control paths is embodied to detect first input data of the user input on the rotary switch and a second of the at least two control paths is embodied to detect second input data of the user input on the rotary switch, wherein the computing unit is designed to generate a control command for the patient couch and the computing unit has two separate inputs and each of the two inputs is assigned to one of the two control paths, wherein the computing unit is designed to evaluate the first input data and the second input data and only then to generate the control command for controlling the patient couch when the first input data and the second input data comprise a concordant item of input information, wherein the patient couch controller is embodied to determine a speed for an insertion and/or retraction movement of the patient couch as a function of an extent of a rotational movement of the rotary switch. wherein the computing unit is designed to generate a control command for the patient couch and the computing unit has two separate inputs and each of the two inputs is assigned to one of the two control paths, wherein the computing unit is designed to evaluate the first input data and the second input data and only then to generate the control command for controlling the patient couch when the first input data and the second input data comprise a concordant item of input information, wherein the patient couch controller is embodied to determine a speed for an insertion and/or retraction movement of the patient couch as a function of an extent of a rotational movement of the rotary switch.
A pharmaceutical composition comprising an AAK1 inhibitor and an anti-inflammatory drug, wherein the AAK1 inhibitor is 3-methyloxetan-3-yl-4-(3-(2-methoxypyridin-3-yl)pyrazolo[1,5-a]pyrimidin-5-yl)piperazine-1-carboxylate: or a pharmaceutically acceptable salt thereof.
A method for oxygenating a culture of cells or microorganisms, the method comprising: delivering into a compartment of a container a culture comprised of cells or microorganisms and media, the culture having an exposed top surface disposed within the compartment; and mixing the culture within the container, wherein mixing the culture is accomplished by a mixing system that operates separate from the stream of the gas; characterized by : passing a stream of a gas containing oxygen over at least a portion of the top surface of the culture while the culture is being mixed so that the stream of gas produces turbulence on the top surface that is sufficient to oxygenate the culture for growing the cells or microorganisms.. delivering into a compartment of a container a culture comprised of cells or microorganisms and media, the culture having an exposed top surface disposed within the compartment; and mixing the culture within the container, wherein mixing the culture is accomplished by a mixing system that operates separate from the stream of the gas; characterized by : passing a stream of a gas containing oxygen over at least a portion of the top surface of the culture while the culture is being mixed so that the stream of gas produces turbulence on the top surface that is sufficient to oxygenate the culture for growing the cells or microorganisms..
A part support apparatus for supporting a plurality of parts which form a product by being connected to each other, comprising: a plurality of support robots (3A to 3H) arranged in a work space (S) and configured to support the plurality of parts; a control unit configured to control the plurality of support robots; and a storage unit configured to store a form pattern of each support robot corresponding to a type of a product, wherein each of the plurality of support robots includes: a support unit configured to support a part; and a multiaxial robot to which the support unit is attached, and which is configured to change a posture and position of the support unit, characterized in that the control unit is configured to control, before any of the support units supports a part, the posture and position of each support unit by the multiaxial robot based on the form pattern, such that the plurality of parts can be arranged to be connectable to each other in the work space, and to maintain the posture and position of all of the support units which support parts during connecting work for the plurality of parts. a plurality of support robots (3A to 3H) arranged in a work space (S) and configured to support the plurality of parts; a control unit configured to control the plurality of support robots; and a storage unit configured to store a form pattern of each support robot corresponding to a type of a product, wherein each of the plurality of support robots includes: a support unit configured to support a part; and a multiaxial robot to which the support unit is attached, and which is configured to change a posture and position of the support unit, characterized in that the control unit is configured to control, before any of the support units supports a part, the posture and position of each support unit by the multiaxial robot based on the form pattern, such that the plurality of parts can be arranged to be connectable to each other in the work space, and to maintain the posture and position of all of the support units which support parts during connecting work for the plurality of parts. a support unit configured to support a part; and a multiaxial robot to which the support unit is attached, and which is configured to change a posture and position of the support unit, characterized in that the control unit is configured to control, before any of the support units supports a part, the posture and position of each support unit by the multiaxial robot based on the form pattern, such that the plurality of parts can be arranged to be connectable to each other in the work space, and to maintain the posture and position of all of the support units which support parts during connecting work for the plurality of parts.
A sequence of instructions stored on at least one computer readable medium for running on a computer system capable of displaying and navigating oblique imagery, comprising: instructions for displaying a pixel representation of a primary oblique image , the primary oblique image being part of a set of adjacent oblique images that overlap and represent an area of interest; instructions for panning within the primary oblique image; instructions for detecting a transition event, triggered by a user, of the displayed primary oblique image; instructions for selecting at least one adjacent secondary oblique image (104 a-d) from the set of oblique images corresponding to a supplied location coordinate; and instructions for displaying the primary oblique image and the at least one adjacent secondary oblique image on the same display such that a feature common to both the adjacent primary and secondary oblique images is aligned on the same display; wherein the image pixels of the primary and secondary oblique images are aligned respectively to the perspectives from which the primary and secondary oblique images were captured. instructions for displaying a pixel representation of a primary oblique image , the primary oblique image being part of a set of adjacent oblique images that overlap and represent an area of interest; instructions for panning within the primary oblique image; instructions for detecting a transition event, triggered by a user, of the displayed primary oblique image; instructions for selecting at least one adjacent secondary oblique image (104 a-d) from the set of oblique images corresponding to a supplied location coordinate; and instructions for displaying the primary oblique image and the at least one adjacent secondary oblique image on the same display such that a feature common to both the adjacent primary and secondary oblique images is aligned on the same display; wherein the image pixels of the primary and secondary oblique images are aligned respectively to the perspectives from which the primary and secondary oblique images were captured.
An aircraft undercarriage including a steerable bottom portion carrying one or more wheels and fitted with a steering device adapted to turn the steerable bottom portion in response to a steering order, the undercarriage being characterized in that the steering device has a single electromechanical steering actuator comprising a steering electric motor driving a coaxial outlet pinion by means of reduction gearing of the deformable bell type known as a "harmonic drive", the outlet pinion co-operating with a spur gear secured to the steerable bottom portion, the connection between the electric motor and the steerable bottom portion being reversible, and the actuator being fitted with monitor means for monitoring at least one operating parameter of the steering device and adapted to detect a deterioration in the performance of the actuator.
A printing apparatus comprising: a generation means configured, based on a print job containing at least one piece of reusable data and variable data, to generate a corresponding piece of intermediate data for the or each piece of reusable data; a conversion means configured to convert the or each piece of intermediate data generated by the generation means into a corresponding piece of image data ; and a storage means configured, for each piece of reusable data, to select and store the corresponding piece of intermediate data and/or the corresponding piece of image data according to a type of the reusable data which indicates whether the reusable data is to be reused in the print job and/or another print job, wherein the storage means is configured, for each piece of reusable data, to store the corresponding piece of image data of the reusable data if the type of the reusable data indicates that the reusable data is to be reused within a print page of the print job, or to store the corresponding piece of intermediate data of the reusable data if the type of the reusable data indicates that the reusable data is to be reused within the print job, and, wherein the storage means is configured, for each piece of reusable data, to store the corresponding piece of intermediate data and the corresponding piece of image data of the reusable data if the type of the reusable data indicates that the reusable data can be reused in at least one further print job. a generation means configured, based on a print job containing at least one piece of reusable data and variable data, to generate a corresponding piece of intermediate data for the or each piece of reusable data; a conversion means configured to convert the or each piece of intermediate data generated by the generation means into a corresponding piece of image data ; and a storage means configured, for each piece of reusable data, to select and store the corresponding piece of intermediate data and/or the corresponding piece of image data according to a type of the reusable data which indicates whether the reusable data is to be reused in the print job and/or another print job, wherein the storage means is configured, for each piece of reusable data, to store the corresponding piece of image data of the reusable data if the type of the reusable data indicates that the reusable data is to be reused within a print page of the print job, or to store the corresponding piece of intermediate data of the reusable data if the type of the reusable data indicates that the reusable data is to be reused within the print job, and, wherein the storage means is configured, for each piece of reusable data, to store the corresponding piece of intermediate data and the corresponding piece of image data of the reusable data if the type of the reusable data indicates that the reusable data can be reused in at least one further print job.
A loudspeaker including - a uniform enclosure having front portion, side portions and back portion defining an inner volume , - the front portion is formed as a waveguide surface and includes at least one driver in the waveguide surface and is capable of radiating the main acoustic power of the loudspeaker to direction of first acoustic axis , and - an at least one additional driver attached to the enclosure , - the additional driver is attached inside the enclosure such that a sub volume is formed inside the inner volume , the sub volume limited by the driver , spacers between the driver and the front portion , and the front portion of the enclosure , - at least one first port is adapted to open from the sub volume to ambient volume either to side portion or back portion of the enclosure , and at least one resonator including at least one resonator cavity acoustically connected to the sub volume , the resonator being tuned to at least one of unwanted resonances of the sub volume , characterized in that - the resonator is formed as a separate unit connected to the uniform enclosure , and in that - the resonator unit is connected to the inside surface of the front portion of the enclosure . - a uniform enclosure having front portion, side portions and back portion defining an inner volume , - the front portion is formed as a waveguide surface and includes at least one driver in the waveguide surface and is capable of radiating the main acoustic power of the loudspeaker to direction of first acoustic axis , and - an at least one additional driver attached to the enclosure , - the additional driver is attached inside the enclosure such that a sub volume is formed inside the inner volume , the sub volume limited by the driver , spacers between the driver and the front portion , and the front portion of the enclosure , - at least one first port is adapted to open from the sub volume to ambient volume either to side portion or back portion of the enclosure , and at least one resonator including at least one resonator cavity acoustically connected to the sub volume , the resonator being tuned to at least one of unwanted resonances of the sub volume , characterized in that - the resonator is formed as a separate unit connected to the uniform enclosure , and in that - the resonator unit is connected to the inside surface of the front portion of the enclosure .
A method for verifying data in an aircraft , comprising: receiving, by a processor unit , a plurality of digital certificates associated with the data , wherein the data include software part for use on line-replaceable units of the aircraft ; implementing in an aircraft network data processing system a data verification module ; determining, by the processor unit , whether one of the plurality of digital certificates is compromised; selecting, by the processor unit , a selected number of the plurality of digital certificates in response to a determination that the one of the plurality of digital certificates is compromised; wherein the number of the plurality of digital certificates that must be determined to be valid in order for the data to be verified are defined by quorum rules ; selecting by the data verification module a quorum rule from the quorum rules that are based on number of aircraft systems on which the data will be used, and on a location of the aircraft when the data is loaded on the aircraft ; verifying, by the processor unit , the data in the aircraft using the selected number of the plurality of digital certificates . receiving, by a processor unit , a plurality of digital certificates associated with the data , wherein the data include software part for use on line-replaceable units of the aircraft ; implementing in an aircraft network data processing system a data verification module ; determining, by the processor unit , whether one of the plurality of digital certificates is compromised; selecting, by the processor unit , a selected number of the plurality of digital certificates in response to a determination that the one of the plurality of digital certificates is compromised; wherein the number of the plurality of digital certificates that must be determined to be valid in order for the data to be verified are defined by quorum rules ; selecting by the data verification module a quorum rule from the quorum rules that are based on number of aircraft systems on which the data will be used, and on a location of the aircraft when the data is loaded on the aircraft ; verifying, by the processor unit , the data in the aircraft using the selected number of the plurality of digital certificates .
Method for programming a Field Programmable Gate Array, FPGA, via a network , the network being operated according to a predetermined communications protocol, wherein the method comprises the steps of - establishing, via the network , a communications connection between the FPGA and an external master connected to the network ; - setting the FPG A into a programming mode; - receiving an FPGA programming image for programming the FPGA , the FPGA programming image being transmitted from the external master to the FPGA according to the predetermined network communications protocol in a sequence of frames , each frame comprising a payload section and protocol overhead section, each payload section comprising a portion of the programming image, - parsing the sequence of frames , and - enabling FPGA writing only during receiving the payload section of each of the frames received and writing the portion of the programming data of the payload section into the FPGA , wherein the steps of receiving the FPGA programming image and parsing the sequence of frames is performed by a permanently programmed or hardwired logic component , wherein the logic component is of a glue logic type, and wherein the logic component of the glue logic type comprises a digital counter and at least one comparator is provided between an Ethernet PHY and the FPGA , the logic component , during the programming phase of the FPGA , generating a Receive Write signal (RXWR) while the counter , in particular, a 10-bit counter, is between a defined range τ and τ +ε, where ε is the payload length and the value τ is the number of bytes to be skipped. - establishing, via the network , a communications connection between the FPGA and an external master connected to the network ; - setting the FPG A into a programming mode; - receiving an FPGA programming image for programming the FPGA , the FPGA programming image being transmitted from the external master to the FPGA according to the predetermined network communications protocol in a sequence of frames , each frame comprising a payload section and protocol overhead section, each payload section comprising a portion of the programming image, - parsing the sequence of frames , and - enabling FPGA writing only during receiving the payload section of each of the frames received and writing the portion of the programming data of the payload section into the FPGA , wherein the steps of receiving the FPGA programming image and parsing the sequence of frames is performed by a permanently programmed or hardwired logic component , wherein the logic component is of a glue logic type, and wherein the logic component of the glue logic type comprises a digital counter and at least one comparator is provided between an Ethernet PHY and the FPGA , the logic component , during the programming phase of the FPGA , generating a Receive Write signal (RXWR) while the counter , in particular, a 10-bit counter, is between a defined range τ and τ +ε, where ε is the payload length and the value τ is the number of bytes to be skipped.