mhurhangee/patent-ind-claim-en huggingface dataset:
An insulated solution injector comprising: an outer tube having a first outer surface and a first inner surface ; an inner tube extending into the outer tube, the inner tube having a second outer surface and a second inner surface , the first inner surface of the outer tube and the second outer surface of the inner tube defining an annular space , the second inner surface of the inner tube defining a solution space ; an injection tip connected to distal ends of the outer tube and the inner tube, the injection tip including a base portion and a shield portion projecting from the base portion, the base portion having a hole extending therethrough, the hole being in communication with the solution space; and an insulating liner within the inner tube and the hole of the injection tip, wherein the insulating liner includes a body section, a neck section, and a lip section, the body section being within the distal end of the inner tube, the neck section extending through the hole in the base portion of the injection tip, the lip section being on an opposite side of the base portion from the body section, the lip section having a larger diameter than the neck section. an outer tube having a first outer surface and a first inner surface ; an inner tube extending into the outer tube, the inner tube having a second outer surface and a second inner surface , the first inner surface of the outer tube and the second outer surface of the inner tube defining an annular space , the second inner surface of the inner tube defining a solution space ; an injection tip connected to distal ends of the outer tube and the inner tube, the injection tip including a base portion and a shield portion projecting from the base portion, the base portion having a hole extending therethrough, the hole being in communication with the solution space; and an insulating liner within the inner tube and the hole of the injection tip, wherein the insulating liner includes a body section, a neck section, and a lip section, the body section being within the distal end of the inner tube, the neck section extending through the hole in the base portion of the injection tip, the lip section being on an opposite side of the base portion from the body section, the lip section having a larger diameter than the neck section.
A solid catalyst component for olefin polymerization comprising magnesium, titanium, a halogen, a carbonate compound (A) represented by a general formula , and an ether compound (B) that includes two or more ether groups, R 1 -O-C(=O)-O-Z-O-R 2 wherein R 1 and R 2 are a hydrocarbon group or a substituted hydrocarbon group having 1 to 24 carbon atoms, or a heteroatom-containing group, provided that R 1 and R 2 are either identical or different, and Z is a linking group that links two oxygen atoms through a carbon atom or a carbon chain.
Breath sensing device for a portable device, in particular a portable telecommunication device or a wearable device, the breath sensing device comprising: - an acoustic wave sensing means, in particular a microphone with a membrane, - a gas sensing means sensitive to at least one type of molecule, and further comprising a signal analyzing means configured to determine a DC electrical signal contribution to the total electrical signal received from the acoustic wave sensing means and configured to integrate the DC electrical signal over a predetermined time frame; wherein the signal analyzing means is furthermore configured to integrate the electrical signal received from the gas sensing means over the predetermined time frame and to determine the ratio of the integrated electrical signal received from the gas sensing means and the integrated DC electrical signal. - an acoustic wave sensing means, in particular a microphone with a membrane, - a gas sensing means sensitive to at least one type of molecule, and further comprising a signal analyzing means configured to determine a DC electrical signal contribution to the total electrical signal received from the acoustic wave sensing means and configured to integrate the DC electrical signal over a predetermined time frame; wherein the signal analyzing means is furthermore configured to integrate the electrical signal received from the gas sensing means over the predetermined time frame and to determine the ratio of the integrated electrical signal received from the gas sensing means and the integrated DC electrical signal.
A method for manufacturing plate parts of a heat exchanger, in which method a sheet material in the form of continuous sheeting is worked between two rolls with opposite surface patterns to form profiled plate part blanks (3, 3', 3") comprising the grooves and the ridges between them into the sheet material , wherein the rolls are synchronized to rotate at substantially same rate by controlling the rotation of them in relation to each other with common synchronization gear , which gear is coupled to the rolls by means of shafts with disk pack or gear couplings so that the backlash is less than 0.1 mm, and wherein in the method two or more corrugated plate part blanks (3, 3', 3") of the heat exchanger are formed into the sheet material during one revolution of the rolls , wherein the plate part blanks (3, 3', 3") with similar surface patterns are arranged to the opposite sides of the rolls and further checking patterns are formed into the sheet material on both sides of the plate part blank by the rolls, and the sheet material with profiled plate part blanks (3, 3', 3") is conveyed to the laser cutting equipment and the profiled plate part blanks (3, 3', 3") are cut off from the sheet material , wherein a function of the laser cutting equipment is synchronized with the rotation speed of the rolls and the checking patterns arranged on both side of the plate part blank to be cut are photographed and compared to the reference image for adjusting alignment of the laser cutting equipment . wherein the rolls are synchronized to rotate at substantially same rate by controlling the rotation of them in relation to each other with common synchronization gear , which gear is coupled to the rolls by means of shafts with disk pack or gear couplings so that the backlash is less than 0.1 mm, and wherein in the method two or more corrugated plate part blanks (3, 3', 3") of the heat exchanger are formed into the sheet material during one revolution of the rolls , wherein the plate part blanks (3, 3', 3") with similar surface patterns are arranged to the opposite sides of the rolls and further checking patterns are formed into the sheet material on both sides of the plate part blank by the rolls, and the sheet material with profiled plate part blanks (3, 3', 3") is conveyed to the laser cutting equipment and the profiled plate part blanks (3, 3', 3") are cut off from the sheet material , wherein a function of the laser cutting equipment is synchronized with the rotation speed of the rolls and the checking patterns arranged on both side of the plate part blank to be cut are photographed and compared to the reference image for adjusting alignment of the laser cutting equipment .
A method for controlling a modulation and coding scheme for a communication between a base station and a user equipment , wherein the modulation and coding scheme is selectable based on a first modulation and coding scheme table comprising entries corresponding to a plurality of modulation and coding schemes with a first maximum modulation order or based on a second modulation and coding scheme table comprising entries corresponding to a plurality of modulation and coding schemes with a second maximum modulation order, the method comprising: receiving, by the base station , a channel quality indicator from the user equipment ; determining, by the base station , a channel condition of a radio transmission channel for the communication based on the channel quality indicator; selecting, by the base station , the first modulation and coding scheme table or the second modulation and coding scheme table based on the channel condition; transmitting, by the base station to the user equipment , a radio resource control ,RRC, message including information indicating the selected modulation and coding scheme table; and performing, by the base station with the user equipment , the communication by using the modulation and coding scheme based on the selected modulation and coding scheme table, wherein the second maximum modulation order is higher than the first maximum modulation order, the first maximum modulation order corresponds to 64QAM and the second modulation order corresponds to 256QAM. receiving, by the base station , a channel quality indicator from the user equipment ; determining, by the base station , a channel condition of a radio transmission channel for the communication based on the channel quality indicator; selecting, by the base station , the first modulation and coding scheme table or the second modulation and coding scheme table based on the channel condition; transmitting, by the base station to the user equipment , a radio resource control ,RRC, message including information indicating the selected modulation and coding scheme table; and performing, by the base station with the user equipment , the communication by using the modulation and coding scheme based on the selected modulation and coding scheme table, wherein the second maximum modulation order is higher than the first maximum modulation order, the first maximum modulation order corresponds to 64QAM and the second modulation order corresponds to 256QAM.
An apparatus for the inspection of a hostile or harsh environment comprising: - a sensorized device comprising in turn a plurality of image sensors positioned with different orientations with respect to each other, so as to detect image data or a plurality of video images in sequence of said hostile or harsh environment, - a support destined for supporting said device in said hostile or harsh environment, - processing means of said image data for generating a spherical and/or three-dimensional image or a plurality of video images in sequence on the basis of said image data, - a remote display device with respect to said sensorized device , destined for being positioned outside the hostile or harsh environment and in communication with at least the processing means of the image data, characterized in that said apparatus is destined for said hostile or harsh environment which has temperature characteristics and/or atmospheric contaminants harmful or dangerous for human beings as a high-temperature furnace and in that said plurality of sensors having different orientations with respect to each other are sensors that detect contemporaneous image data of at least 60% of 4n steradians of said hostile or harsh environment, said image sensors are housed in a protective shell , said apparatus further comprising stable positioning means, destined for positioning the sensorized device always in a same, pre-determined position of said hostile or harsh environment during subsequent inspections. - a sensorized device comprising in turn a plurality of image sensors positioned with different orientations with respect to each other, so as to detect image data or a plurality of video images in sequence of said hostile or harsh environment, - a support destined for supporting said device in said hostile or harsh environment, - processing means of said image data for generating a spherical and/or three-dimensional image or a plurality of video images in sequence on the basis of said image data, - a remote display device with respect to said sensorized device , destined for being positioned outside the hostile or harsh environment and in communication with at least the processing means of the image data,
A suture passer , comprising: a tubular member having a proximal end and a distal end and a central axis defined therethrough, wherein the tubular member comprises: at least one lumen formed therein; an eyelet configured to receive a suture; a movable jaw formed on the distal end of the tubular member configured to move between an open position and a closed position, and a slot formed between the eyelet and the movable jaw, wherein the movable jaw comprises a plurality of portions , wherein the plurality of portions are biased to the closed position; and an actuator configured to be received within the at least one lumen of the tubular member, wherein the actuator is configured to move along the central axis of the tubular member between a first position and a second position, wherein, in the first position, the movable jaw is in the closed position, and wherein, in the second position, the movable jaw is in the open position, and wherein the tubular member is made of a flexible material having a shape memory property. a tubular member having a proximal end and a distal end and a central axis defined therethrough, wherein the tubular member comprises: at least one lumen formed therein; an eyelet configured to receive a suture; a movable jaw formed on the distal end of the tubular member configured to move between an open position and a closed position, and a slot formed between the eyelet and the movable jaw, wherein the movable jaw comprises a plurality of portions , at least one lumen formed therein; an eyelet configured to receive a suture; a movable jaw formed on the distal end of the tubular member configured to move between an open position and a closed position, and a slot formed between the eyelet and the movable jaw, wherein the movable jaw comprises a plurality of portions , wherein the plurality of portions are biased to the closed position; and an actuator configured to be received within the at least one lumen of the tubular member, wherein the actuator is configured to move along the central axis of the tubular member between a first position and a second position, wherein, in the first position, the movable jaw is in the closed position, and wherein, in the second position, the movable jaw is in the open position, and wherein the tubular member is made of a flexible material having a shape memory property.
A method, performed by a wireless RFID tag reader, of incrementing a counter in an RFID tag memory associated with a limited-use product by a value, c , the method comprising: wirelessly reading an initial counter value, s, and an initial verification value, v, from the RFID tag memory; applying a hash function, h, to the initial verification value c times to obtain a hashed verification value, v'=h (c) (v); incrementing the initial counter value, s, by the value c to obtain an incremented counter value, s'=s+c; and in response to at least one use of the limited-use product, wirelessly replacing the initial verification value, v, with the hashed verification value, v', and the initial counter value, s, with the incremented counter value, s', in the RFID tag memory. wirelessly reading an initial counter value, s, and an initial verification value, v, from the RFID tag memory; applying a hash function, h, to the initial verification value c times to obtain a hashed verification value, v'=h (c) (v); incrementing the initial counter value, s, by the value c to obtain an incremented counter value, s'=s+c; and in response to at least one use of the limited-use product, wirelessly replacing the initial verification value, v, with the hashed verification value, v', and the initial counter value, s, with the incremented counter value, s', in the RFID tag memory.
A rolled aluminium alloy sheet product for outdoor use in the building industry, wherein the aluminium alloy has the following composition, in wt.%: Si 0.6 - 1.6 Mg 0.20 - 0.50 Mn 0.6 - 1.6 Cu 0.10 - 0.6 Fe 0.05 - 0.7 Ti 0.05 - 0.20 Zn up to 0.4, others and unavoidable impurities, each 0.05% max, total 0.25%, balance aluminium.
A Joystick Electronic System (JSE) including: a handle assembly attached to a pivot assembly and rotating about a pivot point ; and a force sensing cartridge including a plug and a force sensing resistor, wherein said handle assembly is rotated around said pivot point to bring said pivot assembly into contact with said plug, wherein continued rotation of said handle assembly causes said pivot assembly to exert a downward force on said plug , wherein said force sensing resistor determines the downward force exerted on said plug ; and an electromagnetic force feedback system wherein said electromagnetic force feedback system receives an indication of the downward force exerted on said plug and uses said downward force indication to control the amount of downward force required to angularly displace said handle assembly . a handle assembly attached to a pivot assembly and rotating about a pivot point ; and a force sensing cartridge including a plug and a force sensing resistor, wherein said handle assembly is rotated around said pivot point to bring said pivot assembly into contact with said plug, wherein continued rotation of said handle assembly causes said pivot assembly to exert a downward force on said plug , wherein said force sensing resistor determines the downward force exerted on said plug ; and an electromagnetic force feedback system wherein said electromagnetic force feedback system receives an indication of the downward force exerted on said plug and uses said downward force indication to control the amount of downward force required to angularly displace said handle assembly .
A medical image-based tumor detection and diagnostic device comprising: an input unit configured to obtain a medical image related to a patient; a preprocessing unit configured to preprocess the obtained medical image to observe a tumor region; an analysis unit configured to divide the preprocessed image into a plurality of regions by applying a deep neural network-based deep learning technique; and a measurement unit configured to group the plurality of divided regions by performing clustering on the plurality of divided regions, wherein the measurement unit performs the clustering to process the tumor from a voxel level to an object level, wherein the measurement unit extracts a group feature value in respect to each of the grouped regions and derives diagnosis information related to the tumor based on the extracted group feature value, wherein the measurement unit quantifies the extracted group feature value, and the diagnosis information includes information on a location, a region, a diameter, and a volume of the tumor. an input unit configured to obtain a medical image related to a patient; a preprocessing unit configured to preprocess the obtained medical image to observe a tumor region; an analysis unit configured to divide the preprocessed image into a plurality of regions by applying a deep neural network-based deep learning technique; and a measurement unit configured to group the plurality of divided regions by performing clustering on the plurality of divided regions, wherein the measurement unit performs the clustering to process the tumor from a voxel level to an object level, wherein the measurement unit extracts a group feature value in respect to each of the grouped regions and derives diagnosis information related to the tumor based on the extracted group feature value, wherein the measurement unit quantifies the extracted group feature value, and the diagnosis information includes information on a location, a region, a diameter, and a volume of the tumor.
Exendin(9-39) or a fragment thereof for use in the treatment of congenital and/or neonatal hyperinsulinism, wherein the exendin(9-39) or the fragment thereof is administered intravenously, subcutaneously, parenterally, transmucosally, transdermally, intramuscularly, intra-dermally, intraperitoneally, intra-ventricularly, or a combination thereof, and wherein the exendin(9-39) or the fragment thereof is an antagonist of the Glucagon Like Peptide-1 (GLP-1) receptor.
Process for the production of ethylene by oxidative dehydrogenation of ethane, comprising: a) subjecting a stream comprising ethane to oxidative dehydrogenation conditions, resulting in a stream comprising ethylene, unconverted ethane and light components; b) subjecting ethylene, unconverted ethane and light components from the stream resulting from step a) to distillation, resulting in a stream comprising ethylene and light components and a stream comprising unconverted ethane; c) optionally recycling unconverted ethane from the stream comprising unconverted ethane resulting from step b) to step a); and d) subjecting ethylene and light components from the stream comprising ethylene and light components resulting from step b) to distillation at a top column pressure which is higher than the top column pressure in step b), resulting in a stream comprising light components and a stream comprising ethylene. a) subjecting a stream comprising ethane to oxidative dehydrogenation conditions, resulting in a stream comprising ethylene, unconverted ethane and light components; b) subjecting ethylene, unconverted ethane and light components from the stream resulting from step a) to distillation, resulting in a stream comprising ethylene and light components and a stream comprising unconverted ethane; c) optionally recycling unconverted ethane from the stream comprising unconverted ethane resulting from step b) to step a); and d) subjecting ethylene and light components from the stream comprising ethylene and light components resulting from step b) to distillation at a top column pressure which is higher than the top column pressure in step b), resulting in a stream comprising light components and a stream comprising ethylene.
A parking assist device comprising: a detector configured to detect a target parking position from a captured image obtained from an imager , the target parking position indicating an area allowing a vehicle to park, the imager imaging a surrounding area of the vehicle while the vehicle is moving; and a display unit configured to display the captured image on a display device ; characterized by a position identifier configured to identify, during a period while the vehicle is moving after the captured image was displayed on the display device and before a captured image captured next by the imager is displayed, relative coordinates of the target parking position with respect to a current position of the vehicle, based on a first moving amount by which the vehicle has moved since the captured image was displayed on the display device and on a positional relation between the vehicle and the target parking position at the time when the captured image was captured, and a parking assist unit configured to calculate a guide path to the relative coordinates of the target parking position with respect to the current position of the vehicle, identified based on the first moving amount, and guide the vehicle during the period to the target parking position when a request for guiding the vehicle to the target parking position is made. a detector configured to detect a target parking position from a captured image obtained from an imager , the target parking position indicating an area allowing a vehicle to park, the imager imaging a surrounding area of the vehicle while the vehicle is moving; and a display unit configured to display the captured image on a display device ; characterized by a position identifier configured to identify, during a period while the vehicle is moving after the captured image was displayed on the display device and before a captured image captured next by the imager is displayed, relative coordinates of the target parking position with respect to a current position of the vehicle, based on a first moving amount by which the vehicle has moved since the captured image was displayed on the display device and on a positional relation between the vehicle and the target parking position at the time when the captured image was captured, and a parking assist unit configured to calculate a guide path to the relative coordinates of the target parking position with respect to the current position of the vehicle, identified based on the first moving amount, and guide the vehicle during the period to the target parking position when a request for guiding the vehicle to the target parking position is made.