mhurhangee/patent-ind-claim-en huggingface dataset:
A method for applying a mask-shaped coating to an endless belt , wherein the coating is applied to an outer surface of the endless belt in the form of drops by means of a printer , wherein, during a printing operation, the endless belt passes under the printer that is stationary in the direction of movement of the endless belt , wherein the endless belt circulates between two rollers, characterized by the following steps: a) applying or transferring at least one measuring standard having periodic graduations to the endless belt , in particular to a surface quality of the endless belt ; b) detecting the position of the measuring standard and a periodic graduation of the measuring standard by means of at least one sensor ; c) creating a signal for printing and transmission to the printer when the position of the measuring standard on the surface of the endless belt , detected by the at least one sensor , corresponds with a target position and when the at least one sensor detects an end or a start of a graduation interval of the measuring standard ; d) ejecting drops of a coating material onto the outer surface of the endless belt by means of the printer after receiving the signal, wherein the target position of the at least one measuring standard is determined on a sensor surface of the at least one optical sensor , wherein in case of a deviation between the target position and the actual position of the measuring standard, the position of the sensor is changed until the actual position of the at least one measuring standard corresponds with the target position on the sensor surface, characterized in that the position of the at least one measuring standard with respect to a transverse direction of the endless belt is detected by means of at least one optical sensor , wherein the position of the printer is changed according to a deviation of the measuring standard from a target position in the direction of the transverse direction of the endless belt. a) applying or transferring at least one measuring standard having periodic graduations to the endless belt , in particular to a surface quality of the endless belt ; b) detecting the position of the measuring standard and a periodic graduation of the measuring standard by means of at least one sensor ; c) creating a signal for printing and transmission to the printer when the position of the measuring standard on the surface of the endless belt , detected by the at least one sensor , corresponds with a target position and when the at least one sensor detects an end or a start of a graduation interval of the measuring standard ; d) ejecting drops of a coating material onto the outer surface of the endless belt by means of the printer after receiving the signal,
A method of identifying a driving lane, comprising: obtaining an input image; segmenting the input image into objects included in the input image comprising: segmenting the input image by a semantic unit, determining a semantics of a segmented region by a pixel unit, and performing labelling for each of a plurality of classes to obtain a segmentation image; extracting , using machine learning, a road marking from the input image, the road marking comprising a line marked on a surface of a road, and a road sign comprising one or any combination of a sign and a character marked on the surface of the road; wherein the extracting of the road marking comprises: extracting pixels corresponding to the road marking from the input image; classifying the pixels into groups and removing a group corresponding to the road sign; generating a multi-virtual lane image in which virtual lanes are indicated using the road marking and the segmentation image; and identifying a driving lane of a vehicle based on a relative location of the driving lane in the multi-virtual lane image. obtaining an input image; segmenting the input image into objects included in the input image comprising: segmenting the input image by a semantic unit, determining a semantics of a segmented region by a pixel unit, and performing labelling for each of a plurality of classes to obtain a segmentation image; segmenting the input image by a semantic unit, determining a semantics of a segmented region by a pixel unit, and performing labelling for each of a plurality of classes to obtain a segmentation image; extracting , using machine learning, a road marking from the input image, the road marking comprising a line marked on a surface of a road, and a road sign comprising one or any combination of a sign and a character marked on the surface of the road; wherein the extracting of the road marking comprises: extracting pixels corresponding to the road marking from the input image; classifying the pixels into groups and removing a group corresponding to the road sign; extracting pixels corresponding to the road marking from the input image; classifying the pixels into groups and removing a group corresponding to the road sign; generating a multi-virtual lane image in which virtual lanes are indicated using the road marking and the segmentation image; and identifying a driving lane of a vehicle based on a relative location of the driving lane in the multi-virtual lane image.
Tracheal cannula having at least one curved tube and a connector , characterized in that a joint head part of a ball-and-socket joint is arranged at a first end of the connector facing towards the curved tube , in that a first partial joint socket (2.1) of the ball-and-socket joint is arranged at a first end of the curved tube facing towards the connector , in that a latching socket is arranged as a second partial joint socket of the ball-and-socket joint, and in that a closure ring is arranged for connecting the latching socket to the curved tube .
A metal-cored welding wire, comprising a metallic sheath made of steel and a granular core based on iron powder, capable of welding mill scaled workpieces without prior descaling, wherein the metallic sheath accounts for 80-90% of the total weight of the metal-cored tubular welding wire and the granular core accounts for 10-20% of the total weight of the metal-cored tubular welding wire, and wherein the metal-cored welding wire comprises by weight of the metal cored welding wire: - a sulfur source comprising between 0.04% and 0.18%; - a cellulose source comprising between 0.09% and 0.54%; - an antimony source comprising between 0.09% and 0.36%; - a silicon source comprising between 1.25% and 1.75%; - an optional carbon source comprising between 0.05% and 0.14%; - manganese between 2% and 2.5%; - nickel between 0.25% and 0.75%, and - optional rare earth silicide comprising between 0.09% and 0.72%; wherein the antimony source is antimony oxide disposed in the core, and/or antimony alloyed into the metallic sheath, wherein the sulfur source comprises between 0.2% and 1%, optionally the antimony source comprises between 0.5% and 2%, the cellulose source comprises between 1% and 3%, the optional carbon source comprises between 0.25% and 0.75% the rare earth silicide comprises between 0.5% and 4% of the granular core by weight, and wherein source is used to indicate a chemical or compound that includes the identified element, regardless of its chemical state. - a sulfur source comprising between 0.04% and 0.18%; - a cellulose source comprising between 0.09% and 0.54%; - an antimony source comprising between 0.09% and 0.36%; - a silicon source comprising between 1.25% and 1.75%; - an optional carbon source comprising between 0.05% and 0.14%; - manganese between 2% and 2.5%; - nickel between 0.25% and 0.75%, and - optional rare earth silicide comprising between 0.09% and 0.72%; wherein the antimony source is antimony oxide disposed in the core, and/or antimony alloyed into the metallic sheath, wherein the sulfur source comprises between 0.2% and 1%, optionally the antimony source comprises between 0.5% and 2%, the cellulose source comprises between 1% and 3%, the optional carbon source comprises between 0.25% and 0.75% the rare earth silicide comprises between 0.5% and 4% of the granular core by weight, and wherein source is used to indicate a chemical or compound that includes the identified element, regardless of its chemical state.
Method to set up a communication connection between an access entity and a core network entity of a core network of a mobile telecommunication system, said access entity being configured as a trusted wireless access network (TWAN) and/or an enhanced packet data gateway (ePDG), offering access to the core network to mobile entities connected to the access entity , said method comprising the following steps: - Sending a communication request (CR), comprising at least one origin value (OV) specific for the origin of the access entity , from the access entity to the core entity , - Receiving the communication request (CR) at the core entity , - Comparing the origin value (OV) of the communication request (CR) with an origin list (OL), wherein the origin list (OL) comprises separate service levels, which are correlated to origin values (OV) of access entities , and - Setting up the communication connection adapted to the service level correlated to the at least one origin value specific for the origin of the access entity , based on the result of the comparison, wherein the origin value (OV) comprises at least one mobile entity identification (MI) being specific for a mobile entity connected to the access entity and/or specific for the user of said mobile entity , and wherein the origin value (OV) is specific for a location of the access entity and/or comprises information that the access entity is hosted by a third party, said third party being correlated with the owner of the mobile telecommunication system with a service contract defining the service level correlated to the origin value (OV) specific for the origin of the access entity . - Sending a communication request (CR), comprising at least one origin value (OV) specific for the origin of the access entity , from the access entity to the core entity , - Receiving the communication request (CR) at the core entity , - Comparing the origin value (OV) of the communication request (CR) with an origin list (OL), wherein the origin list (OL) comprises separate service levels, which are correlated to origin values (OV) of access entities , and - Setting up the communication connection adapted to the service level correlated to the at least one origin value specific for the origin of the access entity , based on the result of the comparison,
A controller for an internal combustion engine , the controller comprising a processor that controls a fuel injection timing of the internal combustion engine , the internal combustion engine including a direct injection valve that injects fuel into a combustion chamber and a lubrication device that discharges lubricant toward a rear surface of a piston , wherein the processor is configured to execute a start timing setting process for setting, through at least one of two processes, an injection start timing (Ainj) of fuel by the direct injection valve , wherein one of the two processes is a process for setting the injection start timing (Ainj) to be more advanced when a rotation speed of a crankshaft of the internal combustion engine is high than when the rotation speed is low, and the other one of the two processes is a process for setting the injection start timing (Ainj) to be more advanced when a load on the internal combustion engine is large than when the load is small, and an injection valve operation process for operating the direct injection valve in order to start injecting fuel from the direct injection valve at the injection start timing (Ainj), the start timing setting process includes an advancement process (S20, S22) for advancing the injection start timing (Ainj) to a larger extent when a coolant temperature (THW) that is a temperature of coolant in the internal combustion engine is greater than or equal to a preset temperature (THW2) (S14: NO) than when the coolant temperature is lower than the preset temperature (S14: YES), and the advancement process (S20, S22) includes a retardation process (S20), wherein in a case in which the coolant temperature (THW) is greater than or equal to the preset temperature (THW2) (S14: NO), the retardation process sets a smaller advancement amount at the injection start timing (Ainj) when a lubricant temperature (Toil) that is a temperature of the lubricant is lower than a predetermined temperature (ToilL, ToilH) than when the lubricant temperature (Toil) is greater than or equal to the predetermined temperature (ToilL, ToilH). a start timing setting process for setting, through at least one of two processes, an injection start timing (Ainj) of fuel by the direct injection valve , wherein one of the two processes is a process for setting the injection start timing (Ainj) to be more advanced when a rotation speed of a crankshaft of the internal combustion engine is high than when the rotation speed is low, and the other one of the two processes is a process for setting the injection start timing (Ainj) to be more advanced when a load on the internal combustion engine is large than when the load is small, and an injection valve operation process for operating the direct injection valve in order to start injecting fuel from the direct injection valve at the injection start timing (Ainj),
A GLP-1 derivative characterised by having the formula: N ε34 -[2-[2-[2-[[2-[2-[2-[[ -4-carboxy-4-[[ -4-carboxy-4-(17-carboxyheptadecanoylamino)butanoyl]amino]butanoyl]amino]ethoxy]ethoxy]acetyl]amin o]ethoxy]ethoxy]acetyl]-[Imp7,Aib8,His9,Lys18,Glu22,Arg26,Leu33,Thr35]-GLP-1-(7-35)-peptide amide
An electronic device comprising: a housing ; a camera disposed in the housing , spaced apart from a first periphery by a first length in a first direction perpendicular to the first periphery of the electronic device and facing a second periphery of the electronic device; a speaker disposed on one side of the camera inside the housing ; a receiver disposed on another side of the camera inside the housing ; and a structure disposed between the first periphery and the camera inside the housing , wherein the housing comprises: a first opening formed on a front surface of the electronic device between the first periphery and the camera , and a plurality of second openings formed on a side surface of the electronic device along the first periphery, and wherein the structure is configured to shield some of the plurality of second openings, such that a first sound output from the speaker is discharged through at least one other openings of the second openings or the first opening, and a second sound output from the receiver is discharged through the first opening. a housing ; a camera disposed in the housing , spaced apart from a first periphery by a first length in a first direction perpendicular to the first periphery of the electronic device and facing a second periphery of the electronic device; a speaker disposed on one side of the camera inside the housing ; a receiver disposed on another side of the camera inside the housing ; and a structure disposed between the first periphery and the camera inside the housing , wherein the housing comprises: a first opening formed on a front surface of the electronic device between the first periphery and the camera , and a plurality of second openings formed on a side surface of the electronic device along the first periphery, and a first opening formed on a front surface of the electronic device between the first periphery and the camera , and a plurality of second openings formed on a side surface of the electronic device along the first periphery, and wherein the structure is configured to shield some of the plurality of second openings, such that a first sound output from the speaker is discharged through at least one other openings of the second openings or the first opening, and a second sound output from the receiver is discharged through the first opening.
A bucket for an earth-working or materials-handling machine, comprising, a top portion , a first and a second side wall, a bucket floor extending from a front cutting edge up to the top portion , wherein the front cutting edge , the first and second side walls and the top portion form a bucket opening , seen from a front view of the bucket , the bucket floor has an inside facing towards the bucket opening and an outside facing away from the bucket opening , the bucket floor comprises a first and a second rail section, wherein each one of the rail sections comprises at least one detachable wear component connected to the bucket floor , characterized in that the bucket floor further comprises at least one keel section with a trough portion on the outside of the bucket floor and a ridge portion on the inside of the bucket floor , wherein the at least one keel section is provided in-between the first and second rail sections, as seen in a width (w') direction of the bucket floor , and wherein the at least one keel section extends along at least a part of the bucket floor in a direction from the front cutting edge up to the top portion . a top portion , a first and a second side wall, a bucket floor extending from a front cutting edge up to the top portion , wherein the front cutting edge , the first and second side walls and the top portion form a bucket opening , seen from a front view of the bucket , the bucket floor has an inside facing towards the bucket opening and an outside facing away from the bucket opening , the bucket floor comprises a first and a second rail section, wherein each one of the rail sections comprises at least one detachable wear component connected to the bucket floor , characterized in that the bucket floor further comprises at least one keel section with a trough portion on the outside of the bucket floor and a ridge portion on the inside of the bucket floor , wherein the at least one keel section is provided in-between the first and second rail sections, as seen in a width (w') direction of the bucket floor , and wherein the at least one keel section extends along at least a part of the bucket floor in a direction from the front cutting edge up to the top portion .
A device comprising a table top, a substructure, and fastening screws, wherein the substructure has a fastening cross or a fastening plate, on which the table top rests, and wherein the substructure is to be screwed to the underside of the table top, wherein this fastening cross or this fastening plate has a defined hole pattern with a plurality of holes or mounts for the fastening screws that are to be inserted through these holes and that are used to screw the fastening cross or the fastening plate to the table top, wherein the underside of the table top has slots or grooves formed in it that run in such a way as to align with the holes or mounts of the fastening cross or fastening plate when placing the table top on the fastening cross or the fastening plate, and wherein the fastening screws can be screwed into the table top in the slots or grooves, wherein at least two slots or grooves extending along a line and which are interrupted by non-slotted portions of the table top are provided, characterised in that the fastening screws are self-tapping screws, wherein the width of the slots is approximately 75% to approximately 90% of the diameter of the self-tapping fastening screws used to fasten the table top on the fastening cross or fastening plate in the thread region. wherein the underside of the table top has slots or grooves formed in it that run in such a way as to align with the holes or mounts of the fastening cross or fastening plate when placing the table top on the fastening cross or the fastening plate, and wherein the fastening screws can be screwed into the table top in the slots or grooves, wherein at least two slots or grooves extending along a line and which are interrupted by non-slotted portions of the table top are provided, characterised in that the fastening screws are self-tapping screws, wherein the width of the slots is approximately 75% to approximately 90% of the diameter of the self-tapping fastening screws used to fasten the table top on the fastening cross or fastening plate in the thread region.
A work tool configured to perform an operation on a workpiece by driving a tool accessory, the work tool comprising an outer housing having an elongate shape, an inner housing (3; 30) having an elongate shape and housed in the outer housing , a motor having an output shaft , the output shaft being rotatable around a first axis (A2) extending in a direction crossing a longitudinal direction of the inner housing , a spindle rotatably supported around a second axis (A1) extending in parallel to the first axis (A2), the spindle being configured such that the tool accessory is removably mounted thereto, and a transmitting mechanism configured to transmit rotation of the output shaft to the spindle to reciprocally rotate the spindle within a prescribed angle range around the second axis (A1), wherein the inner housing (3; 30) includes a first end part , the first end part being one end part in the longitudinal direction, a second end part (33; 330), the second end part (33; 330) being another end part in the longitudinal direction, an extending part integrally formed with the first end part and extending toward the second end part (33; 330) in the longitudinal direction, and an elastic connection part configured to elastically connect the extending part and the second end part (33; 330), the motor , the spindle and the transmitting mechanism are disposed in the first end part of the inner housing (31, 33; 330), the first end part is connected to the outer housing via a first elastic member , the second end part (33; 330) includes a power-source-related device configured to enable power supply from a power source to the motor , the elastic connection part includes a plurality of second elastic members , the plurality of second elastic members connecting the extending part and the second end part (33; 330), and the second elastic members are spaced apart from each other in a circumferential direction around the longitudinal direction. a first end part , the first end part being one end part in the longitudinal direction, a second end part (33; 330), the second end part (33; 330) being another end part in the longitudinal direction, an extending part integrally formed with the first end part and extending toward the second end part (33; 330) in the longitudinal direction, and an elastic connection part configured to elastically connect the extending part and the second end part (33; 330),
A method of preparation of the sandwich collagen sponge comprising peripheral layers formed by a highly porous sponge which contains type I collagen and a low porous core containing type I collagen, characterized in that 4 to 8% w/w dispersion of type I collagen in water is first allowed to swell at 5-15 °C for 1-3 hours, then the mixture is homogenized, after homogenization the mixture is dispensed into moulds, frozen at -60 to -90 °C for 3 - 8 hours and lyophilized to form a low porous core, which is subsequently impregnated with 0.1 - 3% w/w dispersion of type I collagen for 1-3 hours at 15-25 °C, then the mixture is frozen again at -60 to -90 °C for 3 - 8 hours and lyophilized to form a sandwich collagen sponge, after which the sponge is stabilized by chemical crosslinking which is carried out by dipping the sponge in a solution of 95% w/w ethanol and water with N-(3-dimethylaminopropyl)-N-ethylcarbodiimide hydrochloride and N-hydroxysuccinimide at 25 - 40 °C for 2 - 4 hours, washed, frozen at -15 to -30 °C for 5 - 7 hours and lyophilized.