mhurhangee/patent-ind-claim-en huggingface dataset:
A method of increasing nitrogen use efficiency, biomass under nitrogen-limiting conditions, and/or growth rate of a plant, comprising: (a) expressing within the plant an exogenous polynucleotide comprising a nucleic acid sequence encoding a polypeptide at least 80% identical over the entire amino acid sequence set forth in SEQ ID NO: 563, and (b) further comprising growing the plant expressing said exogenous polynucleotide under nitrogen-limiting conditions, thereby increasing the nitrogen use efficiency, biomass under nitrogen-limiting conditions, and/or growth rate of the plant. (a) expressing within the plant an exogenous polynucleotide comprising a nucleic acid sequence encoding a polypeptide at least 80% identical over the entire amino acid sequence set forth in SEQ ID NO: 563, and (b) further comprising growing the plant expressing said exogenous polynucleotide under nitrogen-limiting conditions,
Compensation device for compensating variable conveying speeds of a material web , in particular a fibrous pile web or a fibrous non-woven web, comprising a continuously revolving accumulator belt for conveying the material web in a conveying direction (F) through the compensation device , wherein the accumulator belt has variable slack and is guided by way of two deflection rollers which in the conveying direction (F) are disposed so as to be mutually spaced apart, wherein the variable slack of the accumulator belt is disposed at least between the two deflection rollers , characterized in that the compensation device furthermore has a damping device which in the region of the variable slack is disposed at a spacing (D) from the accumulator belt that is smaller than the oscillation amplitude (A) of oscillations of the accumulator belt that are to be expected in the region of the variable slack .
A computer-implemented method for calculating an adjusted blood flow velocity in maximum hyperemia state based on index for microcirculatory resistance, characterized by comprising: acquiring an index for microcirculatory resistance iFMR during a diastolic phase according to a blood flow velocity v, an aortic pressure waveform, and an physiological parameter; making an adjustment parameter r equal to 1 if the index for microcirculatory resistance iFMR during the diastolic phase is less than K; making the adjustment parameter r satisfy a formula r = 1 − iFMR − K 100 if the index for microcirculatory resistance iFMR during the diastolic phase is greater than or equal to K, wherein K is a positive number less than 100; acquiring a corrected blood flow velocity in a maximum hyperemia state according to a formula v' = rv h ; wherein v ' represents the corrected blood flow velocity in the maximum hyperemia state, and v h represents a blood flow velocity in the maximum hyperemia state. acquiring an index for microcirculatory resistance iFMR during a diastolic phase according to a blood flow velocity v, an aortic pressure waveform, and an physiological parameter; making an adjustment parameter r equal to 1 if the index for microcirculatory resistance iFMR during the diastolic phase is less than K; making the adjustment parameter r satisfy a formula r = 1 − iFMR − K 100 if the index for microcirculatory resistance iFMR during the diastolic phase is greater than or equal to K, wherein K is a positive number less than 100; acquiring a corrected blood flow velocity in a maximum hyperemia state according to a formula v' = rv h ; wherein v ' represents the corrected blood flow velocity in the maximum hyperemia state, and v h represents a blood flow velocity in the maximum hyperemia state.
Forming apparatus comprising: a feed path for continuously feeding a continuous tow material along a transport direction; a forming device connected to a downstream end of the feed path and adapted to form the continuous tow material into a continuous tubular rod, the forming device comprising: a tubular element adapted to allow the continuous tow material to pass through the tubular element to form the continuous tubular rod; a steam generator adapted to generate overheated steam, the steam generator being in fluid connection with the tubular element to provide overheated steam to the continuous tow material, wherein the forming device further comprises several fluid conduits to provide overheated steam from the steam generator to several injection sites arranged along a length of the tubular element, characterized in that more than one fluid conduit of the several fluid conduits comprises a temperature control unit: including a temperature sensor and a temperature influencer . a feed path for continuously feeding a continuous tow material along a transport direction; a forming device connected to a downstream end of the feed path and adapted to form the continuous tow material into a continuous tubular rod, the forming device comprising: a tubular element adapted to allow the continuous tow material to pass through the tubular element to form the continuous tubular rod; a steam generator adapted to generate overheated steam, the steam generator being in fluid connection with the tubular element to provide overheated steam to the continuous tow material, wherein the forming device further comprises several fluid conduits to provide overheated steam from the steam generator to several injection sites arranged along a length of the tubular element, characterized in that more than one fluid conduit of the several fluid conduits comprises a temperature control unit: including a temperature sensor and a temperature influencer . a tubular element adapted to allow the continuous tow material to pass through the tubular element to form the continuous tubular rod; a steam generator adapted to generate overheated steam, the steam generator being in fluid connection with the tubular element to provide overheated steam to the continuous tow material, wherein the forming device further comprises several fluid conduits to provide overheated steam from the steam generator to several injection sites arranged along a length of the tubular element, characterized in that more than one fluid conduit of the several fluid conduits comprises a temperature control unit: including a temperature sensor and a temperature influencer .
A system comprising: - a virtual baseband unit further comprising a radio resource manager ; and - an access node further comprising a traffic manager ; and wherein the virtual baseband unit is configured: - to connect to a serving gateway for receiving backhaul traffic ; and - to connect to the access node ; and - to transform the backhaul traffic under control of the radio resource manager to X-haul traffic ; and - to forward the X-haul traffic to the access node ; wherein the access node is configured: - to connect to a broadband network gateway for receiving wireline traffic ; and - to receive the X-haul traffic ; and - to forward aggregated traffic comprising the X-haul traffic and the wireline traffic to two or more network terminations (120-123) through the traffic manager ; wherein the access node is further configured to instruct the virtual baseband unit to buffer the backhaul traffic based on resource data exchanged between the virtual baseband unit and the access node such that the aggregated traffic is less than or equal to a capacity threshold. - a virtual baseband unit further comprising a radio resource manager ; and - an access node further comprising a traffic manager ; and - to connect to a serving gateway for receiving backhaul traffic ; and - to connect to the access node ; and - to transform the backhaul traffic under control of the radio resource manager to X-haul traffic ; and - to forward the X-haul traffic to the access node ; - to connect to a broadband network gateway for receiving wireline traffic ; and - to receive the X-haul traffic ; and - to forward aggregated traffic comprising the X-haul traffic and the wireline traffic to two or more network terminations (120-123) through the traffic manager ;
A non-transitory computer-readable storage medium for storing an image compression program, the image compression program causing a processor to execute a process, the process comprising: executing first processing that includes acquiring image data of an image captured by an imaging device mounted to a moving vehicle characterized by executing second processing that includes setting a segmented region in a reference image corresponding to an image to be compressed and encoded, the segmented region including a central segmented region (E, F, G, H) that includes the center point of the reference image and the center point being a contact point of an optical axis of the imaging device and an imaging element in the imaging device incident to the image; executing third processing that includes enlarging the reference image so that a magnification rate of a region not including the central segmented region (E, F, G, H) is greater than a magnification rate of the central segmented region (E, F, G, H); executing fourth processing that includes generating a predictive image in accordance with the enlarged reference image; and executing fifth processing that includes compressing and encoding image data of the image to be encoded in accordance with the generated predictive image. executing first processing that includes acquiring image data of an image captured by an imaging device mounted to a moving vehicle characterized by executing second processing that includes setting a segmented region in a reference image corresponding to an image to be compressed and encoded, the segmented region including a central segmented region (E, F, G, H) that includes the center point of the reference image and the center point being a contact point of an optical axis of the imaging device and an imaging element in the imaging device incident to the image; executing third processing that includes enlarging the reference image so that a magnification rate of a region not including the central segmented region (E, F, G, H) is greater than a magnification rate of the central segmented region (E, F, G, H); executing fourth processing that includes generating a predictive image in accordance with the enlarged reference image; and executing fifth processing that includes compressing and encoding image data of the image to be encoded in accordance with the generated predictive image.
Timepiece comprising a striking mechanism able to operate at least in a repeater mode, a striking barrel to power the striking mechanism and a manual control member which can be actuated by the user to wind the striking barrel and to activate the repeater mode, the striking barrel comprising a barrel drum , a barrel shaft and a barrel spring in the form of a spiral housed in the barrel drum and coupled by its outer end to the barrel drum and by its inner end to the barrel shaft , the striking mechanism comprising at least one gong , at least one hammer for striking the at least one gong and an actuating device coupled to a first barrel element formed by one of the barrel drum and the barrel shaft in order to actuate the at least one hammer , and a second barrel element formed by the other of the barrel drum and the barrel shaft comprises toothing with which a click cooperates, and wherein the manual control member is arranged to drive a control rack meshing, via a unidirectional coupling mobile , with the second barrel element for the winding of the striking barrel , and the control rack comprising a triggering member making it possible, at the end of travel of the control rack , to decouple the first barrel element and the actuating device in order to trigger the extraction of information about the number of strokes to be struck and thus to activate the repeater mode.
A method for manufacturing a cored wire from a metallic strip and an internal flux , comprising the steps of: a) shaping a metallic strip having two parallel longitudinal edges to obtain a U-sectioned groove by bringing its longitudinal edges closer to each other, b) at least partially filling the groove obtained in step a) with a flux , c) shaping the U-sectioned groove containing the flux obtained in step b) by bringing said longitudinal edges into contact or near contact with each other to obtain an O-sectioned pre-tube, and d) welding the longitudinal edges to each other by a laser beam, characterised in that the method also comprises: an additional step i), prior to step a), of machining the side surface of at least one of the two parallel longitudinal edges of the metallic strip to confer on said at least one side surface of said at least one longitudinal edge a surface roughness of less than 50 μm. a) shaping a metallic strip having two parallel longitudinal edges to obtain a U-sectioned groove by bringing its longitudinal edges closer to each other, b) at least partially filling the groove obtained in step a) with a flux , c) shaping the U-sectioned groove containing the flux obtained in step b) by bringing said longitudinal edges into contact or near contact with each other to obtain an O-sectioned pre-tube, and d) welding the longitudinal edges to each other by a laser beam,
Terminal-modified polyamide 4 consisting of a polyamide 4-derived site (A) and a polyalkylenimine-derived site (B), and having a structure in which a polyalkylenimine is amide-bonded to a polymerization terminal of polyamide 4, wherein a weight ratio between the polyamide 4-derived site (A) and the polyalkylenimine-derived site (B) as determined according to the method identified in the specification is 100:0.01-100:20.
Hydrolysate prepared from insects comprising at least 40% by weight of proteins based on the total weight of dry matter, an ash content of less than 3% by weight based on the total weight of dry matter, and a content of watersoluble proteins having a size larger than 12,400 g/mol of less than 50%.
A method for receiving a signal by a communication apparatus in a wireless communication system, the method comprising: receiving (S1310) a reference signal, RS, from a base station, BS, in a subframe having a first slot and a second slot, wherein each of the first and second slots includes a plurality of consecutive resource elements over which the RS is allowed to be spread, and the plurality of consecutive resource elements overlaps a last Orthogonal Frequency Division Multiplexing, OFDM, symbol of a corresponding slot, and the plurality of consecutive resource elements are consecutive in a time domain in each of the first and second slots, and wherein, when a last OFDM symbol of the subframe is not available for transmission from the BS to the communication apparatus (S1320), the RS is received only in the first slot of the subframe (S1340) and a data signal is received in at least part of the plurality of consecutive resource elements in the second slot. receiving (S1310) a reference signal, RS, from a base station, BS, in a subframe having a first slot and a second slot, wherein each of the first and second slots includes a plurality of consecutive resource elements over which the RS is allowed to be spread, and the plurality of consecutive resource elements overlaps a last Orthogonal Frequency Division Multiplexing, OFDM, symbol of a corresponding slot, and the plurality of consecutive resource elements are consecutive in a time domain in each of the first and second slots, and wherein, when a last OFDM symbol of the subframe is not available for transmission from the BS to the communication apparatus (S1320), the RS is received only in the first slot of the subframe (S1340) and a data signal is received in at least part of the plurality of consecutive resource elements in the second slot.
Foil removal device for removing a foil from a tire tread in a removal direction (X), wherein the foil removal device comprises a foil collection unit with a winding element for collecting the foil and a winding drive for driving the winding element in a winding rotation (R) about a winding axis (S), characterized in that the winding element is arranged for receiving the foil at or near one of the ends of the foil , wherein the foil removal device further comprises a gripper that is arranged for engaging the foil in a gripping position at or near the one end of the foil prior to the removal of the foil and a gripper drive that is arranged for moving the gripper from the gripping position towards the foil collection unit to partially remove the foil from the tire tread , wherein the gripper is arranged for releasing the removed part of the foil when the foil collection unit has received the removed part of the foil at or near the one end of the foil , wherein, after receiving the removed part of the foil , the winding drive is arranged for driving the winding element over several revolutions to engage and subsequently remove the foil by winding the foil around the winding element over several revolutions about the winding axis (S), wherein the removal device comprises a displacement drive that is arranged for moving the foil collection unit relative to the tire tread in the removal direction (X) simultaneously with the winding drive driving the winding element .
A loop heat pipe comprising: an evaporator that vaporizes a working fluid; a condenser that liquefies the working fluid; a liquid pipe that connects the evaporator and the condenser; a vapor pipe that connects the evaporator and the condenser, to form a loop-shaped passage together with the liquid pipe; and a porous body provided inside the the evaporator , and formed by forming bottomed holes in a first metal layer , wherein the bottomed holes of the first metal layer include a first bottomed hole that caves in from a first surface of the first metal layer, and a second bottomed hole that caves in from a second surface of the first metal layer, opposite to the first surface, and wherein a bottom surface of the first bottomed hole and a bottom surface of the second bottomed hole are alternately aligned and adjacent to each other and partially overlap each other so that the first bottomed hole and the second bottomed hole partially communicate with each other to form a pore wherein the porous body includes a connecting part provided on a side where the liquid pipe connects to the evaporator , one or a plurality of protruding parts protruding from the connecting part toward the vapor pipe , and a space formed inside the evaporator in a region where the porous body is not provided and communicating to a flow passage of the vapor pipe . an evaporator that vaporizes a working fluid; a condenser that liquefies the working fluid; a liquid pipe that connects the evaporator and the condenser; a vapor pipe that connects the evaporator and the condenser, to form a loop-shaped passage together with the liquid pipe; and a porous body provided inside the the evaporator , and formed by forming bottomed holes in a first metal layer , wherein the bottomed holes of the first metal layer include a first bottomed hole that caves in from a first surface of the first metal layer, and a second bottomed hole that caves in from a second surface of the first metal layer, opposite to the first surface, and a first bottomed hole that caves in from a first surface of the first metal layer, and a second bottomed hole that caves in from a second surface of the first metal layer, opposite to the first surface, and wherein a bottom surface of the first bottomed hole and a bottom surface of the second bottomed hole are alternately aligned and adjacent to each other and partially overlap each other so that the first bottomed hole and the second bottomed hole partially communicate with each other to form a pore wherein the porous body includes a connecting part provided on a side where the liquid pipe connects to the evaporator , one or a plurality of protruding parts protruding from the connecting part toward the vapor pipe , and a space formed inside the evaporator in a region where the porous body is not provided and communicating to a flow passage of the vapor pipe .
A printing device comprising: a receiver configured to receive a command; a line head configured to print line by line on a print medium (Ra); and a controller configured to control the line head to print; wherein the controller is configured to: store image data specified by the first command (IC) to a storage device when a first command (IC) instructing image printing is received by the receiver , and control the line head to print an image (G1) on the print medium (Ra) based on the image data stored in the storage device when a second command different from the first command (IC) is received by the receiver ; characterised in that : the first command (IC) includes an image data definition command (GIC) containing image data (DB), and an execute printing command (IJC) instructing executing printing; and the controller is configured to: count a number of times an execute printing command (IJC) is received by the receiver , and control the line head not to print when the count of the number of times of receiving the execute printing command (IJC) is one time. a receiver configured to receive a command; a line head configured to print line by line on a print medium (Ra); and a controller configured to control the line head to print; wherein the controller is configured to: store image data specified by the first command (IC) to a storage device when a first command (IC) instructing image printing is received by the receiver , and control the line head to print an image (G1) on the print medium (Ra) based on the image data stored in the storage device when a second command different from the first command (IC) is received by the receiver ; store image data specified by the first command (IC) to a storage device when a first command (IC) instructing image printing is received by the receiver , and control the line head to print an image (G1) on the print medium (Ra) based on the image data stored in the storage device when a second command different from the first command (IC) is received by the receiver ; characterised in that : the first command (IC) includes an image data definition command (GIC) containing image data (DB), and an execute printing command (IJC) instructing executing printing; and the controller is configured to: count a number of times an execute printing command (IJC) is received by the receiver , and control the line head not to print when the count of the number of times of receiving the execute printing command (IJC) is one time. the first command (IC) includes an image data definition command (GIC) containing image data (DB), and an execute printing command (IJC) instructing executing printing; and the controller is configured to: count a number of times an execute printing command (IJC) is received by the receiver , and control the line head not to print when the count of the number of times of receiving the execute printing command (IJC) is one time. count a number of times an execute printing command (IJC) is received by the receiver , and control the line head not to print when the count of the number of times of receiving the execute printing command (IJC) is one time.