mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic document feeding system , comprising: an image reader including an optical window and a light source illuminating the optical window; and an automatic document feeder including a reflective flag positioned within a viewing region of the optical window to reflect the light source, the reflective flag including a trigger extending laterally from a pivotal axis of the reflective flag and a reflective surface extending from the pivotal axis on an arm , wherein the trigger extends into a media path at a location prior to the optical window, wherein movement of a medium against the trigger initiates rotational movement of the reflective flag about the pivotal axis in a direction of the media path, wherein the trigger and the reflective surface are disposed at different respective positions with respect to the pivotal axis such that the initiated rotational movement of the reflective flag is to cause rotation of the trigger towards the optical window and rotation of the reflective surface away from the optical window and signals the leading edge of the medium. an image reader including an optical window and a light source illuminating the optical window; and an automatic document feeder including a reflective flag positioned within a viewing region of the optical window to reflect the light source, the reflective flag including a trigger extending laterally from a pivotal axis of the reflective flag and a reflective surface extending from the pivotal axis on an arm , wherein the trigger extends into a media path at a location prior to the optical window, wherein movement of a medium against the trigger initiates rotational movement of the reflective flag about the pivotal axis in a direction of the media path, wherein the trigger and the reflective surface are disposed at different respective positions with respect to the pivotal axis such that the initiated rotational movement of the reflective flag is to cause rotation of the trigger towards the optical window and rotation of the reflective surface away from the optical window and signals the leading edge of the medium.
A method for motion correction in an optical coherence tomography (OCT) system, comprising: collecting motion-tracking data associated with an eye of a patient, each collected motion-tracking datum having a respective motion-tracking sequence indicator; concurrent with the collecting of motion-tracking data, acquiring a plurality of OCT scans of the eye, each OCT scan being associated with a corresponding motion-tracking datum and the acquiring of each OCT scan including displacement compensation based on its corresponding motion-tracking datum, each acquired OCT scan having a respective OCT scan sequence indicator; matching acquired OCT scans to collected motion-tracking data based on their respective OCT scan sequence indicator and motion-tracking sequence indicator, the matched motion-tracking data being different than the acquired OCT scans' previously associated corresponding motion-tracking data; and correcting for displacement error in the acquired OCT scans based on their matched motion-tracking data; and storing or displaying the displacement-corrected OCT scans. collecting motion-tracking data associated with an eye of a patient, each collected motion-tracking datum having a respective motion-tracking sequence indicator; concurrent with the collecting of motion-tracking data, acquiring a plurality of OCT scans of the eye, each OCT scan being associated with a corresponding motion-tracking datum and the acquiring of each OCT scan including displacement compensation based on its corresponding motion-tracking datum, each acquired OCT scan having a respective OCT scan sequence indicator; matching acquired OCT scans to collected motion-tracking data based on their respective OCT scan sequence indicator and motion-tracking sequence indicator, the matched motion-tracking data being different than the acquired OCT scans' previously associated corresponding motion-tracking data; and correcting for displacement error in the acquired OCT scans based on their matched motion-tracking data; and storing or displaying the displacement-corrected OCT scans.
A container made of glass, in particular for holding a preparation, comprising a hollow body which has an inner volume , in particular for holding the preparation; the hollow body having a wall with an inner surface adjacent to the inner volume of the hollow body; and an outer surface opposite the inner surface ; wherein the wall comprises a compressive stress zone at least in a portion thereof; wherein the compressive stress zone is provided adjacent to the outer surface , whereby the outer surface is toughened by virtue of compressive stress at least in a portion thereof; and characterized in that the inner surface of the wall opposite said portion is free of compressive stresses and is preferably under tensile stress. the hollow body having a wall with an inner surface adjacent to the inner volume of the hollow body; and an outer surface opposite the inner surface ; a wall with an inner surface adjacent to the inner volume of the hollow body; and an outer surface opposite the inner surface ; wherein the wall comprises a compressive stress zone at least in a portion thereof; wherein the compressive stress zone is provided adjacent to the outer surface , whereby the outer surface is toughened by virtue of compressive stress at least in a portion thereof; and characterized in that the inner surface of the wall opposite said portion is free of compressive stresses and is preferably under tensile stress.
Use of a glycosaminoglycan derivative for inhibiting heparanase, wherein the glycosaminoglycan derivative contains di/tricarboxylated residues and/or is obtained by a process comprising: a) oxidation of 10% to 100% , of 2-O-, and optionally 2N-, 3-O-, non-sulfated residues of a glycosaminoglycan, under conditions effective to convert adjacent diols and optionally adjacent OH/NH 2 to dialdehydes; b) oxidation of the oxidized glycosaminoglycan under conditions effective to convert said dialdehydes to carboxylate groups; wherein the glycosaminoglycan is a natural or synthetic glycosaminoglycan selected from heparin, low molecular weight heparins, heparan sulfate, optionally 2-O- and/or 2-N-desulfated, wherein the use does not comprise the treatment of the human or animal body. a) oxidation of 10% to 100% , of 2-O-, and optionally 2N-, 3-O-, non-sulfated residues of a glycosaminoglycan, under conditions effective to convert adjacent diols and optionally adjacent OH/NH 2 to dialdehydes; b) oxidation of the oxidized glycosaminoglycan under conditions effective to convert said dialdehydes to carboxylate groups; wherein the glycosaminoglycan is a natural or synthetic glycosaminoglycan selected from heparin, low molecular weight heparins, heparan sulfate, optionally 2-O- and/or 2-N-desulfated, wherein the use does not comprise the treatment of the human or animal body.
A mouse with ganglioglioma and brain somatic mutation-related intractable epilepsy, comprising - a mutant nucleic acid molecule, comprising the sequence of SEQ ID NO: 4 in which thymine at position 1910 is substituted to adenine, encoding a BRAF mutant protein consisting of the amino acid sequence of SEQ ID NO: 3 in which valine at position 637 is substituted to glutamic acid, wherein the mouse is induced to express the BRAF mutant protein or the mutant nucleic acid molecule encoding the BRAF mutant protein, in brain during the formation of a cortical layer in embryonic period, and wherein the mouse has an activated MARK signaling pathway of Ras-Raf-MEK-ERK, dysplasia of nerve cells and a numerical increment of glial cells. - a mutant nucleic acid molecule, comprising the sequence of SEQ ID NO: 4 in which thymine at position 1910 is substituted to adenine, encoding a BRAF mutant protein consisting of the amino acid sequence of SEQ ID NO: 3 in which valine at position 637 is substituted to glutamic acid, wherein the mouse is induced to express the BRAF mutant protein or the mutant nucleic acid molecule encoding the BRAF mutant protein, in brain during the formation of a cortical layer in embryonic period, and wherein the mouse has an activated MARK signaling pathway of Ras-Raf-MEK-ERK, dysplasia of nerve cells and a numerical increment of glial cells.
A shear band comprising: an annular first, radially outer fabric layer ; and an annular second, radially inner fabric layer ; characterised in that the shear band is formed from a single shear band strip helically wound circumferentially and axially with a first edge of the shear band strip, the first edge of the shear band strip having a first extension flap for engaging an opposite second edge of the shear band strip, the first extension flap being continuously secured to the opposite second edge linearly along the second opposite edge of the shear band strip. an annular first, radially outer fabric layer ; and an annular second, radially inner fabric layer ; characterised in that the shear band is formed from a single shear band strip helically wound circumferentially and axially with a first edge of the shear band strip, the first edge of the shear band strip having a first extension flap for engaging an opposite second edge of the shear band strip, the first extension flap being continuously secured to the opposite second edge linearly along the second opposite edge of the shear band strip.
An electric power conversion device comprising: a converter circuit , which is connected to an AC power source and includes a boost chopper ; a capacitor , which is connected between output terminals of the converter circuit ; a boost chopper controller , which controls operation of the boost chopper , wherein the capacitor has a capacitance allowing the terminal voltage (vdc) of the capacitor to have a pulse frequency twice as high as a frequency of the AC power source when the operation of the boost chopper is continuously stopped, characterised in that the electric power conversion device further comprises a multiphase inverter circuit , which converts a terminal voltage (vdc) of the capacitor into an AC voltage and supplies power to a motor , wherein the multiphase inverter circuit has an output power which is allowed to fluctuate in synchronization with AC power supplied by the AC power source . a converter circuit , which is connected to an AC power source and includes a boost chopper ; a capacitor , which is connected between output terminals of the converter circuit ; a boost chopper controller , which controls operation of the boost chopper , wherein the capacitor has a capacitance allowing the terminal voltage (vdc) of the capacitor to have a pulse frequency twice as high as a frequency of the AC power source when the operation of the boost chopper is continuously stopped, a capacitor , which is connected between output terminals of the converter circuit ; a boost chopper controller , which controls operation of the boost chopper , wherein the capacitor has a capacitance allowing the terminal voltage (vdc) of the capacitor to have a pulse frequency twice as high as a frequency of the AC power source when the operation of the boost chopper is continuously stopped, characterised in that the electric power conversion device further comprises a multiphase inverter circuit , which converts a terminal voltage (vdc) of the capacitor into an AC voltage and supplies power to a motor , wherein the multiphase inverter circuit has an output power which is allowed to fluctuate in synchronization with AC power supplied by the AC power source .
Magnetic actuator for a conveyor apparatus , in particular a diaphragm pump for an operating fluid/auxiliary fluid in a motor vehicle, having a spring-loaded armature which can extend through a solenoid coil and acts on a diaphragm which can impinge an operating chamber of the conveyor apparatus and/or cover or expose, respectively, a seal seat of a valve, wherein the diaphragm is connected to the armature by way of an intermediate layer , and wherein at least one undercut for fixed connection between the intermediate layer and the armature is provided in the armature, characterized in that the diaphragm in the state assembled on the intermediate layer has a sealing bead which can serve as a counterpart to the seal seat of the valve , and the intermediate layer has at least one transverse bore and/or at least one axial bore .
Embolization particles, comprising: at least a first polypeptide having a first average molecular weight; and a second polypeptide having a second average molecular weight smaller than the first average molecular weight, wherein the first average molecular weight is 40,000 to 100,000, 15,000 to 39,000, or 5,000 to 14,000, and wherein the second average molecular weight is 15,000 to 39,000, 5,000 to 14,000, or 500 to 4,000; wherein the first polypeptide and the second polypeptide are cross-linked with each other, and wherein an average molecular weight of the embolization particles is 5,000 to 30,000. at least a first polypeptide having a first average molecular weight; and a second polypeptide having a second average molecular weight smaller than the first average molecular weight, wherein the first average molecular weight is 40,000 to 100,000, 15,000 to 39,000, or 5,000 to 14,000, and wherein the second average molecular weight is 15,000 to 39,000, 5,000 to 14,000, or 500 to 4,000; wherein the first polypeptide and the second polypeptide are cross-linked with each other, and wherein an average molecular weight of the embolization particles is 5,000 to 30,000.
A fluid pump comprising: an actuator , including a piezoelectric element attached to a diaphragm , the diaphragm having a central portion and a peripheral portion, and configured to perform a bending vibration from the central portion to the peripheral portion; a planar section disposed such that the planar section faces the actuator while being in proximity to the actuator ; and a reinforcing plate provided between the piezoelectric element and the diaphragm , the reinforcing plate having a larger coefficient of linear expansion than the piezoelectric element and the diaphragm ; a diaphragm support frame provided around the diaphragm , the diaphragm being connected to the diaphragm support frame via connecting portions , such that there is a space between the diaphragm support frame and the diaphragm , the connecting portions having an elastic structure and being connected between the diaphragm and the diaphragm support frame ; and at least one center vent disposed in a portion at or in an area adjacent the center of an actuator facing area of the planar section that faces the actuator. an actuator , including a piezoelectric element attached to a diaphragm , the diaphragm having a central portion and a peripheral portion, and configured to perform a bending vibration from the central portion to the peripheral portion; a planar section disposed such that the planar section faces the actuator while being in proximity to the actuator ; and a reinforcing plate provided between the piezoelectric element and the diaphragm , the reinforcing plate having a larger coefficient of linear expansion than the piezoelectric element and the diaphragm ; a diaphragm support frame provided around the diaphragm , the diaphragm being connected to the diaphragm support frame via connecting portions , such that there is a space between the diaphragm support frame and the diaphragm , the connecting portions having an elastic structure and being connected between the diaphragm and the diaphragm support frame ; and at least one center vent disposed in a portion at or in an area adjacent the center of an actuator facing area of the planar section that faces the actuator.
Method for determining a carriage speed (v carriage ) of a carriage with the steps of: - Acquiring sensor data available in the carriage as a respective input variable for an observer model ; - Inputting the input variables into the observer model ; - Performing a continuous determining of the carriage speed (v carriage ) by the observer model , characterised in that the observer model determines a drift variable (d), which is determined as the state variable of the observer model , and wherein the drift variable (d) is defined as a value of a - difference of an actual longitudinal acceleration (a x ) of the carriage from a measured longitudinal acceleration (a x,measured ), and/or - difference of a longitudinal acceleration, which is determined from a rotational speed (n), preferably from a wheel rotational speed (n wheel ), from the measured longitudinal acceleration (a x,measured ), and/or - difference of the longitudinal acceleration, which is determined from the rotational speed (n), preferably from the wheel rotational speed (n wheel ), from the actual longitudinal acceleration (a x ). - Acquiring sensor data available in the carriage as a respective input variable for an observer model ; - Inputting the input variables into the observer model ; - Performing a continuous determining of the carriage speed (v carriage ) by the observer model , - difference of an actual longitudinal acceleration (a x ) of the carriage from a measured longitudinal acceleration (a x,measured ), and/or - difference of a longitudinal acceleration, which is determined from a rotational speed (n), preferably from a wheel rotational speed (n wheel ), from the measured longitudinal acceleration (a x,measured ), and/or - difference of the longitudinal acceleration, which is determined from the rotational speed (n), preferably from the wheel rotational speed (n wheel ), from the actual longitudinal acceleration (a x ).
A mixture of HMOs consisting essentially of: - a component A which is 3-FL or DFL, - a component B which is LNT, LNnT, LNFP-I or 2'-FL, - a component C, which is: LNFP-II when component B is LNT, or LNFP-III when component B is LNnT, or LNDFH-I when component B is LNFP-I, or DFL when component B is 2'-FL, and - a component D, which is: lactose when component A is 3-FL, or 2'-FL when component A is DFL, with the proviso that if component B is 2'-FL then component A is 3-FL. - a component A which is 3-FL or DFL, - a component B which is LNT, LNnT, LNFP-I or 2'-FL, - a component C, which is: LNFP-II when component B is LNT, or LNFP-III when component B is LNnT, or LNDFH-I when component B is LNFP-I, or DFL when component B is 2'-FL, and LNFP-II when component B is LNT, or LNFP-III when component B is LNnT, or LNDFH-I when component B is LNFP-I, or DFL when component B is 2'-FL, and - a component D, which is: lactose when component A is 3-FL, or 2'-FL when component A is DFL, with the proviso that if component B is 2'-FL then component A is 3-FL. lactose when component A is 3-FL, or 2'-FL when component A is DFL,
Method for controlling the material flow of an agricultural round baler which is driven by a drive unit in a self-propelled vehicle or by a towing vehicle in a trailer in order to form round bales from harvested crop in a pressing chamber which is provided with a rear outlet for ejecting a finished round bale, said chamber having pressing devices, a harvested crop collector and a subsequent cutting and/or conveying unit , a storage space which attaches to said unit, extends up to an inlet region of the pressing chamber and collects harvested crop during storage phases of the pressing operation, and said round baler having a device for wrapping a finished round bale in binding material in the pressing chamber and a control or regulating device, characterised in that the control and regulating device of the round baler , on the basis of a stored theoretical minimum time for pressing a harvested crop bale that is defined using size and strength as specifiable parameters, and incorporating currently determined harvested crop parameters, controls the crop material flow at any time in the bale formation process such that the predefined bale is produced in the target pressing time determined in each case at maximum machine performance, and in that , by means of constant temporal target-actual comparison depending on the current bale diameter and/or weight as the bale increases in size, the control and regulating device provides a travel speed target value signal to the drive unit or to the towing vehicle, upon which signal the travel speed is controlled automatically.
A prosthetic heart valve , comprising: a stent extending in a longitudinal direction, the stent being formed of a plurality of struts forming cells and having a plurality of commissure features , a collapsed condition and an expanded condition; a valve assembly secured to the stent, the valve assembly including a cuff and a plurality of leaflets, the cuff being formed of a fabric and a second material different from the fabric, the cuff having commissure peaks and a plurality of midpeaks disposed between the commissure peaks, each of the leaflets having a free edge; characterised in that the cuff includes a plurality of triangular buffers formed from the second material, each of the triangular buffers including three edges and being disposed at one of the midpeaks, one of the edges being coupled to the fabric, and two of the edges being coupled to struts such that abrasion between one of the leaflets and the cuff is minimised. a stent extending in a longitudinal direction, the stent being formed of a plurality of struts forming cells and having a plurality of commissure features , a collapsed condition and an expanded condition; a valve assembly secured to the stent, the valve assembly including a cuff and a plurality of leaflets, the cuff being formed of a fabric and a second material different from the fabric, the cuff having commissure peaks and a plurality of midpeaks disposed between the commissure peaks, each of the leaflets having a free edge; characterised in that the cuff includes a plurality of triangular buffers formed from the second material, each of the triangular buffers including three edges and being disposed at one of the midpeaks, one of the edges being coupled to the fabric, and two of the edges being coupled to struts such that abrasion between one of the leaflets and the cuff is minimised.