mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the thickness profile of a work product, comprising: Scanning a work product with an X-ray scanner, Analyzing the data from the X-ray scanner with a computer processor to develop a thickness profile of the work product, Scanning the work product with an optical scanner, Analyzing the data from the optical scanner with a computer processor to develop a thickness profile of the work product based on the optical scanning data, Comparing the thickness profiles from the X-ray scanning data and the optical scanning data and determining the differences between the thickness profiles from the X-ray scanning data and the optical scanning data, and Mapping the location(s) on the work product where a difference exists between the thickness profiles from the X-ray scanning data and the optical scanning data. Scanning a work product with an X-ray scanner, Analyzing the data from the X-ray scanner with a computer processor to develop a thickness profile of the work product, Scanning the work product with an optical scanner, Analyzing the data from the optical scanner with a computer processor to develop a thickness profile of the work product based on the optical scanning data, Comparing the thickness profiles from the X-ray scanning data and the optical scanning data and determining the differences between the thickness profiles from the X-ray scanning data and the optical scanning data, and Mapping the location(s) on the work product where a difference exists between the thickness profiles from the X-ray scanning data and the optical scanning data.
An alkaline storage battery, comprising: an outer can having an open upper end; an electrode group including a positive electrode and a negative electrode that are stacked via a separator, the electrode group being housed in the outer can together with alkali electrolyte; a sealing body fixed to an opening edge of the outer can in an insulated state, the sealing body having a lid plate that seals the opening and a positive electrode terminal electrically connected to the lid plate; and a positive electrode lead that electrically connects the positive electrode and the sealing body, wherein the positive electrode lead includes a first lead half body electrically connected to the sealing body, a second lead half body electrically connected to the positive electrode, and a PTC thermistor disposed between the first lead half body and the second lead half body, the first lead half body and the second lead half body respectively have overlap end portions formed in a portion where the first lead half body and the second lead half body overlap with each other, the overlap end portions being larger than the PTC thermistor as viewed from a plane and being in contact with the PTC thermistor, the PTC thermistor is fitted in a fitting recessed portion formed in the overlap end portion of at least one of the first lead half body and the second lead half body, and an exposed portion of the PTC thermistor which is not covered with the overlap end portions of the first lead half body and the second lead half body is covered with a protective material. an outer can having an open upper end; an electrode group including a positive electrode and a negative electrode that are stacked via a separator, the electrode group being housed in the outer can together with alkali electrolyte; a sealing body fixed to an opening edge of the outer can in an insulated state, the sealing body having a lid plate that seals the opening and a positive electrode terminal electrically connected to the lid plate; and a positive electrode lead that electrically connects the positive electrode and the sealing body, wherein
A method for calibrating a digital imager using a sequence of P input images (An) acquired beforehand by the imager, consisting of an image content and a non-uniformity defect, to which images a calibrating image (C_REF) is applied to obtain a sequence of P output images (Yn,..., Yn-p), characterized in that the calibration is carried out by updating the calibrating image (C_REF) by estimating, in an iteration n, n being an integer higher than or equal to 1, an image (Cn) representative of the calibrating image (C_REF), wherein said representative image (Cn) is a patch of said non-uniformity defect, in that an initial image representative of the calibrating image (C_REF) is defined, in that a first mathematical transformation is chosen, having properties designed to separate the image content from said non-uniformity defect that is able to transform an output image (Yn) into an image (Zn), which is called the transform of the output image (Yn), and for which there is a second mathematical transformation, called inverse transformation, capable of transforming the transform of the output image (Zn) into the image (Yn), which is called the inverse transform (Zn) of the transform of the output image (Yn), and in that the estimation of the image (Cn) representative of the calibrating image (C_REF) comprises the following steps: • transforming at least one of the P output images (Yn), giving an image (Zn) of the transform of the output image (Yn); • estimating an image (MZn) representative of the transform of an image of a deviation (dCn) between the initial image representative of the calibrating image (C_REF) and the calibrating image (C_REF) from at least the representative image (MZn-1) of the preceding iteration and the image (Zn) of the transform of the most recent output image (Yn) in the sequence of the P images (Yn,..., Yn-p) • inversely transforming, according to the second mathematical transformation, the representative image (MZn) to obtain the image of the deviation (dCn); • combining the initial image and the image of the deviation (dCn) and obtaining the image (Cn) representative of the calibrating image (C_REF). • transforming at least one of the P output images (Yn), giving an image (Zn) of the transform of the output image (Yn); • estimating an image (MZn) representative of the transform of an image of a deviation (dCn) between the initial image representative of the calibrating image (C_REF) and the calibrating image (C_REF) from at least the representative image (MZn-1) of the preceding iteration and the image (Zn) of the transform of the most recent output image (Yn) in the sequence of the P images (Yn,..., Yn-p) • inversely transforming, according to the second mathematical transformation, the representative image (MZn) to obtain the image of the deviation (dCn); • combining the initial image and the image of the deviation (dCn) and obtaining the image (Cn) representative of the calibrating image (C_REF).
A process for preparing a paint composition, comprising: dispersing a plurality of pre-treated titanium dioxide particles, which have been surface-treated with a metal oxide, along with an oligomeric/polymeric dispersant, in a first dispersion medium; mixing a pre-treated nanoparticle pigment, which has been surface-treated with an oligomeric/polymeric dispersant to, and the first dispersion medium containing the titanium dioxide particles; and interacting the nanoparticle pigment and the titanium dioxide particles to form a paint matrix where the nanoparticle pigment is uniformly distributed within the paint matrix. dispersing a plurality of pre-treated titanium dioxide particles, which have been surface-treated with a metal oxide, along with an oligomeric/polymeric dispersant, in a first dispersion medium; mixing a pre-treated nanoparticle pigment, which has been surface-treated with an oligomeric/polymeric dispersant to, and the first dispersion medium containing the titanium dioxide particles; and interacting the nanoparticle pigment and the titanium dioxide particles to form a paint matrix where the nanoparticle pigment is uniformly distributed within the paint matrix.
A method of operation of a wireless device in a cellular communication network, comprising: determining the system bandwidth of a downlink carrier (700, 802); determining the number of time domain units per frame in a downlink signal that carry reference symbols as a function of the system bandwidth (702, 704); receiving (106, 206, 306, 406, 508, 610, 706) the downlink signal on the downlink carrier from a base station; processing (108, 208, 308, 408, 510, 612, 708) the reference symbols in the downlink signal; wherein determining the system bandwidth comprises: detecting a primary synchronization signal in a subframe N, where the subframe N+D is known to carry reference symbols; determining whether reference symbols are carried in subframe N+D+1; in response to determining that reference symbols are not carried in the subframe N+D+1, determining that the system bandwidth is a first predetermined value; and in response to determining that reference symbols are carried in the subframe N+D+1: determining whether reference symbols are carried in the subframe N+D+2; and in response to determining that reference symbols are not carried in subframe N+D+2, determining that the system bandwidth is a second predetermined value that is less than the first predetermined value. determining the system bandwidth of a downlink carrier (700, 802); determining the number of time domain units per frame in a downlink signal that carry reference symbols as a function of the system bandwidth (702, 704); receiving (106, 206, 306, 406, 508, 610, 706) the downlink signal on the downlink carrier from a base station; processing (108, 208, 308, 408, 510, 612, 708) the reference symbols in the downlink signal; wherein determining the system bandwidth comprises: detecting a primary synchronization signal in a subframe N, where the subframe N+D is known to carry reference symbols; determining whether reference symbols are carried in subframe N+D+1; in response to determining that reference symbols are not carried in the subframe N+D+1, determining that the system bandwidth is a first predetermined value; and in response to determining that reference symbols are carried in the subframe N+D+1: determining whether reference symbols are carried in the subframe N+D+2; and detecting a primary synchronization signal in a subframe N, where the subframe N+D is known to carry reference symbols; determining whether reference symbols are carried in subframe N+D+1; in response to determining that reference symbols are not carried in the subframe N+D+1, determining that the system bandwidth is a first predetermined value; and in response to determining that reference symbols are carried in the subframe N+D+1: determining whether reference symbols are carried in the subframe N+D+2; and in response to determining that reference symbols are not carried in subframe N+D+2, determining that the system bandwidth is a second predetermined value that is less than the first predetermined value.
A valve system for use in a body lumen, comprising: a valve (100, 500, 600, 700, 800, 900), comprising: a frame comprising corner portions and intermediate portions, a cover (104, 504, 604) on the frame (102, 402, 502, 602), where the cover (104, 504, 604) includes surfaces defining a reversibly sealable opening (156, 656) for unidirectional flow of a liquid through the valve (100, 500, 600, 700, 800, 900), wherein the frame (102, 402, 502, 602) includes at least a first planar surface (106, 406) including a predetermined width (108, 408, characterized by the first planar surface (106, 406) turning from its essentially symmetrical relation to the outer diameter of the frame (102, 402, 502, 602) to form the corner portions, so that the first planar surface (106, 406) forms an inner surface of the corner portions, and wherein intermediate portions include at least a partial helical configuration. a valve (100, 500, 600, 700, 800, 900), comprising: a frame comprising corner portions and intermediate portions, a cover (104, 504, 604) on the frame (102, 402, 502, 602), where the cover (104, 504, 604) includes surfaces defining a reversibly sealable opening (156, 656) for unidirectional flow of a liquid through the valve (100, 500, 600, 700, 800, 900), wherein the frame (102, 402, 502, 602) includes at least a first planar surface (106, 406) including a predetermined width (108, 408, characterized by the first planar surface (106, 406) turning from its essentially symmetrical relation to the outer diameter of the frame (102, 402, 502, 602) to form the corner portions, so that the first planar surface (106, 406) forms an inner surface of the corner portions, and wherein intermediate portions include at least a partial helical configuration. a frame comprising corner portions and intermediate portions, a cover (104, 504, 604) on the frame (102, 402, 502, 602), where the cover (104, 504, 604) includes surfaces defining a reversibly sealable opening (156, 656) for unidirectional flow of a liquid through the valve (100, 500, 600, 700, 800, 900), wherein the frame (102, 402, 502, 602) includes at least a first planar surface (106, 406) including a predetermined width (108, 408, characterized by the first planar surface (106, 406) turning from its essentially symmetrical relation to the outer diameter of the frame (102, 402, 502, 602) to form the corner portions, so that the first planar surface (106, 406) forms an inner surface of the corner portions, and wherein intermediate portions include at least a partial helical configuration.
A medical, in particular dental, handpiece, comprising: an outer sleeve, a tool-holding sleeve for holding a treatment tool, wherein the tool-holding sleeve comprises a central axis about which the tool-holding sleeve can be rotated and wherein the tool-holding sleeve can be induced to a stroke motion by a driveshaft of the handpiece, and an adjusting device which is configured to selectively secure the tool-holding sleeve in a rotational position or to allow a free rotatability of the tool-holding sleeve, wherein the adjusting device comprises a fixation element which secures or releases the tool-holding sleeve and an adjusting element which is at least operatively connected to the fixation element, wherein the adjusting element is movable substantially parallel to the central axis of the tool-holding sleeve, characterized in that the tool-holding sleeve comprises on its outside surface at least one recess, preferably concave in shape, to receive the fixation element.
Transport system for transporting workpieces, comprising a travel path, several objects arranged along the travel path, a driverless transport vehicle having a workpiece holder and a personal protection sensor, which comprises a transmitter for generating detection radiation and a receiver adapted to receive detection radiation generated by the transmitter and reflected from persons or objects located in a monitoring area monitored by the detection radiation, a control device configured to steer the transport vehicle along the travel path in such a way that it does not collide with the objects, and to trigger a safety measure if the personal protection sensor has detected a person in the monitoring area, characterized in that the objects carry a coating or cladding that absorbs detection radiation incident thereon or reflects it in such a direction that it cannot reach the receiver. a travel path, several objects arranged along the travel path, a driverless transport vehicle having a workpiece holder and a personal protection sensor, which comprises a transmitter for generating detection radiation and a receiver adapted to receive detection radiation generated by the transmitter and reflected from persons or objects located in a monitoring area monitored by the detection radiation, a transmitter for generating detection radiation and a receiver adapted to receive detection radiation generated by the transmitter and reflected from persons or objects located in a monitoring area monitored by the detection radiation, a control device configured to steer the transport vehicle along the travel path in such a way that it does not collide with the objects, and to trigger a safety measure if the personal protection sensor has detected a person in the monitoring area, to steer the transport vehicle along the travel path in such a way that it does not collide with the objects, and to trigger a safety measure if the personal protection sensor has detected a person in the monitoring area, characterized in that the objects carry a coating or cladding that absorbs detection radiation incident thereon or reflects it in such a direction that it cannot reach the receiver.
Liquid formulation which can be produced by dissolving at least one indium alkoxide compound which can be prepared by reacting - an indium trihalide InX 3 where X = F, Cl, Br, I - with a secondary amine of the formula R' 2 NH where R' = alkyl, o in a molar ratio of from 8:1 to 20:1 to the indium trihalide - in the presence of an alcohol of the generic formula ROH where R = alkyl in at least one solvent. - an indium trihalide InX 3 where X = F, Cl, Br, I - with a secondary amine of the formula R' 2 NH where R' = alkyl, o in a molar ratio of from 8:1 to 20:1 to the indium trihalide o in a molar ratio of from 8:1 to 20:1 to the indium trihalide - in the presence of an alcohol of the generic formula ROH where R = alkyl
An exercise device configured for use by a user, the exercise device comprising: a supporting frame; a pedal mounting assembly attached to the supporting frame at a tilt angle to the vertical (line 123), the tilt angle having a value greater than 0° and less than or equal to 90°; two pedal supports, each of the two pedal supports affixed to the pedal mounting assembly via a respective pedal crank assembly (56, 58) at an attachment angle to the vertical (line 123), the attachment angle having a value greater than 0° and less than or equal to 90°, the two pedal supports being parallel to one another; and two pedals, each of the two pedals attached to and supported by a respective one of the two pedal supports, the two pedals providing for counter-rotating circular motion in a plane rotated at the attachment angle to the vertical, wherein the pedal crank assemblies (56, 58) comprise arms that are perpendicular to their axis of rotation. a supporting frame; a pedal mounting assembly attached to the supporting frame at a tilt angle to the vertical (line 123), the tilt angle having a value greater than 0° and less than or equal to 90°; two pedal supports, each of the two pedal supports affixed to the pedal mounting assembly via a respective pedal crank assembly (56, 58) at an attachment angle to the vertical (line 123), the attachment angle having a value greater than 0° and less than or equal to 90°, the two pedal supports being parallel to one another; and two pedals, each of the two pedals attached to and supported by a respective one of the two pedal supports, the two pedals providing for counter-rotating circular motion in a plane rotated at the attachment angle to the vertical, wherein the pedal crank assemblies (56, 58) comprise arms that are perpendicular to their axis of rotation.
A battery compartment, comprising: a frame; a main body mounted to the frame; a cover rotatably mounted to the main body, the cover defining a blocking groove; and an elastic pushing rod mounted on the frame, the pushing rod being configured for inserting into the blocking groove to elastically support the cover when the cover is rotated, characterized in that: an end of the cover extends to form a protrusion portion, the blocking groove is defined on the protrusion portion, the main body defines a concaved portion, and the protrusion portion is accommodated in the concaved portion; the battery compartment further comprises a pivot, wherein the pivot enables the cover to rotatably mount to the main body, the pivot comprises two opposite ends, the pivot is rotatably inserted into the protrusion portion, the two opposite ends oppositely extend out of the protrusion portion and insert into the main body; the concaved portion defines two opposite pivot holes, the two opposite ends are respectively inserted into the two opposite pivot holes. a frame; a main body mounted to the frame; a cover rotatably mounted to the main body, the cover defining a blocking groove; and an elastic pushing rod mounted on the frame, the pushing rod being configured for inserting into the blocking groove to elastically support the cover when the cover is rotated, characterized in that: an end of the cover extends to form a protrusion portion, the blocking groove is defined on the protrusion portion, the main body defines a concaved portion, and the protrusion portion is accommodated in the concaved portion; the battery compartment further comprises a pivot, wherein the pivot enables the cover to rotatably mount to the main body, the pivot comprises two opposite ends, the pivot is rotatably inserted into the protrusion portion, the two opposite ends oppositely extend out of the protrusion portion and insert into the main body; the concaved portion defines two opposite pivot holes, the two opposite ends are respectively inserted into the two opposite pivot holes. an end of the cover extends to form a protrusion portion, the blocking groove is defined on the protrusion portion, the main body defines a concaved portion, and the protrusion portion is accommodated in the concaved portion; the battery compartment further comprises a pivot, wherein the pivot enables the cover to rotatably mount to the main body, the pivot comprises two opposite ends, the pivot is rotatably inserted into the protrusion portion, the two opposite ends oppositely extend out of the protrusion portion and insert into the main body; the concaved portion defines two opposite pivot holes, the two opposite ends are respectively inserted into the two opposite pivot holes.
A method for generating an oligonucleotide having a predefined sequence, the method comprising: (a) designing at least one plurality of oligonucleotides, each oligonucleotide of each plurality of oligonucleotides having a different length, each oligonucleotide having a predefined internal sequence, a 3' flanking sequence at the 3' end of the internal sequence and a 5' flanking sequence at the 5' end of the internal sequence, wherein the 3' flanking sequence comprises a primer recognition site, a restriction enzyme recognition site, and a padding nucleotide sequence; and wherein each oligonucleotide of each plurality of oligonucleotides comprises a padding nucleotide sequence of a different length; wherein the 5' flanking sequence comprises a primer recognition site and a restriction enzyme recognition site; (b) synthesizing the at least one plurality of oligonucleotides on a solid support; and (c) isolating the oligonucleotide having the predefined internal sequence. (a) designing at least one plurality of oligonucleotides, each oligonucleotide of each plurality of oligonucleotides having a different length, each oligonucleotide having a predefined internal sequence, a 3' flanking sequence at the 3' end of the internal sequence and a 5' flanking sequence at the 5' end of the internal sequence, wherein the 3' flanking sequence comprises a primer recognition site, a restriction enzyme recognition site, and a padding nucleotide sequence; and wherein each oligonucleotide of each plurality of oligonucleotides comprises a padding nucleotide sequence of a different length; wherein the 5' flanking sequence comprises a primer recognition site and a restriction enzyme recognition site; wherein the 3' flanking sequence comprises a primer recognition site, a restriction enzyme recognition site, and a padding nucleotide sequence; and wherein each oligonucleotide of each plurality of oligonucleotides comprises a padding nucleotide sequence of a different length; wherein the 5' flanking sequence comprises a primer recognition site and a restriction enzyme recognition site; (b) synthesizing the at least one plurality of oligonucleotides on a solid support; and (c) isolating the oligonucleotide having the predefined internal sequence.