mhurhangee/ep-ind-claims huggingface dataset:
An electrodeposition coating composition comprising a titanium compound, a base resin and a neutralizer for dispersing the titanium compound and the base resin in water, wherein the titanium compound is at least one type of a titanium compound represented by the following Chemical Formulas to: wherein, n represents an integer of 1 to 10; Y 1 represent OR 4 or 1,3-dicarbonylate derived from a dicarbonyl compound (a-11) of the Chemical Formula, number of Y 1 representing the 1,3-dicarbonylate being m (1≤m≤2n) and total number of Y 1 group being 2n; R 4 may be the same or different from each other, and represent a hydrogen atom or a hydrocarbon group; and at least one among (2n+2-m) of the R 4 is a hydrogen atom; wherein, k represents an integer of 2 or more; Y 2 represent a hydroxy group, an alkoxy group or 1,3-dicarbonylate derived from a dicarbonyl compound (a-11) of the Chemical Formula; at least one among 2k of the Y 2 is the 1,3-dicarbonylate; and a terminal at Ti side and a terminal at O side are bonded with each other; wherein, Y 3 represent a hydroxy group or 1,3-dicarbonylate derived from a dicarbonyl compound (a-11) of the Chemical Formula; and at least one among 2 of the Y 3 group is the 1,3-dicarbonylate; and wherein, Y 3 represent a hydroxy group or 1,3-dicarbonylate derived from a dicarbonyl compound (a-11) of the Chemical Formula; at least one among 2 of the Y 3 is the 1,3-dicarbonylate; and a terminal at Ti side and a terminal at O side are bonded with each other; wherein the dicarbonyl compound (a-11) of the Chemical Formula is represented by wherein, R 1 may be the same or different from each other, and represent a hydrocarbon group, an alkoxy group or a primary or secondary amino group; and R 2 represents a hydrogen atom or a hydrocarbon group.
A laser marking system (100, 100') comprising: a laser; an image capture device; a marking head including electromagnetic energy deflectors (124A, 124B, 170) and at least one lens, a beam path of the laser and a beam path of the image capture device both passing through the at least one lens and the electromagnetic energy deflectors (124A,124B,170); and a computer system, characterized in that the computer system is operable to perform a method comprising: adjusting the electromagnetic energy deflectors (124A, 124B, 170) to direct the beam path of the image capture device to multiple different locations within a marking field of the laser marking system (100, 100'); capturing image tiles at each of the multiple different locations with the image capture device; stitching the image tiles to produce a composite image of the marking field; identifying a location and orientation of an image of a workpiece within the composite image of the marking field; determining a location and orientation of a mark to be applied to the workpiece (X, 315) based on the location and orientation of the image of the workpiece within the composite image of the marking field; and applying the mark to the workpiece (X, 315) with the laser. a laser; an image capture device; a marking head including electromagnetic energy deflectors (124A, 124B, 170) and at least one lens, a beam path of the laser and a beam path of the image capture device both passing through the at least one lens and the electromagnetic energy deflectors (124A,124B,170); and a computer system, characterized in that the computer system is operable to perform a method comprising: adjusting the electromagnetic energy deflectors (124A, 124B, 170) to direct the beam path of the image capture device to multiple different locations within a marking field of the laser marking system (100, 100'); capturing image tiles at each of the multiple different locations with the image capture device; stitching the image tiles to produce a composite image of the marking field; identifying a location and orientation of an image of a workpiece within the composite image of the marking field; determining a location and orientation of a mark to be applied to the workpiece (X, 315) based on the location and orientation of the image of the workpiece within the composite image of the marking field; and applying the mark to the workpiece (X, 315) with the laser. adjusting the electromagnetic energy deflectors (124A, 124B, 170) to direct the beam path of the image capture device to multiple different locations within a marking field of the laser marking system (100, 100'); capturing image tiles at each of the multiple different locations with the image capture device; stitching the image tiles to produce a composite image of the marking field; identifying a location and orientation of an image of a workpiece within the composite image of the marking field; determining a location and orientation of a mark to be applied to the workpiece (X, 315) based on the location and orientation of the image of the workpiece within the composite image of the marking field; and applying the mark to the workpiece (X, 315) with the laser.
A method of controlling a printer, comprising: measuring a voltage value of a power supply of the printer before energizing a plurality of heat generating elements of a print head of the printer; measuring a first voltage value of the power supply at a time when a first number (N 1) of heat generating elements are energized; measuring a second voltage value of the power supply at a time when a second number (N 2) of heat generating elements are energized, the second number (N 2) being different from the first number (N 1); and characterised in that the method further comprising calculating, by a controller of the printer, one of an internal resistance value of the power supply and a resistance value of each of the heat generating elements of the print head from the measured voltage value, the measured first voltage value, the first number (N 1), the measured second voltage value, the second number (N 2), and the other of the internal resistance value and the resistance value. measuring a voltage value of a power supply of the printer before energizing a plurality of heat generating elements of a print head of the printer; measuring a first voltage value of the power supply at a time when a first number (N 1) of heat generating elements are energized; measuring a second voltage value of the power supply at a time when a second number (N 2) of heat generating elements are energized, the second number (N 2) being different from the first number (N 1); and characterised in that the method further comprising calculating, by a controller of the printer, one of an internal resistance value of the power supply and a resistance value of each of the heat generating elements of the print head from the measured voltage value, the measured first voltage value, the first number (N 1), the measured second voltage value, the second number (N 2), and the other of the internal resistance value and the resistance value.
A method for preparing an optical element which colors in a non-uniform linear pattern upon exposure to actinic radiation, the method comprising: (i) providing an optical element which previously has been treated on at least one surface with a photochromic composition comprising at least one first photochromic material, the photochromic composition having an absorbance spectrum in the wavelength region of photochromic activation; (ii) preparing at least one light-absorbing composition comprising at least one ultraviolet light absorber, at least one second photochromic material which is the same or different than the first photochromic material, or mixtures thereof, the light-absorbing composition having an absorbance spectrum which substantially overlaps with the absorbance spectrum of the photochromic composition in the region of photochromic activation; (iii) depositing the at least one light-absorbing composition over the surface of the optical element that has been treated with the photochromic composition in a controlled, predetermined pattern using an inkjet printing apparatus so as to provide a linearly gradient color pattern on the optical element upon exposure to actinic radiation; and (iv) drying the light-absorbing composition, wherein the method comprises leveling the light-absorbing composition during the depositing step of (iii) or immediately thereafter, but prior to the drying step (iv). (i) providing an optical element which previously has been treated on at least one surface with a photochromic composition comprising at least one first photochromic material, the photochromic composition having an absorbance spectrum in the wavelength region of photochromic activation; (ii) preparing at least one light-absorbing composition comprising at least one ultraviolet light absorber, at least one second photochromic material which is the same or different than the first photochromic material, or mixtures thereof, the light-absorbing composition having an absorbance spectrum which substantially overlaps with the absorbance spectrum of the photochromic composition in the region of photochromic activation; (iii) depositing the at least one light-absorbing composition over the surface of the optical element that has been treated with the photochromic composition in a controlled, predetermined pattern using an inkjet printing apparatus so as to provide a linearly gradient color pattern on the optical element upon exposure to actinic radiation; and (iv) drying the light-absorbing composition,
A rotary knob (1, 101) for actuating a cylinder adapter, comprising: - a main body (5, 105) with a battery recess (23, 123), and - a battery compartment (8, 108) for receiving a battery (9, 109), - wherein the battery compartment (8, 108) can be pushed into the battery recess (23, 123), characterized in that - the battery (9, 109) is electrically contacted with at least one electric component of the main body (5, 105) exclusively via the battery compartment (8, 108). - a main body (5, 105) with a battery recess (23, 123), and - a battery compartment (8, 108) for receiving a battery (9, 109), - wherein the battery compartment (8, 108) can be pushed into the battery recess (23, 123), - the battery (9, 109) is electrically contacted with at least one electric component of the main body (5, 105) exclusively via the battery compartment (8, 108).
A roller bearing comprising: an inner race ring; an outer race ring; and a roller arranged between and in contact with the inner and outer rings (130, 120); wherein the bearing has a flange on the inner race ring at one axial end, and a flange on the outer race ring at an opposite axial end; wherein at least one of the flanges (121, 131), or an end of the roller, has a profile including a principal segment (153; 135) with a reference point C defining a contact location between the roller and the flange (121, 131), characterised in that the principal segment (153; 135) has a continuously changing radius of curvature, on both sides of reference point C, that decreases as a distance from the reference point C increases. an inner race ring; an outer race ring; and a roller arranged between and in contact with the inner and outer rings (130, 120); wherein the bearing has a flange on the inner race ring at one axial end, and a flange on the outer race ring at an opposite axial end; wherein at least one of the flanges (121, 131), or an end of the roller, has a profile including a principal segment (153; 135) with a reference point C defining a contact location between the roller and the flange (121, 131), characterised in that the principal segment (153; 135) has a continuously changing radius of curvature, on both sides of reference point C, that decreases as a distance from the reference point C increases.
A millimeter wave security inspection apparatus, comprising: a door device comprising a first door and a second door facing each other, each of the first door and the second door being made of a material allowing a millimeter wave to penetrate there through; a millimeter wave transceiver provided between the first door and the second door and comprising an millimeter wave transceiving antenna array configured to transmit a millimeter wave signal to an entrance side and an exit side of the door device, respectively, and to receive the millimeter wave signal reflected from the entrance side and the exit side of the door device, respectively; and characterized in that the apparatus comprises further a linear driver, the millimeter wave transceiver being connected to the linear driver to be movable in a space between the first door and the second door relative to the door device under driving of the linear driver, so as to scan a first side of an object to be inspected in a state where the object is positioned at the entrance side and to a second side of the object opposite to the first side in a state where the object is positioned at the exit side. a door device comprising a first door and a second door facing each other, each of the first door and the second door being made of a material allowing a millimeter wave to penetrate there through; a millimeter wave transceiver provided between the first door and the second door and comprising an millimeter wave transceiving antenna array configured to transmit a millimeter wave signal to an entrance side and an exit side of the door device, respectively, and to receive the millimeter wave signal reflected from the entrance side and the exit side of the door device, respectively; and characterized in that the apparatus comprises further a linear driver, the millimeter wave transceiver being connected to the linear driver to be movable in a space between the first door and the second door relative to the door device under driving of the linear driver, so as to scan a first side of an object to be inspected in a state where the object is positioned at the entrance side and to a second side of the object opposite to the first side in a state where the object is positioned at the exit side.
An issuing machine for transacting a hardcopy certificate comprising: receiving means for receiving an ID recording medium provided by a potential purchaser; information retrieving means for retrieving identification recoded in the received ID recording medium; input means for the potential purchaser to input a request for a transaction of a security or fixed rate financing instrument; transaction processing means for processing the requested transaction by retrieving information via a network from a server; and printing means for printing out said hardcopy certificate as purchased by the potential purchaser and a cryptographic checksum thereon, further comprising scanning means for scanning a hardcopy document inserted by a holder, and determining means for determining whether the hardcopy document was issued by an issuing machine linked with the issuing machine according to at least a scanned cryptographic checksum, wherein said printing means further prints a random pattern on said hardcopy certificate, said scanning means scans said hardcopy certificate with the random pattern prior to providing said hardcopy certificate to the purchaser. receiving means for receiving an ID recording medium provided by a potential purchaser; information retrieving means for retrieving identification recoded in the received ID recording medium; input means for the potential purchaser to input a request for a transaction of a security or fixed rate financing instrument; transaction processing means for processing the requested transaction by retrieving information via a network from a server; and printing means for printing out said hardcopy certificate as purchased by the potential purchaser and a cryptographic checksum thereon, further comprising scanning means for scanning a hardcopy document inserted by a holder, and determining means for determining whether the hardcopy document was issued by an issuing machine linked with the issuing machine according to at least a scanned cryptographic checksum, wherein said printing means further prints a random pattern on said hardcopy certificate, said scanning means scans said hardcopy certificate with the random pattern prior to providing said hardcopy certificate to the purchaser.
Catheter for percutaneous feeding, comprising: - a tube for extending through a stoma of a patient; - an outer member fixed or fixable on the tube to rest against the patient's skin; and - an inner member fixed or fixable on the tube to rest against an internal patient's lumen wall, characterized in that the tube comprises a stretchable section (100A-100D) arrangeable between the outer member and the inner member being stretchable in length, wherein a retaining structure (13A-13D) is provided limiting the length of the stretchable section (100A-100D), wherein the stretchable section (100A-100D) connects a first adjacent section with a second adjacent section and the retaining structure (13A-13D) connects the first adjacent section with the second adjacent section. - a tube for extending through a stoma of a patient; - an outer member fixed or fixable on the tube to rest against the patient's skin; and - an inner member fixed or fixable on the tube to rest against an internal patient's lumen wall,
A forklift truck comprising a chassis having two driven, steerable front wheels (12L, 12R) and a single driven rear wheel disposed centrally between, but displaced rearwardly of, the front wheels, wherein the truck is operable in a sideways mode in which the rear wheel is fixed at an angle substantially parallel to an axis passing through the two front wheels and the two front wheels are steered in synchronism in opposite directions of rotation, and wherein the truck is operable in a rotational mode in which the centre of rotation of the truck is disposed inside a notional circle passing through all three wheels; characterised in that the truck enters the rotational mode from the sideways mode by automatic reversal of the drive direction of the rear wheel when the centre of rotation moves from outside to inside the notional circle.
A method for obtaining an electrode structure, comprising: - providing a first carrier substrate; - depositing a first release layer on the first carrier substrate, wherein the first release layer comprises a polymer, and wherein a mean peak to valley roughness of a surface of the first release layer opposite the first carrier substrate is between 0.1 μm and 1 μm; - depositing a first protective layer on the surface of the first release layer; - depositing a first electroactive material layer on the first protective layer; - delaminating the first carrier substrate from the first release layer; and - dissolving at least a portion of the polymer in an electrolyte so as to remove at least a portion of the release layer from the first protective layer. - providing a first carrier substrate; - depositing a first release layer on the first carrier substrate, wherein the first release layer comprises a polymer, and wherein a mean peak to valley roughness of a surface of the first release layer opposite the first carrier substrate is between 0.1 μm and 1 μm; - depositing a first protective layer on the surface of the first release layer; - depositing a first electroactive material layer on the first protective layer; - delaminating the first carrier substrate from the first release layer; and - dissolving at least a portion of the polymer in an electrolyte so as to remove at least a portion of the release layer from the first protective layer.
A luminescent particle, wherein the luminescent particle comprises a nanosized phosphor, a polymer material covering the nanosized phosphor, and a shell layer covering the polymer material, wherein the shell layer is selected from the group consisting of a metal hydroxide, metal carbonate hydroxide, metal polyphosphate and a combination of any of these.
A computer system for modifying at least one compressed chunk of elements stored in a main storage area and a temporary memory, where elements are variable-sized data records, characterised by comprising: a root storage stored 210 in the main storage area 30 and the temporary memory 110; a model directory 300 stored in the root storage; at least one model stored in the model directory; at least one graphic element list 311 stored in each model 310, wherein graphic elements have a physical representation that occupies geometric space and can be drawn on a computer screen or plotter; at least one control element list 312 stored in each model, wherein control elements hold information pertinent to the model having no corresponding physical representation; at least one compressed element chunk 320 stored in each graphic element list and control element list, wherein each element chunk comprises compressed elements; means for decompressing the element chunks and elements in the graphic element list and control element list in the temporary memory; means for modifying elements in the temporary memory; means for flagging the element chunks having the modified elements in the temporary memory; means for compressing the element chunks having the modified elements in temporary memory to provide modified compressed element chunks after a predetermined idle time has passed; and means for replacing the compressed element chunks in the main storage area with the modified compressed element chunks. a root storage stored 210 in the main storage area 30 and the temporary memory 110; a model directory 300 stored in the root storage; at least one model stored in the model directory; at least one graphic element list 311 stored in each model 310, wherein graphic elements have a physical representation that occupies geometric space and can be drawn on a computer screen or plotter; at least one control element list 312 stored in each model, wherein control elements hold information pertinent to the model having no corresponding physical representation; at least one compressed element chunk 320 stored in each graphic element list and control element list, wherein each element chunk comprises compressed elements; means for decompressing the element chunks and elements in the graphic element list and control element list in the temporary memory; means for modifying elements in the temporary memory; means for flagging the element chunks having the modified elements in the temporary memory; means for compressing the element chunks having the modified elements in temporary memory to provide modified compressed element chunks after a predetermined idle time has passed; and means for replacing the compressed element chunks in the main storage area with the modified compressed element chunks.