mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining a conformity factor with regard to the colour conformity of a printed product with specified target values for colours, comprising the following steps: a) Determining the target values for colours of the printed product to be printed in a defined colour space in a source printing process, b) identifying the print data set specified for a target printing process based on printing process parameters that have been changed with respect to the source printing process, c) transforming the print data set for the printed product to be printed for use in the target printing process using a specified transformation method, d) Generating a printout of the printed product together with measurement fields of this print in the target printing process, e) Spectrally measuring the measurement fields of the printout according to d) to record the actual values, f) Comparing the target values with the actual values, characterised by the successive steps: g) Defining a colour value axis from a unique colour value as the starting point to a second unique colour value as the end point, while simultaneously defining the reference points between the two colour values, h) Determining the target values for the starting point, the end point and the reference points, i) Determining the actual values for the starting point, the end point and the reference points, j) Determining a distance value representing the distance between the target value and the actual value for each of the start points, end points and support points, k) Calculating and outputting a conformity factor in the form of percentage values as a statistical mean value from the distance values. a) Determining the target values for colours of the printed product to be printed in a defined colour space in a source printing process, b) identifying the print data set specified for a target printing process based on printing process parameters that have been changed with respect to the source printing process, c) transforming the print data set for the printed product to be printed for use in the target printing process using a specified transformation method, d) Generating a printout of the printed product together with measurement fields of this print in the target printing process, e) Spectrally measuring the measurement fields of the printout according to d) to record the actual values, f) Comparing the target values with the actual values, g) Defining a colour value axis from a unique colour value as the starting point to a second unique colour value as the end point, while simultaneously defining the reference points between the two colour values, h) Determining the target values for the starting point, the end point and the reference points, i) Determining the actual values for the starting point, the end point and the reference points, j) Determining a distance value representing the distance between the target value and the actual value for each of the start points, end points and support points, k) Calculating and outputting a conformity factor in the form of percentage values as a statistical mean value from the distance values.
Apparatus for inspecting a pharmaceutical cylindrical container made of glass or of a polymer, wherein the apparatus comprises a handling device and a friction wheel , wherein said handling device comprises at least one holding means , for holding said container on its lateral surface, wherein said holding means comprises at least a first support wheel and a second support wheel for supporting said container , wherein said container is rotatable around its longitudinal axis by rotating said first and second support wheels and/or by rotating said friction wheel , wherein a rotational axis of said first support wheel and said longitudinal axis of said container define a first plane , wherein a rotational axis of said second support wheel and said longitudinal axis of said container define a second plane , and wherein said first plane and said second plane intersect at an angle in a range of 45° to less than 120°, preferably 50° to 90°, more preferably of 60° to 80°, more preferably of 65° to 75°, most preferably at an angle of about 70°, wherein said container is laying with its lateral surface horizontally on said support wheels during said inspection. wherein said handling device comprises at least one holding means , for holding said container on its lateral surface, wherein said holding means comprises at least a first support wheel and a second support wheel for supporting said container , wherein said container is rotatable around its longitudinal axis by rotating said first and second support wheels and/or by rotating said friction wheel , wherein a rotational axis of said first support wheel and said longitudinal axis of said container define a first plane , wherein a rotational axis of said second support wheel and said longitudinal axis of said container define a second plane , and wherein said first plane and said second plane intersect at an angle in a range of 45° to less than 120°, preferably 50° to 90°, more preferably of 60° to 80°, more preferably of 65° to 75°, most preferably at an angle of about 70°, wherein said container is laying with its lateral surface horizontally on said support wheels during said inspection.
N-(2-methoxycyclobutyl)-7-(methylamino)-5-((2-oxo-2H-[1,2'-bipyridin]-3-yl)amino)pyrazolo[1,5-a]pyrimidine-3-carboxamide or a pharmaceutically acceptable salt thereof.
A shielded coil assembly , comprising: a coil having an outer surface , an inner surface , an upper end surface and a lower end surface and a first insulating material formed over the outer surface , inner surface , upper end surface and lower end surface of the coil ; and a conductive shield comprising a conductive paint applied along the first insulating material so that the conductive paint extends over at least a portion of each of the outer surface , inner surface , upper end surface , and lower end surface of the coil ; wherein the conductive paint includes a loop separator region having an interruption in the conductive paint along the outer surface , inner surface , upper end surface , and lower end surface of the coil ; and wherein the loop separator region comprises a gap in the conductive paint that extends around the outer surface , inner surface , upper end surface , and lower end surface of the coil to form an open loop in the conductive paint; characterized in that the shielded coil assembly further comprises a semi-conductive paint applied to the first insulating material underneath of the conductive paint. a coil having an outer surface , an inner surface , an upper end surface and a lower end surface and a first insulating material formed over the outer surface , inner surface , upper end surface and lower end surface of the coil ; and a conductive shield comprising a conductive paint applied along the first insulating material so that the conductive paint extends over at least a portion of each of the outer surface , inner surface , upper end surface , and lower end surface of the coil ; wherein the conductive paint includes a loop separator region having an interruption in the conductive paint along the outer surface , inner surface , upper end surface , and lower end surface of the coil ; and wherein the loop separator region comprises a gap in the conductive paint that extends around the outer surface , inner surface , upper end surface , and lower end surface of the coil to form an open loop in the conductive paint; characterized in that wherein the conductive paint includes a loop separator region having an interruption in the conductive paint along the outer surface , inner surface , upper end surface , and lower end surface of the coil ; and wherein the loop separator region comprises a gap in the conductive paint that extends around the outer surface , inner surface , upper end surface , and lower end surface of the coil to form an open loop in the conductive paint; characterized in that the shielded coil assembly further comprises a semi-conductive paint applied to the first insulating material underneath of the conductive paint.
A scanning head-mounted display system , comprising: a light source (102, 902a-b, 1002a-b); a motion sensor ; a scanning mirror system configured to scan light from the light source to form an image; and a controller configured to control the scanning mirror system to scan the light in a first direction at a higher frequency and in a second direction at a lower frequency to thereby scan the light in an interlaced pattern to form the image wherein traces of the light source exhibit at least partial sinusoidal motion, receive head motion data from the motion sensor, determine a rate of acceleration and use the determined rate of acceleration to compute a likely head velocity at the time of image display, and adjust one or more of a scan rate in the second direction and a phase offset between a first frame and a second frame of the interlaced pattern based upon the likely head velocity. a light source (102, 902a-b, 1002a-b); a motion sensor ; a scanning mirror system configured to scan light from the light source to form an image; and a controller configured to control the scanning mirror system to scan the light in a first direction at a higher frequency and in a second direction at a lower frequency to thereby scan the light in an interlaced pattern to form the image wherein traces of the light source exhibit at least partial sinusoidal motion, receive head motion data from the motion sensor, determine a rate of acceleration and use the determined rate of acceleration to compute a likely head velocity at the time of image display, and adjust one or more of a scan rate in the second direction and a phase offset between a first frame and a second frame of the interlaced pattern based upon the likely head velocity. control the scanning mirror system to scan the light in a first direction at a higher frequency and in a second direction at a lower frequency to thereby scan the light in an interlaced pattern to form the image wherein traces of the light source exhibit at least partial sinusoidal motion, receive head motion data from the motion sensor, determine a rate of acceleration and use the determined rate of acceleration to compute a likely head velocity at the time of image display, and adjust one or more of a scan rate in the second direction and a phase offset between a first frame and a second frame of the interlaced pattern based upon the likely head velocity.
A tunable antenna system comprising: an electrically small antenna configured to operate in a range of low-band frequencies and a range of high-band frequencies, the electrically small antenna having a largest dimension that is substantially equal to or less than one-tenth of a length of a wavelength corresponding to a frequency within the range of low-band frequencies; a signal node (S); and a tunable band-stop circuit in communication between the electrically small antenna and the signal node (S), the tunable band-stop circuit being tunable to adjust a band-stop frequency that is higher than the range of low-band frequencies but is lower than the range of high-band frequencies; wherein the tunable band-stop circuit is tunable to match an impedance of the electrically small antenna within the range of low-band frequencies while maintaining high antenna efficiency in the range of high-band frequencies. an electrically small antenna configured to operate in a range of low-band frequencies and a range of high-band frequencies, the electrically small antenna having a largest dimension that is substantially equal to or less than one-tenth of a length of a wavelength corresponding to a frequency within the range of low-band frequencies; a signal node (S); and a tunable band-stop circuit in communication between the electrically small antenna and the signal node (S), the tunable band-stop circuit being tunable to adjust a band-stop frequency that is higher than the range of low-band frequencies but is lower than the range of high-band frequencies; wherein the tunable band-stop circuit is tunable to match an impedance of the electrically small antenna within the range of low-band frequencies while maintaining high antenna efficiency in the range of high-band frequencies.
A non-aqueous electrolyte secondary battery , comprising: a bottomed cylindrical case body having an opening; a wound-type electrode group that is housed in the case body , and in which a positive electrode plate and a negative electrode plate are wound with a separator interposed therebetween; and at least one tape that is attached to an outermost peripheral surface of the electrode group to fix a winding-finish end of the electrode group to the outermost peripheral surface of the electrode group , wherein a current collector of the negative electrode plate is exposed on at least a part of the outermost peripheral surface of the electrode group in a winding direction, and the current collector contacts the case body , the tape includes a base material layer , and an adhesive layer that is disposed continuously in the winding direction on a winding inner surface of the base material layer , characterized in that the tape is attached to at least one of both end portions of the electrode group in a winding axis direction, and in that a region of the tape as viewed from the winding inner surface is divided into a first region formed by the base material layer and a second region formed by the base material layer and the adhesive layer , in the winding axis direction (α) of the electrode group , the first region is disposed at least in an end portion of the tape on a center side of the electrode group , and is adjacent to the second region . a bottomed cylindrical case body having an opening; a wound-type electrode group that is housed in the case body , and in which a positive electrode plate and a negative electrode plate are wound with a separator interposed therebetween; and at least one tape that is attached to an outermost peripheral surface of the electrode group to fix a winding-finish end of the electrode group to the outermost peripheral surface of the electrode group , wherein a current collector of the negative electrode plate is exposed on at least a part of the outermost peripheral surface of the electrode group in a winding direction, and the current collector contacts the case body , the tape includes a base material layer , and an adhesive layer that is disposed continuously in the winding direction on a winding inner surface of the base material layer , characterized in that the tape is attached to at least one of both end portions of the electrode group in a winding axis direction, and in that a region of the tape as viewed from the winding inner surface is divided into a first region formed by the base material layer and a second region formed by the base material layer and the adhesive layer , in the winding axis direction (α) of the electrode group , the first region is disposed at least in an end portion of the tape on a center side of the electrode group , and is adjacent to the second region .
A modifiable band jewelry comprising: - a band (101, 301a,b, 401) made of fibre threads or yarns, said band having one or more loops (102a,b, 302a,b, 402a,b); and - at least one ornament (103a,b, 201a,b,c, 303a,b, 403a,b) having an upper ornamental part (202a,b,c) with a lower surface (203a,b,c) connected to a lower male part (204a,b,c), said ornament being removably attached to the band with the male part being inserted into one of said loops; wherein at least 6 or 8 fibre threads or yarns are braided together to form the fibre band (101, 301a,b, 401) with several spacedly arranged loops (102a,b, 302a,b, 402a,b); and wherein a band loop (102a,b, 302a,b, 402a,b) is formed by two braided band parts , each of said braided band parts being formed by at least 3 or 4 fibre threads or yarns; characterized in that the fibre band (101, 301a,b) comprises at least one strand with several spacedly arranged loops (102a,b, 302a,b), wherein all the threads or yarns of a strand form a single string between the loops, and wherein for each loop the threads are separated in two parts to form two braided string parts defining the loop. - a band (101, 301a,b, 401) made of fibre threads or yarns, said band having one or more loops (102a,b, 302a,b, 402a,b); and - at least one ornament (103a,b, 201a,b,c, 303a,b, 403a,b) having an upper ornamental part (202a,b,c) with a lower surface (203a,b,c) connected to a lower male part (204a,b,c), said ornament being removably attached to the band with the male part being inserted into one of said loops; wherein at least 6 or 8 fibre threads or yarns are braided together to form the fibre band (101, 301a,b, 401) with several spacedly arranged loops (102a,b, 302a,b, 402a,b); and wherein a band loop (102a,b, 302a,b, 402a,b) is formed by two braided band parts , each of said braided band parts being formed by at least 3 or 4 fibre threads or yarns; characterized in that the fibre band (101, 301a,b) comprises at least one strand with several spacedly arranged loops (102a,b, 302a,b), wherein all the threads or yarns of a strand form a single string between the loops, and wherein for each loop the threads are separated in two parts to form two braided string parts defining the loop.
An applicator comprising a cylindrical sleeve and a plunger , both of which extend along a common longitudinal axis (L), wherein the sleeve comprises a first end side and a second end side , which is located opposite the first end side , wherein, at the second end side , a cylindrical first section is formed on the inner side of the sleeve , by which the sleeve can be arranged on a cylindrical container , wherein the first section is followed by a cylindrical second section , in which a complementary cylindrical piston of the plunger is arranged in a displaceable manner, wherein a channel is provided, which extends through the entire plunger along the longitudinal axis (L), wherein at the first end side , a cylindrical third section is formed on the inner side of the sleeve , in which a complementary cylindrical shaft of the plunger is arranged in a displaceable manner, wherein the shaft and the piston are jointly formed in one piece with one another, wherein the piston is arranged adjoining an end region of the shaft , wherein the piston comprises a circumferential lateral surface and a bottom , wherein the bottom is arranged on the side of the piston opposite the shaft , wherein the bottom of the piston is designed to taper conically inwards, and wherein the channel opens at the center of the bottom , characterized in that two or more piercing elements are provided at the edge of the piston-side opening of the channel , which are regularly or irregularly arranged at the edge of the piston-side opening of the channel , and which project from the bottom of the piston .
Main profile for construction of a geodesic dome , wherein the main profile comprises a slot-shaped receptacle for a panel , the receptacle comprising an outer web and an inner web parallel thereto, wherein, at an end situated opposite the opening of the receptacle , the two webs are connected to an outer flange , characterized in that , laterally adjacent to the receptacle , provision is made of a nut channel for longitudinally displaceable and rotationally fixed accommodation of a screw nut or of a screw head of a screw, wherein an opening of the nut channel is directed in the same direction as an opening of the receptacle , wherein the two webs include an angle of 80° to 87° with the outer flange .
A reflection-mode electron multiplier device to detect electromagnetic radiation or ion flows, including at least one active structure intended to receive a flow of incident electrons and to emit in response of flow of electrons called secondary electrons, where the said active structure includes a substrate , said active structure being a microchannel wafer , in which each of the said microchannels traverses the said substrate from an input aperture for the flow of incident electrons to an output aperture for the flow of secondary electrons, characterised in that the inner surface of each of the said microchannels is coated with a thin nanodiamond monolayer , said nanodiamond layer being obtained by dipping the microchannel wafer, from the input face thereof, in a colloidal solution containing diamond particles having an average size below 100 nm, said nanodiamond monolayer extending on the inner surface of each of the said microchannels , from the corresponding input aperture up to a distance, relative to said corresponding output aperture , of between one and ten times the average diameter of the microchannels , an electron collection layer being deposited on the inner surface of each of the microchannels over said distance of between one and ten times the average diameter of the microchannels relative to said output aperture .
A solid substrate having compounds disposed thereon, wherein a functional molecule is immobilized on the compounds, each compound having a chain comprising: a moiety R that is chemically coupled to the substrate, said moiety R being selected from the group consisting of an ether, ester, carbonyl, carbonate ester, thioether, disulfide, sulfinyl, sulfonyl, carbonothioyl, amine, amide, carbamide, ureas and guanidines; wherein the term "chemically coupled" refers to covalent bonding and encompasses both indirect and direct covalent bonding; and an epoxide-containing moiety that is coupled to the moiety R by a linker comprising at least one nucleophilic group selected from the group consisting of an amine, hydroxyl and thiol; wherein the epoxide moiety forms a chemical bond with said functional molecule to immobilize it thereto; and wherein the functional molecule comprises an enzyme selected from the group consisting of urease, uricase, creatininase, lipases, esterases, cellulases, amylases, pectinases, catalases, acylase, penicillin amidase, and proteinase-K, wherein the substrate is a polysaccharide-based substrate selected from the group consisting of cellulose, chitosan, chitin, dextran, agarose and derivatives thereof. a moiety R that is chemically coupled to the substrate, said moiety R being selected from the group consisting of an ether, ester, carbonyl, carbonate ester, thioether, disulfide, sulfinyl, sulfonyl, carbonothioyl, amine, amide, carbamide, ureas and guanidines; wherein the term "chemically coupled" refers to covalent bonding and encompasses both indirect and direct covalent bonding; and an epoxide-containing moiety that is coupled to the moiety R by a linker comprising at least one nucleophilic group selected from the group consisting of an amine, hydroxyl and thiol; wherein the epoxide moiety forms a chemical bond with said functional molecule to immobilize it thereto; and wherein the functional molecule comprises an enzyme selected from the group consisting of urease, uricase, creatininase, lipases, esterases, cellulases, amylases, pectinases, catalases, acylase, penicillin amidase, and proteinase-K, wherein the substrate is a polysaccharide-based substrate selected from the group consisting of cellulose, chitosan, chitin, dextran, agarose and derivatives thereof.