mhurhangee/ep-ind-claims huggingface dataset:
A method of quantitative analysis of a tissue sample, comprising: carrying out a ploidy measurement on a plurality of nuclei of the sample to determine the ploidy type of the sample; carrying out a stroma measurement on a section of the tissue sample to determine the stroma type of the sample by determining whether the sample is a high stroma type having a percentage of stroma above a predetermined stroma percentage or a low stroma type having a percentage of stroma at most the predetermined stroma percentage; and characterised by outputting a classification based on the stroma type and the ploidy type; wherein the ploidy measurement is carried out by: preparing a sample of the tissue such that nuclei are liberated and stained with a DNA specific stain; capturing a microscope image of the nuclei specimen, segmenting the image in the captured image to identify the nuclei; for each of a plurality of nuclei, obtaining the integrated optical density; and determining the DNA ploidy classification for the sample. carrying out a ploidy measurement on a plurality of nuclei of the sample to determine the ploidy type of the sample; carrying out a stroma measurement on a section of the tissue sample to determine the stroma type of the sample by determining whether the sample is a high stroma type having a percentage of stroma above a predetermined stroma percentage or a low stroma type having a percentage of stroma at most the predetermined stroma percentage; and characterised by outputting a classification based on the stroma type and the ploidy type; wherein the ploidy measurement is carried out by: preparing a sample of the tissue such that nuclei are liberated and stained with a DNA specific stain; capturing a microscope image of the nuclei specimen, segmenting the image in the captured image to identify the nuclei; for each of a plurality of nuclei, obtaining the integrated optical density; and determining the DNA ploidy classification for the sample. preparing a sample of the tissue such that nuclei are liberated and stained with a DNA specific stain; capturing a microscope image of the nuclei specimen, segmenting the image in the captured image to identify the nuclei; for each of a plurality of nuclei, obtaining the integrated optical density; and determining the DNA ploidy classification for the sample.
Sand mould for casting metal parts, configured to receive the incorporation of an insertable riser base provided with an interior cavity configured to receive molten metal from a feeding riser, characterised in that it comprises a main cavity which can be filled with molten metal to obtain a cast part and, at least, one auxiliary cavity with a geometry that allows the insertion of said riser base, the auxiliary cavity being disposed in respect to the main cavity in such a way that, when the riser base is inserted into the auxiliary cavity, the interior cavity of the riser base puts said main cavity of the mould in communication with a feeding riser, and in that the sand mould is made of silica sand.
Conveyor device for transporting products comprising at least one individually movable slide carriage for receiving products, a guide rail on which the at least one slide carriage is guided, and a linear motor drive unit for driving the at least one slide carriage, wherein the at least one slide carriage has permanent magnets which are in active connection in at least some sections with coils of the linear motor drive unit, wherein the at least one slide carriage has a first element part and a second element part which are connected to one another by means of at least one connecting element and which are displaceable linearly relative to one another, wherein the first element part and the second element part each have at least one permanent magnet which is in active connection in at least some sections with the coils of the linear motor drive unit, characterised in that the first element part has guide elements which bear against the guide rail, whilst the second element part has no parts bearing against the guide rail.
Use of a polyester comprising monomer repeating units from a hydrogenated bisphenol, a diol, a dicarboxylic acid or its anhydride as a tackifier of an adhesive composition, wherein comprises an aliphatic dicarboxylic acid or its anhydride.
A container wherein the surface of the container comprises a repetitive or non-repetitive pattern of high friction surface regions having a coefficient of friction of between about 0.63 and about 2, wherein the high friction surface regions comprise a fibre layer, the container being formed from a sheet material comprising a lower base layer of cardboard material, a coating layer on the upper surface of the base layer, an adhesive layer on the coating layer wherein the fibre layer is formed of flock and is deposited onto the layer of adhesive.
A printing unit of a printing press, wherein the printing unit comprises at least one ink reservoir that is in direct operative contact with at least one ink feed roller, at least one film roller in contact with the ink feed roller, at least one ink applicator roller and at least one forme cylinder in contact with the at least one ink applicator roller, characterized in that the at least one ink reservoir comprises a total number (m) of metering elements arranged side by side and in that an effective width of the at least one ink feed roller is at least as great as a total effective width of the total number (m) of metering elements, and in that the at least one film roller exhibits an effective width which is smaller than the entire effective width of the total number (m) of metering elements, and in that an effective width of the at least one ink applicator roller is smaller than an effective width of the at least one forme cylinder.
Device for expansion of a rail suitable for guiding wheels of at least one vehicle on a track, the rail comprising a continuous track portion formed by a plurality of successive recesses in the thickness of the rail along predefined widths of the recesses, characterised in that the recesses are arranged at either side of the rail in planes parallel to each other in order to remove any axial continuity of the rail at the track portion and in that the device comprises staples arranged to limit the opening of a first (n) recess by positioning of a leg in each of the recesses juxtaposed (n-1; n+1) at the first (n) recess.
A lens moving apparatus comprising: a housing; a bobbin disposed in the housing; a first coil disposed on the bobbin; a first magnet disposed on the housing; an upper elastic member coupled both to the bobbin and to the housing; a circuit board disposed under the housing; and a base disposed under the circuit board and including a first hole; characterised by further comprising a conductive pattern (34, 39) disposed on the base and conductively connected to the circuit board; and a support member comprising one end coupled to the upper elastic member and a remaining end to the conductive pattern (34, 39), wherein the remaining end of the support member is coupled to the base through the first hole in the base. a housing; a bobbin disposed in the housing; a first coil disposed on the bobbin; a first magnet disposed on the housing; an upper elastic member coupled both to the bobbin and to the housing; a circuit board disposed under the housing; and a base disposed under the circuit board and including a first hole; characterised by further comprising a conductive pattern (34, 39) disposed on the base and conductively connected to the circuit board; and a support member comprising one end coupled to the upper elastic member and a remaining end to the conductive pattern (34, 39), wherein the remaining end of the support member is coupled to the base through the first hole in the base. a conductive pattern (34, 39) disposed on the base and conductively connected to the circuit board; and a support member comprising one end coupled to the upper elastic member and a remaining end to the conductive pattern (34, 39), wherein the remaining end of the support member is coupled to the base through the first hole in the base.
A method of controlling a wind turbine, comprising: receiving a current operational state of the wind turbine; based on the current operational state, calculate one or more predicted operational trajectories, the one or more predicted operational trajectories include a predicted control trajectory, where a trajectory comprises a time series of at least one variable; determine at least one fatigue load measure from at least one predicted operational trajectory; determine a control trajectory (65, 36) based on the at least one fatigue load measure; control the wind turbine based on the first predicted value of the control trajectory; wherein the one or more predicted operational trajectories are receding horizon trajectories with a prediction horizon (35, 40), and wherein the at least one fatigue load measure is determined for the prediction horizon. receiving a current operational state of the wind turbine; based on the current operational state, calculate one or more predicted operational trajectories, the one or more predicted operational trajectories include a predicted control trajectory, where a trajectory comprises a time series of at least one variable; determine at least one fatigue load measure from at least one predicted operational trajectory; determine a control trajectory (65, 36) based on the at least one fatigue load measure; control the wind turbine based on the first predicted value of the control trajectory; wherein the one or more predicted operational trajectories are receding horizon trajectories with a prediction horizon (35, 40), and wherein the at least one fatigue load measure is determined for the prediction horizon.
A Transdermal therapeutic system that contains nicotine and/or an excipient and that consists of a backing that is essentially impervious to nicotine and the excipient, at least two polymer matrix layers following the backing, at least one of which serves as an acceptor layer that contains nicotine and/or the excipient, and a release liner, characterized in that the mentioned transdermal therapeutic system can be produced by laminating the following adjacent layers onto one another: a) a backing that is essentially impervious to the active ingredient; b) possibly a matrix layer serving as an anchor layer; c) a polymer matrix layer that contains nicotine at the time when the transdermal therapeutic system is produced and that serves as a donor layer; d) a polymer matrix layer serving as an acceptor layer; e) another polymer matrix layer arranged on the skin side; f) a release liner, the acceptor layer having the property of absorbing nicotine and/or the excipient at an accelerated rate and giving the system shear strength, the same base polymer being used for the donor and acceptor layers, and the donor layer uniting with the acceptor layer due to the migration of the nicotine and/or excipients into the acceptor layer during or shortly after the lamination. a) a backing that is essentially impervious to the active ingredient; b) possibly a matrix layer serving as an anchor layer; c) a polymer matrix layer that contains nicotine at the time when the transdermal therapeutic system is produced and that serves as a donor layer; d) a polymer matrix layer serving as an acceptor layer; e) another polymer matrix layer arranged on the skin side; f) a release liner,
A method of producing a fuel additive, comprising: passing a feed stream comprising C4 hydrocarbons through a cracker unit producing a cracked stream; passing the cracked stream and methanol through a methyl tertiary butyl ether unit to produce a first process stream, wherein methanol and isobutylene are present in the methyl tertiary butyl ether unit in a molar ratio of one mole of isobutylene to 0.05 moles to 10.0 moles of methanol; withdrawing a methyl tertiary butyl ether product from the methyl tertiary butyl ether unit; passing the first process stream through a selective butadiene hydrogenation unit to produce a second process stream; passing the second process stream and water through a hydration unit producing a third process stream, wherein a temperature within the hydration unit is 30°C to 250°C, a pressure within the hydration unit is 500 kiloPascals to 20,000 kiloPascals, and wherein greater than or equal to 0.10% of any butene present in the second process stream is converted to butanol within the hydration unit; wherein the second process stream comprises less than or equal to 5.0% by weight butadiene prior to passing through the hydration unit; withdrawing a fuel additive product from the hydration unit, wherein the fuel additive product comprises 1-butanol, 2-butanol, tert-butyl alcohol, di-isobutene, or a combination thereof; passing the third process stream through a total hydrogenation unit producing a hydrogenated process stream; and recycling the hydrogenated process stream to the cracker unit. passing a feed stream comprising C4 hydrocarbons through a cracker unit producing a cracked stream; passing the cracked stream and methanol through a methyl tertiary butyl ether unit to produce a first process stream, wherein methanol and isobutylene are present in the methyl tertiary butyl ether unit in a molar ratio of one mole of isobutylene to 0.05 moles to 10.0 moles of methanol; withdrawing a methyl tertiary butyl ether product from the methyl tertiary butyl ether unit; passing the first process stream through a selective butadiene hydrogenation unit to produce a second process stream; passing the second process stream and water through a hydration unit producing a third process stream, wherein a temperature within the hydration unit is 30°C to 250°C, a pressure within the hydration unit is 500 kiloPascals to 20,000 kiloPascals, and wherein greater than or equal to 0.10% of any butene present in the second process stream is converted to butanol within the hydration unit; wherein the second process stream comprises less than or equal to 5.0% by weight butadiene prior to passing through the hydration unit; withdrawing a fuel additive product from the hydration unit, wherein the fuel additive product comprises 1-butanol, 2-butanol, tert-butyl alcohol, di-isobutene, or a combination thereof; passing the third process stream through a total hydrogenation unit producing a hydrogenated process stream; and recycling the hydrogenated process stream to the cracker unit.
A computer implemented method for recognizing location information of a two-dimensional code, comprising: acquiring a two-dimensional code in an image; performing, according to one or more main positioning blocks (201 - 203) of the two-dimensional code, feature detection to recognize location information of the two-dimensional code, wherein the location information of the two-dimensional code includes a feature point set, and the feature point set comprises a plurality of predetermined points (301,311-314,321-324,331-334; 401,411-414) in each of the one or more main positioning blocks; and determining, according to the location information of the two-dimensional code, spatial location information of the two-dimensional code in the image by matching the feature point set in the location information of the two-dimensional code with a preset standard feature point set in preset standard location information. acquiring a two-dimensional code in an image; performing, according to one or more main positioning blocks (201 - 203) of the two-dimensional code, feature detection to recognize location information of the two-dimensional code, wherein the location information of the two-dimensional code includes a feature point set, and the feature point set comprises a plurality of predetermined points (301,311-314,321-324,331-334; 401,411-414) in each of the one or more main positioning blocks; and determining, according to the location information of the two-dimensional code, spatial location information of the two-dimensional code in the image by matching the feature point set in the location information of the two-dimensional code with a preset standard feature point set in preset standard location information.
A method for controlling an X-ray device comprising: outputting, by a detection portion, a preparation completion signal when it completes X-ray detection preparation; outputting, by a control portion, a trigger signal for X-ray irradiation; and outputting a sound output signal from the control portion to a sound output portion, at the same time as outputting the trigger signal, when an irradiation command signal is received after the preparation completion signal is output. outputting, by a detection portion, a preparation completion signal when it completes X-ray detection preparation; outputting, by a control portion, a trigger signal for X-ray irradiation; and outputting a sound output signal from the control portion to a sound output portion, at the same time as outputting the trigger signal, when an irradiation command signal is received after the preparation completion signal is output.
A fluid ejection die (10,200,250,400,500,550,600,654,702a-e,802) having a die length and a die width, the fluid ejection die (10,200,250,400,500,550,600,654,702a-e,802) comprising: a plurality of nozzles (12a-x,202a-x,252a-x,402a-x,502ah,552,554,602,655,722,806) arranged along the die length and the die width, the plurality of nozzles (12a-x,202a-x,252a-x,402a-x,502ah,552,554,602,655,722,806) comprising a set of neighboring nozzles, wherein the neighboring nozzles of the set of neighboring nozzles have proximate positions along the length of the die and are positioned at different die width positions along the width of the fluid ejection die (10,200,250,400,500,550,600,654,702a-e,802) and wherein the plurality of nozzles (12a-x,202a-x,252a-x,402a-x,502a-h,552,554,602,655,722,806) comprise nozzles (12a-x,202a-x,252a-x,402a-x,502ah,552,554,602,655,722,806) arranged in nozzle columns (20a-d,204a-h,254a-d,406) such that respective nozzles of each nozzle column have an oblique angle of orientation with neighboring nozzles, wherein a distance between sequential nozzles (12a-x,202a-x,252a-x,402a-x,502a-h,552,554,602,655,722,806) of a first nozzle column (20a-d,204a-h,254a-d,406) is within the range of 50 μm to 500 μm; a plurality of ejection chambers (32,438a-c,438u-x,606,657,724) including a respective ejection chamber fluidically coupled to each respective nozzle; and an array of fluid feed holes (34,440a-c,442a-c,442u-x,610,660,662,726) including at least one respective fluid feed hole (34,440a-c,442a-c,442u-x,610,660,662,726) fluidically coupled to each respective ejection chamber (32,438a-c,438u-x,606,657,724). a plurality of nozzles (12a-x,202a-x,252a-x,402a-x,502ah,552,554,602,655,722,806) arranged along the die length and the die width, the plurality of nozzles (12a-x,202a-x,252a-x,402a-x,502ah,552,554,602,655,722,806) comprising a set of neighboring nozzles, wherein the neighboring nozzles of the set of neighboring nozzles have proximate positions along the length of the die and are positioned at different die width positions along the width of the fluid ejection die (10,200,250,400,500,550,600,654,702a-e,802) and wherein the plurality of nozzles (12a-x,202a-x,252a-x,402a-x,502a-h,552,554,602,655,722,806) comprise nozzles (12a-x,202a-x,252a-x,402a-x,502ah,552,554,602,655,722,806) arranged in nozzle columns (20a-d,204a-h,254a-d,406) such that respective nozzles of each nozzle column have an oblique angle of orientation with neighboring nozzles, wherein a distance between sequential nozzles (12a-x,202a-x,252a-x,402a-x,502a-h,552,554,602,655,722,806) of a first nozzle column (20a-d,204a-h,254a-d,406) is within the range of 50 μm to 500 μm; a plurality of ejection chambers (32,438a-c,438u-x,606,657,724) including a respective ejection chamber fluidically coupled to each respective nozzle; and an array of fluid feed holes (34,440a-c,442a-c,442u-x,610,660,662,726) including at least one respective fluid feed hole (34,440a-c,442a-c,442u-x,610,660,662,726) fluidically coupled to each respective ejection chamber (32,438a-c,438u-x,606,657,724).
A mobile communication device, comprising: an antenna; a matching circuit coupled with the antenna, the matching circuit including one or more variable reactance elements with variable reactance values; and a controller coupled with the matching circuit wherein the controller determines derivative information associated with an RF voltage by calculating a finite difference of two sequential measurements associated with the variable reactance values, and wherein the controller tunes the matching circuit using the derivative information. an antenna; a matching circuit coupled with the antenna, the matching circuit including one or more variable reactance elements with variable reactance values; and a controller coupled with the matching circuit wherein the controller determines derivative information associated with an RF voltage by calculating a finite difference of two sequential measurements associated with the variable reactance values, and wherein the controller tunes the matching circuit using the derivative information.
A heat exchanger comprising: a plurality of outer walls and a plurality of inner walls, a first fluid port communicating a first fluid into a chamber on one side of said plurality of inner walls and a second port communicating a second fluid into a second chamber on an opposed side of said plurality of inner walls, and a plurality of pins extending from said plurality of inner walls in at least one of said chambers (23,29), said plurality of pins having a generally frusto-conical surface (81;91), and extend between two of said plurality of inner walls such that there is an outer pin portion (44;52;62;74) in contact with two of said inner walls and a central pin portion (46;54;64;72); characterised in that surfaces (82;94) are formed extending outwardly of said generally frusto-conical surface (81;92); and said surfaces (82;94) are spikes or a spiral rib extending outwardly and continuing around said generally frusto-conical surface. a plurality of outer walls and a plurality of inner walls, a first fluid port communicating a first fluid into a chamber on one side of said plurality of inner walls and a second port communicating a second fluid into a second chamber on an opposed side of said plurality of inner walls, and a plurality of pins extending from said plurality of inner walls in at least one of said chambers (23,29), said plurality of pins having a generally frusto-conical surface (81;91), and extend between two of said plurality of inner walls such that there is an outer pin portion (44;52;62;74) in contact with two of said inner walls and a central pin portion (46;54;64;72); characterised in that surfaces (82;94) are formed extending outwardly of said generally frusto-conical surface (81;92); and said surfaces (82;94) are spikes or a spiral rib extending outwardly and continuing around said generally frusto-conical surface.
Method for operating a handheld power tool which has a communication module for wireless communication, wherein the communication module is supplied with electrical energy from an energy store of the handheld power tool, characterized in that the communication module is only occasionally supplied with energy at least for transmitting data independently of an operating state of the handheld power tool.