mhurhangee/ep-ind-claims huggingface dataset:
A polyamide-imide film, which is obtainable by a process comprising: simultaneously or sequentially mixing and reacting a diamine compound, a dianhydride compound, and a dicarbonyl compound in an organic solvent in a polymerization apparatus to prepare a polymer solution; transferring the polymer solution to a tank wherein the temperature inside the tank is -20°C to 0°C; casting the polymer solution and then drying it to prepare a gel-sheet; thermally treating the gel-sheet, while it is moved on a belt, to prepare a cured film; and winding the cured film using a winder, wherein the ratio of the moving speed of the gel-sheet on the belt at the time of thermal treatment to the moving speed of the cured film at the time of winding is 1:0.95 to 1: 1.40, wherein the area value up to the yield point derived by the 0.2% off-set method on a stress-strain curve of the polyamide-imide film as measured using a universal testing machine is 80 to 150 J/m 2, preferably 100 to 140 J/m 2. simultaneously or sequentially mixing and reacting a diamine compound, a dianhydride compound, and a dicarbonyl compound in an organic solvent in a polymerization apparatus to prepare a polymer solution; transferring the polymer solution to a tank wherein the temperature inside the tank is -20°C to 0°C; casting the polymer solution and then drying it to prepare a gel-sheet; thermally treating the gel-sheet, while it is moved on a belt, to prepare a cured film; and winding the cured film using a winder, wherein the ratio of the moving speed of the gel-sheet on the belt at the time of thermal treatment to the moving speed of the cured film at the time of winding is 1:0.95 to 1: 1.40, wherein the area value up to the yield point derived by the 0.2% off-set method on a stress-strain curve of the polyamide-imide film as measured using a universal testing machine is 80 to 150 J/m 2, preferably 100 to 140 J/m 2.
A molecular trap to reduce free-hapten interference in an assay, the molecular trap comprising: a molecular complex soluble in an assay solution to selectively provide free-hapten competitive specific binding in the molecular complex, the molecular complex comprising: a conjugate that comprises a hapten-analog, a steric-hindering polymer that is relatively larger than the hapten-analog, and a linking group to provide a flexible linker connection between the hapten-analog and the steric-hindering polymer; and an anti-hapten specific binding partner (sbp) interconnected with the conjugate, the hapten-analog having weaker specific binding characteristics to the anti-hapten sbp than free-hapten, the flexible linker connection providing a degree of freedom between the hapten-analog and a specific binding site on the anti-hapten sbp for the hapten, the steric-hindering polymer preventing hapten-assay conjugates in the assay solution from accessing the specific binding site; wherein the steric-hindering polymer is selected from the group consisting of amino dextran and bovine serum albumin, the hapten is biotin, the hapten-analog is selected from the group consisting of of 4'-hydroxyazobenzene-2-carboxylic acid (HABA) and 2-imino biotin, and the anti-hapten sbp is selected from the group consisting of streptavidin, avidin and traptavidin. a conjugate that comprises a hapten-analog, a steric-hindering polymer that is relatively larger than the hapten-analog, and a linking group to provide a flexible linker connection between the hapten-analog and the steric-hindering polymer; and an anti-hapten specific binding partner (sbp) interconnected with the conjugate, the hapten-analog having weaker specific binding characteristics to the anti-hapten sbp than free-hapten, the flexible linker connection providing a degree of freedom between the hapten-analog and a specific binding site on the anti-hapten sbp for the hapten, the steric-hindering polymer preventing hapten-assay conjugates in the assay solution from accessing the specific binding site; wherein the steric-hindering polymer is selected from the group consisting of amino dextran and bovine serum albumin, the hapten is biotin, the hapten-analog is selected from the group consisting of of 4'-hydroxyazobenzene-2-carboxylic acid (HABA) and 2-imino biotin, and the anti-hapten sbp is selected from the group consisting of streptavidin, avidin and traptavidin.
An oval shaped diamond, adapted to display a hearts and arrows pattern when exposed to light characteristic of the hearts and arrows pattern in a round diamond, comprising: an oval shape having two long sides symmetrical to each other, two short sides symmetrical to each other and four diagonal sides symmetrically located between the long sides and the short sides respectively, eight main crown facets (M1-M8), eight main pavilion facets (P1-P8); a girdle of non-uniform thickness separating the crown and pavilion facets, and eight crown star facets (C1-C8) characterized in that it comprises twelve subsidiary pavilion facets (PSF1-PSF12) and in that each crown star facet includes two facet sections (a-h) of equal size and geometry on each of the two long and two short sides of the oval shaped diamond and two facet sections (i-p) of non-equal size and geometry in each of the four diagonal or shoulder sides of the oval shaped diamond.
An image processing system comprising: a light source configured to emit light from one surface side of a transparent member to the transparent member; an imaging unit including an imaging element configured to capture light emitted by the light source and reflected from a foreign matter attached to the other surface of the transparent member and to capture light transmitted through the transparent member from the other surface side; and an image analyzing unit configured to analyze captured image data captured by the imaging unit, wherein the captured image data is formed of a first image area frame containing a first image area that is used for detecting a foreign matter and that corresponds to a predetermined area of an effective imaging area, and is formed of a second image area frame containing a second image area that corresponds to the effective imaging area excluding the predetermined area; the image analyzing unit being configured to apply different numbers of frame repetitions (m, n) between the first image area frame and the second image area frame as those frames are alternately read from the imaging unit; wherein the image analyzing unit is configured to thin out pixels when reading the first image area frame. a light source configured to emit light from one surface side of a transparent member to the transparent member; an imaging unit including an imaging element configured to capture light emitted by the light source and reflected from a foreign matter attached to the other surface of the transparent member and to capture light transmitted through the transparent member from the other surface side; and configured to capture light emitted by the light source and reflected from a foreign matter attached to the other surface of the transparent member and to capture light transmitted through the transparent member from the other surface side; and an image analyzing unit configured to analyze captured image data captured by the imaging unit, wherein the captured image data is formed of a first image area frame containing a first image area that is used for detecting a foreign matter and that corresponds to a predetermined area of an effective imaging area, and is formed of a second image area frame containing a second image area that corresponds to the effective imaging area excluding the predetermined area; is formed of a first image area frame containing a first image area that is used for detecting a foreign matter and that corresponds to a predetermined area of an effective imaging area, and is formed of a second image area frame containing a second image area that corresponds to the effective imaging area excluding the predetermined area; the image analyzing unit being configured to apply different numbers of frame repetitions (m, n) between the first image area frame and the second image area frame as those frames are alternately read from the imaging unit; wherein the image analyzing unit is configured to thin out pixels when reading the first image area frame.
A household type fridge including a crisper box and a shelf comprising a glass material arranged above said crisper box, said household type fridge being characterized in that: - the crisper box comprises a gasket fixed to the top surface of its side walls, a magnet being positioned inside said gasket, and in that - metal profiles are positioned at the edges of a bottom surface of said shelf, the configuration of the crisper box and the shelf of the household type fridge being such that they define a crisper box system wherein the shelf acts as a lid sealing the crisper box. - the crisper box comprises a gasket fixed to the top surface of its side walls, a magnet being positioned inside said gasket, and in that - metal profiles are positioned at the edges of a bottom surface of said shelf,
An installation for producing domestic hot water for a congregate housing including a plurality of water heaters, intended to equip a plurality of individual dwellings of the housing, each water heater including a tank inside which a fluid to be heated is stored, each dwelling being further equipped with at least one air extraction conduit, in particular at the level of the technical rooms, connected to an air extraction network common to the different dwellings, each dwelling further including heat exchange means arranged to exchange heat between the extracted air circulating in the air extraction conduit and the fluid contained in the tank, so as to heat the fluid in order to produce domestic hot water, characterized in that the air extraction network common to the different dwellings is equipped with at least one fan adapted to create a depression in said extraction network, so as to perform the extraction of air from each dwelling.
A random access method, comprising: in a random access process, sending a first random access signal via a first resource, and then sending a second random access signal via a second resource, by a terminal; and detecting, by the terminal, at least one of a first random access response signal and a second random access response signal sent by a network device, a start time of a transmission period of the second random access signal being earlier than an end time of a detection period of the first random access response signal, wherein, the first random access signal is sent by a first beam, and the second random access signal is sent by a second beam, and characterized in that, the terminal selects an uplink target beam from the first beam and the second beam, and uses the beam except the uplink target beam as an alternative beam, and when the uplink target beam is invalid, the terminal communicates with the network device through the alternative beam. in a random access process, sending a first random access signal via a first resource, and then sending a second random access signal via a second resource, by a terminal; and detecting, by the terminal, at least one of a first random access response signal and a second random access response signal sent by a network device, a start time of a transmission period of the second random access signal being earlier than an end time of a detection period of the first random access response signal, wherein, the first random access signal is sent by a first beam, and the second random access signal is sent by a second beam, and characterized in that, the terminal selects an uplink target beam from the first beam and the second beam, and uses the beam except the uplink target beam as an alternative beam, and when the uplink target beam is invalid, the terminal communicates with the network device through the alternative beam.
A method for operating a communications controller in a wireless communications system, the method comprising: scheduling a pair of user equipments, UE, located in different ones of a plurality of split beams using an appropriate code pair that produces the plurality of split beams for multi-user multiple-input multiple output, MU-MIMO, mode transmission; and transmitting data packets to the pair of UEs in accordance with the appropriate code pair; retrieving information about the plurality of split beams and a mapping between the plurality of split beams and baseband antenna ports, wherein the mapping equalizes reference signal coverage between the baseband antenna ports; wherein each one of the plurality of split beams has two polarizations, wherein the method further comprises, for each one of the plurality of split beams, applying a different down-tilt angle to each of the two polarizations, and wherein the mapping comprises mappings between each polarization of each split beam and the baseband antenna ports. scheduling a pair of user equipments, UE, located in different ones of a plurality of split beams using an appropriate code pair that produces the plurality of split beams for multi-user multiple-input multiple output, MU-MIMO, mode transmission; and transmitting data packets to the pair of UEs in accordance with the appropriate code pair; retrieving information about the plurality of split beams and a mapping between the plurality of split beams and baseband antenna ports, wherein the mapping equalizes reference signal coverage between the baseband antenna ports; wherein each one of the plurality of split beams has two polarizations, wherein the method further comprises, for each one of the plurality of split beams, applying a different down-tilt angle to each of the two polarizations, and wherein the mapping comprises mappings between each polarization of each split beam and the baseband antenna ports.
Polymer fiber made of a polyamide composition comprising a semi-crystalline semi-aromatic polyamide, wherein the PPA consists of repeat units derived from - aromatic dicarboxylic acid comprising at least 80 mole % of terephthalic acid, relative to the total amount of aromatic dicarboxylic acid and - diamine comprising at least 5 mole % of a first diamine and at least 5 mole % of a second diamine relative to the total amount of diamine; and - 0 - 5 mole % of other monomeric units, relative to the total amount of aromatic dicarboxylic acid, diamine and other monomeric units, wherein the PPA has a melting temperature (Tm) of at least 310°C measured by the DSC method according to ISO-11357-1/3, 2011 and with a heating rate of 10°C/min, wherein the polymer fiber is a stretched polymer fiber stretched at a temperature (T-stretch) below Tm; wherein the PPA is present in an amount of at least 60 wt.%, relative to the total weight of the composition; and wherein the polymer fiber has a tensile strength of at least 300 MPa, or a tensile modulus at 1% elongation of at least 3.0 GPa, or both, wherein the tensile strength and the tensile modulus are measured by the method according to ASTM D885M at 23°C and 50% relative humidity. - aromatic dicarboxylic acid comprising at least 80 mole % of terephthalic acid, relative to the total amount of aromatic dicarboxylic acid and - diamine comprising at least 5 mole % of a first diamine and at least 5 mole % of a second diamine relative to the total amount of diamine; and - 0 - 5 mole % of other monomeric units, relative to the total amount of aromatic dicarboxylic acid, diamine and other monomeric units,
A manufacturing method of a light emitting diode, comprising the steps of: preparing a substrate; mounting light emitting chips on the substrate; positioning an intermediate plate on the substrate, the intermediate plate having a plurality of through-holes for receiving the light emitting chips and a plurality of grooves for connecting the plurality of through-holes to one another on its upper surface on a row basis; performing a transfer molding process with a transparent molding material, which contains phosphor powders, using the grooves as runners to form first molding portions filling the through-holes; removing the intermediate plate; forming second molding portions by molding an opaque molding material to fill spaces between the first molding portions while exposing upper surfaces of the first molding portions; and performing separation into individual light emitting diodes. preparing a substrate; mounting light emitting chips on the substrate; positioning an intermediate plate on the substrate, the intermediate plate having a plurality of through-holes for receiving the light emitting chips and a plurality of grooves for connecting the plurality of through-holes to one another on its upper surface on a row basis; performing a transfer molding process with a transparent molding material, which contains phosphor powders, using the grooves as runners to form first molding portions filling the through-holes; removing the intermediate plate; forming second molding portions by molding an opaque molding material to fill spaces between the first molding portions while exposing upper surfaces of the first molding portions; and performing separation into individual light emitting diodes.
A load transport mechanism for a multi-station heat treating system comprising: a load rotation mechanism including a turntable and a rotation drive mechanism operatively connected to said turntable; a load translation mechanism mounted on said load rotation mechanism, said load translation mechanism including: a telescoping structure comprising a stationary section affixed to the turntable and a load support section (28, 30) slidably connected to the stationary section such that the load support section (28,30) can slide laterally relative to the stationary section when the load translation mechanism is operated; and a translation drive mechanism connected to the telescoping structure for operating the load translation mechanism; wherein said load transport mechanism further comprises a motive means connected to the rotation drive mechanism for driving the load rotation mechanism and a separate motive means connected to the translation drive mechanism for driving the load translation mechanism; and a base on which the turntable is rotatably mounted. a load rotation mechanism including a turntable and a rotation drive mechanism operatively connected to said turntable; a load translation mechanism mounted on said load rotation mechanism, said load translation mechanism including: a telescoping structure comprising a stationary section affixed to the turntable and a load support section (28, 30) slidably connected to the stationary section such that the load support section (28,30) can slide laterally relative to the stationary section when the load translation mechanism is operated; and a translation drive mechanism connected to the telescoping structure for operating the load translation mechanism; wherein said load transport mechanism further comprises a motive means connected to the rotation drive mechanism for driving the load rotation mechanism and a separate motive means connected to the translation drive mechanism for driving the load translation mechanism; and a base on which the turntable is rotatably mounted. a telescoping structure comprising a stationary section affixed to the turntable and a load support section (28, 30) slidably connected to the stationary section such that the load support section (28,30) can slide laterally relative to the stationary section when the load translation mechanism is operated; and a translation drive mechanism connected to the telescoping structure for operating the load translation mechanism; wherein said load transport mechanism further comprises a motive means connected to the rotation drive mechanism for driving the load rotation mechanism and a separate motive means connected to the translation drive mechanism for driving the load translation mechanism; and a base on which the turntable is rotatably mounted.
A battery, comprising: a shell; a core (4, 5, 6) received in the shell and having a first electrode tab (41, 51, 61) and a second electrode tab (42, 52, 62), the first electrode tab (41, 51, 61) being directly connected to a first current collector of the core (4, 5, 6), and the second electrode tab (42, 52, 62) being directly connected to a second current collector of the core (4, 5, 6); and a protection component (2, 3) including two insulating layers (22, 32) and a conducting layer (21,31) disposed between two insulating layers (22, 32), wherein the conducting layer (21, 31) has a first end electrically and directly connected to the first electrode tab (41, 51, 61) and a second end configured as a free end, and an outmost current collector of the core (4, 5, 6) is the second current collector, wherein the free end is physically separated from the core (4, 5, 6) by a gap. a shell; a core (4, 5, 6) received in the shell and having a first electrode tab (41, 51, 61) and a second electrode tab (42, 52, 62), the first electrode tab (41, 51, 61) being directly connected to a first current collector of the core (4, 5, 6), and the second electrode tab (42, 52, 62) being directly connected to a second current collector of the core (4, 5, 6); and a protection component (2, 3) including two insulating layers (22, 32) and a conducting layer (21,31) disposed between two insulating layers (22, 32), wherein the conducting layer (21, 31) has a first end electrically and directly connected to the first electrode tab (41, 51, 61) and a second end configured as a free end, and an outmost current collector of the core (4, 5, 6) is the second current collector, wherein the free end is physically separated from the core (4, 5, 6) by a gap.
Three-layered brazable aluminium composite material consisting of at least two different aluminium alloys, whereby an inner layer of the three layers is an aluminium brazing layer made from an aluminium brazing alloy, the other layers (2, 4) being configured as covering layers and consist of at least one further aluminium alloy, whereby the at least one further aluminium alloy has a higher solidus temperature than the liquidus temperature of the aluminium brazing alloy, characterised in that the individual covering layers (2, 4) have a thickness that exceeds the thickness of the aluminium brazing layer by at least a factor of 1.5, preferably at least by a factor of 5.
Flywheel-driven setting device comprising a flywheel, which can be drivingly connected to a driving-in element in order for a setting element to be driven into a substrate by means of the driving-in element during a setting process, wherein the flywheel is subdivided into at least two flywheel parts (44, 45), which are movable relative to each other to a limited degree in an axial direction, and characterized in that the at least two flywheel parts (44, 45) respectively comprise at least one friction-fit geometry (47, 48), which can be frictionally connected to a complementary friction-fit geometry (51, 52) of the driving-in element for forming a friction fit between the flywheel and the driving-in element.