mhurhangee/ep-ind-claims huggingface dataset:
Sliding closure for a container, having a support element which is placeable onto a container mouth and which is provided with a first dispensing opening (5a, 5b), and having a closure element which is displaceably mounted on the support element and which is provided with a second dispensing opening, wherein the closure element is displaceable between a closure position, in which the first dispensing opening is closed, and a dispensing position, in which the first and the second dispensing openings match up with one another, and that the closure element is a closure cap having a closure base and a side wall, wherein the second dispensing opening is disposed in the closure base and the side wall completely or partially surrounds the support element, characterized in that the first dispensing opening is formed by a valve (5a, 5b), preferably by a diaphragm valve, which can only be opened in the dispensing position.
A packaged sealed container comprising an aqueous pharmaceutical composition suitable for parenteral administration, the container comprising: an aqueous pharmaceutical composition comprising: (i) between 0.5 mg/mL and 2.5 mg/mL micafungin; (ii) between 1 mM and 20 mM citrate buffering agent; and (iii) between 4 mg/mL and 10 mg/mL sodium chloride tonicity adjusting agent, wherein the pH of the aqueous pharmaceutical composition is between 4.0 and 5.5, and the aqueous pharmaceutical composition is provided in the packaged sealed container, wherein the aqueous pharmaceutical composition is sterile and ready to use. (i) between 0.5 mg/mL and 2.5 mg/mL micafungin; (ii) between 1 mM and 20 mM citrate buffering agent; and (iii) between 4 mg/mL and 10 mg/mL sodium chloride tonicity adjusting agent, wherein the pH of the aqueous pharmaceutical composition is between 4.0 and 5.5, and the aqueous pharmaceutical composition is provided in the packaged sealed container, wherein the aqueous pharmaceutical composition is sterile and ready to use.
A high-performance repair tape for a backboard of a photovoltaic module, comprising a base material layer, a functional adhesive layer, and a release material layer provided in sequence from top to bottom, wherein the base material layer is made up of a polyester film material, and the functional adhesive layer is made up of a high weather-resistance adhesive, wherein the base material layer is a composite polyester film, wherein the composite polyester film comprises a core layer positioned in the middle and weather-resistant polymer films adhered to two sides of the core layer, or comprises a core layer in the middle, a weather-resistant polymer film adhered to one side of the core layer and a polymer weather-resistant coating layer directly coated on the other side of the core layer, wherein both the weather-resistant polymer film and the polymer weather-resistant coating layer have the functions of ultraviolet resistance, damp heat resistance and ultraviolet blocking.
A compound having the following structure or a pharmaceutically acceptable salt thereof: wherein Y is an organic acid functional group, or an amide or ester thereof comprising up to 14 carbon atoms; or Y is hydroxymethyl or an ether thereof comprising up to 14 carbon atoms; or Y is a tetrazolyl functional group; L is linear C 3 H 6, C 2 H 4 O, or C 2 H 4 S; Q is CH, S, N, or O; Q 1 is S, N, or O; J is C=O, CHOH, CHF, CHCl, CHBr, or CHCN; and R is hydrogen or C 1-10 hydrocarbyl. wherein Y is an organic acid functional group, or an amide or ester thereof comprising up to 14 carbon atoms; or Y is hydroxymethyl or an ether thereof comprising up to 14 carbon atoms; or Y is a tetrazolyl functional group; L is linear C 3 H 6, C 2 H 4 O, or C 2 H 4 S; Q is CH, S, N, or O; Q 1 is S, N, or O; J is C=O, CHOH, CHF, CHCl, CHBr, or CHCN; and R is hydrogen or C 1-10 hydrocarbyl.
Embossing element for the provision of a surface structure on a board which is provided with a decorative pattern, wherein the embossing element has a plurality of rectangular embossing regions which are arranged side by side in the direction of the short sides of the rectangle, wherein a first number of embossing regions is divided into a first embossing portion of a first predetermined width and a second embossing portion of a second predetermined width by means of an embossing arrangement which extends parallel to the long sides of the rectangle and is intended to form an imitation joint, while the remaining embossing regions are free of embossing arrangements of this kind which extend parallel to the long sides of the rectangle, and wherein the divided embossing regions are arranged on the embossing element immediately adjacent to one another and symmetrically with respect to the width centre of the embossing element, having a deviation of at most one embossing region.
An in vitro method of producing PDX1+/NKX6-1+ pancreatic progenitor cells from a PDX1+ endodermal cell population, the method comprising contacting the endodermal cell population with: an agent that activates ErbB1; and a tankyrase inhibitor that selectively binds to the adenosine subsite of a tankyrase enzyme and has a higher affinity to the adenosine subsite than a nicotinamide subsite of the tankyrase enzyme, wherein the tankyrase enzyme is TNK1 or TNK2 and the tankyrase inhibitor is WIKI4, G007-LK, JW74, JW55, CMP24, CMP40, or CMP4, or a salt, solvate and/or conjugate thereof; to induce the differentiation of at least a portion of the PDX1+ endodermal cell population into PDX1+NKX6-1+ pancreatic progenitor cells. an agent that activates ErbB1; and a tankyrase inhibitor that selectively binds to the adenosine subsite of a tankyrase enzyme and has a higher affinity to the adenosine subsite than a nicotinamide subsite of the tankyrase enzyme, wherein the tankyrase enzyme is TNK1 or TNK2 and the tankyrase inhibitor is WIKI4, G007-LK, JW74, JW55, CMP24, CMP40, or CMP4, or a salt, solvate and/or conjugate thereof;
Insulating flexible laminate for positioning inside a pipe having a known inner circumference, the laminate having a first dimension extending a chosen length along the pipe, the laminate including a first section comprising an electrically conductive area on an electrically insulating material and a second section (1a,b) being constituted by said insulating material, characterised in that the first and second section each has a second dimension at least exceeding said inner circumference of the pipe, the second section thus being adapted to cover said conductive area of said first section when the flexible laminate is rolled into a tubular shape and positioned along the inner circumference of said pipe, the conductive area thus being enclosed between insulating material on which it is bonded and the second section, a when in said pipe, the conductive layer being sufficiently dense to provide a Faraday cage when inserted into the pipe.
Electret-based wound dressing, in particular for use for chronic, non-healing wounds, comprising a laminate composed of two sheets of expanded sintered PTFE having a thickness in the range from 0.2 to 1 mm, wherein an aluminum foil having a thickness in the range from 4 to 100 μm is placed between the two PTFE sheets, wherein the electric field strength on at least one surface side of the wound dressing is set in the range from 100 to 300 mV/mm.
A fabricating method of a thin film transistor, comprising: forming a gate electrode on a substrate; and forming a gate insulating layer, a semiconductor layer, a source electrode, a drain electrode and a channel region on the substrate on which the gate electrode is formed, wherein, the semiconductor layer is formed of a metal oxide, and two etching steps are used to form the channel region, and in a first etching step, a part of a source-drain metal layer above the semiconductor layer corresponding to the channel region is removed by using a dry etching, and in a second etching step, a remaining part of the source-drain metal layer above the semiconductor layer corresponding to the channel region is removed by using a wet etching, thereby forming the channel region, wherein the metal oxide is InGaZnO, InGaO, ITZO, AlZnO or a combination of two or more selected from the oxides thereof, and in the wet etching, an etching solution being mixed with HNO 3, H 3 PO 4, HCL, and not containing H 2 O 2, H 2 SO 4 and CH 3 COOH is used. forming a gate electrode on a substrate; and forming a gate insulating layer, a semiconductor layer, a source electrode, a drain electrode and a channel region on the substrate on which the gate electrode is formed, wherein, the semiconductor layer is formed of a metal oxide, and two etching steps are used to form the channel region, and in a first etching step, a part of a source-drain metal layer above the semiconductor layer corresponding to the channel region is removed by using a dry etching, and in a second etching step, a remaining part of the source-drain metal layer above the semiconductor layer corresponding to the channel region is removed by using a wet etching, thereby forming the channel region, wherein the metal oxide is InGaZnO, InGaO, ITZO, AlZnO or a combination of two or more selected from the oxides thereof, and in the wet etching, an etching solution being mixed with HNO 3, H 3 PO 4, HCL, and not containing H 2 O 2, H 2 SO 4 and CH 3 COOH is used.
A method for operating a leaky integrator, comprising: receiving an input signal x at time instance n; generating an output signal y by integrating a leaked signal L over an integration time,, wherein the generating of the output signal y(n+1) at time instance n+1 comprises summing the output signal y(n) at time instance n and the leaked signal L(n) at time instance n, wherein the leaked signal L(n) at time instance n is a product of a dampening signal D(n) at time instance n, a leak factor α and a difference between the input signal x at time instance n and the output signal y at time instance n-1, generating an upper difference signal by integrating a difference signal over the integration time when the difference signal is positive, wherein the difference signal is the difference between the input signal x and the output signal y; generating a lower difference signal by integrating a difference between the input signal x and the output signal y over the integration time when the difference signal is negative; and generating the dampening signal D(n) at time instance n based on: D n = 1 − UpperDiff n × LowerDiff n UpperDiff n + Lower Diff n 2 2 wherein 'D(n)' is the dampening signal at time instance n, 'UpperDiff' is the upper difference signal and 'LowerDiff' is the lower difference signal; and providing the output signal y to control at least one of an exposure control function, a white balance control function or a tone mapping control function. receiving an input signal x at time instance n; generating an output signal y by integrating a leaked signal L over an integration time,, wherein the generating of the output signal y(n+1) at time instance n+1 comprises summing the output signal y(n) at time instance n and the leaked signal L(n) at time instance n, wherein the leaked signal L(n) at time instance n is a product of a dampening signal D(n) at time instance n, a leak factor α and a difference between the input signal x at time instance n and the output signal y at time instance n-1, generating an upper difference signal by integrating a difference signal over the integration time when the difference signal is positive, wherein the difference signal is the difference between the input signal x and the output signal y; generating a lower difference signal by integrating a difference between the input signal x and the output signal y over the integration time when the difference signal is negative; and generating the dampening signal D(n) at time instance n based on: D n = 1 − UpperDiff n × LowerDiff n UpperDiff n + Lower Diff n 2 2 wherein 'D(n)' is the dampening signal at time instance n, 'UpperDiff' is the upper difference signal and 'LowerDiff' is the lower difference signal; and providing the output signal y to control at least one of an exposure control function, a white balance control function or a tone mapping control function.
A method for operating a combined cycle power plant, which comprises a gas turbine and a steam turbine which, via a connected electric generator (18, 24) in each case, generate alternating voltage of an assigned frequency and deliver it to an AC network, wherein the flue gas of the gas turbine is used for producing steam for the steam turbine, characterized in that for network restoration, during a black start, in a first step, in island mode, internal consumers are supplied by the gas turbine, wherein the operating point of the gas turbine is selected so that a minimum steam temperature is achieved for the steam turbine, in a second step, in island mode, the steam turbine is synchronized and ramped up to an operating point at which a maximum power increase can be achieved, wherein the resulting load change of the steam turbine is compensated by the gas turbine and the network-side power consumption corresponds to zero MW, in a third step consumer loads are connected block by block, in a fourth step the increase in the demanded load is provided totally or partially and permanently or temporarily by the steam turbine, in a fifth step the load of the steam turbine is gradually reduced for increasing its load-increasing capacity, and steps three to five are repeated until the base load of the combined cycle power plant is achieved.
An OLED device comprising a cathode, an anode, and having there between a light-emitting layer, further comprising, between the cathode and the light emitting layer, a non-luminescent electron transporting layer containing a compound with a 7,10-diaryl substituted fluoranthene nucleus having no aromatic rings annulated to the fluoranthene nucleus, wherein the fluoranthene compound is according to Formula (IIIa) or (IIIb): wherein: R 2 is an aromatic group containing 6 to 24 carbon atoms with the proviso that R 2 cannot be joined with R to form a ring; R 4 is hydrogen or an aromatic group containing 6 to 24 carbon atoms; and R is hydrogen or an optional substituent; and n and m are independently 1-5; and wherein the fluoranthene compound is entirely hydrocarbons. R 2 is an aromatic group containing 6 to 24 carbon atoms with the proviso that R 2 cannot be joined with R to form a ring; R 4 is hydrogen or an aromatic group containing 6 to 24 carbon atoms; and R is hydrogen or an optional substituent; and n and m are independently 1-5; and
A method for adjustment of an automatically selected gear shifting rotational speed limit when an automatic step geared vehicle transmission is in an automatic gear shifting drive mode, and where said transmission comprises a drive mode selector (3, 8, 9, 12), for selection of at least said automatic gear shifting drive mode and a neutral mode, where adjustment of the automatically selected gear shifting rotational speed limit is performed temporarily by a driver of the vehicle when said automatic gear shifting drive mode is selected, where the driver is performing the adjustment via at least an adjustment control (5, 6, 33, 10, 11, 13, 15, 18), and where the method is characterized in that said adjustment is performed as long as the driver is giving input to said adjustment control, so that a coming gear shift is postponed at least as long as the driver is giving the input to said adjustment control.
A resin transfer molding process, steps of which comprise: (a) providing a thermosetting resin composition into a closed mold containing a preform; (b) exposing the interior of the mold to a first elevated temperature and elevated pressure sufficient to wet the preform with the thermosetting resin composition; and (c) curing the thermosetting resin composition-impregnated preform within the mold at a second elevated temperature to form a resin transfer molded product, wherein the thermosetting resin composition comprises (i) an oxazine component, and wherein at least one of the thermosetting resin composition or the preform includes a plurality of expandable microspheres made from a homopolymer of polyvinylidene chloride, a random copolymer of vinylidene chloride and acrylonitrile, or a random terpolymer of polyvinylidene chloride, acrylonitrile, and divinyl benzene. (a) providing a thermosetting resin composition into a closed mold containing a preform; (b) exposing the interior of the mold to a first elevated temperature and elevated pressure sufficient to wet the preform with the thermosetting resin composition; and (c) curing the thermosetting resin composition-impregnated preform within the mold at a second elevated temperature to form a resin transfer molded product,
A method of determination of a matching variant of a standard colour of a repair paint matching the effect colour of an object to be repaired in an automobile body repair shop, the method comprising the steps of a) determination of the standard colour of the colour of the object to be repaired, characterised in that it further comprises the step of b) determination of the best matching variant of the standard colour from 3 to 6 variant colours, wherein • a swatch coated with the colour of the standard colour is visually compared under at least two different angles of illumination and/or observation with the colour to be matched, • the visual deviation from the standard colour and the colour of the object to be matched being evaluated on the basis of predetermined deviations for the visual properties, wherein the predetermined visual properties comprise at least one colour property and at least one texture property, • based on the predetermined deviations for the visual properties of the standard colour and the colour of the object to be matched, the best matching variant of the standard colour is determined using a database wherein sets of deviations for predetermined visual properties are linked to specific variants of standard colours. a) determination of the standard colour of the colour of the object to be repaired, characterised in that it further comprises the step of b) determination of the best matching variant of the standard colour from 3 to 6 variant colours, • a swatch coated with the colour of the standard colour is visually compared under at least two different angles of illumination and/or observation with the colour to be matched, • the visual deviation from the standard colour and the colour of the object to be matched being evaluated on the basis of predetermined deviations for the visual properties, wherein the predetermined visual properties comprise at least one colour property and at least one texture property, • based on the predetermined deviations for the visual properties of the standard colour and the colour of the object to be matched, the best matching variant of the standard colour is determined using a database wherein sets of deviations for predetermined visual properties are linked to specific variants of standard colours.
A protective safety screen for a laboratory fume hood, in particular for use in anatomic pathology, wherein the hood comprises a working space with a vertical front wall, an opening for access to the working space, a substantially horizontal work surface, said screen comprising a pair of transparent panels, including an upper panel and a lower panel respectively, having respective adjacent longitudinal edges (14A, 13B), which are joined together by first hinge means, said adjacent longitudinal edges (14A, 13B) being adapted to rotate relative to each other about a substantially horizontal common axis, characterized by comprising a pivotal guide mechanism for guiding said panels (10A, 10B) in their rotational motion relative to each other about said common axis between an open/closed position, in which said panels (10A, 10B) are substantially vertical, and a work position in which the panels (10A, 10B) are tilted relative to each other to form a hollow dihedral in which the operator may introduce his/her head toward the work surface, while remaining outside the working space, and have a closer look at the objects and equipment therein, while being protected from splashes and harmful fumes of chemical and/or biological nature.
A computer-implemented method for obtaining anatomical measurements in an ultrasound image, the method comprising: receiving user input data representing a set of two or more user-selected points within the ultrasound image; identifying within the image an anatomical region corresponding to a location of at least one of the user-selected points; identifying a geometrical characteristic of the set of user-selected points; accessing a pre-stored set of measurement templates, each measurement template in the set being associated with one or more known anatomical regions and geometrical characteristics, and selecting a measurement template associated with the identified anatomical region and geometrical characteristic; and deriving an anatomical measurement from the set of user-defined points, using the measurement template, wherein identifying the geometrical characteristic includes identifying shape information relating to a line or pattern described by at least a subset of the user-selected points. receiving user input data representing a set of two or more user-selected points within the ultrasound image; identifying within the image an anatomical region corresponding to a location of at least one of the user-selected points; identifying a geometrical characteristic of the set of user-selected points; accessing a pre-stored set of measurement templates, each measurement template in the set being associated with one or more known anatomical regions and geometrical characteristics, and selecting a measurement template associated with the identified anatomical region and geometrical characteristic; and deriving an anatomical measurement from the set of user-defined points, using the measurement template, wherein identifying the geometrical characteristic includes identifying shape information relating to a line or pattern described by at least a subset of the user-selected points.
A bicycl suspension control system comprising: a controller having at least one input and at least one output; a battery electrically coupled to said controller; a first sensor (315/320/325) electrically coupled to said controller; a microcontroller (505/510) electrically coupled between said controller and said first sensor (315/320/325); wherein said microcontroller (505/510) comprises a first processor responsive for executing instructions to send a first signal to said controller in response to a signal being received by said microcontroller (505/510) from said first sensor (315/320/325), characterised in that said controller includes a second processor responsive to executable instructions for comparing said first signal to a predetermined variance and transmitting an alarm message to a display when said predetermined variance is exceeded. a controller having at least one input and at least one output; a battery electrically coupled to said controller; a first sensor (315/320/325) electrically coupled to said controller; a microcontroller (505/510) electrically coupled between said controller and said first sensor (315/320/325); wherein said microcontroller (505/510) comprises a first processor responsive for executing instructions to send a first signal to said controller in response to a signal being received by said microcontroller (505/510) from said first sensor (315/320/325), characterised in that said controller includes a second processor responsive to executable instructions for comparing said first signal to a predetermined variance and transmitting an alarm message to a display when said predetermined variance is exceeded.