mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising a scintillator including a scintillation compound comprising a rare earth element in a tetravalent state at a concentration of at least 10 ppm atomic of the scintillation compound, wherein the scintillation compound is not a rare earth silicate compound, wherein the scintillation compound is a metal oxide.
Luminous apparatus having the following features: a planar luminous body, having a layer arrangement, which forms a luminous region (L 12), with a first electrode layer (20; 20-1; 20-2; 20-3), a second electrode layer and at least one light-emitting intermediate layer, which is arranged between the first electrode layer (20; 20-1; 20-2; 20-3) and the second electrode layer, wherein the first electrode layer (20; 20-1; 20-2; 20-3) has at least two contact regions (70a, 70b) which are laterally spaced apart across the luminous region (L 12) and to which an electrical control signal (S control) is able to be applied using a signal source, a signal source for applying an electrical control signal (S control) to the first electrode layer (20; 20-1; 20-2; 20-3) via the two laterally spaced-apart contact regions (70a, 70b), characterized in that the luminous apparatus furthermore has a capacitance capturing device for spatially resolved detection of an approach of an object or a touch by capturing a capacitance parameter at the contact regions (70a-j). a planar luminous body, having a layer arrangement, which forms a luminous region (L 12), with a first electrode layer (20; 20-1; 20-2; 20-3), a second electrode layer and at least one light-emitting intermediate layer, which is arranged between the first electrode layer (20; 20-1; 20-2; 20-3) and the second electrode layer, wherein the first electrode layer (20; 20-1; 20-2; 20-3) has at least two contact regions (70a, 70b) which are laterally spaced apart across the luminous region (L 12) and to which an electrical control signal (S control) is able to be applied using a signal source, a signal source for applying an electrical control signal (S control) to the first electrode layer (20; 20-1; 20-2; 20-3) via the two laterally spaced-apart contact regions (70a, 70b), characterized in that the luminous apparatus furthermore has a capacitance capturing device for spatially resolved detection of an approach of an object or a touch by capturing a capacitance parameter at the contact regions (70a-j).
Method for displaying the load and/or the axial load of a vehicle when loading said vehicle, using one or more optical and/or acoustic signals sources, wherein different signals are provided for the states a) the axial load/load below a permissible maximum, b) permissible maximum reached, c) permissible maximum exceeded/overload, wherein when the permissible maximum is reached, a continuous signal is output, and in that in the case of an overload a pulsating signal is output, wherein, during the state a) - in the case of a load/axial load below the permissible maximum - a pulsating signal is output, in particular with a frequency which increases as a function of the load/axial load, characterized in that the pulsating signal according to state a) pulsates in a different way than the pulsating signal according to state c), wherein the pulsating signal according to state a) has a different ratio of the switch-on phase to the switch-off phase than the pulsating signal according to state c), in particular has a larger ratio of the switch-on phase to the switch-off phase. a) the axial load/load below a permissible maximum, b) permissible maximum reached, c) permissible maximum exceeded/overload,
A cutting apparatus comprising: a case body internally including a machining space, a housing space located below the machining space, and a communication port through which the machining space is in communication with the housing space; a retainer disposed in the machining space, the retainer being configured to retain a workpiece; a gripper disposed in the machining space, the gripper being configured to grip a machining tool to cut the workpiece; a liquid discharger to discharge a coolant into the machining space; a storage tank detachably disposed in the housing space, the storage tank being configured to collect the coolant discharged from the liquid discharger and passed through the communication port; and a movable member disposed between the communication port and the storage tank, the movable member being located at a first position when the storage tank is not disposed in the housing space, the movable member being located at a second position when the storage tank is disposed in the housing space, characterised in that the movable member located at the first position functions as a liquid holder to hold the coolant. a case body internally including a machining space, a housing space located below the machining space, and a communication port through which the machining space is in communication with the housing space; a machining space, a housing space located below the machining space, and a communication port through which the machining space is in communication with the housing space; a retainer disposed in the machining space, the retainer being configured to retain a workpiece; a gripper disposed in the machining space, the gripper being configured to grip a machining tool to cut the workpiece; a liquid discharger to discharge a coolant into the machining space; a storage tank detachably disposed in the housing space, the storage tank being configured to collect the coolant discharged from the liquid discharger and passed through the communication port; and a movable member disposed between the communication port and the storage tank, the movable member being located at a first position when the storage tank is not disposed in the housing space, the movable member being located at a second position when the storage tank is disposed in the housing space, characterised in that the movable member located at the first position functions as a liquid holder to hold the coolant.
An oxidation-reduction potential test device, comprising: a substrate; a sample chamber; a first test lead supported by the substrate, the first test lead including: a first area extending into the sample chamber; a second area extending from the sample chamber; a second test lead supported by the substrate, the second test lead including: a first area extending into the sample chamber; a second area extending from the sample chamber; a reference cell; a reference lead, including; a first area in electrical contact with the reference cell; a second area extending from the reference cell; a bridge, wherein a fluid sample in the sample chamber is placed in electrical contact with the reference cell by the bridge, wherein the bridge comprises a filter. a substrate; a sample chamber; a first test lead supported by the substrate, the first test lead including: a first area extending into the sample chamber; a second area extending from the sample chamber; a first area extending into the sample chamber; a second area extending from the sample chamber; a second test lead supported by the substrate, the second test lead including: a first area extending into the sample chamber; a second area extending from the sample chamber; a first area extending into the sample chamber; a second area extending from the sample chamber; a reference cell; a reference lead, including; a first area in electrical contact with the reference cell; a second area extending from the reference cell; a first area in electrical contact with the reference cell; a second area extending from the reference cell; a bridge, wherein a fluid sample in the sample chamber is placed in electrical contact with the reference cell by the bridge, wherein the bridge comprises a filter.
Use of a compound -Pyrrolidine-1,2-dicarboxylic acid 2-amide 1-({4-methyl-5-[2-(2,2,2-trifluoro-1,1-dimethyl-ethyl)-pyridin-4-yl]-thiazol-2-yl}-amide), or a pharmaceutically acceptable salt thereof, together with an EGFR inhibitor for the manufacture of a pharmaceutical preparation for the treatment of an EGFR dependent disease, wherein the disease to be treated is breast cancer.
A method of providing a cat food, comprising the steps of: providing plural containers having a capacity of at least 10 grams; filling each container with at least 10 grams and no more than 40 grams of a complete and balanced cat food; sealing the container; after the filling and sealing steps, heating the container to at least partially cook or sterilize the pet food, and to retort the pet food; and after the heating step, providing the containers of pet food in a package such that each container of the package may be individually opened.
A tape cartridge that is mountable on a tape printing device including a cartridge mounting portion on which the tape cartridge is mountable, a detecting portion for reading various types of information of the tape cartridge from a detected portion by applying detection light to the detected portion disposed in the tape cartridge, a holder in which the detecting portion is disposed, the tape cartridge mounted in a detachable manner in a mounting direction and a removal direction, the tape cartridge comprising: the detected portion disposed on a wall surface in the mounting direction; and an engaging portion disposed on a wall surface on a mounting direction side, and wherein the engaging portion is engaged with an engaged portion provided in the holder in which the detecting portion is disposed and performs positioning between the detecting portion and the detected portion via the holder, characterised in that the holder is biased toward an inside of the cartridge mounting portion by a unit biasing portion and that the holder is in contact with an outer wall of the tape cartridge when the tape cartridge is mounted on the cartridge mounting portion. the detected portion disposed on a wall surface in the mounting direction; and an engaging portion disposed on a wall surface on a mounting direction side, and wherein the engaging portion is engaged with an engaged portion provided in the holder in which the detecting portion is disposed and performs positioning between the detecting portion and the detected portion via the holder, characterised in that the holder is biased toward an inside of the cartridge mounting portion by a unit biasing portion and that the holder is in contact with an outer wall of the tape cartridge when the tape cartridge is mounted on the cartridge mounting portion.
A security fence panel for resisting high energy impact such as that provided, for example, by an intruder with a tool such as a hammer, or a fast moving hard object such as a hockey ball, the panel comprising a plurality of first members which are arranged substantially parallel to one another so that they do not cross one another, a plurality of second members which are arranged substantially parallel to one another so that they do not cross one another, the first and second members (4,6) being arranged to cross each other and being interconnected with one another by means of the members (4,6) being woven together, the members being crimped, a crimp of a first member locating in abutment with a crimp of a second member with which the first member is woven, each member comprising a portion extending between successive crimps which is straight and coincident with the longitudinal axis (16,18) of the members, and the interconnected members (4,6) have a tensile strength of at least 800 N/mm 2.
Process for preparing aniline, comprising the following steps: (i) gas phase hydrogenation of nitrobenzene in the presence of a catalyst, (ii) fractional condensation of the gaseous crude product obtained in (i) in n condensation stages, where n is a natural number from 2 to 8, with gradually falling condensation temperature, giving a liquid partial condensate PK i (PK 1, PK 2,... PK n-1) in each of the first to (n-1)th condensation stages and a liquid total condensate in the nth condensation stage, (iii) if (a) n = 2, distillation of the one liquid partial condensate PK 1 obtained in (ii), if (b) n ≥ 3, distillation of some of the liquid partial condensates PK i obtained in (ii), to obtain a distillate PKD, (iv) combination of (a) if present, at least some of the partial condensates PK i obtained in (ii) and not distilled in (iii), (b)the distillate PKD obtained in (iii) and (c) at least the organic fraction of the total condensate TK, and extraction of the product mixture thus obtained with aqueous base solution and separation of the mixture thus obtained into an aqueous phase and an organic, aniline-comprising phase. (i) gas phase hydrogenation of nitrobenzene in the presence of a catalyst, (ii) fractional condensation of the gaseous crude product obtained in (i) in n condensation stages, where n is a natural number from 2 to 8, with gradually falling condensation temperature, giving a liquid partial condensate PK i (PK 1, PK 2,... PK n-1) in each of the first to (n-1)th condensation stages and a liquid total condensate in the nth condensation stage, (iii) if (a) n = 2, distillation of the one liquid partial condensate PK 1 obtained in (ii), if (b) n ≥ 3, distillation of some of the liquid partial condensates PK i obtained in (ii), to obtain a distillate PKD, if (a) n = 2, distillation of the one liquid partial condensate PK 1 obtained in (ii), if (b) n ≥ 3, distillation of some of the liquid partial condensates PK i obtained in (ii), (iv) combination of (a) if present, at least some of the partial condensates PK i obtained in (ii) and not distilled in (iii), (b)the distillate PKD obtained in (iii) and (c) at least the organic fraction of the total condensate TK, and extraction of the product mixture thus obtained with aqueous base solution and separation of the mixture thus obtained into an aqueous phase and an organic, aniline-comprising phase. (a) if present, at least some of the partial condensates PK i obtained in (ii) and not distilled in (iii), (b)the distillate PKD obtained in (iii) and (c) at least the organic fraction of the total condensate TK,
Method of fusion welding one or a plurality of steel sheets (1, 2; 2') made of press-hardenable steel, preferably manganese-boron steel, in which method the fusion welding takes place supplying filler wire into the molten bath generated exclusively by means of a laser beam, characterised in that the filler wire is coated with graphite particles prior to fusion welding and the filler wire coated in this manner is introduced directly into the molten bath such that the tip of the filler wire melts in the molten bath, wherein the graphite particles are mixed with a waxy or liquid carrier medium to be applied on the filler wire and the mixture is applied as a coating (11.1) on the filler wire.
Switchable filter device comprising a SAW filter having two different usable transfer functions, - comprising an input transducer, which comprises two partial transducers, - comprising a first acoustic partial track, which comprises weighted electrode fingers and has a first aperture, - comprising a second acoustic partial track which comprises weighted electrode fingers and concomitantly has a second aperture, - comprising an output transducer, the aperture of which corresponds at least to the sum of the first and second apertures, and comprising a tuner, wherein the tuner has - an input stage, designed for receiving an unfiltered input signal, - a mixer (M1, M2, M3), which converts the input signal to an intermediate frequency, - an amplifier stage, which is designed as a driver for the SAW filter and can supply both a differential balanced output signal and an unbalanced output signal, - switching means, which can switch the two partial tracks of the SAW filter optionally in parallel with the unbalanced output signal or in antiparallel in such a way that each partial track is switched relative to earth with in each case a partial potential of the differential output signal, wherein a first and a second transfer function (ÜF1, ÜF2) are realized by the two different interconnections of the two partial tracks. - comprising an input transducer, which comprises two partial transducers, - comprising a first acoustic partial track, which comprises weighted electrode fingers and has a first aperture, - comprising a second acoustic partial track which comprises weighted electrode fingers and concomitantly has a second aperture, - comprising an output transducer, the aperture of which corresponds at least to the sum of the first and second apertures, and comprising a tuner, wherein the tuner has - an input stage, designed for receiving an unfiltered input signal, - a mixer (M1, M2, M3), which converts the input signal to an intermediate frequency, - an amplifier stage, which is designed as a driver for the SAW filter and can supply both a differential balanced output signal and an unbalanced output signal, - switching means, which can switch the two partial tracks of the SAW filter optionally in parallel with the unbalanced output signal or in antiparallel in such a way that each partial track is switched relative to earth with in each case a partial potential of the differential output signal, wherein a first and a second transfer function (ÜF1, ÜF2) are realized by the two different interconnections of the two partial tracks.
Vibronic-type sensor, particularly a Coriolis mass flow sensor, for a measuring device used to measure a medium flowing through a pipe, said sensor comprising at least one, particularly bi-metal or poly-metal, composite system (1, 2) consisting of at least a first component, particularly made of metal, and of at least a second component, particularly made of metal, - wherein at least the first component of the composite system is designed as a composite molded part that consists of at least two materials, particularly at least two metals, that differ from one in terms of at least a physical and/or chemical property, particularly a material density, a melting temperature, a thermal expansion coefficient and/or the elasticity module characterized in that the at least two materials of the first component are at least partially interconnected by substance bonding via a diffusion zone at least partially formed in the interior of the first component - wherein at least the first component of the composite system is designed as a composite molded part that consists of at least two materials, particularly at least two metals, that differ from one in terms of at least a physical and/or chemical property, particularly a material density, a melting temperature, a thermal expansion coefficient and/or the elasticity module
A method of producing a reference arm within an interferometer, comprising: determining the group delay and the group dispersion delay, GDD, of an object arm of the interferometer (60,62); determining the dispersion of known components within the reference arm, the known components being necessary for production of an output signal from the reference arm when in use; matching the GDD of the object arm with the GDD of a hypothetical reference arm comprising an air portion, a glass portion comprising glass of a single glass type, and a known components portion having a dispersion equal to the dispersion of the known components; determining the glass type and the length of the glass portion from the matching of the GDDs; matching the group delay of the object arm with the group delay of the hypothetical reference arm; determining the total length of the air portion from the matching of the group delays, the glass type, and the length of the glass portion; and producing a real reference arm, whose sum of the lengths of at least one air portion within the reference arm is equal to the total length of the air portion of the hypothetical reference arm, and having a glass portion having the same properties as the glass portion of the hypothetical reference arm. determining the group delay and the group dispersion delay, GDD, of an object arm of the interferometer (60,62); determining the dispersion of known components within the reference arm, the known components being necessary for production of an output signal from the reference arm when in use; matching the GDD of the object arm with the GDD of a hypothetical reference arm comprising an air portion, a glass portion comprising glass of a single glass type, and a known components portion having a dispersion equal to the dispersion of the known components; determining the glass type and the length of the glass portion from the matching of the GDDs; matching the group delay of the object arm with the group delay of the hypothetical reference arm; determining the total length of the air portion from the matching of the group delays, the glass type, and the length of the glass portion; and producing a real reference arm, whose sum of the lengths of at least one air portion within the reference arm is equal to the total length of the air portion of the hypothetical reference arm, and having a glass portion having the same properties as the glass portion of the hypothetical reference arm.
A method for packaging an integrated microelectromechanical system, MEMS, device comprising: providing a semiconductor chip including circuitry with first and second terminals, the chip surface having a polyimide ring surrounding an area greater than the footprint of the MEMS and including the first terminals, the surface of the ring having reduced energy rendering the polyimide ring hydrophobic and repellent to silicone compounds; attaching the chip on an assembly pad of a substrate having leads; attaching the MEMS device on the chip area inside the polyimide ring using a layer of low modulus silicone material; spanning bonding wires from the terminals of the MEMS to the first circuitry terminals inside the ring; forming a dome-shaped glob by dispensing a low-modulus silicone material over the MEMS and the wire spans, restricting the glob to the chip surface area inside the polyimide ring, the silicone material hydrophobic and non-adhesive to epoxy-based molding compounds; curing the silicone glob, thereby completing the integration of the MEMS and the chip; subjecting all surfaces to a plasma etch for enhancing adhesion to molding compounds; dispensing a layer of the low-modulus silicone material onto the surface of the glob; curing the silicone layer and encapsulating the integrated device including the MEMS embedded by the glob, the circuitry chip and portions of the substrate in a polymeric molding compound, thereby packaging the integrated device, wherein the molding compound is non adhesive to silicone and non-adhering to the glob surface yet adhering to all other surfaces. providing a semiconductor chip including circuitry with first and second terminals, the chip surface having a polyimide ring surrounding an area greater than the footprint of the MEMS and including the first terminals, the surface of the ring having reduced energy rendering the polyimide ring hydrophobic and repellent to silicone compounds; attaching the chip on an assembly pad of a substrate having leads; attaching the MEMS device on the chip area inside the polyimide ring using a layer of low modulus silicone material; spanning bonding wires from the terminals of the MEMS to the first circuitry terminals inside the ring; forming a dome-shaped glob by dispensing a low-modulus silicone material over the MEMS and the wire spans, restricting the glob to the chip surface area inside the polyimide ring, the silicone material hydrophobic and non-adhesive to epoxy-based molding compounds; curing the silicone glob, thereby completing the integration of the MEMS and the chip; subjecting all surfaces to a plasma etch for enhancing adhesion to molding compounds; dispensing a layer of the low-modulus silicone material onto the surface of the glob; curing the silicone layer and encapsulating the integrated device including the MEMS embedded by the glob, the circuitry chip and portions of the substrate in a polymeric molding compound, thereby packaging the integrated device, wherein the molding compound is non adhesive to silicone and non-adhering to the glob surface yet adhering to all other surfaces.