mhurhangee/ep-ind-claims huggingface dataset:
Method of producing an optical sensor at wafer-level, comprising the steps of: - providing a semiconductor wafer having a main top surface and a main back surface, - arranging at or near the top main surface of the semiconductor wafer at least one integrated circuit having a light sensitive component, - forming a light path blocking structure on the top main surface, - placing a first mold tool over the at least one integrated circuit such that at least one channel remains between the first mold tool and the top main surface and between the first mold tool and the light path blocking structure to enter a first transparent mold material, - forming a first mold structure by wafer-level molding the first transparent mold material via the at least one channel, wherein the first transparent mold material creates at least one runner structure flanking the first mold structure, wherein the first mold material is entered via the at least one channel and passed around the light path blocking structure such that the at least one runner structure gets a shape which is determined by the geometry of the light path blocking structure, - placing a second mold tool over the first mold structure and forming a second mold structure by wafer-level molding a second opaque mold material by means of the second mold tool, the second mold structure enclosing the first mold structure, wherein the light path blocking structure stops light entering the at least one runner structure from reaching the light sensitive component. - providing a semiconductor wafer having a main top surface and a main back surface, - arranging at or near the top main surface of the semiconductor wafer at least one integrated circuit having a light sensitive component, - forming a light path blocking structure on the top main surface, - placing a first mold tool over the at least one integrated circuit such that at least one channel remains between the first mold tool and the top main surface and between the first mold tool and the light path blocking structure to enter a first transparent mold material, - forming a first mold structure by wafer-level molding the first transparent mold material via the at least one channel, wherein the first transparent mold material creates at least one runner structure flanking the first mold structure, wherein the first mold material is entered via the at least one channel and passed around the light path blocking structure such that the at least one runner structure gets a shape which is determined by the geometry of the light path blocking structure, - placing a second mold tool over the first mold structure and forming a second mold structure by wafer-level molding a second opaque mold material by means of the second mold tool, the second mold structure enclosing the first mold structure, wherein the light path blocking structure stops light entering the at least one runner structure from reaching the light sensitive component.
A multifunctional intaglio printing ink including at least one capsule luminescent pigment and at least one further machine-readable feature substance, wherein the at least one capsule luminescent pigment has at least one core with a luminescent substance and one shell encapsulating the at least one core, wherein the core is based on a thermoplastic polymer or an organic addition polymer, and wherein the luminescent substances respectively are organic or metalorganic luminescent substances and wherein the shell consists of a condensation polymer or an organic addition polymer, and wherein the intaglio printing ink at 40°C has a viscosity in the region of 3 Pas to 25 Pas, preferably in the region of 5 Pas to 15 Pas.
An intelligent cleaning system, comprising: a charging station; an intelligent cleaning apparatus, provided with a water tank, a wet cleaning pad and configured to be chargeable by the charging station; and a moisture-proof mat; characterized in that the moisture-proof mat is detachably connected to the charging station and comprises: an installation unit, configured to install the moisture-proof mat to the charging station, wherein at least a part of the moisture-proof mat is configured to be located under the wet cleaning pad, when the intelligent cleaning apparatus is charged by the charging station, wherein the moisture-proof mat is used for preventing liquid in the water tank from being leaked to damage a_surface for placing the intelligent cleaning apparatus. a charging station; an intelligent cleaning apparatus, provided with a water tank, a wet cleaning pad and configured to be chargeable by the charging station; and a moisture-proof mat; characterized in that the moisture-proof mat is detachably connected to the charging station and comprises: an installation unit, configured to install the moisture-proof mat to the charging station, wherein at least a part of the moisture-proof mat is configured to be located under the wet cleaning pad, when the intelligent cleaning apparatus is charged by the charging station, wherein the moisture-proof mat is used for preventing liquid in the water tank from being leaked to damage a_surface for placing the intelligent cleaning apparatus.
A co-ordination framework comprising complexes of Formula M 2 [M' 6] Formula Wherein M is selected from V, Cr, Mn, Fe, Co, Ni, Zn, Ru, Rh, Pd and Pt and the framework has a face-centred cubic Fm 3 m structure; or M is selected from Cu, Ag and Au and the framework has a Pillar Hoffman structure; and M' is selected from Fe and Ru; wherein the co-ordination framework is more than 90% desolvated; and when M' is Ru, the framework exhibits zero or negative thermal expansion over a temperature range of 0 to 700 K; provided that when M' is Fe, M is not Mn, Co, Ni, Cu or Fe. M is selected from V, Cr, Mn, Fe, Co, Ni, Zn, Ru, Rh, Pd and Pt and the framework has a face-centred cubic Fm 3 m structure; or M is selected from Cu, Ag and Au and the framework has a Pillar Hoffman structure; and M' is selected from Fe and Ru; wherein the co-ordination framework is more than 90% desolvated; and when M' is Ru, the framework exhibits zero or negative thermal expansion over a temperature range of 0 to 700 K; provided that when M' is Fe, M is not Mn, Co, Ni, Cu or Fe.
A method of bonding a first substrate to a second substrate, wherein said method comprises (a) applying a layer of a waterborne adhesive composition to a surface of said first substrate, wherein said waterborne adhesive composition comprises one or more vinyl polymer that comprises (i) 0 to 0.4% polymerized units of carboxyl functional monomer, by weight based on the weight of said vinyl polymer, and (ii) 0.1% to 10% polymerized units of amide monomer, by weight based on the weight of said vinyl polymer, (b) drying said layer of a waterborne adhesive composition to remove water, and (c) contacting a surface of said second substrate to said layer, wherein one or both of said first substrate and said second substrate comprises one or more slip agent. (a) applying a layer of a waterborne adhesive composition to a surface of said first substrate, wherein said waterborne adhesive composition comprises one or more vinyl polymer that comprises (i) 0 to 0.4% polymerized units of carboxyl functional monomer, by weight based on the weight of said vinyl polymer, and (ii) 0.1% to 10% polymerized units of amide monomer, by weight based on the weight of said vinyl polymer, (i) 0 to 0.4% polymerized units of carboxyl functional monomer, by weight based on the weight of said vinyl polymer, and (ii) 0.1% to 10% polymerized units of amide monomer, by weight based on the weight of said vinyl polymer, (b) drying said layer of a waterborne adhesive composition to remove water, and (c) contacting a surface of said second substrate to said layer,
Non therapeutical method to increase the biological quality and survival of mammalian embryos produced in vitro by incorporating mammalian biofluids from specific phases of the reproductive cycle to culture media, characterized in that it comprises the following steps: Culture of the mammalian embryos to any stage of preimplantational development in media supplemented with oviductal fluid in a first phase between 24 to 72 hours and uterine fluid in a second phase between 48 hours to morula or blastocyst stage, wherein the embryos have been obtained by in vitro fertilization using sperm that has been processed in a culture medium supplemented with oviductal fluid, wherein the selection of said sperm for in vitro fertilization is based on its physiological ability to swim freely through a culture medium containing water, inorganic salts, energetic compounds, antibiotics and fractionated and treated oviductal fluid obtained from the late follicular phase of the cycle and, wherein the oviductal and uterine fluids of each of the phases of the reproductive cycle are fractionated and processed by double centrifugation with subsequent lyophilization, optionally with pasteurization and cooling for their use in assisted reproduction techniques or biotechnology in general. Culture of the mammalian embryos to any stage of preimplantational development in media supplemented with oviductal fluid in a first phase between 24 to 72 hours and uterine fluid in a second phase between 48 hours to morula or blastocyst stage, wherein the embryos have been obtained by in vitro fertilization using sperm that has been processed in a culture medium supplemented with oviductal fluid, wherein the selection of said sperm for in vitro fertilization is based on its physiological ability to swim freely through a culture medium containing water, inorganic salts, energetic compounds, antibiotics and fractionated and treated oviductal fluid obtained from the late follicular phase of the cycle and, wherein the oviductal and uterine fluids of each of the phases of the reproductive cycle are fractionated and processed by double centrifugation with subsequent lyophilization, optionally with pasteurization and cooling for their use in assisted reproduction techniques or biotechnology in general.
Method for operating an inductive conductivity meter, wherein the conductivity meter comprises a transmitting coil, a receiving coil and a terminating impedance device, wherein the transmitting coil has a transmitting coil terminal, the receiving coil has a receiving coil terminal and the terminating impedance device has a terminating impedance (Z A), wherein the receiving coil is terminated with the terminating impedance device and wherein the transmitting coil and the receiving coil are inductively coupled with one another by an electrically conductive medium, characterized in that a setpoint input impedance is specified, an input impedance (Z E) is determined at the transmitting coil terminal, that the terminating impedance (Z A) is set such that the input impedance (Z E) is matched to the setpoint input impedance, and that a conductivity of the medium is determined using the adjusted input impedance (Z E) and the set termination impedance (Z A).
A wireless power supply communication circuit for electric cooking pot, comprising: a pot body; an upper cover; a first coil, arranged on the pot body; a pot body control unit, arranged on the pot body, coupled with the first coil; an upper cover control unit, arranged on the upper cover; and a second coil resonance circuit, arranged on the upper cover, coupled with the upper cover control unit; wherein the first coil is configured to electromagnetically induct with a second coil resonance circuit during energization so that the second coil resonance circuit generates current or voltage; wherein the pot body control unit is configured to obtain change signals of the current or voltage resonant wave generated by the electromagnetic induction between the first coil and the second coil resonance circuit during the power supply and communication of the circuit, and demodulate the change signals into cooking signals; wherein the second coil resonance circuit is configured to transmit the generated current or voltage to the upper cover control unit; and characterized in that, the upper cover control unit is configured to send a data signal to act on the second coil resonance circuit after energization, so as to change the amplitude of the current or voltage resonant wave generated by the electromagnetic induction between the second coil resonance circuit and the first coil; in that the upper cover control unit comprises a rectification module, a functional device, a processing chip and a carrier communication module, the rectification module is coupled with the second coil resonance circuit, the functional device and the processing chip are coupled with the rectification module, the functional device is coupled with the processing chip; the processing chip is coupled with the carrier communication module and configured to send a data signal to the carrier communication module; the carrier communication module is coupled with the second coil resonance circuit and configured to act on the second coil resonance circuit, so as to change the amplitude of the current or voltage resonant wave generated by the electromagnetic induction between the second coil resonance circuit and the first coil after receiving the data signal; and in that the carrier communication module comprises a switch device and a first resonance capacitor coupled with the switch device, the switch device is coupled with the processing chip, the first resonance capacitor is coupled with the second coil resonance circuit, wherein the switch device conducts after receiving the data signal, so that the first resonance capacitor acts on the second coil resonance circuit to change the amplitude of the current or voltage resonant wave generated by the electromagnetic induction between the second coil resonance circuit and the first coil. a pot body; an upper cover; a first coil, arranged on the pot body; a pot body control unit, arranged on the pot body, coupled with the first coil; an upper cover control unit, arranged on the upper cover; and a second coil resonance circuit, arranged on the upper cover, coupled with the upper cover control unit;
A container comprising a gel comprising first and second gel forming moieties which bind reversibly to one another to form a gel, said binding being sensitive to the level of an analyte; the container allowing movement of the analyte into and out of the gel and being capable of resisting an internal pressure of at least 250 mbar to limit swelling of the gel caused by influx of water into the gel by osmosis, wherein the container comprises top and bottom walls joined by one or more side walls defining an enclosed space, the top wall comprising two or more substantially planar inert metal grids and further comprising a porous membrane, and/or the bottom wall comprising two or more substantially planar inert metal grids and further comprising a porous membrane, wherein the substantially planar inert metal grids reinforce the structure of the container and restrict expansion of the gel, and further wherein the gel is contained within the enclosed space between the top wall and the bottom wall.
A compensation method for audio frame loss in a modified discrete cosine transform domain, the method comprising: step a, when a frame currently lost is a P th frame, obtaining a set of frequencies to be predicted, and for each frequency in the set of frequencies to be predicted, using phases and amplitudes of a plurality of frames before a ( P -1) th frame in a MDCT-MDST (modified discrete cosine transform-modified discrete sine transform) domain to predict a phase and an amplitude of the P th frame in the MDCT-MDST domain, using the predicted phase and amplitude of the P th frame in the MDCT-MDST domain to obtain a MDCT (modified discrete cosine transform) coefficient of the P th frame at said each frequency, wherein, the ( P -1) th frame is a previous frame of the P th frame; step b, for any frequency in a frame outside the set of frequencies to be predicted, using MDCT coefficients of a plurality of frames before the P th frame to calculate the MDCT coefficient of the P th frame at the frequency; step c, performing an IMDCT (inverse modified discrete cosine transform) for the MDCT coefficients of the P th frame at all frequencies to obtain the time domain signal of the P th frame. step a, when a frame currently lost is a P th frame, obtaining a set of frequencies to be predicted, and for each frequency in the set of frequencies to be predicted, using phases and amplitudes of a plurality of frames before a ( P -1) th frame in a MDCT-MDST (modified discrete cosine transform-modified discrete sine transform) domain to predict a phase and an amplitude of the P th frame in the MDCT-MDST domain, using the predicted phase and amplitude of the P th frame in the MDCT-MDST domain to obtain a MDCT (modified discrete cosine transform) coefficient of the P th frame at said each frequency, wherein, the ( P -1) th frame is a previous frame of the P th frame; step b, for any frequency in a frame outside the set of frequencies to be predicted, using MDCT coefficients of a plurality of frames before the P th frame to calculate the MDCT coefficient of the P th frame at the frequency; step c, performing an IMDCT (inverse modified discrete cosine transform) for the MDCT coefficients of the P th frame at all frequencies to obtain the time domain signal of the P th frame.
Thermally conductive pigment consisting of a flake-form, dielectric substrate and a layer located thereon which comprises at least 80% by weight, based on the total weight of the layer, of aluminium oxide and/or aluminium oxide hydrate.
Method for optimized working with a machine tool, wherein the machine tool is pressed onto a substrate by a user with a contact pressure p(t) at a time t during its operation, comprising the following steps: S1) indirectly determining the contact pressure p(t) using a power consumption of the machine tool, S2) adding the indirectly determined values for the contact pressure p(t), wherein the data and values from a day counter are used to determine the contact pressure p(t), which day counter respectively records different operating parameters of the machine tool for a working day, and wherein it is possible to determine which operating period should be considered, S3) comparing the added contact pressure values p ad (t) with a normal distribution, wherein the normal distribution is determined by means of comparative measurements on a multiplicity of comparable devices, S4) determining a recommendation for a contact pressure p(t) to be applied, S5) displaying the added contact pressure values p ad (t) and the recommendation for the contact pressure p(t) to be applied. S1) indirectly determining the contact pressure p(t) using a power consumption of the machine tool, S2) adding the indirectly determined values for the contact pressure p(t), wherein the data and values from a day counter are used to determine the contact pressure p(t), which day counter respectively records different operating parameters of the machine tool for a working day, and wherein it is possible to determine which operating period should be considered, S3) comparing the added contact pressure values p ad (t) with a normal distribution, wherein the normal distribution is determined by means of comparative measurements on a multiplicity of comparable devices, S4) determining a recommendation for a contact pressure p(t) to be applied, S5) displaying the added contact pressure values p ad (t) and the recommendation for the contact pressure p(t) to be applied.
A method for producing a liquid-tight cable which has at least one stranded wire provided with a sheathing and consisting of a plurality of individual wires, wherein a circumferential strip is removed from the sheathing at a sealing point and the individual wires of the at least one stranded wire are compacted in the region of the sealing point by a sealing means to form a liquid-tight barrier, and wherein a covering element is connected in a liquid-tight manner to the sheathing at least on one side of the sealing point while producing a sealing connection, the barrier being produced by applying to the at least one strand in the region of the sealing point a metal which is liquefied under the effect of heat and which penetrates between the individual wires and, when it cools, is solidified to form the barrier, characterized in that the sheathing element is assigned a ring of a solder centrally on the inside, through which ring the at least one strand is introduced into the sheathing element, which is placed over the sealing point and which is heated together with the covering element, and rings made of an adhesive which can be liquefied under the action of heat are assigned to the covering element on the inside at the edges on both sides, through which rings the at least one stranded wire is introduced into the covering element and which rings are placed over the sheathing on both sides of the sealing point and are heated together with the covering element.
An aircraft tire management method, comprising the steps of: obtaining the internal pressure and temperature of tires housed inside an aircraft in flight; obtaining the temperature and atmospheric pressure around the aircraft; and obtaining the altitudes and air temperatures at the takeoff and landing sites for the aircraft; characterised by calculating a target internal pressure at takeoff from information about the altitude and air temperature at a takeoff airport; calculating a tire internal pressure of the in-flight aircraft whereby the tire internal pressure becomes a target tire internal pressure on landing from information about the temperature and atmospheric pressure around the tires of the aircraft, the air temperature and atmospheric pressure at the landing airport, and a load anticipated to act on the tires on landing; and adjusting the tire internal pressure of the in-flight aircraft so that the obtained internal pressures of the tires housed inside the aircraft become the calculated tire internal pressure of the in-flight aircraft. obtaining the internal pressure and temperature of tires housed inside an aircraft in flight; obtaining the temperature and atmospheric pressure around the aircraft; and obtaining the altitudes and air temperatures at the takeoff and landing sites for the aircraft; characterised by calculating a target internal pressure at takeoff from information about the altitude and air temperature at a takeoff airport; calculating a tire internal pressure of the in-flight aircraft whereby the tire internal pressure becomes a target tire internal pressure on landing from information about the temperature and atmospheric pressure around the tires of the aircraft, the air temperature and atmospheric pressure at the landing airport, and a load anticipated to act on the tires on landing; and adjusting the tire internal pressure of the in-flight aircraft so that the obtained internal pressures of the tires housed inside the aircraft become the calculated tire internal pressure of the in-flight aircraft.