mhurhangee/ep-ind-claims huggingface dataset:
A glass article, comprising a core glass and a surface glass, wherein the surface glass is present down to a depth of < 20 nm and the core glass is present at least in a depth of 500 nm, wherein the core glass is characterized by the following constituent phases of the core glass: Constituent phase Min. (% by mol) Max. (% by mol) reedmergnerite 10 80 potassium reedmergnerite 0 30 albite 0 50 cordierite 0 10 anorthite 0 25 diboron trioxide 0 20 silicon dioxide 5 60 wherein the surface glass is characterized by the following constituent phases of the surface glass: Constituent phase Min. (% by mol) Max. (% by mol) reedmergnerite 2 60 potassium reedmergnerite 0 40 albite 0 70 cordierite 0 10 anorthite 0 20 diboron trioxide 0 15 silicon dioxide 6 80 wherein the core glass has a CTE K calculated according to formula CTE glass = 50116.33042 kJ mol E pot ̅ − 26.1724514 ppm / K in a range of 3.0 to 7.0 ppm/K, and wherein the surface glass has a CTE o calculated according to formula which in comparison to the CTE K of the core glass calculated according to formula is lower by at least 0.6 ppm/K.
Method for immuno-histochemical staining of a formalin-fixed, paraffin-embedded tissue section comprising the steps of: a) providing a solid support, b) mounting the formalin-fixed, paraffin-embedded tissue section onto the solid support, c) removing the paraffin from the formalin-fixed, paraffin-embedded tissue section, d) heating the tissue section mounted on the solid support to retrieve epitopes at 50 to 70°C for 12 to 24 h, and e) staining the tissue section mounted on the solid support, wherein at least step e) is performed in the presence of 0.5 to 3.0 M sodium chloride. a) providing a solid support, b) mounting the formalin-fixed, paraffin-embedded tissue section onto the solid support, c) removing the paraffin from the formalin-fixed, paraffin-embedded tissue section, d) heating the tissue section mounted on the solid support to retrieve epitopes at 50 to 70°C for 12 to 24 h, and e) staining the tissue section mounted on the solid support,
An upholstered item of furniture comprising a loin rest, a backrest that also acts as a headrest, a seat, a footrest and a supporting base, further comprising a device inserted inside said backrest/headrest, wherein said device comprises an upper first frame, two rail systems comprising two guides (61, 61a) and two corresponding sliding bodies (62, 62a), a lower second frame that serves as a base and comprises two clamps (63, 63a) and an electric linear actuator piston, and wherein said upper first frame is joined to said lower second frame by means of said two rail systems, the guides (61, 61a) of the rail systems being joined to said upper first frame and the sliding bodies (62, 62a) of the rail systems being joined to the clamps (63, 63a) of said lower second frame, said upper first frame being designed to move longitudinally along the axis of the rail system driven by said electric linear actuator piston, which electric linear actuator piston is joined to the upper first frame and to the lower second frame by means of holed brackets (65, 66), and wherein said upper first and said lower second frames form a single assembled frame upon which said electric linear actuator piston is mounted, and wherein said device inserted inside said backrest/headrest of said upholstered item of furniture is able to generate the vertical movement of said backrest/headrest of said upholstered item of furniture entirely independently of the movement of said loin rest and of said seat, and wherein said backrest/headrest, when operated by said device, moves vertically, longitudinally with respect to the supporting base of said upholstered item of furniture, and entirely independently of said loin rest and of said seat, characterised in that both said loin rest and said seat are separate from said backrest/headrest and in that the item of furniture comprises mechanisms designed to move the loin rest and the seat, the mechanisms being separate from the single assembled frame of said device. wherein said device comprises an upper first frame, two rail systems comprising two guides (61, 61a) and two corresponding sliding bodies (62, 62a), a lower second frame that serves as a base and comprises two clamps (63, 63a) and an electric linear actuator piston, and wherein said upper first frame is joined to said lower second frame by means of said two rail systems, the guides (61, 61a) of the rail systems being joined to said upper first frame and the sliding bodies (62, 62a) of the rail systems being joined to the clamps (63, 63a) of said lower second frame, said upper first frame being designed to move longitudinally along the axis of the rail system driven by said electric linear actuator piston, which electric linear actuator piston is joined to the upper first frame and to the lower second frame by means of holed brackets (65, 66), and wherein said upper first and said lower second frames form a single assembled frame upon which said electric linear actuator piston is mounted,
An aqueous sterile, ophthalmic pharmaceutical formulation comprising: a) a carbonic anhydrase inhibitor, wherein the carbonic anhydrase inhibitor is brinzolamide, b) an amphiphilic polymer, wherein the amphiphilic polymer is polyvinyl caprolactam-polyvinyl acetate-polyethylene glycol graft copolymer, and c) a surfactant, optionally along with pharmaceutically acceptable excipients, wherein the formulation is in the form of an aqueous solution suitable for ophthalmic use. a) a carbonic anhydrase inhibitor, wherein the carbonic anhydrase inhibitor is brinzolamide, b) an amphiphilic polymer, wherein the amphiphilic polymer is polyvinyl caprolactam-polyvinyl acetate-polyethylene glycol graft copolymer, and c) a surfactant,
An oral care composition comprising: a. a first source of zinc comprising zinc oxide; b. a second source of zinc comprising zinc citrate; c. stannous ion source; and d. a polyphosphate; wherein the zinc citrate is in an amount of from 0.25 to 1 wt.% and zinc oxide is present in an amount of from 0.75 to 1.25 wt.% based on the total weight of the composition. a. a first source of zinc comprising zinc oxide; b. a second source of zinc comprising zinc citrate; c. stannous ion source; and d. a polyphosphate; wherein
An apparatus (210, 250, 350, 460) for driving a light source of a luminaire, the apparatus comprising a sensor portion configured to obtain sensory information comprising information indicative of observed light level in an area served by the luminaire; a control portion configured to control operation of the light source in accordance with the sensory information and in accordance with one or more control parameters; and an adaptation portion for determining the one or more control parameters, the adaptation portion configured to initiate an adaptation period in response to a request thereto, and determine values for the one or more control parameters on basis of observed light level during the adaptation period; characterized in that the adaptation portion is configured to determine (940, 950) a dimming pattern on basis of observed light level during the adaptation period, and the control portion is configured to, after the adaptation period, employ said dimming pattern in switching off said light source.
Method for operating an anti-theft system of a motor vehicle, the anti-theft system comprising a communication device for near-field communication and a storage device for depositing a mobile terminal, wherein said storage device is arranged fixedly on a first interior equipment element of the motor vehicle within a transmitting and receiving range of the communication device; the method includes the steps: - storing the mobile terminal in an operating area of an interior of the motor vehicle (10, S2), wherein the operating area lies outside of the transmitting and receiving range, - by means of a connecting device: ▪ connecting the stored mobile terminal to the communication device (18, S3) by attaching a first connection element of the connection device to the mobile terminal and attaching a second connection element to the anti-theft system, and ▪ providing a wired data communication link between the stored mobile terminal and the communication device (18, S4), - via a control device: establishing the data communication connection provided by means of the connection device between the mobile terminal, and establishing an authorization of the mobile terminal to operate the anti-theft system; and - depending on the determined authorization: via the control device: activating and/or deactivating a function of the anti-theft system (12, S6) while the mobile terminal is outside of the transmitting and receiving range and within the operating area. - storing the mobile terminal in an operating area of an interior of the motor vehicle (10, S2), wherein the operating area lies outside of the transmitting and receiving range, - by means of a connecting device: ▪ connecting the stored mobile terminal to the communication device (18, S3) by attaching a first connection element of the connection device to the mobile terminal and attaching a second connection element to the anti-theft system, and ▪ providing a wired data communication link between the stored mobile terminal and the communication device (18, S4), ▪ connecting the stored mobile terminal to the communication device (18, S3) by attaching a first connection element of the connection device to the mobile terminal and attaching a second connection element to the anti-theft system, and ▪ providing a wired data communication link between the stored mobile terminal and the communication device (18, S4), - via a control device: establishing the data communication connection provided by means of the connection device between the mobile terminal, and establishing an authorization of the mobile terminal to operate the anti-theft system; and - depending on the determined authorization: via the control device: activating and/or deactivating a function of the anti-theft system (12, S6) while the mobile terminal is outside of the transmitting and receiving range and within the operating area.
Electronic device comprising a polymer which contains at least one carbazole structural unit of the general formula (Ia) where Ar 1, Ar 2, Ar 3 in each case, independently of one another, are an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type; m, o, independently of one another, are 0 or 1; and the dashed lines represent the linking in the polymer; and at least one arylamine structural unit of the general formula and/or where Ar 4, Ar 5, Ar 7, Ar 8 in each case, independently of one another, are an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type; Ar 6 is an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type, or represents a group of the formula Ar 9 -Ar 9, where Ar 9 in each case independently is an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type or may be linked to one another; p is 1, 2 or 3; q is 0 or 1 and the dashed lines represent the linking in the polymer, characterised in that the polymer is present in the device as a constituent of the hole-transport or hole-injection layer. Ar 1, Ar 2, Ar 3 in each case, independently of one another, are an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type; m, o, independently of one another, are 0 or 1; and the dashed lines represent the linking in the polymer; Ar 4, Ar 5, Ar 7, Ar 8 in each case, independently of one another, are an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type; Ar 6 is an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type, or represents a group of the formula Ar 9 -Ar 9, where Ar 9 in each case independently is an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type or may be linked to one another; p is 1, 2 or 3; q is 0 or 1 and
A system for detecting ice and/or water within an area of interest, said system comprising: a detection system for measuring radiance of the area of interest when exposed to electromagnetic radiation having wavelengths in a spectral band containing a crossover point in the curves representing the absorption of electromagnetic radiation by ice and water, said detection system measuring said radiance of the area of interest in said spectral band around said crossover point, said detection system being configured for measuring said radiance in a first band of said spectral band which has wavelengths in said spectral band on a first side of said crossover point (band λ1) and for outputting a first band signal ( R λ1), said detection system being configured for measuring said radiance in a second band of said spectral band which has wavelengths in said spectral band on a second opposing side of said crossover point (band λ2) and for outputting a second band signal ( R λ2); and a processing unit for determining a ratio of said first band signal and said second band signal (γ = R λ 1 / R λ2), said processing unit being configured for comparing said ratio to predetermined critical ratio ranges and for outputting a determination signal indicating at least one of presence of ice when said ratio is within a first range of said predetermined critical ratio ranges and presence of water when said ratio is within a second range of said predetermined critical ratio ranges. a detection system for measuring radiance of the area of interest when exposed to electromagnetic radiation having wavelengths in a spectral band containing a crossover point in the curves representing the absorption of electromagnetic radiation by ice and water, said detection system measuring said radiance of the area of interest in said spectral band around said crossover point, said detection system being configured for measuring said radiance in a first band of said spectral band which has wavelengths in said spectral band on a first side of said crossover point (band λ1) and for outputting a first band signal ( R λ1), said detection system being configured for measuring said radiance in a second band of said spectral band which has wavelengths in said spectral band on a second opposing side of said crossover point (band λ2) and for outputting a second band signal ( R λ2); and a processing unit for determining a ratio of said first band signal and said second band signal (γ = R λ 1 / R λ2), said processing unit being configured for comparing said ratio to predetermined critical ratio ranges and for outputting a determination signal indicating at least one of presence of ice when said ratio is within a first range of said predetermined critical ratio ranges and presence of water when said ratio is within a second range of said predetermined critical ratio ranges.
Cold-rolled aluminium alloy strip composed of an AlMg aluminium alloy, characterised in that the aluminium alloy has the following alloying elements: Si ≤ 0.2 wt.%, Fe ≤ 0.35 wt.%, Cu ≤ 0.15 wt.%, 0.2 wt.% ≤ Mn ≤ 0.35 wt.%, 4.1 wt.% ≤ Mg ≤ 4.5 wt.%, Cr ≤ 0.1 wt.%, Zn ≤ 0.25 wt.%, Ti ≤ 0.1 wt.%, the remainder being Al and inevitable impurities, amounting to a maximum of 0.05 wt.% individually and to a maximum of 0.15 wt.% in total, wherein the aluminium alloy strip has a recrystallized microstructure, the grain size of the microstructure ranges from 15 μm to 25 μm and the final soft annealing of the aluminium alloy strip is performed in a continuous furnace.
Method for determining an optimised trajectory for a non-productive movement of a tool of a machine tool from a starting position to a target position in a spatially bounded travel envelope which is modelled by geometric conditions while avoiding collisions, comprising the steps: a) establishing a first trajectory of the tool through the travel envelope by means of a pathfinding algorithm, which does not take account of design conditions of the machine tool, wherein the first trajectory is optimised for at least one selectable target parameter in the non-productive movement, wherein at least one command to a drive means of the tool is established on the basis of the first trajectory, said drive means corresponding to the first trajectory; b) establishing a second trajectory by simulating the first trajectory while taking account of a filter to take account of dynamic characteristics of the machine tool, wherein the filter in a controller of the machine tool is an image of dynamic characteristics of the machine tool, wherein the dynamic characteristics comprise maximum accelerations, maximum speeds and a characteristic for high-wear vibrations; c) identifying a collision when a geometric condition which models the travel envelope is violated at a point of the second trajectory; d) determining a correction condition under the geometric conditions and modifying the correction condition; wherein, in a first run of the method, the geometric conditions in step a) correspond, while taking account of safety margins, to the surfaces of at least one obstacle which bound the travel envelope, and steps a) to d) are repeated until the geometric conditions in step c) are met for all points of the second trajectory, characterised in that the modification of the correction condition takes the form of a change in a drill hole exit height and the filter takes the form of a setpoint filter and the at least one command to the drive means of the tool provokes a translational and/or rotational acceleration of the tool. a) establishing a first trajectory of the tool through the travel envelope by means of a pathfinding algorithm, which does not take account of design conditions of the machine tool, wherein the first trajectory is optimised for at least one selectable target parameter in the non-productive movement, wherein at least one command to a drive means of the tool is established on the basis of the first trajectory, said drive means corresponding to the first trajectory; b) establishing a second trajectory by simulating the first trajectory while taking account of a filter to take account of dynamic characteristics of the machine tool, wherein the filter in a controller of the machine tool is an image of dynamic characteristics of the machine tool, wherein the dynamic characteristics comprise maximum accelerations, maximum speeds and a characteristic for high-wear vibrations; c) identifying a collision when a geometric condition which models the travel envelope is violated at a point of the second trajectory; d) determining a correction condition under the geometric conditions and modifying the correction condition;
An apparatus comprising: a clocked data sampler having charging transistors (111, 112) configured to receive a control signal (b1, b2, bn) for generating a PVT-calibrated current (i1, i2, in), the clocked data sampler further configured to receive a pair of active input signals; a reference branch circuit configured to generate a process-voltage-temperature -dependent reference voltage based on a reference current obtained via a band gap generator and having signal inputs tied to a common mode voltage of the pair of active input signals; a static analog calibration circuit having signal inputs tied to the common mode voltage of the pair of active input signals and configured to generate a PVT-dependent output voltage responsive to the common mode voltage of the pair of active input signals and an adjustable current; and a control signal generator configured to compare the PVT-dependent output voltage to the PVT-dependent reference voltage and to responsively adjust the PVT-dependent output voltage via updates to the control signal (b1, b2, bn) for adjusting the adjustable current through the static analog calibration circuit, the control signal further provided to the charging transistors (111, 112) for configuring the clocked data sampler with the PVT-calibrated current (i1, i2, in). a clocked data sampler having charging transistors (111, 112) configured to receive a control signal (b1, b2, bn) for generating a PVT-calibrated current (i1, i2, in), the clocked data sampler further configured to receive a pair of active input signals; a reference branch circuit configured to generate a process-voltage-temperature -dependent reference voltage based on a reference current obtained via a band gap generator and having signal inputs tied to a common mode voltage of the pair of active input signals; a static analog calibration circuit having signal inputs tied to the common mode voltage of the pair of active input signals and configured to generate a PVT-dependent output voltage responsive to the common mode voltage of the pair of active input signals and an adjustable current; and a control signal generator configured to compare the PVT-dependent output voltage to the PVT-dependent reference voltage and to responsively adjust the PVT-dependent output voltage via updates to the control signal (b1, b2, bn) for adjusting the adjustable current through the static analog calibration circuit, the control signal further provided to the charging transistors (111, 112) for configuring the clocked data sampler with the PVT-calibrated current (i1, i2, in).
A process for the preparation of copper containing molecular sieve with the CHA structure which have the aluminosilicate composition having a silica to alumina mole ratio greater than 10, wherein the copper is ex-changed into the Na + -form of the molecular sieve with the CHA structure, which is the calcined form of this zeolite without any ion exchange containing a mixture of Na + and H + cations in the exchange sites, wherein the calcination temperatures are in the 400 °C to 850 °C range, using a liquid copper solution wherein the initial concentration of copper is in the range of 0.05 to 0.3 molar, wherein the liquid to solid ratio which is defined as the weight of water and copper salt used to prepare the Cu solution relative to the dry weight of the starting zeolite used in the copper exchange step is in the range from 2 to 15, wherein the reaction temperature of the copper-exchange step is in the range of 20 to 60°C, wherein copper acetate or an ammoniacal solution of copper ions is used as copper source, and wherein the copper exchange step is conducted once and not repeated. wherein the reaction temperature of the copper-exchange step is in the range of 20 to 60°C, wherein copper acetate or an ammoniacal solution of copper ions is used as copper source, and wherein the copper exchange step is conducted once and not repeated.
Building construction, comprising a shell made of a flexible, e.g. textile, material, acting as a mould, which has an interior filled with a foam concrete mass in the assembled state, wherein the shell is provided with a support layer (17, 41, 42) on its inner wall and/or on its outer wall, which strengthens the building construction in a preassembled state before the filling of the shell with the foam concrete mass and/or in a final assembled state after the filling of the shell with the foam concrete mass, characterised in that the support layer (17, 41, 42) comprises a mat structure or a textile reinforcement as well as cement or concrete.