mhurhangee/ep-ind-claims huggingface dataset:
A plasma activated ophthalmic solution generating device operable to generate a therapeutic ophthalmic solution for curing epidemic keratoconjunctivitis, the device comprising: a power supply unit; an insert space; a plasma generating electrode that is arranged surrounding said insert space; and a high voltage generating unit, which is connected to the power supply unit, operable to be supplied with power source from the power supply unit and to apply high voltage electric current to the plasma generating electrode, characterized by a unit dose ophtalmic eyedrop container with a container body inserted in said insert space, wherein the container body seals a certain solution in a sterile state, wherein the plasma generating electrode is configured to generate a plasma activated ophthalmic solution for curing epidemic keratoconjunctivitis by receiving high voltage electric current from the high voltage generating unit. a power supply unit; an insert space; a plasma generating electrode that is arranged surrounding said insert space; and a high voltage generating unit, which is connected to the power supply unit, operable to be supplied with power source from the power supply unit and to apply high voltage electric current to the plasma generating electrode, characterized by a unit dose ophtalmic eyedrop container with a container body inserted in said insert space, wherein the container body seals a certain solution in a sterile state, wherein the plasma generating electrode is configured to generate a plasma activated ophthalmic solution for curing epidemic keratoconjunctivitis by receiving high voltage electric current from the high voltage generating unit.
An optical brightening agent comprising a mixture of compounds of formulae, and in which R is hydrogen or methyl; Y is a natural or unnatural amino acid from which a hydrogen atom of the amino group has been removed; and M is hydrogen, an alkali metal cation, ammonium, ammonium which is mono-, di- or trisubstituted by a C 1 -C 4 linear or branched alkyl radical, ammonium which is mono-, di- or trisubstituted by a C1-C4 linear or branched hydroxyalkyl radical. R is hydrogen or methyl; Y is a natural or unnatural amino acid from which a hydrogen atom of the amino group has been removed; and M is hydrogen, an alkali metal cation, ammonium, ammonium which is mono-, di- or trisubstituted by a C 1 -C 4 linear or branched alkyl radical, ammonium which is mono-, di- or trisubstituted by a C1-C4 linear or branched hydroxyalkyl radical.
An apparatus comprising: means for determining a value of impedance associated with operation of an electrosurgical probe having a particular probe design; means for determining whether the value of impedance is within a range of values that has been predetermined for the particular probe design to indicate that the probe is ablating tissue; and means for delivering power to the probe according to a selected one of: an ablation algorithm and a non-ablation algorithm; and to switch between the ablation algorithm and the non-ablation algorithm based upon a determination that the value of impedance is outside the range of values, the non ablation algorithm comprising a pulsed profile including portions of low power and portions of high power characterised in that the lower limit of the range used for switching from the ablation algorithm to the non-ablation algorithm is lower than the lower limit of the range used for switching from the non-ablation algorithm to the ablation algorithm. means for determining a value of impedance associated with operation of an electrosurgical probe having a particular probe design; means for determining whether the value of impedance is within a range of values that has been predetermined for the particular probe design to indicate that the probe is ablating tissue; and means for delivering power to the probe according to a selected one of: an ablation algorithm and a non-ablation algorithm; and to switch between the ablation algorithm and the non-ablation algorithm based upon a determination that the value of impedance is outside the range of values, the non ablation algorithm comprising a pulsed profile including portions of low power and portions of high power
Mortar shell having a peripheral annular recess, in which a sealing ring consisting of an elastic material is mounted, said sealing ring expanding when the mortar shell is being fired from a mortar by the application of propellant gases and being pressed against the inner surface of the barrel of the mortar, characterized in that provision is made of an annular element, which encompasses the sealing ring and consists of a material which is selected in such a manner that the annular element holds the sealing ring in a position of rest when the mortar shell is being loaded, such that the mortar shell can drop freely into the barrel, and that the annular element does not hinder or does not significantly hinder the expansion of the sealing ring when the mortar shell is being fired.
Method for unwinding a bobbin of a coiled sheet, the method comprising: ∘ providing a bobbin of a coiled sheet, the bobbin comprising a free portion of the sheet unwound from the bobbin; ∘ arranging a blade between the free portion of the sheet and the remaining of the sheet coiled in the bobbin in such a way that the blade is in contact to the sheet coiled in the bobbin; and ∘ vibrating the blade while unwinding the sheet from the bobbin. ∘ providing a bobbin of a coiled sheet, the bobbin comprising a free portion of the sheet unwound from the bobbin; ∘ arranging a blade between the free portion of the sheet and the remaining of the sheet coiled in the bobbin in such a way that the blade is in contact to the sheet coiled in the bobbin; and ∘ vibrating the blade while unwinding the sheet from the bobbin.
A sensor for detecting metal parts, particularly metallic or semi-metallic wheels of railway vehicles, having a quality-exhibiting electrical oscillating circuit which comprises at least one sensor coil generating a magnetic field and at least one sensor capacitance, wherein an adjustable, preferably digital impedance is magnetically coupled into the electrical oscillating circuit, whereby the quality of the electrical oscillating circuit is adjustable, wherein the detection range of the sensor for metal parts can be changed by adjusting the quality of the electrical oscillating circuit; and wherein a change in a direct voltage and/or direct current of the electrical oscillating circuit signals a detection of metal parts.
A microfluidic coagulation device, comprising: at least one substrate defining a plurality of microchannels; a first port at a first end portion of the substrate, the first port connecting to first ends of the plurality of microchannels; a second port at a second end portion of the substrate, the second port connecting to second ends of the plurality of microchannels; a pump configured to apply a differential pressure resulting in a constant flow rate/shear rate across the first port; a first sensing device configured to determine a pressure value in, or relating to, a pressure across the plurality of microchannels; and a timer; characterized by a controller configured to determine, in combination with the first sensing device and the timer, a first pressure value at an initiation of flow, a first time at which a second pressure value is twice the first pressure value, and a second time at which a third pressure value is (1+e) times the first pressure value, and further configured to establish a subject coagulation model predictive of channel occlusion wherein the model is governed by the relation Δ P t Δ P 0 = 1 + e t − T pg T pf − T pg wherein T pf is the second time and T pg is the first time, and whereupon application of a differential pressure or flow rate/shear across the first port by the pump, a blood sample is driven across the plurality of microchannels at a substantially constant flow rate. at least one substrate defining a plurality of microchannels; a first port at a first end portion of the substrate, the first port connecting to first ends of the plurality of microchannels; a second port at a second end portion of the substrate, the second port connecting to second ends of the plurality of microchannels; a pump configured to apply a differential pressure resulting in a constant flow rate/shear rate across the first port; a first sensing device configured to determine a pressure value in, or relating to, a pressure across the plurality of microchannels; and a timer; characterized by a controller configured to determine, in combination with the first sensing device and the timer, a first pressure value at an initiation of flow, a first time at which a second pressure value is twice the first pressure value, and a second time at which a third pressure value is (1+e) times the first pressure value, and further configured to establish a subject coagulation model predictive of channel occlusion wherein the model is governed by the relation Δ P t Δ P 0 = 1 + e t − T pg T pf − T pg wherein T pf is the second time and T pg is the first time, and whereupon application of a differential pressure or flow rate/shear across the first port by the pump, a blood sample is driven across the plurality of microchannels at a substantially constant flow rate.
A process for producing aldehydes, comprising: a) contacting a catalyst composition and a first olefin under hydroformylation conditions to prepare a catalyst ligand composition; and b) contacting a second olefin, hydrogen and carbon monoxide in the presence of said catalyst ligand composition to produce aldehydes wherein the second olefin is propylene, wherein the first olefin has a longer carbon chain than the second olefin, and wherein said catalyst ligand composition comprises tris(3-pyridyl)phosphine, a magnesium centered tetraphenylporphyrin coordination complex and a ligand formed in situ via insertion of the first olefin into a rhodium carbonyl bond. a) contacting a catalyst composition and a first olefin under hydroformylation conditions to prepare a catalyst ligand composition; and b) contacting a second olefin, hydrogen and carbon monoxide in the presence of said catalyst ligand composition to produce aldehydes wherein the second olefin is propylene,
A polyethylene composition having the following features: 1) density from 0.945 to 0.955 g/cm 3, in particular from 0.948 to 0.952 g/cm 3, or from 0.948 to 0.951 g/cm 3 determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 23 to 40, in particular from 25 to 38, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) MIF from 8.5 to 18 g/10 min., in particular from 9 to 16 g/10 min.; 4) HMWcopo index from 3.5 to 20, preferably from 8 to 20; 5) long-chain branching index, LCBI, from 0.45 to 0.85; wherein the HMWcopo index is determined according to the following formula: HMWcopo = η 0.02 × t maxDSC / 10 ∧ 5 where η 0.02 is the complex viscosity of the melt in Pa.s, measured at a temperature of 190°C, in a parallel-plate rheometer under dynamic oscillatory shear mode with an applied angular frequency of 0.02 rad/s; the t maxDSC is the time in minutes required to reach the maximum value of heat flow of crystallization at a temperature of 124 °C under quiescent conditions, measured in isothermal mode in a differential scanning calorimetry apparatus; LCBI is the ratio of the measured mean-square radius of gyration R g, measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight. 1) density from 0.945 to 0.955 g/cm 3, in particular from 0.948 to 0.952 g/cm 3, or from 0.948 to 0.951 g/cm 3 determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 23 to 40, in particular from 25 to 38, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) MIF from 8.5 to 18 g/10 min., in particular from 9 to 16 g/10 min.; 4) HMWcopo index from 3.5 to 20, preferably from 8 to 20; 5) long-chain branching index, LCBI, from 0.45 to 0.85;
A method for producing a partially separated fiber bundle wherein, while a fiber bundle comprising a plurality of single fibers is traveled along the lengthwise direction of the fiber bundle, a separation means provided with a plurality of projected parts is penetrated into the fiber bundle to create a separation-processed part, and entangled parts, where the single fibers are interlaced, are formed at contact parts with the projected parts in at least one separation-processed part, thereafter the separation means is removed from the fiber bundle, and after passing through an entanglement accumulation part including the entangled parts, the separation means is penetrated again into the fiber bundle, characterized in that a separation means in which the intervals of the projected parts are nonuniform in the width direction of the fiber bundle is penetrated, and separation processing is performed in a nonuniform manner with respect to the width direction of the fiber bundle.
An apparatus for introducing and distributing a flowable additive into an exhaust gas flow, the apparatus comprising an inlet to receive the exhaust gas flow from a first exhaust gas treatment device, an outlet to output the exhaust gas flow to a second exhaust gas treatment device, a flow conducting device to lead the exhaust gas flow from the inlet to the outlet, and an injector opening into the flow conducting device, wherein an at least substantially straight-line main flow direction of the apparatus is defined by the inlet and the outlet; and wherein a mixing section of the flow conducting device arranged downstream of the injector extends obliquely or transversely to the main flow direction, in particular wherein the mixing section extends in an angular range between 30° and 150°, preferably between 60° and 120°, particularly preferably between 70° and 100°, with respect to the main flow direction, characterized in that the flow conducting device defines a first flow path comprising the mixing section for a first part flow of the exhaust gas flow and a separate second flow path for a second part flow of the exhaust gas flow, with the first and second flow paths (48, 49) being arranged in parallel with one another in a technical flow aspect, and wherein the second flow path comprises a swirl generating section which generates a swirl, in particular a double swirl, in the respective part flow during operation of the apparatus due to its shape, wherein the mixing section is at least sectionally led around the swirl generating section. and wherein a mixing section of the flow conducting device arranged downstream of the injector extends obliquely or transversely to the main flow direction, in particular wherein the mixing section extends in an angular range between 30° and 150°, preferably between 60° and 120°, particularly preferably between 70° and 100°, with respect to the main flow direction, characterized in that the flow conducting device defines a first flow path comprising the mixing section for a first part flow of the exhaust gas flow and a separate second flow path for a second part flow of the exhaust gas flow, with the first and second flow paths (48, 49) being arranged in parallel with one another in a technical flow aspect, and wherein the second flow path comprises a swirl generating section which generates a swirl, in particular a double swirl, in the respective part flow during operation of the apparatus due to its shape, wherein the mixing section is at least sectionally led around the swirl generating section.
Manhole covering having a frame, which can be displaced in a structural body, and a manhole cover which can be inserted into the frame and can be bolted to the frame and comprises a profile frame and a support plate surrounded by the profile frame for receiving a lining, characterised in that the support plate, which is inserted into the profile frame with a seal being interposed, consists of a honeycomb core having an upper and lower cover layer.
Moulding tool, which as part of the moulding tool includes a metal plate with complementary microstructures or a metal foil with complementary microstructures, the metal plate or metal foil being formed by a metal layer which is produced by means of a master component in an electrodeposition process and is separated from the master component, and the complementary microstructures being complementary to microstructures on the master component, characterised in that the metal plate or the metal foil is made of a ferromagnetic material and is retained at least partially magnetically in the tool, the metal plate or metal foil being retained by a plurality of magnets which are arranged in such a way that in each case the magnets arranged adjacent to one another alternate with regard to their polarisation direction.
An encoder system for encoding an audio time signal as a bit stream signal, including: an encoding section operable in several coding modes for encoding an audio time signal as a bit stream signal, the encoding section including a speech coding module, characterized by a decision section adapted to decide whether post filtering, which applies a pitch-enhancement filter, is to be disabled at decoding of the bit stream signal separately from deciding on the coding mode and to encode this decision in the bit stream signal as post filtering information. an encoding section operable in several coding modes for encoding an audio time signal as a bit stream signal, the encoding section including a speech coding module, characterized by a decision section adapted to decide whether post filtering, which applies a pitch-enhancement filter, is to be disabled at decoding of the bit stream signal separately from deciding on the coding mode and to encode this decision in the bit stream signal as post filtering information.
Cushion system comprising a plurality of cushions for a shading system of the type comprising a piece of cloth slidingly fastened to a section bar of an upright, each cushion comprising a raceway with a substantially C-shaped cross section to fasten the cushion to an edge of the section bar and a flexible plastic tongue, having an end on the raceway and an opposed end spaced from the raceway to contact the upright, said tongue serves as a spring between the section bar and the upright, allowing the section bar to come nearer to the upright in a compression phase or to be spaced in a predetermined measure in the absence of compression, characterized by the fact that said cushions are assembled with a predetermined pitch on the edge or on opposed edges of said section bar.
Method for processing radar signals in a detection system comprising at least a computing architecture including at least one memory to store at least one set of signal-related programs and/or data, at least one processor executing said programs to implement said method comprising at least: - a first step to digitize radar signals by means of a digitization device; - a second step to generate spectra from the digitized signals obtained at the first step, via Fast Fourier Transformation, FFT, computation, said FFT computation comprises at least a multi-FFT processing comprising at least simultaneous FFT computation comprising different FFT computations of different sizes of FFT with automatic selection of said sizes via a selection algorithm from among the stored; said method being such that: - the multi-FFT processing comprises real-time selection of signals in all spectra resulting from the different FFT computations, performed via a selection algorithm, - in the simultaneous FFT computation, the different signal detection thresholds associated with the different FFT sizes used and placed in increasing order in the memory, are separated by a constant value of between 4dB and 10dB. - a first step to digitize radar signals by means of a digitization device; - a second step to generate spectra from the digitized signals obtained at the first step, via Fast Fourier Transformation, FFT, computation, said FFT computation comprises at least a multi-FFT processing comprising at least simultaneous FFT computation comprising different FFT computations of different sizes of FFT with automatic selection of said sizes via a selection algorithm from among the stored; - the multi-FFT processing comprises real-time selection of signals in all spectra resulting from the different FFT computations, performed via a selection algorithm, - in the simultaneous FFT computation, the different signal detection thresholds associated with the different FFT sizes used and placed in increasing order in the memory, are separated by a constant value of between 4dB and 10dB.
An apparatus for reducing drag-induced resistive forces upon a terrestrial vehicle wheel assembly, characterized by: an aerodynamically optimized tailfin disposed in rotatable attachment to a spoke of said wheel assembly wherein the tailfin may swivel freely about said spoke in response to varying winds impinging thereon; and said tailfin providing reduced drag on said spoke wherein both the net drag-induced resistive forces upon said wheel assembly and the vehicle propulsive forces needed to countervail said resistive forces are reduced. an aerodynamically optimized tailfin disposed in rotatable attachment to a spoke of said wheel assembly wherein the tailfin may swivel freely about said spoke in response to varying winds impinging thereon; and said tailfin providing reduced drag on said spoke wherein both the net drag-induced resistive forces upon said wheel assembly and the vehicle propulsive forces needed to countervail said resistive forces are reduced.
Transmitting and/or receiving antenna designed to outfit a submersible vehicle, comprising at least the following elements: • a support element made of a conductive material, • a first loop of a given shape comprising a first end connected to a first point and a second end connected to a common point M, • a second loop comprising a first end connected to a second point and a second end connected to the common point M, having a shape similar to the shape of the first loop, • means allowing to supply the first ends (21, 31) of the two loops with power in phase opposition so that the return currents directed towards the common point M balance each other out, • a protective enclosure for the first and the second loop, and wherein • the two loops are symmetric with respect to an axis of symmetry A corresponding to the support element, • the support is mechanically and electrically connected to the second symmetrical ends (22, 32) and to the common point M, and • the support is configured to distance the common point M and the loops from the ground of the submersible vehicle and to electrically connect said two symmetrical ends (22, 32) to the ground of the submersible vehicle. • a support element made of a conductive material, • a first loop of a given shape comprising a first end connected to a first point and a second end connected to a common point M, • a second loop comprising a first end connected to a second point and a second end connected to the common point M, having a shape similar to the shape of the first loop, • means allowing to supply the first ends (21, 31) of the two loops with power in phase opposition so that the return currents directed towards the common point M balance each other out, • a protective enclosure for the first and the second loop, • the two loops are symmetric with respect to an axis of symmetry A corresponding to the support element, • the support is mechanically and electrically connected to the second symmetrical ends (22, 32) and to the common point M, and • the support is configured to distance the common point M and the loops from the ground of the submersible vehicle and to electrically connect said two symmetrical ends (22, 32) to the ground of the submersible vehicle.