mhurhangee/ep-ind-claims huggingface dataset:
Process for the improvement of reducibility of iron ore pellets comprising the following steps: a) Preparing the raw material mixture, wherein the said mixture comprises: i. The iron ore powder of any kind; ii. Adding 0,4 to 0, 7% of bentonite per total mass of the mixture; iii. Adding 1,00 to 5,00% of limestone per total mass of the mixture; iv. Adding 0,025 to 0,100% of Ni per total mass of the mixture from any source; v. Adding 0,025 to 0,100% of Fe per total mass of the mixture. b) Pelletizing the mixture obtained at the end of step a) in a pelleting disk with addition of water and drying; c) Burning the raw pellets obtained from the step b) in a furnace under oxidizing condition and temperature within the range of 1000°C to 1400°C. d) Reducing the burnt pellets obtained from the step c) under reducing conditions with presence of CH 4. a) Preparing the raw material mixture, wherein the said mixture comprises: i. The iron ore powder of any kind; ii. Adding 0,4 to 0, 7% of bentonite per total mass of the mixture; iii. Adding 1,00 to 5,00% of limestone per total mass of the mixture; iv. Adding 0,025 to 0,100% of Ni per total mass of the mixture from any source; v. Adding 0,025 to 0,100% of Fe per total mass of the mixture. i. The iron ore powder of any kind; ii. Adding 0,4 to 0, 7% of bentonite per total mass of the mixture; iii. Adding 1,00 to 5,00% of limestone per total mass of the mixture; iv. Adding 0,025 to 0,100% of Ni per total mass of the mixture from any source; v. Adding 0,025 to 0,100% of Fe per total mass of the mixture. b) Pelletizing the mixture obtained at the end of step a) in a pelleting disk with addition of water and drying; c) Burning the raw pellets obtained from the step b) in a furnace under oxidizing condition and temperature within the range of 1000°C to 1400°C. d) Reducing the burnt pellets obtained from the step c) under reducing conditions with presence of CH 4.
A process for preparing a pellet of compressed proteins comprising vital gluten, and said process comprises the following steps: a) feeding proteins comprising vital gluten into a suitable equipment, b) providing into the equipment heated air or steam to increase the temperature of the proteins such that the temperature is from 50 to 80°C, and to add moisture in an amount of 0 to 5% by weight of the dry proteins preferably up to 3%, c) pouring the heated proteins through a die for obtaining pellets, d) collecting the pellets. characterised in that the die has a ratio of thickness to diameter of from 10 to 25. a) feeding proteins comprising vital gluten into a suitable equipment, b) providing into the equipment heated air or steam to increase the temperature of the proteins such that the temperature is from 50 to 80°C, and to add moisture in an amount of 0 to 5% by weight of the dry proteins preferably up to 3%, c) pouring the heated proteins through a die for obtaining pellets, d) collecting the pellets. characterised in that the die has a ratio of thickness to diameter of from 10 to 25.
Optical system comprising: - a rotary scanning mirror, arranged in such a way as to receive an incident beam of rays and return a beam of rays, called input beam, along a given axis, called first axis, - an optical instrument arranged in such a way as to receive the input beam from the scanning mirror, and to return a beam of rays, called output beam, along a given axis, called second axis, - an optical image rotation device, positioned on the second axis and arranged in such a way as to receive the output beam, characterized in that the optical instrument is arranged in such a way as to return the output beam parallel to the input beam, in a direction opposite to said input beam, towards the optical image rotation device, in that the scanning mirror is arranged in such a way as to have an axis of rotation aligned on the first axis, in that the optical image rotation device is arranged in such a way as to have an axis of rotation aligned on the second axis, and in that the optical system comprises a rotational driving means common to the scanning mirror and to the optical image rotation device about their respective rotation axes (300; 400). - a rotary scanning mirror, arranged in such a way as to receive an incident beam of rays and return a beam of rays, called input beam, along a given axis, called first axis, - an optical instrument arranged in such a way as to receive the input beam from the scanning mirror, and to return a beam of rays, called output beam, along a given axis, called second axis, - an optical image rotation device, positioned on the second axis and arranged in such a way as to receive the output beam,
A process for producing amide compounds from a primary amine with more than 95% conversion, wherein said process comprises the steps of: a. contacting a primary amine, solvent and ammonia solution with a non-precious metal-containing ordered, mesoporous, solid catalyst, wherein the amount of catalyst ranges from 10 to 40% by weight of amine, solvent ranges from 10 to 30 times by weight of said primary amine and ammonia solution ranges from 2 to 10 times by weight of amine; b. pressurizing the reactor with molecular oxygen-containing gas at a pressure of 2 to 6 bar; c. subjecting the reaction mixture obtained in step (b) to a temperature in the range of 100 to 160 °C and for a reaction period of 3 to 8 hrs to obtain said amide compound, and, d. separating the amide compound from the left out ammonia solution, solvent and catalyst. a. contacting a primary amine, solvent and ammonia solution with a non-precious metal-containing ordered, mesoporous, solid catalyst, wherein the amount of catalyst ranges from 10 to 40% by weight of amine, solvent ranges from 10 to 30 times by weight of said primary amine and ammonia solution ranges from 2 to 10 times by weight of amine; b. pressurizing the reactor with molecular oxygen-containing gas at a pressure of 2 to 6 bar; c. subjecting the reaction mixture obtained in step (b) to a temperature in the range of 100 to 160 °C and for a reaction period of 3 to 8 hrs to obtain said amide compound, and, d. separating the amide compound from the left out ammonia solution, solvent and catalyst.
A method, comprising: receiving (1002,1018) first information in an apparatus (100,202) configured to communicate on a wireless channel, the first information relating to wireless traffic expected from other networks also utilizing the wireless channel; determining (1004,1020) whether the first information satisfies a first criterion in the apparatus; if the first information is determined not to satisfy the first criterion in the apparatus, determining (1010,1026) whether second information satisfies a second criterion in the apparatus, the second information relating to wireless traffic on the wireless channel that is expected from a network in which the apparatus is participating characterized in that: if the first information is determined to satisfy the first criterion in the apparatus, shortening (1006,1022) an awake window duration for communicating on the wireless channel; and if the second information is determined to satisfy the second criterion in the apparatus, lengthening (1012,1028) the awake window duration for communicating on the wireless channel. receiving (1002,1018) first information in an apparatus (100,202) configured to communicate on a wireless channel, the first information relating to wireless traffic expected from other networks also utilizing the wireless channel; determining (1004,1020) whether the first information satisfies a first criterion in the apparatus; if the first information is determined not to satisfy the first criterion in the apparatus, determining (1010,1026) whether second information satisfies a second criterion in the apparatus, the second information relating to wireless traffic on the wireless channel that is expected from a network in which the apparatus is participating characterized in that: if the first information is determined to satisfy the first criterion in the apparatus, shortening (1006,1022) an awake window duration for communicating on the wireless channel; and if the second information is determined to satisfy the second criterion in the apparatus, lengthening (1012,1028) the awake window duration for communicating on the wireless channel. if the first information is determined to satisfy the first criterion in the apparatus, shortening (1006,1022) an awake window duration for communicating on the wireless channel; and if the second information is determined to satisfy the second criterion in the apparatus, lengthening (1012,1028) the awake window duration for communicating on the wireless channel.
An electrocatalyst for a polymer electrolyte fuel cell, the electrocatalyst comprising: a conductive carrier having liquid proton-conductive material retaining parts; a catalyst disposed on a surface of the conductive carrier; a solid proton-conductive material surrounding an exterior of the conductive carrier; and a liquid proton-conductive material contained in the liquid proton-conductive material retaining parts, the liquid proton-conductive material providing proton transport paths between the catalyst and the solid proton-conductive material, wherein a contact area between the catalyst and the solid proton-conductive material is smaller than a contact area between the catalyst and the liquid proton-conductive material, wherein an equivalent weight of the solid proton-conductive material is 1200 g/eq. or less, and wherein the catalyst contains at least one metal selected from the group consisting of Pt, Ir, Co, Ni, Fe, Cu, Ru, Ag, and Pd. a conductive carrier having liquid proton-conductive material retaining parts; a catalyst disposed on a surface of the conductive carrier; a solid proton-conductive material surrounding an exterior of the conductive carrier; and a liquid proton-conductive material contained in the liquid proton-conductive material retaining parts, the liquid proton-conductive material providing proton transport paths between the catalyst and the solid proton-conductive material, wherein a contact area between the catalyst and the solid proton-conductive material is smaller than a contact area between the catalyst and the liquid proton-conductive material, wherein an equivalent weight of the solid proton-conductive material is 1200 g/eq. or less, and wherein the catalyst contains at least one metal selected from the group consisting of Pt, Ir, Co, Ni, Fe, Cu, Ru, Ag, and Pd.
An access device for surgical procedures comprising: a multiport end cap (60; 80) including a rigid body with a flexible support (64, 65; 84) sealingly mounted to the rigid body with a plurality of separate access ports for accommodating introduction of individual surgical instruments into a body of a patient, at least one of the access ports sealingly attached to the flexible support (64, 65; 84) and extending in a proximal direction therefrom, wherein the flexible support (64, 65; 84) is of a material more flexible than those of the rigid body and access ports to provide for relative angular movement of at least one of the access ports to provide flexibility for positioning surgical instruments introduced through the at least one access port, characterized in that the flexible support (64, 65; 84) includes at least one flexible bellow, wherein the rigid body includes a rigid top body (62; 82) and a rigid bellow support (72, 74), wherein the rigid top body (62; 82) and the rigid bellow support (72, 74; 86) compress an outer peripheral edge of the flexible support (64, 65; 84) therebetween to form a sealing engagement between the rigid body and the flexible support (64, 65; 84), wherein the rigid bellow support (72, 74; 86) includes at least one support rib (76, 78; 88) extending proximally from the rigid bellow support (72, 74; 86) into the bellow to inhibit inversion of the bellow during instrument insertion into the access port. a multiport end cap (60; 80) including a rigid body with a flexible support (64, 65; 84) sealingly mounted to the rigid body with a plurality of separate access ports for accommodating introduction of individual surgical instruments into a body of a patient, at least one of the access ports sealingly attached to the flexible support (64, 65; 84) and extending in a proximal direction therefrom, wherein the flexible support (64, 65; 84) is of a material more flexible than those of the rigid body and access ports to provide for relative angular movement of at least one of the access ports to provide flexibility for positioning surgical instruments introduced through the at least one access port, characterized in that the flexible support (64, 65; 84) includes at least one flexible bellow, wherein the rigid body includes a rigid top body (62; 82) and a rigid bellow support (72, 74), wherein the rigid top body (62; 82) and the rigid bellow support (72, 74; 86) compress an outer peripheral edge of the flexible support (64, 65; 84) therebetween to form a sealing engagement between the rigid body and the flexible support (64, 65; 84), wherein the rigid bellow support (72, 74; 86) includes at least one support rib (76, 78; 88) extending proximally from the rigid bellow support (72, 74; 86) into the bellow to inhibit inversion of the bellow during instrument insertion into the access port.
A developer cartridge detachably mountable on a tandem type photosensitive unit slidable to a drawn-out position and a mounted position with respect to an image forming apparatus body, comprising: a casing; a developer carrier rotatably supported on one end portion of the casing for carrying a developer; and a pair of upright portions arranged on another end portion of the casing at an interval from each other in the axial direction of the developer carrier to extend from another end portion of the casing in a detaching direction for the developer cartridge, characterized by an elastically deformable coupling portion extending in the axial direction of the developer carrier for coupling the upright portions with each other; and an opposed portion opposed to the coupling portion at an interval on the side of the casing between the upright portions, wherein the opposed portion is higher in rigidity than the coupling portion. a casing; a developer carrier rotatably supported on one end portion of the casing for carrying a developer; and a pair of upright portions arranged on another end portion of the casing at an interval from each other in the axial direction of the developer carrier to extend from another end portion of the casing in a detaching direction for the developer cartridge, characterized by an elastically deformable coupling portion extending in the axial direction of the developer carrier for coupling the upright portions with each other; and an opposed portion opposed to the coupling portion at an interval on the side of the casing between the upright portions, wherein the opposed portion is higher in rigidity than the coupling portion.
An imaging system, comprising: first, second, and third modulated light sources; a camera configured to capture images of an environment, the camera including a computational pixel imager, CPI, (100; 102; 401) having a plurality of pixels, each of the pixels including: a first counter configured to count up and down at a frequency F1 of the first modulated light source in the environment, such that a periodicity of a first up-down count pattern of the first counter is synchronized with the frequency F1, a second counter configured to count up and down at a frequency F2 of the second modulated light source in the environment, such that a periodicity of a second up-down count pattern of the second counter is synchronized with the frequency F2, and a third counter configured to count up and down at a frequency F3 of the third modulated light source in the environment, such that a periodicity of a third up-down count pattern of the third counter is synchronized with the frequency F3, wherein the frequency F1, the frequency F2, and the frequency F3 are different from each other. first, second, and third modulated light sources; a camera configured to capture images of an environment, the camera including a computational pixel imager, CPI, (100; 102; 401) having a plurality of pixels, each of the pixels including: a first counter configured to count up and down at a frequency F1 of the first modulated light source in the environment, such that a periodicity of a first up-down count pattern of the first counter is synchronized with the frequency F1, a second counter configured to count up and down at a frequency F2 of the second modulated light source in the environment, such that a periodicity of a second up-down count pattern of the second counter is synchronized with the frequency F2, and a third counter configured to count up and down at a frequency F3 of the third modulated light source in the environment, such that a periodicity of a third up-down count pattern of the third counter is synchronized with the frequency F3, wherein the frequency F1, the frequency F2, and the frequency F3 are different from each other. a first counter configured to count up and down at a frequency F1 of the first modulated light source in the environment, such that a periodicity of a first up-down count pattern of the first counter is synchronized with the frequency F1, a second counter configured to count up and down at a frequency F2 of the second modulated light source in the environment, such that a periodicity of a second up-down count pattern of the second counter is synchronized with the frequency F2, and a third counter configured to count up and down at a frequency F3 of the third modulated light source in the environment, such that a periodicity of a third up-down count pattern of the third counter is synchronized with the frequency F3, wherein the frequency F1, the frequency F2, and the frequency F3 are different from each other.
One-stage method for producing a foam moulding from poly(meth)acrylimide, an adhesion promoter or an adhesion promoter mixture and optional auxiliaries, comprising the following steps: - grinding a polymeric moulding made of poly(meth)acrylimide, comprising blowing agents which decompose or evaporate at a temperature between 150 and 250°C, - coating the grindings obtained in the preceding step with an adhesion promoter, - introducing the coated grindings into a mould, - optionally adding the auxiliaries, - heating the mould, - cooling the mould below the foaming temperature, and - demoulding the foam moulding. - grinding a polymeric moulding made of poly(meth)acrylimide, comprising blowing agents which decompose or evaporate at a temperature between 150 and 250°C, - coating the grindings obtained in the preceding step with an adhesion promoter, - introducing the coated grindings into a mould, - optionally adding the auxiliaries, - heating the mould, - cooling the mould below the foaming temperature, and - demoulding the foam moulding.
A method for detecting two biological events in a reaction medium, comprising the following steps: - introducing, into the reaction medium, 2 pairs of fluorescent FRET partner conjugates, at least one of the fluorescent conjugates comprising a rare earth chelate or cryptate, each pair being specific for one of the biological events studied, the wavelength at which the fluorescent donor conjugates are excited being the same for all the pairs, and the wavelength at which the signals emitted by the fluorescent acceptor conjugates are measured being the same for all the pairs; - introducing a FRET signal killer agent capable of selectively suppressing the FRET between two FRET partners, said killer agent being a compound which causes a decrease of the FRET signal of at least 70% compared to the signal measured in the absence of said compound; - sequentially measuring the various FRET signals emitted by the reaction medium; the FRET signal killer agent being: - either an anti-rare earth chelate antibody or an anti-rare earth cryptate antibody; - or an ion which competes with the rare earth for the binding with the chelate, or an agent which complexes metals; - or uric acid. - introducing, into the reaction medium, 2 pairs of fluorescent FRET partner conjugates, at least one of the fluorescent conjugates comprising a rare earth chelate or cryptate, each pair being specific for one of the biological events studied, the wavelength at which the fluorescent donor conjugates are excited being the same for all the pairs, and the wavelength at which the signals emitted by the fluorescent acceptor conjugates are measured being the same for all the pairs; - introducing a FRET signal killer agent capable of selectively suppressing the FRET between two FRET partners, said killer agent being a compound which causes a decrease of the FRET signal of at least 70% compared to the signal measured in the absence of said compound; - sequentially measuring the various FRET signals emitted by the reaction medium; - either an anti-rare earth chelate antibody or an anti-rare earth cryptate antibody; - or an ion which competes with the rare earth for the binding with the chelate, or an agent which complexes metals; - or uric acid.
Method of MR imaging of at least a portion of a body placed in a main magnetic field Bo within the examination volume of a MR device, the method comprising the following steps: - subjecting the portion of the body to an imaging sequence comprising one or more RF pulses and switched magnetic field gradients for acquiring imaging signals from a volume of interest; - subjecting the portion of the body to a navigator sequence which is interleaved with the imaging sequence, the navigator sequence comprising one or more RF pulses and switched magnetic field gradients controlled in such a manner that navigator signals are acquired from a navigator volume by means of a single-point or multi-point Dixon technique, and water and fat navigators (30, 31) are reconstructed from the navigator signals as low resolution water and fat maps, respectively; - using the water and fat navigators for segmentation and determination of motion in the volume of interest by deriving affine motion transformations from the segmented water and fat navigators (30, 31) for deriving translation and/or rotation and/or shear data from the navigator signals, which translation and/or rotation and/or shear data reflect motion occurring within the portion of the body during the MR imaging; - reconstructing a MR image from the imaging signals and wherein the translation and/or rotation and/or shear data are used for adapting the imaging sequence and/or for motion correction during reconstruction of the MR image. - subjecting the portion of the body to an imaging sequence comprising one or more RF pulses and switched magnetic field gradients for acquiring imaging signals from a volume of interest; - subjecting the portion of the body to a navigator sequence which is interleaved with the imaging sequence, the navigator sequence comprising one or more RF pulses and switched magnetic field gradients controlled in such a manner that navigator signals are acquired from a navigator volume by means of a single-point or multi-point Dixon technique, and water and fat navigators (30, 31) are reconstructed from the navigator signals as low resolution water and fat maps, respectively; - using the water and fat navigators for segmentation and determination of motion in the volume of interest by deriving affine motion transformations from the segmented water and fat navigators (30, 31) for deriving translation and/or rotation and/or shear data from the navigator signals, which translation and/or rotation and/or shear data reflect motion occurring within the portion of the body during the MR imaging; - reconstructing a MR image from the imaging signals and