mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a compound having the formula I wherein M is a single-photon-emission tomography imageable radiometal and/or a paramagnetic metal, R is hydrogen or a halogen provided that at least one R is halogen and Y is selected from ortho, meta or para O(CH 2) n C 2 HB 9 H 10 or O(CH 2) n C 2 HB 10 H 10 wherein n is 0 or an integer from 1 to 20 and O(CH 2) n C 2 HB 9 H 10 is nido ortho-, meta- or para-carborane and O(CH 2) n C 2 HB 10 H 10 is ortho-, meta- or para-carborane, said process comprising: a) combining an aldehyde having the formula with pyrrole in the presence of a Lewis acid catalyst to form a compound having the formula IV b) oxidising the compound having the formula IV by the addition of from 0.1 to 2 molar equivalents 2,3-dichloro-5,6-dicyanobenzoquinone based on the aldehyde to form a compound having the formula II c) combining a compound having the formula II with the acetate of the metal M to form a compound having the formula III and; d) combining the compound having the formula III with a halogenating agent to form a compound having the formula I, in a mixed solvent solution or in an aliphatic alcohol having from 1 to 6 carbon atoms, wherein the compound of formula III as produced in step (c) is used directly to form the compound of formula I in step (d). a) combining an aldehyde having the formula with pyrrole in the presence of a Lewis acid catalyst to form a compound having the formula IV b) oxidising the compound having the formula IV by the addition of from 0.1 to 2 molar equivalents 2,3-dichloro-5,6-dicyanobenzoquinone based on the aldehyde to form a compound having the formula II c) combining a compound having the formula II with the acetate of the metal M to form a compound having the formula III and; d) combining the compound having the formula III with a halogenating agent to form a compound having the formula I, in a mixed solvent solution or in an aliphatic alcohol having from 1 to 6 carbon atoms,
Process for preparing aromatic amines by hydrogenation of aromatic nitro compounds, which comprises the steps: A) introduction of aromatic nitro compounds and hydrogen into a reactor with contacting of a hydrogenation catalyst; B) stopping of the introduction of aromatic nitro compounds and hydrogen into the reactor; characterized in that step B) is carried out by B1) firstly stopping the introduction of aromatic nitro compounds into the reactor so that aromatic nitro compounds remaining in the reactor and/or in plant parts fluidically connected upstream to the reactor react with the hydrogen which continues to be fed in and B2) subsequently stopping the introduction of hydrogen after a predetermined time and/or after the concentration of aromatic nitro compounds in the gas stream entering the reactor goes below a predetermined value. A) introduction of aromatic nitro compounds and hydrogen into a reactor with contacting of a hydrogenation catalyst; B) stopping of the introduction of aromatic nitro compounds and hydrogen into the reactor; B1) firstly stopping the introduction of aromatic nitro compounds into the reactor so that aromatic nitro compounds remaining in the reactor and/or in plant parts fluidically connected upstream to the reactor react with the hydrogen which continues to be fed in and B2) subsequently stopping the introduction of hydrogen after a predetermined time and/or after the concentration of aromatic nitro compounds in the gas stream entering the reactor goes below a predetermined value.
A computer-implemented method, carried out by at least one data processor forming part of at least one computing system, comprising the following steps: receiving first data comprising one or more characteristics characterizing a first infusion of fluid into a patient from a container by an infusion module, the first infusion having a first order identifier and a first volume infused; identifying an infusion event interrupting or terminating the first infusion; receiving second data comprising one or more characteristics characterizing a second infusion of fluid into the patient by the infusion module, the second infusion having a second volume to be infused; characterized by determining whether the second volume is less than a pre-defined percentage of the first volume; assigning the first order identifier to the second infusion if the second volume to be infused is less than a pre-defined percentage of the first volume infused and based on a determination of whether the second infusion has characteristics matching characteristics of the first infusion, or assigning a second order identifier, different from the first order identifier, to the second infusion if the second volume to be infused is greater than a pre-defined percentage of the first volume to be infused and based on a determination of whether the second infusion has characteristics matching characteristics of the first infusion. receiving first data comprising one or more characteristics characterizing a first infusion of fluid into a patient from a container by an infusion module, the first infusion having a first order identifier and a first volume infused; identifying an infusion event interrupting or terminating the first infusion; receiving second data comprising one or more characteristics characterizing a second infusion of fluid into the patient by the infusion module, the second infusion having a second volume to be infused; characterized by determining whether the second volume is less than a pre-defined percentage of the first volume; assigning the first order identifier to the second infusion if the second volume to be infused is less than a pre-defined percentage of the first volume infused and based on a determination of whether the second infusion has characteristics matching characteristics of the first infusion, or assigning a second order identifier, different from the first order identifier, to the second infusion if the second volume to be infused is greater than a pre-defined percentage of the first volume to be infused and based on a determination of whether the second infusion has characteristics matching characteristics of the first infusion.
An electrode assembly comprising a plurality of unit cells and films, wherein each of the unit cells has a structure in which a first separator, a positive electrode or a negative electrode, and a second separator are sequentially stacked, and wherein each of the first separator and the second separator has an area larger than each of areas of the positive electrode and the negative electrode, wherein each of the first separator and the second separator has ends protruding both sides of the separator, and bonding portions are formed by bonding the ends on each of the two sides of the first separator and the second separators of the unit cell, the films are disposed to cover the bonding portions, the films are disposed on each of the two sides of the directions perpendicular to the stacking direction of the electrodes and separators, and are attached to each of the side surfaces of the electrode assembly having two sides perpendicular to the sides from which the positive electrode tab and the negative electrode tab protrude, and the films are thermally fused to the bonding portion, and the plurality of unit cells is stacked and thermally fused together at bonding portions on each of two sides of the first and the second separator of each unit cell. wherein each of the unit cells has a structure in which a first separator, a positive electrode or a negative electrode, and a second separator are sequentially stacked, and wherein each of the first separator and the second separator has an area larger than each of areas of the positive electrode and the negative electrode, wherein each of the first separator and the second separator has ends protruding both sides of the separator, and bonding portions are formed by bonding the ends on each of the two sides of the first separator and the second separators of the unit cell, wherein each of the first separator and the second separator has an area larger than each of areas of the positive electrode and the negative electrode, wherein each of the first separator and the second separator has ends protruding both sides of the separator, and bonding portions are formed by bonding the ends on each of the two sides of the first separator and the second separators of the unit cell, the films are disposed to cover the bonding portions, the films are disposed on each of the two sides of the directions perpendicular to the stacking direction of the electrodes and separators, and are attached to each of the side surfaces of the electrode assembly having two sides perpendicular to the sides from which the positive electrode tab and the negative electrode tab protrude, and the films are thermally fused to the bonding portion, and the plurality of unit cells is stacked and thermally fused together at bonding portions on each of two sides of the first and the second separator of each unit cell.
A high strength cold rolled steel sheet comprising: a) a composition consisting of the following elements (in wt. %): C 0.1 - 0.3 Mn 1.4 - 2.7 Si 0.4 - 1.0 Cr 0.1 - 0.9 Si + Cr ≥ 0.9 Al ≤ 0.8 Nb < 0.1 Mo < 0.3 Ti < 0.2 V < 0.2 Cu < 0.5 Ni < 0.5 S ≤ 0.01 P ≤ 0.02 N ≤ 0.02 B < 0.005 Ca < 0.005 Mg < 0.005 REM < 0.005 balance Fe apart from impurities, b) a multiphase microstructure consisting of (in vol. %) retained austenite 5 - 22 bainite + ferritic bainite + tempered martensite ≤ 80 polygonal ferrite ≥ 10 c) the following mechanical properties a tensile strength (R m) ≥ 780 MPa an elongation (A 80) ≥ 12 %, preferably ≥ 13 %, and optionally fulfilling the following condition R m x A 80 ≥ 13 000 MPa% a) a composition consisting of the following elements (in wt. %): C 0.1 - 0.3 Mn 1.4 - 2.7 Si 0.4 - 1.0 Cr 0.1 - 0.9 Si + Cr ≥ 0.9 Al ≤ 0.8 Nb < 0.1 Mo < 0.3 Ti < 0.2 V < 0.2 Cu < 0.5 Ni < 0.5 S ≤ 0.01 P ≤ 0.02 N ≤ 0.02 B < 0.005 Ca < 0.005 Mg < 0.005 REM < 0.005 balance Fe apart from impurities, b) a multiphase microstructure consisting of (in vol. %) retained austenite 5 - 22 bainite + ferritic bainite + tempered martensite ≤ 80 polygonal ferrite ≥ 10 c) the following mechanical properties a tensile strength (R m) ≥ 780 MPa an elongation (A 80) ≥ 12 %, preferably ≥ 13 %, and optionally fulfilling the following condition R m x A 80 ≥ 13 000 MPa%
A cooling device comprising - a compressor enabling the refrigeration cycle to be performed, - a condenser that transfers thermal energy to the outside environment, - an evaporator that draws thermal energy from the environment being cooled, - a capillary pipe that is disposed between the condenser and the evaporator and that enables the refrigerant to be delivered to the evaporator by expanding at the outlet of the condenser, and - a return pipe that is disposed between the evaporator and the compressor and that carries the refrigerant in gas phase from evaporator to the compressor, characterised by a flexible flow regulator for preventing the noise originating from the fluid, the flow regulator having at least some portion in accordion form, and being disposed on the refrigerant circulation line that is between the evaporator and the condenser, wherein the flow regulator is disposed between the capillary pipe and the evaporator inlet with its end connected to the capillary pipe being frustoconical and the end thereof connected to the evaporator inlet being cylindrical; or wherein the flow regulator is disposed between the evaporator outlet and the return pipe with its end connected to the evaporator outlet being frustoconical and the end thereof connected to the return pipe being cylindrical. - a compressor enabling the refrigeration cycle to be performed, - a condenser that transfers thermal energy to the outside environment, - an evaporator that draws thermal energy from the environment being cooled, - a capillary pipe that is disposed between the condenser and the evaporator and that enables the refrigerant to be delivered to the evaporator by expanding at the outlet of the condenser, and - a return pipe that is disposed between the evaporator and the compressor and that carries the refrigerant in gas phase from evaporator to the compressor, characterised by a flexible flow regulator for preventing the noise originating from the fluid, the flow regulator having at least some portion in accordion form, and being disposed on the refrigerant circulation line that is between the evaporator and the condenser, wherein the flow regulator is disposed between the capillary pipe and the evaporator inlet with its end connected to the capillary pipe being frustoconical and the end thereof connected to the evaporator inlet being cylindrical; or wherein the flow regulator is disposed between the evaporator outlet and the return pipe with its end connected to the evaporator outlet being frustoconical and the end thereof connected to the return pipe being cylindrical.
Process for the preparation of a porous composite material comprising at least a binder-forming polymeric phase and one or more fillers chosen from: thermally conductive fillers exhibiting a thermal conductivity of greater than or equal to 5 W/mK and electrically conductive fillers exhibiting a resistivity of less than or equal to 0.1 ohm.cm, the fillers representing at least 75%, advantageously at least 80%, by weight, with respect to the sum of the weights of the polymeric phase and of the fillers, this process comprising the following stages: a) hot mixing, by the molten route, the polymeric phase, the fillers and a sacrificial polymeric phase, so as to obtain a mixture, b) shaping the mixture, c) removing the sacrificial polymeric phase, and the sacrificial polymeric phase represents at least 15% by weight of the total weight of the mixture of stage a), the porous composite material comprising, by weight, with respect to the total weight of the material, from 0% to 5% of one or more decomposition residues from the sacrificial phase. thermally conductive fillers exhibiting a thermal conductivity of greater than or equal to 5 W/mK and electrically conductive fillers exhibiting a resistivity of less than or equal to 0.1 ohm.cm, the fillers representing at least 75%, advantageously at least 80%, by weight, with respect to the sum of the weights of the polymeric phase and of the fillers, this process comprising the following stages: a) hot mixing, by the molten route, the polymeric phase, the fillers and a sacrificial polymeric phase, so as to obtain a mixture, b) shaping the mixture, c) removing the sacrificial polymeric phase, a) hot mixing, by the molten route, the polymeric phase, the fillers and a sacrificial polymeric phase, so as to obtain a mixture, b) shaping the mixture, c) removing the sacrificial polymeric phase, and the sacrificial polymeric phase represents at least 15% by weight of the total weight of the mixture of stage a), the porous composite material comprising, by weight, with respect to the total weight of the material, from 0% to 5% of one or more decomposition residues from the sacrificial phase.
A vascular access device, comprising: a body, a septum at least partially housed within the body, the septum having a bottom disk, a gas chamber housed between the body and the septum, wherein the gas chamber decreases in volume upon insertion of a tip of a separate access device, and a receptacle within the body for receiving gas from the gas chamber as the septum is actuated, wherein the receptacle is a neighboring gas chamber, characterized in that the bottom disk balloons and creates the receptacle as the septum is actuated when inserting the tip of the separate access device into the septum, and the vascular access device further comprising a cavity below the bottom disk of the septum, the cavity having sufficient volume to receive the receptacle and still leave a fluid transfer channel. a body, a septum at least partially housed within the body, the septum having a bottom disk, a gas chamber housed between the body and the septum, wherein the gas chamber decreases in volume upon insertion of a tip of a separate access device, and a receptacle within the body for receiving gas from the gas chamber as the septum is actuated, wherein the receptacle is a neighboring gas chamber, characterized in that the bottom disk balloons and creates the receptacle as the septum is actuated when inserting the tip of the separate access device into the septum, and the vascular access device further comprising a cavity below the bottom disk of the septum, the cavity having sufficient volume to receive the receptacle and still leave a fluid transfer channel.
A eutectic thermal sensing element, comprises: an electrically conductive core extending along a first axis to define a length; and an insulating fiber layer disposed on an external surface of the electrically conductive core, the insulating fiber layer including a strand that extends along the length of the electrically conductive core; wherein the electrically conductive core is coated with a eutectic material formulated to provide thermal response characteristics; wherein the strand includes a plurality of fiber segments that define a plurality of gaps between each fiber segment; wherein a gap length of each gap controls a delay of the eutectic sensing element. an electrically conductive core extending along a first axis to define a length; and an insulating fiber layer disposed on an external surface of the electrically conductive core, the insulating fiber layer including a strand that extends along the length of the electrically conductive core; wherein the electrically conductive core is coated with a eutectic material formulated to provide thermal response characteristics; wherein the strand includes a plurality of fiber segments that define a plurality of gaps between each fiber segment; wherein a gap length of each gap controls a delay of the eutectic sensing element.
An image processing device adapted to identify a characteristic of a lip from a face image including a mouth of a person, the image processing device comprising: an image acquisition unit adapted to output the obtained image to be processed to the face detection unit, the characteristic extraction unit and the representative skin color determination unit; a face detection unit adapted to detect a face image contained in an image that has been received from the image acquisition unit; a characteristic extraction unit adapted to detect locations of characteristics of the face, including the locations of characteristics of the mouth, in the face image; a mouth image normalization unit adapted to extract an image of the mouth region in the face image to be processed; a representative skin color determination unit for determining a representative color of a skin in the face image; a candidate color determination unit adapted to separate the mouth image into a plurality of regions arranged in the vertical direction, and for determining representative colors of the regions as candidate colors; and a representative lip color determination unit adapted to determine a degree to which each candidate color is the lip color, so as to be distinguished from a color of a skin, in accordance with a difference in hue and saturation between the representative color of the skin and each candidate color. an image acquisition unit adapted to output the obtained image to be processed to the face detection unit, the characteristic extraction unit and the representative skin color determination unit; a face detection unit adapted to detect a face image contained in an image that has been received from the image acquisition unit; a characteristic extraction unit adapted to detect locations of characteristics of the face, including the locations of characteristics of the mouth, in the face image; a mouth image normalization unit adapted to extract an image of the mouth region in the face image to be processed; a representative skin color determination unit for determining a representative color of a skin in the face image; a candidate color determination unit adapted to separate the mouth image into a plurality of regions arranged in the vertical direction, and for determining representative colors of the regions as candidate colors; and a representative lip color determination unit adapted to determine a degree to which each candidate color is the lip color, so as to be distinguished from a color of a skin, in accordance with a difference in hue and saturation between the representative color of the skin and each candidate color.
An apparatus for filting a customer order with a plurality of products each containing a pharmaceutical and each marked with a product barcode, the apparatus comprising: a conveyor defining a workflow path for processing the products; a label application station in the workflow path of the conveyor and configured to print and apply a patient label onto each of the products; a vision inspection station located downstream from the label application station along the workflow path, the vision inspection station configured to independently verify that the product barcode on each of the products matches a patient barcode on the patient label after application to the product; and an unloading station configured to transfer labeled and verified products away from the conveyor, wherein the products are shaped with a card form factor or a box form factor, and the vision inspection station comprises: a first barcode reader configured to read the product barcode and patient barcode on the products shaped with the card form factor; a second barcode reader configured to read the product barcode on the products shaped with the box form factor; and a third barcode reader configured to read the patient barcode on the products shaped with the box form factor. a conveyor defining a workflow path for processing the products; a label application station in the workflow path of the conveyor and configured to print and apply a patient label onto each of the products; a vision inspection station located downstream from the label application station along the workflow path, the vision inspection station configured to independently verify that the product barcode on each of the products matches a patient barcode on the patient label after application to the product; and an unloading station configured to transfer labeled and verified products away from the conveyor, wherein the products are shaped with a card form factor or a box form factor, and the vision inspection station comprises: a first barcode reader configured to read the product barcode and patient barcode on the products shaped with the card form factor; a second barcode reader configured to read the product barcode on the products shaped with the box form factor; and a third barcode reader configured to read the patient barcode on the products shaped with the box form factor. a first barcode reader configured to read the product barcode and patient barcode on the products shaped with the card form factor; a second barcode reader configured to read the product barcode on the products shaped with the box form factor; and a third barcode reader configured to read the patient barcode on the products shaped with the box form factor.