mhurhangee/ep-ind-claims huggingface dataset:
A storage unit for storing and dispensing filled prescription orders, the storage unit comprising: a frame; a plurality of feeders mounted to the frame, each of the plurality of feeders including a loading port to allow loading a plurality of filled prescription orders into the storage unit simultaneously, a bottom of each of the loading port is defined by a V-shaped wall; a storage structure positioned within the frame, the storage structure configured to store the filled prescription orders; a dispenser mounted to the frame, the dispenser configured to dispense the filled prescription orders; a collection bin mounted to the frame, the collection bin configured to receive the filled prescription orders; a container-moving assembly positioned within the frame, the container-moving assembly operable to move a filled prescription order from a feeder of the plurality of feeders to the storage structure when the filled prescription order is positioned within the feeder, move the filled prescription order from the storage structure to the dispenser in response to a first command, and move the filled prescription order from the storage structure to the collection bin in response to a second command. a frame; a plurality of feeders mounted to the frame, each of the plurality of feeders including a loading port to allow loading a plurality of filled prescription orders into the storage unit simultaneously, a bottom of each of the loading port is defined by a V-shaped wall; a storage structure positioned within the frame, the storage structure configured to store the filled prescription orders; a dispenser mounted to the frame, the dispenser configured to dispense the filled prescription orders; a collection bin mounted to the frame, the collection bin configured to receive the filled prescription orders; a container-moving assembly positioned within the frame, the container-moving assembly operable to move a filled prescription order from a feeder of the plurality of feeders to the storage structure when the filled prescription order is positioned within the feeder, move the filled prescription order from the storage structure to the dispenser in response to a first command, and move the filled prescription order from the storage structure to the collection bin in response to a second command. move a filled prescription order from a feeder of the plurality of feeders to the storage structure when the filled prescription order is positioned within the feeder, move the filled prescription order from the storage structure to the dispenser in response to a first command, and move the filled prescription order from the storage structure to the collection bin in response to a second command.
Life-support system, in particular heart-lung machine, comprising: - a plurality of medical devices (4.1-4.4), - an operating panel with separate operating elements (10.1-10.4) for operating the medical devices (4.1-4.4) and - a display panel with separate display and/or control elements (18.1-18.4), of which each display and/or control element (18.1-18.4) serves for displaying and/or controlling system and/or operating states of an assigned medical device (4.1-4.4); wherein an excellent operating position is distinguished in that the operating panel is designed such that to each device (4.1-4.4) is assigned an operating element (10.1-10.4) aligned with only this one of the devices (4.1-4.4) and with the operating position and in each case an operating element (10.1-10.4), a medical device (4.1-4.4) assigned to the latter and a display and/or control element (18.1-18.4) assigned to these are arranged to be essentially aligned with the operating position and wherein the display and/or control elements (18.1-18.4), the medical devices (4.1-4.4) and the operating elements (10.1-10.4), seen from the operating position, are arranged at polar angles (θ.1-θ.4) following one another in this sequence. - a plurality of medical devices (4.1-4.4), - an operating panel with separate operating elements (10.1-10.4) for operating the medical devices (4.1-4.4) and - a display panel with separate display and/or control elements (18.1-18.4), of which each display and/or control element (18.1-18.4) serves for displaying and/or controlling system and/or operating states of an assigned medical device (4.1-4.4); wherein an excellent operating position is distinguished in that the operating panel is designed such that to each device (4.1-4.4) is assigned an operating element (10.1-10.4) aligned with only this one of the devices (4.1-4.4) and with the operating position and in each case an operating element (10.1-10.4), a medical device (4.1-4.4) assigned to the latter and a display and/or control element (18.1-18.4) assigned to these are arranged to be essentially aligned with the operating position and
A tape cassette adapted to be removably installed in the cassette housing portion of a tape printer, the tape cassette comprising: a box-like housing that includes a top wall having a top surface, a bottom wall having a bottom surface and opposing the top wall, and a side wall having a specified height and being formed along peripheries of the top wall and the bottom wall, the box-like housing having a front side and a rear side opposite to the front side and the housing further including an arm portion having an arm front surface being a part of the side wall; a tape (55, 57, 58, 59) that is mounted within the housing; a first indicator portion provided on the arm front surface and being adapted to oppose arm detecting switches of an arm detection portion of the tape printer and being adapted to selectively press the arm detecting switches to detect a first element among a plurality of elements of a tape type (55, 57, 58, 59); and a second indicator portion provided in the bottom wall of the housing and being adapted to oppose rear detecting switches of a rear detection portion of the tape printer and being adapted to selectively press the rear detecting switches to detect a second element among the plurality of elements of the tape type, the second element being different from the first element. a box-like housing that includes a top wall having a top surface, a bottom wall having a bottom surface and opposing the top wall, and a side wall having a specified height and being formed along peripheries of the top wall and the bottom wall, the box-like housing having a front side and a rear side opposite to the front side and the housing further including an arm portion having an arm front surface being a part of the side wall; a tape (55, 57, 58, 59) that is mounted within the housing; a first indicator portion provided on the arm front surface and being adapted to oppose arm detecting switches of an arm detection portion of the tape printer and being adapted to selectively press the arm detecting switches to detect a first element among a plurality of elements of a tape type (55, 57, 58, 59); and a second indicator portion provided in the bottom wall of the housing and being adapted to oppose rear detecting switches of a rear detection portion of the tape printer and being adapted to selectively press the rear detecting switches to detect a second element among the plurality of elements of the tape type, the second element being different from the first element.
A film-producing device, the device comprising: an LED holder that collectively holds a plurality of ultraviolet LED elements configured to emit ultraviolet light; and a work holder with a work holder body, wherein an accommodating recess portion is formed on the work holder body so as to have a size that accommodates an entire base material for holding the base material in a state where a solution containing a macromolecular monomer is brought into contact with a sliding surface of the base material having an uneven shape wherein the plurality of ultraviolet LED elements are arranged separately from each other, and irradiate the solution on the sliding surface with the ultraviolet light by irradiating, with the ultraviolet light, a wider area of the sliding surface than an area that each of the ultraviolet LED elements individually irradiates so that a macromolecular layer is formed by photograft polymerization on the sliding surface, characterized in that the base material is of an artificial joint composite; the work holder body supports the LED holder via an adapter, and a heater for heating the solution is attached to the work holder body, wherein heat generated by the heater is transmitted to the solution via the work holder body. an LED holder that collectively holds a plurality of ultraviolet LED elements configured to emit ultraviolet light; and a work holder with a work holder body, wherein an accommodating recess portion is formed on the work holder body so as to have a size that accommodates an entire base material for holding the base material in a state where a solution containing a macromolecular monomer is brought into contact with a sliding surface of the base material having an uneven shape wherein the plurality of ultraviolet LED elements are arranged separately from each other, and irradiate the solution on the sliding surface with the ultraviolet light by irradiating, with the ultraviolet light, a wider area of the sliding surface than an area that each of the ultraviolet LED elements individually irradiates so that a macromolecular layer is formed by photograft polymerization on the sliding surface,
An oxygen sensing structure, comprising: a substrate having a top surface; and a nanocomposite sensing layer positioned on the top surface, the nanocomposite layer including: a plurality of carbon nanotubes extending vertically from the top surface of the substrate; and a plurality of metal-oxide particles including at least one of strontium titanate and strontium titanate ferrate. a substrate having a top surface; and a nanocomposite sensing layer positioned on the top surface, the nanocomposite layer including: a plurality of carbon nanotubes extending vertically from the top surface of the substrate; and a plurality of metal-oxide particles including at least one of strontium titanate and strontium titanate ferrate. a plurality of carbon nanotubes extending vertically from the top surface of the substrate; and a plurality of metal-oxide particles including at least one of strontium titanate and strontium titanate ferrate.
Method for preparing compounds of formula in which R 1 and R 2 are the same and are C 1 -C 6 -alkyl, by reacting 1,4-dichloro-5,8-dihydroxyanthraquinone of formula with at least one compound of formulae (IIIa) and/or (IIIb) in which R 1 and R 2 have the definition specified for formula, and at least one base, characterized in that the reaction is carried out in the presence of at least one 5- or 6-membered cyclic urea derivative of formula in which R 4 and R 5 are each independently unsubstituted C 1 -C 6 -alkyl, R 6 to R 11 are each independently hydrogen, C 1 -C 6 -alkyl or phenyl, and n is zero or one. R 4 and R 5 are each independently unsubstituted C 1 -C 6 -alkyl, R 6 to R 11 are each independently hydrogen, C 1 -C 6 -alkyl or phenyl, and n is zero or one.
A catalyst composition for hydroformylation, comprising: a phosphite-based ligand represented by Formula 1 below; a transition metal compound represented by Formula 2 below; and a solvent, wherein the transition metal is comprised in a content of 50 to 90 ppm based on a total weight of the phosphite-based ligand, the transition metal compound, and the solvent: wherein R 12, R 14 and R 15; R 22 R 24, and R 25; and R 32, R 34 and R 35 are the same or different and are each independently selected from among hydrogen, normal alkyl groups having 1 to 20 carbon atoms, and branched alkyl groups having 4 to 20 carbon atoms; and each of R 11, R 13, R 21, R 23, R 31, and R 33 is a branched alkyl group having 4 to 10 carbon atoms, and [Formula 2] M (L 1) x (L 2) y (L 3) z wherein M is one selected from the group consisting of rhodium (Rh), cobalt (Co), iridium (Ir), ruthenium (Ru), iron (Fe), nickel (Ni), palladium (Pd), platinum (Pt), and osmium (Os), L 1, L 2, and L 3 are each independently one selected from the group consisting of hydrogen, carbonyl, cyclooctadiene, norbornene, chlorine, triphenylphosphine, and acetylacetonate (AcAc), x, y, and z are each independently an integer of 0 to 5, and x, y and z are not 0 at the same time, wherein the catalyst composition is a single ligand system only including the phosphite-based ligand represented by formula 1, and wherein the phosphite-based ligand is comprised in an amount of 2 to 8 % by weight based on 100 % by weight of the sum of the phosphite-based ligand, the transition metal compound, and the solvent. a phosphite-based ligand represented by Formula 1 below; a transition metal compound represented by Formula 2 below; and a solvent, wherein the transition metal is comprised in a content of 50 to 90 ppm based on a total weight of the phosphite-based ligand, the transition metal compound, and the solvent: wherein R 12, R 14 and R 15; R 22 R 24, and R 25; and R 32, R 34 and R 35 are the same or different and are each independently selected from among hydrogen, normal alkyl groups having 1 to 20 carbon atoms, and branched alkyl groups having 4 to 20 carbon atoms; and each of R 11, R 13, R 21, R 23, R 31, and R 33 is a branched alkyl group having 4 to 10 carbon atoms, and [Formula 2] M (L 1) x (L 2) y (L 3) z wherein M is one selected from the group consisting of rhodium (Rh), cobalt (Co), iridium (Ir), ruthenium (Ru), iron (Fe), nickel (Ni), palladium (Pd), platinum (Pt), and osmium (Os), L 1, L 2, and L 3 are each independently one selected from the group consisting of hydrogen, carbonyl, cyclooctadiene, norbornene, chlorine, triphenylphosphine, and acetylacetonate (AcAc), x, y, and z are each independently an integer of 0 to 5, and x, y and z are not 0 at the same time,
Use of a powderous catalytic system comprising a metal alloy carrier comprising (i) 55 wt-% - 80 wt-%, based on the total weight of the metal alloy, of Co, and (ii) 20 wt-% - 40 wt-%, based on the total weight of the metal alloy, of Cr, and (iii) 2 wt-% - 10 wt-%, based on the total weight of the metal alloy, of Mo, and wherein the said metal alloy is coated by a metal oxide layer, which is a mixture of ZnO and Al 2 O 3 in a ratio of 2:1 to 1:2 and impregnated with Pd nanoparticles, wherein the Pd-nanoparticles have an average particle size of between 0.5 and 20 nm (the size is measured by light scattering methods) in selective catalytic hydrogenation of a compound of formula wherein R 1 is linear or branched C 5 -C 35 alkyl or linear or branched C 5 -C 35 alkenyl moiety, wherein the C chain can be substituted, and R 2 is linear or branched C 1 -C 4 alkyl, wherein the C chain can be substituted. a metal alloy carrier comprising (i) 55 wt-% - 80 wt-%, based on the total weight of the metal alloy, of Co, and (ii) 20 wt-% - 40 wt-%, based on the total weight of the metal alloy, of Cr, and (iii) 2 wt-% - 10 wt-%, based on the total weight of the metal alloy, of Mo, and (i) 55 wt-% - 80 wt-%, based on the total weight of the metal alloy, of Co, and (ii) 20 wt-% - 40 wt-%, based on the total weight of the metal alloy, of Cr, and (iii) 2 wt-% - 10 wt-%, based on the total weight of the metal alloy, of Mo, and wherein the said metal alloy is coated by a metal oxide layer, which is a mixture of ZnO and Al 2 O 3 in a ratio of 2:1 to 1:2 and impregnated with Pd nanoparticles, wherein the Pd-nanoparticles have an average particle size of between 0.5 and 20 nm (the size is measured by light scattering methods) in selective catalytic hydrogenation of a compound of formula wherein R 1 is linear or branched C 5 -C 35 alkyl or linear or branched C 5 -C 35 alkenyl moiety, wherein the C chain can be substituted, and R 2 is linear or branched C 1 -C 4 alkyl, wherein the C chain can be substituted. R 1 is linear or branched C 5 -C 35 alkyl or linear or branched C 5 -C 35 alkenyl moiety, wherein the C chain can be substituted, and R 2 is linear or branched C 1 -C 4 alkyl, wherein the C chain can be substituted.
A communication method, comprising: forming, by a base station, m beams by using a manner of antenna weighting, wherein m is a positive integer greater than 1; determining, by the base station, an uplink receive power of each beam in the m beams according to an uplink sounding signal of a user equipment, UE; selecting, by the base station, n beams from the m beams according to the uplink receive power of each beam in the m beams, wherein n is a positive integer, and n<m; characterized in that the method further comprises: sending, by the base station, pilot signals to the UE by using the n beams, and wherein the selecting n beams from the m beams comprises: determining a sum of uplink receive powers of beams in each of q groups of beams according to the uplink receive power of each beam in the m beams, wherein the q groups of beams are obtained by grouping the m beams, and each group of beams comprises n beams; and selecting a group of beams from the q groups of beams, wherein a sum of uplink receive powers of beams in the selected group of beams is the greatest one in the q groups of beams. forming, by a base station, m beams by using a manner of antenna weighting, wherein m is a positive integer greater than 1; determining, by the base station, an uplink receive power of each beam in the m beams according to an uplink sounding signal of a user equipment, UE; selecting, by the base station, n beams from the m beams according to the uplink receive power of each beam in the m beams, wherein n is a positive integer, and n<m; characterized in that the method further comprises: sending, by the base station, pilot signals to the UE by using the n beams, and wherein the selecting n beams from the m beams comprises: determining a sum of uplink receive powers of beams in each of q groups of beams according to the uplink receive power of each beam in the m beams, wherein the q groups of beams are obtained by grouping the m beams, and each group of beams comprises n beams; and selecting a group of beams from the q groups of beams, wherein a sum of uplink receive powers of beams in the selected group of beams is the greatest one in the q groups of beams.
A method comprising: introducing a first treatment fluid into a wellbore extending into a subterranean formation at a pressure sufficient to create or extend at least one fracture in the subterranean formation, wherein the first treatment fluid comprises a first aqueous base fluid and a first tackifier, and wherein the first treatment fluid causes at least a portion of a fracture face to become tacky; and after the first treatment fluid causes at least a portion of a fracture face to become tacky, introducing a second treatment fluid into the wellbore at a pressure sufficient to maintain or extend the fracture in the subterranean formation, wherein the second treatment fluid comprises a second aqueous base fluid and first proppant particles. introducing a first treatment fluid into a wellbore extending into a subterranean formation at a pressure sufficient to create or extend at least one fracture in the subterranean formation, wherein the first treatment fluid comprises a first aqueous base fluid and a first tackifier, and wherein the first treatment fluid causes at least a portion of a fracture face to become tacky; and after the first treatment fluid causes at least a portion of a fracture face to become tacky, introducing a second treatment fluid into the wellbore at a pressure sufficient to maintain or extend the fracture in the subterranean formation, wherein the second treatment fluid comprises a second aqueous base fluid and first proppant particles.
A hot-side heat exchanger assembly having a plurality of plates stacked and hermetically sealed between an upstream end plate and a downstream end plate, defining: a condenser/chiller portion adjacent said upstream end plate, wherein said upstream end plate includes a refrigerant inlet and a hot coolant outlet; a sub-cooler portion adjacent said downstream end plate, wherein said downstream end plate includes a refrigerant outlet, a hot coolant inlet, and a sub-cooler coolant inlet; a refrigerant passageway in hydraulic communication with said refrigerant inlet and said refrigerant outlet, wherein said refrigerant passageway extends through said condenser/chiller portion and said sub-cooler portion; a first coolant passageway in hydraulic communication with said hot coolant inlet and said hot coolant outlet, wherein said first coolant passageway extends through said condenser/chiller portion; and a second coolant passageway in hydraulic communication with said sub-cooler coolant inlet and a sub-cooler coolant outlet, wherein said wherein said second coolant passageway extends through said sub-cooler portion; wherein said first coolant passageway and said second coolant passageway are in non-contact thermal communication with said refrigerant passageway, characterized in that the downstream end plate also includes the sub-cooler coolant outlet. a condenser/chiller portion adjacent said upstream end plate, wherein said upstream end plate includes a refrigerant inlet and a hot coolant outlet; a sub-cooler portion adjacent said downstream end plate, wherein said downstream end plate includes a refrigerant outlet, a hot coolant inlet, and a sub-cooler coolant inlet; a refrigerant passageway in hydraulic communication with said refrigerant inlet and said refrigerant outlet, wherein said refrigerant passageway extends through said condenser/chiller portion and said sub-cooler portion; a first coolant passageway in hydraulic communication with said hot coolant inlet and said hot coolant outlet, wherein said first coolant passageway extends through said condenser/chiller portion; and a second coolant passageway in hydraulic communication with said sub-cooler coolant inlet and a sub-cooler coolant outlet, wherein said wherein said second coolant passageway extends through said sub-cooler portion; wherein said first coolant passageway and said second coolant passageway are in non-contact thermal communication with said refrigerant passageway, characterized in that the downstream end plate also includes the sub-cooler coolant outlet.
Calculation unit for processing quantitative image data, wherein the calculation unit comprises, - a receiving unit; and - a processing unit, wherein the receiving unit is configured for receiving spectral image data of an - object of interest; wherein the receiving unit is configured for receiving non-spectral image data - of the object of interest, wherein the processing unit is configured for calculating material properties as - a function of position from the spectral image data; wherein the processing unit is configured for calculating material properties as - a function of position from the non-spectral image data; characterised in that the processing unit is configured for combining the material properties calculated from the spectral and from the non-spectral image data as a function of spatial frequency by weighting the spectral and the non-spectral image data depending on the spatial frequencies in the image. - a receiving unit; and - a processing unit, wherein the receiving unit is configured for receiving spectral image data of an - object of interest; wherein the receiving unit is configured for receiving non-spectral image data - of the object of interest, wherein the processing unit is configured for calculating material properties as - a function of position from the spectral image data; wherein the processing unit is configured for calculating material properties as - a function of position from the non-spectral image data;