Patent classifications
G01N11/00
Multilayer fluid analysis program, and multilayer fluid analysis system
A computer-readable non-transitory storage medium stores a multilayer fluid analysis program for analyzing a multilayer fluid as 2.5 dimensions in which each layer is divided into elements and each of the elements has information about a layer thickness in a finite element model for the multilayer fluid. The multilayer fluid analysis program allowing a computer to function as: a layer thickness calculation process for calculating the layer thickness of the elements from a simultaneous equation indicating a relationship between stress in a normal direction and a fluid viscosity in the elements without considering a fluid flow in a thickness direction of the layer thickness under a condition that stresses in the normal direction and a tangential direction are balanced at an interface of respective layers and a flow velocity at the interface is continuous; and a display process for displaying a calculation result.
Multilayer fluid analysis program, and multilayer fluid analysis system
A computer-readable non-transitory storage medium stores a multilayer fluid analysis program for analyzing a multilayer fluid as 2.5 dimensions in which each layer is divided into elements and each of the elements has information about a layer thickness in a finite element model for the multilayer fluid. The multilayer fluid analysis program allowing a computer to function as: a layer thickness calculation process for calculating the layer thickness of the elements from a simultaneous equation indicating a relationship between stress in a normal direction and a fluid viscosity in the elements without considering a fluid flow in a thickness direction of the layer thickness under a condition that stresses in the normal direction and a tangential direction are balanced at an interface of respective layers and a flow velocity at the interface is continuous; and a display process for displaying a calculation result.
METHOD OF CONTROLLING THE SPRAY DROPLET SIZE OF A SPRAY NOZZLE APPARATUS FOR SPRAY-DRYING APPLICATIONS, SPRAY DRYING APPARATUS AND NOZZLE THEREFORE
A method of controlling the spray droplet size of a spray nozzle apparatus, in particular for the manufacturing of food powders, delivered to the spray nozzle comprises the following steps: a) providing a paste of a product to be sprayed by a spray nozzle; b) continuously determining the shear viscosity (η) of the product paste delivered to the spray nozzle; c) determining the mass flow rate (Qm) of the product paste delivered to the spray nozzle; d) determining the static pressure (P) of the product paste delivered to the spray nozzle; e) determining the density (p) of the product paste delivered to the spray nozzle; f) delivering the data obtained in steps b) to e) to a control device comprising a computer and a memory; g) calculating control data for adjusting the spray nozzle on the basis of the data obtained in steps b) to e) and on nozzle geometry parameters stored in the memory; h) sending the control data as control signals to a control means of the spray nozzle and adjusting the spray nozzle accordingly.
NMR-BASED SYSTEMS FOR CRUDE OIL ENHANCEMENT AND METHODS THEREOF
An NMR-based system (10) to analyze one or more of the following: (i) crude oil property, (ii) crude oil rheology of crude oil, comprising an NMR device (11) for providing time and/or batch resolved NMR analysis and/or crude oil rheological profile, said NMR having a crude oil inflow pipe (13), and is in a fluid connection (14) with a crude oil refinery facility (12); wherein said system further comprising a computer readable medium configured to store a retrievable crude oil NMR analysis and/or crude oil rheological profile of a desired crude oil product (standard crude oil product, SCOP), thereby providing said system means to compare NMR analysis and/or crude oil theological profile of said SCOP with said time or batch resolved crude oil.
Drilling fluid flowback tracking system and method
A drilling fluid flowback tracking system and method for determining quantities and qualities of drilling fluid returned from the wellhead in drilling operations, providing a frame, a receiving pipe, a riser pipe, and a surge suppressor for conveying returned drilling fluid, a tapered fluid bin having a calibrated drain slot, which retains fluid at a level corresponding to the inflow rate of the fluid, and flow rate marks for visual correlation of the highest level of outflow with the flow rate of the inflow. Collection and retention of data is further provided through sensors in an inline sensor housing communicating through a data cable with a data collection unit. Remote access to the data collection unit is further provided through a data transceiver and remote data unit.
Drilling fluid flowback tracking system and method
A drilling fluid flowback tracking system and method for determining quantities and qualities of drilling fluid returned from the wellhead in drilling operations, providing a frame, a receiving pipe, a riser pipe, and a surge suppressor for conveying returned drilling fluid, a tapered fluid bin having a calibrated drain slot, which retains fluid at a level corresponding to the inflow rate of the fluid, and flow rate marks for visual correlation of the highest level of outflow with the flow rate of the inflow. Collection and retention of data is further provided through sensors in an inline sensor housing communicating through a data cable with a data collection unit. Remote access to the data collection unit is further provided through a data transceiver and remote data unit.
Continuous in-line hydrocarbon quality analyzer
A device for continuous measurement of average molecular weight and polarity of a hydrocarbon stream.
Information from the apparatus will be used to characterize the quality of charge stocks and hydrocarbon components of process or utility units. This instrument is based on the concept that each hydrocarbon molecule has a distinct viscosity at a given temperature. While some different weight molecules may have nearly the same viscosity at one temperature, the rate of change of the viscosity is different for each molecule as temperature changes. By observing the viscosity of a hydrocarbon mixture in a closed loop sampling system at two different temperatures, along with specific gravity of the mixture, the average molecular weight of the mixture can be determined. Likewise, different molecular structure (ringed aromatic hydrocarbon molecules versus straight chain hydrocarbon molecules) will have a unique polarity due to differences in electron density for the different structures. The presence of contaminants such as sulfur and nitrogen atoms in hydrocarbon molecules also causes an increase in polarity of the sample. By continuous analysis of the permittivity of hydrocarbon mixtures the relative polarity of the molecules in the hydrocarbon mixture can be observed. Together this will determine the relative Molecular weight, structure and contaminant level of the feedstock. Data can be used for immediate interpretation of the feed quality allowing immediate evaluation, adjustment and control of process units.
Continuous in-line hydrocarbon quality analyzer
A device for continuous measurement of average molecular weight and polarity of a hydrocarbon stream.
Information from the apparatus will be used to characterize the quality of charge stocks and hydrocarbon components of process or utility units. This instrument is based on the concept that each hydrocarbon molecule has a distinct viscosity at a given temperature. While some different weight molecules may have nearly the same viscosity at one temperature, the rate of change of the viscosity is different for each molecule as temperature changes. By observing the viscosity of a hydrocarbon mixture in a closed loop sampling system at two different temperatures, along with specific gravity of the mixture, the average molecular weight of the mixture can be determined. Likewise, different molecular structure (ringed aromatic hydrocarbon molecules versus straight chain hydrocarbon molecules) will have a unique polarity due to differences in electron density for the different structures. The presence of contaminants such as sulfur and nitrogen atoms in hydrocarbon molecules also causes an increase in polarity of the sample. By continuous analysis of the permittivity of hydrocarbon mixtures the relative polarity of the molecules in the hydrocarbon mixture can be observed. Together this will determine the relative Molecular weight, structure and contaminant level of the feedstock. Data can be used for immediate interpretation of the feed quality allowing immediate evaluation, adjustment and control of process units.
Sonic speed measurement device and electronic apparatus
A sonic speed measurement device includes a reception array in which a plurality of reception elements which output reception signals in response to reception of an ultrasonic wave are disposed in one direction, a phase difference detection portion that detects a phase difference between the reception signals output from the reception elements adjacent to each other in a case where the plurality of reception elements receive the ultrasonic wave which propagates in a spherical wave shape from a target point, and a sonic speed calculation portion that calculates a sonic speed of the ultrasonic wave on the basis of the phase difference.
Sonic speed measurement device and electronic apparatus
A sonic speed measurement device includes a reception array in which a plurality of reception elements which output reception signals in response to reception of an ultrasonic wave are disposed in one direction, a phase difference detection portion that detects a phase difference between the reception signals output from the reception elements adjacent to each other in a case where the plurality of reception elements receive the ultrasonic wave which propagates in a spherical wave shape from a target point, and a sonic speed calculation portion that calculates a sonic speed of the ultrasonic wave on the basis of the phase difference.