DIPPR Project 801 Full Version: A Review of the Evaluation Methodology, Quality Assessment, and Uncertainty Estimation of Thermo-Physical Property Data
What is DIPPR Project 801 Full Version?
Are you looking for a reliable source of thermo-physical property data for process engineering and design? Do you want to access a comprehensive database that meets industry needs for accurate and complete data in a rapidly changing business and technical environment? If so, you might be interested in learning more about DIPPR Project 801 Full Version.
dippr project 801 full version
DIPPR stands for Design Institute for Physical Properties, a pre-competitive research consortium that was established in 1977 by AIChE (American Institute of Chemical Engineers). The mission of DIPPR is to develop, expand, and improve a database of thermo-physical properties for industrially important chemicals used in chemical process and equipment design.
Project 801 is one of the main projects of DIPPR that focuses on providing critically evaluated thermo-physical property data for over 2000 pure compounds. The full version of Project 801 database contains data that are exclusive to DIPPR members for at least five years before they are released to non-members under various licensing options.
The benefits of using DIPPR Project 801 Full Version are manifold. First, you can access data that are based on a proprietary evaluation methodology that uses a systems approach to triangulate on the best values from all available sources[^1^ Second, you can access data that are comprehensive and consistent, covering a wide range of properties and conditions for each compound. The properties include thermodynamic, transport, phase equilibrium, and reaction data, as well as molecular structure, critical constants, and safety information. The conditions include temperature, pressure, concentration, and phase.
Third, you can access data that are important for process engineering and design, such as vapor pressure, heat capacity, viscosity, thermal conductivity, surface tension, enthalpy of vaporization, enthalpy of formation, Gibbs energy of formation, solubility parameter, and many more. These data can help you perform various tasks such as process simulation and optimization, equipment sizing and selection, process safety and environmental analysis, and product quality and performance evaluation.
How does DIPPR Project 801 Full Version work?
Now that you know what DIPPR Project 801 Full Version is and why it is beneficial, you might be wondering how it works. How does DIPPR evaluate and recommend thermo-physical property data? What are the components and metadata of Project 801 database? What are the types and number of properties included in Project 801 database? Let's find out.
Methodology: How does DIPPR evaluate and recommend thermo-physical property data?
DIPPR uses a rigorous and systematic methodology to evaluate and recommend thermo-physical property data for Project 801 database. The methodology consists of four main steps:
Data collection: DIPPR collects data from various sources such as literature, databases, experimental measurements, theoretical calculations, and expert opinions. DIPPR also performs its own experimental measurements for some compounds using state-of-the-art equipment and methods.
Data evaluation: DIPPR evaluates the quality and reliability of the collected data using criteria such as accuracy, precision, consistency, completeness, and traceability. DIPPR also compares the data with other sources and performs statistical analysis to identify outliers and trends.
Data correlation: DIPPR correlates the evaluated data using empirical or theoretical models that best fit the data over the relevant range of conditions. DIPPR also provides equations of state (EOS) for some compounds to describe the thermodynamic behavior of fluids.
Data recommendation: DIPPR recommends the best values for each property based on the correlated data and the EOS. DIPPR also provides uncertainty estimates for each recommended value to indicate the confidence level of the data.
DIPPR updates its evaluation and recommendation methodology periodically to incorporate new data sources, models, methods, and standards.
Structure: What are the components and metadata of Project 801 database?
Project 801 database consists of two main components: a member database and a licensed database. The member database contains data that are exclusive to DIPPR members for at least five years before they are released to non-members under various licensing options. The licensed database contains data that are available to non-members through different licensing options such as single-user license, site license, or corporate license.
Each component of Project 801 database has a similar structure that includes the following metadata for each compound:
Name: The common name of the compound.
CAS number: The Chemical Abstracts Service registry number of the compound.
Formula: The chemical formula of the compound.
Molecular weight: The molecular weight of the compound in g/mol.
Structure: The molecular structure of the compound in SMILES format.
Synonyms: The alternative names of the compound.
Family: The chemical family or class of the compound.
Source: The source or origin of the compound.
Purpose: The purpose or use of the compound.
Critical constants: The critical temperature (Tc), critical pressure (Pc), critical volume (Vc), critical compressibility factor (Zc), critical density (ρc), acentric factor (ω), and dipole moment (μ) of the compound.
Safety information: The flash point (Tf), autoignition temperature (Ta), lower flammability limit (LFL), upper flammability limit (UFL), lower explosive limit (LEL), upper explosive limit (UEL), heat of combustion (ΔHc), heat of explosion (ΔHe), toxicity information (LD50), hazard statements (H), precautionary statements (P), signal word (SW), hazard pictograms (HP), Globally Harmonized System of Classification and Labelling of Chemicals (GHS) codes, National Fire Protection Association (NFPA) codes, and Material Safety Data Sheet (MSDS) of the compound.
References: The references or sources of the data for the compound.
In addition to the metadata, each component of Project 801 database also includes the recommended values and uncertainty estimates for each property of each compound over the relevant range of conditions. The properties are grouped into different categories such as thermodynamic, transport, phase equilibrium, and reaction data. Each property has a unique identifier (ID) and a description that includes the units, symbols, and definitions of the property.
Properties: What are the types and number of properties included in Project 801 database?
Project 801 database includes over 40 types of properties for each compound, covering a wide range of thermo-physical phenomena and applications. The properties are divided into four main categories:
Thermodynamic data: These are the properties that describe the energy and entropy aspects of a system, such as heat capacity, enthalpy, entropy, Gibbs energy, Helmholtz energy, fugacity coefficient, and excess properties.
Transport data: These are the properties that describe the mass, momentum, and heat transfer aspects of a system, such as viscosity, thermal conductivity, diffusion coefficient, surface tension, and thermal diffusivity.
Phase equilibrium data: These are the properties that describe the equilibrium between different phases of a system, such as vapor pressure, vapor-liquid equilibrium (VLE), liquid-liquid equilibrium (LLE), solid-liquid equilibrium (SLE), solid-vapor equilibrium (SVE), and solubility.
Reaction data: These are the properties that describe the chemical reactions and kinetics of a system, such as reaction rate constant, activation energy, reaction enthalpy, reaction entropy, reaction Gibbs energy, and equilibrium constant.
The number of properties included in Project 801 database varies depending on the availability and relevance of the data for each compound. However, on average, Project 801 database contains about 25 properties for each compound in the member database and about 15 properties for each compound in the licensed database. The table below shows some examples of the properties and their IDs for a sample compound (acetone) in Project 801 database.
Property ID Property Name Property Value Property Units ----------- ------------- -------------- -------------- 1 Normal boiling point 329.15 K 2 Melting point 178.45 K 3 Triple point temperature 178.45 K 4 Triple point pressure 0.0018 bar 5 Critical temperature 508.1 K 6 Critical pressure 47.01 bar 7 Critical volume 0.0002095 m3/mol ... ... ... ... 40 Reaction rate constant for acetone decomposition to methane and ketene at 1000 K 1.8e+06 L/mol/s How to access DIPPR Project 801 Full Version?
Now that you know how DIPPR Project 801 Full Version works, you might be curious about how to access it. How to become a member of DIPPR and what are the benefits? How to obtain a license for Project 801 database and what are the options? How often is Project 801 database updated and how to get the latest version? Let's explore.
Membership: How to become a member of DIPPR and what are the benefits?
DIPPR is a pre-competitive research consortium that is open to any organization that is interested in thermo-physical property data for process engineering and design. DIPPR has over 30 members from various sectors such as chemical, pharmaceutical, petrochemical, food, biotechnology, and engineering industries, as well as academic and government institutions.
To become a member of DIPPR, you need to fill out an application form and pay an annual membership fee that varies depending on the size and type of your organization. The membership fee covers the cost of maintaining and expanding the Project 801 database, as well as supporting other research projects and activities of DIPPR.
The benefits of becoming a member of DIPPR are numerous. As a member, you can:
Access the exclusive data in the Project 801 member database that are not available to non-members for at least five years.
Access the latest updates and enhancements of the Project 801 database as soon as they are released.
Access other databases and tools developed by DIPPR such as Project 911 (a database of mixture properties), Project 912 (a database of electrolyte properties), and Project 913 (a tool for estimating properties of organic compounds).
Influence the direction and scope of the research projects and activities of DIPPR by participating in the annual meetings and workshops.
Collaborate with other members and experts from different disciplines and backgrounds on thermo-physical property related issues and challenges.
Learn from the best practices and experiences of other members and experts on how to use thermo-physical property data effectively and efficiently.
Licensing: How to obtain a license for Project 801 database and what are the options?
If you are not a member of DIPPR, you can still access the Project 801 database through various licensing options. The licensing options include:
Single-user license: This option allows you to access the Project 801 licensed database on one computer for one year. The cost of this option is $5,000 per year.
Site license: This option allows you to access the Project 801 licensed database on multiple computers within one physical location for one year. The cost of this option is $10,000 per year.
Corporate license: This option allows you to access the Project 801 licensed database on multiple computers within multiple physical locations for one year. The cost of this option is $20,000 per year.
The licensed database contains data that are available to non-members after five years from their release in the member database. The licensed database is updated annually with new data that become available to non-members. The licensed database also includes software tools that allow you to search, view, plot, export, and print the data.
Updates: How often is Project 801 database updated and how to get the latest version?
Project 801 database is updated regularly with new data, models, methods, standards, and features. The update frequency depends on the availability and relevance of the new data for each compound. However, on average, Project 801 database is updated every six months with new data for about 100 compounds.
To get the latest version of Project 801 database, you need to either be a member of DIPPR or have a valid license for the database. As a member or a licensee, you will receive an email notification when a new version of the database is available. You can then download the new version from the DIPPR website or request a CD-ROM delivery .
How to use DIPPR Project 801 Full Version?
Now that you know how to access DIPPR Project 801 Full Version, you might be eager to use it. What are the compatible software platforms and tools for Project 801 database? How to apply Project 801 data for different process engineering and design tasks? How to optimize the performance and accuracy of Project 801 data analysis? Let's dive in. Software: What are the compatible software platforms and tools for Project 801 database?
Project 801 database is compatible with various software platforms and tools that are commonly used for process engineering and design. Some of the software platforms and tools that can access and utilize Project 801 data are:
Aspen Plus: This is a process simulation software that allows you to model, optimize, and analyze chemical processes and equipment. Aspen Plus can use Project 801 data as input for its thermodynamic models and property methods, as well as for its physical property analysis and estimation features.
Aspen HYSYS: This is another process simulation software that allows you to model, optimize, and analyze chemical processes and equipment. Aspen HYSYS can also use Project 801 data as input for its thermodynamic models and property methods, as well as for its physical property analysis and estimation features.
Aspen Properties: This is a physical property database and estimation software that allows you to access, view, plot, export, and print Project 801 data. Aspen Properties can also estimate missing or unavailable properties using various methods and models.
DIPPR Web: This is a web-based application that allows you to access, view, plot, export, and print Project 801 data online. DIPPR Web can also perform unit conversions, data interpolation, and data extrapolation.
DIPPR Excel: This is an Excel add-in that allows you to access, view, plot, export, and print Project 801 data within Excel. DIPPR Excel can also perform unit conversions, data interpolation, and data extrapolation.
DIPPR MATLAB: This is a MATLAB toolbox that allows you to access, view, plot, export, and print Project 801 data within MATLAB. DIPPR MATLAB can also perform unit conversions, data interpolation, and data extrapolation.
In addition to these software platforms and tools, Project 801 database can also be accessed and utilized by other custom or proprietary applications that can read the database format and structure.
Examples: How to apply Project 801 data for different process engineering and design tasks?
Project 801 data can be applied for various process engineering and design tasks that require accurate and complete thermo-physical property data. Some of the tasks that can benefit from Project 801 data are:
Process simulation and optimization: You can use Project 801 data to model the behavior of chemical processes and equipment under different operating conditions and scenarios. You can also use Project 801 data to optimize the performance, efficiency, profitability, and sustainability of chemical processes and equipment.
Equipment sizing and selection: You can use Project 801 data to calculate the required dimensions, capacities, specifications, and configurations of chemical equipment such as reactors, separators, heat exchangers, pumps, compressors, valves, pipes, etc.
Process safety and environmental analysis: You can use Project 801 data to assess the potential hazards and risks of chemical processes and equipment such as fire, explosion, toxicity, corrosion, pollution, etc. You can also use Project 801 data to design and implement safety and environmental measures such as relief systems, vent systems, waste management systems, etc.
Product quality and performance evaluation: You can use Project 801 data to evaluate the quality and performance of chemical products such as purity, stability, functionality, compatibility, etc. You can also use Project 801 data to design and implement quality control and assurance methods such as sampling, testing, analysis, etc.
Here are some examples of how to apply Project 801 data for different process engineering and design tasks using different software platforms and tools:
Example 1: Process simulation and optimization of an acetone production plant using Aspen Plus. You can use Project 801 data to define the thermo-physical properties of acetone and other components in the process such as water, methanol, isopropanol, etc. You can also use Project 801 data to model the reaction kinetics of acetone synthesis from isopropanol. You can then use Aspen Plus to simulate the process flowsheet and optimize the operating parameters such as temperature, pressure, flow rate, conversion, yield, etc.
Example 2: Equipment sizing and selection of a heat exchanger for acetone cooling using Aspen Properties. You can use Project 801 data to calculate the heat capacity, enthalpy, viscosity, thermal conductivity, and density of acetone at different temperatures and pressures. You can also use Project 801 data to calculate the heat transfer coefficient and pressure drop of acetone in different types of heat exchangers such as shell-and-tube, plate-and-frame, etc. You can then use Aspen Properties to size and select the best heat exchanger for acetone cooling based on the required heat duty, outlet temperature, pressure drop, etc.
Example 3: Process safety and environmental analysis of an acetone storage tank using DIPPR Web. You can use Project 801 data to estimate the vapor pressure, flash point, autoignition temperature, lower and upper flammability limits, heat of combustion, heat of explosion, toxicity information, hazard statements, precautionary statements, signal word, hazard pictograms, GHS codes, NFPA codes, and MSDS of acetone. You can then use DIPPR Web to assess the potential hazards and risks of acetone storage such as fire, explosion, poisoning, corrosion, pollution, etc. You can also use DIPPR Web to design and implement safety and environmental measures such as relief valves, vent pipes, fire extinguishers, spill containment, personal protective equipment, etc.
Example 4: Product quality and performance evaluation of acetone as a solvent for paints and coatings using DIPPR Excel. You can use Project 801 data to calculate the solubility parameter, Hansen solubility parameters, and Hildebrand solubility parameter of acetone. You can also use Project 801 data to calculate the solubility parameter, Hansen solubility parameters, and Hildebrand solubility parameter of various paints an