A Hydrate Database: Vital to the Technical Community

Sloan, Dendy; Kuznetsov, F. A.; Lal, K.; Loewner, R.; Makogon, Yuri F.; Moridis, George J.; Ripmeester, John A.; Royer, Jean‐Jacques; Smith, Tom; Tohidi, Bahman; Uchida, Tsutomu; Wang, J.; Wang, W.; Xiao, Yun

doi:10.2481/dsj.6.gh1

Cited by 7 publications

(7 citation statements)

References 8 publications

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“…In other words, homogeneity of sample is difficult to guarantee even in laboratory experiments. It is imperative, therefore, that the quality of samples tested be carefully verified and documented before data is allowed to be included in the proposed database [12,13]. Database maintenance and management strategies were also discussed during the sessions.…”

Section: Quantitative Comparison Of Laboratory Data Obtained By Diffementioning

confidence: 99%

“…During the breakout sessions, a number of international research collaboration activities were introduced, including an announcement that the international database had been constructed on the CODATA website in order to link the experimental results with the models [10][11][12][13]. Table 6 lists the breakout sessions for the 5th Fiery Ice Workshop [14].…”

Section: Th Workhop 2005mentioning

confidence: 99%

“…In response to this call for action, an attempt was made to construct an international database on hydrates (Committee on Data for Science and Technology (CODATA) hydrate task group [10][11][12][13]). It was found that the data from different laboratories vary because the experiments were conducted using different protocols and under different conditions.…”

Section: Quantitative Comparison Of Laboratory Data Obtained By Diffementioning

confidence: 99%

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Review of Fundamental Properties of Gas Hydrates: Breakout Sessions of the International Workshop on Methane Hydrate Research and Development

et al. 2017

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Abstract:The International Workshop on Methane Hydrate (MH) Research and Development (the Fiery Ice Workshop) began in 2001 with the goal of promoting laboratory and field research collaborations and providing a forum to share new knowledge on MH pertaining to coastal stability, climate change, and energy. Ten workshops have been held over the past 15 years in different countries. Each workshop has included presentations on national programs and policy areas, and new research, along with breakout sessions that focused on current key topics. Two or three concurrent breakout sessions were conducted twice during each workshop. In this paper, we review the breakout sessions on hydrate fundamental properties with the goal of identifying the major accomplishments and changes in hydrate science and engineering related to determining fundamental MH properties over the past 15 years.

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Section: Quantitative Comparison Of Laboratory Data Obtained By Diffementioning

confidence: 99%

Section: Th Workhop 2005mentioning

confidence: 99%

Section: Quantitative Comparison Of Laboratory Data Obtained By Diffementioning

confidence: 99%

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Review of Fundamental Properties of Gas Hydrates: Breakout Sessions of the International Workshop on Methane Hydrate Research and Development

et al. 2017

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“…A component of the work performed consisted of reconciling the GHMLv1.0 schema [22][23][24][25], an XML format developed prior to this project for communication of gas hydrate data, and ThermoML [19][20][21], a TRC development and an IUPAC standard for experimental and criticallyevaluated thermodynamic property data communication and storage. The structure of ThermoML is based on rational storage of property data with the origin of the data as a major component of the organization construct.…”

Section: Gas Hydrate Markup Languagementioning

confidence: 99%

“…The data-transfer approaches associated with this data capture and storage effort are being coordinated with CODATA, which has been developing a markup language called Gas Hydrate Markup Language (GHML) [22][23][24][25] for communicating gas hydrate data throughout the research community and an international hydrate portal technology for centralized access to a number of database efforts. So that the data collected by this effort will be available to such a portal, all database output is fully consistent with GHML.…”

Section: Introductionmentioning

confidence: 99%

Gas Hydrate Research Database and Web Dissemination Channel

Frenkel¹,

Kroenlein²,

Diky³

et al. 2009

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To facilitate advances in application of technologies pertaining to gas hydrates, a United States database containing experimentally-derived information about those materials was developed. The Clathrate Hydrate Physical Property Database (NIST Standard Reference Database # 156) was developed by the TRC Group at NIST in Boulder, Colorado paralleling a highly-successful database of thermodynamic properties of molecular pure compounds and their mixtures and in association with an international effort on the part of CODATA to aid in international data sharing. Development and population of this database relied on the development of three components of information-processing infrastructure: (1) guided data capture (GDC) software designed to convert data and metadata into a well-organized, electronic format, (2) a relational data storage facility to accommodate all types of numerical and metadata within the scope of the project, and (3) a gas hydrate markup language (GHML) developed to standardize data communications between "data producers" and "data users". EXECUTIVE SUMMARYTo facilitate advances in application of technologies pertaining to gas hydrates, a United States database containing experimentally-derived information about those materials was developed. The Clathrate Hydrate Physical Property Database (NIST Standard Reference Database # 156) was created by the Thermodynamics Research Center (TRC) Group at the National Institute of Standards and Technology (NIST) in Boulder, Colorado. The database development paralleled that of a highly-successful relational database of thermodynamic properties of pure molecular compounds and their mixtures (SOURCE) that is maintained by TRC at NIST. The project was completed in association with an international effort by the Committee on Data for Science and Technology (CODATA) to aid in international data sharing. Development and population of the new database relied on the development of three components of information-processing infrastructure: (1) Guided Data Capture (GDC) software designed to convert data and metadata into a well-organized, electronic format, (2) a relational data storage facility to accommodate all types of numerical and metadata within the scope of the project, and (3) a gas hydrate markup language (GHML) developed to standardize data communications between "data producers" and "data users", i.e., the academic and industrial research communities.Guided Data Capture (GDC) software was developed for this project with specific application to characterization and properties of gas hydrates. This software was and continues to be utilized in the data collection process to aid technically competent individuals, typically student associates, who are not expert in data collection and measurement technology in capturing all relevant information from a literature source. The captured information is used by staff experts to produce optimally accurate properties with reliable uncertainty estimates.The NIST/TRC Gas Hydrate Data Entry Facility was establis...

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