Sold
Available
IBL-26-0549

SVRC model for predicting the liquid heat capacity of pure organic compounds

Listed on
2026-08-18
Method for predicting liquid heat capacity using molecular descriptors and QSPR models

This technology provides a method for predicting the liquid heat capacity of pure organic compounds by preparing molecular descriptor values and building a QSPR model based on SVRC equation parameters.

Measuring liquid heat capacity through experiments is costly and time-consuming, and it has been difficult to reliably predict the heat capacity of various organic compounds.

By predicting and verifying liquid heat capacity using a molecular descriptor-based QSPR model, this technology can be applied to the field of chemical property prediction to calculate heat capacity without the need for experiments.

Key Features:
  • Step 1: Inputting experimental data of collected sample organic compounds for liquid heat capacity prediction
  • Step 2: Preparing molecular descriptor values for the liquid heat capacity of the sample compounds input in Step 1
  • Steps 3 and 4: Determining the parameters required for the SVRC equation and building a QSPR model for parameters such as normal boiling point
  • Step: Testing prediction performance with experimental data, adopting the predicted values if satisfactory, or repeating the model building process if unsatisfactory

This patent is owned by IPBank. Upon purchase, you may receive support through commercialization programs, recommendations for technology transfer and commercialization funding guarantees, and additional points during evaluations for priority procurement of excellent inventions.

Unlisted Company
Original applicant: ChemEssence Co., Ltd.; Current owner: IPBank
Document
Date of application:
2011-10-06
|
Patent registration number:
10-1325117
Industry
IT•internet
chemicals
Technology
Computer
Chemistry
Country
Korea
Family Patent

WO2012-177108A2

Price
Disclosed upon request
Subscribe to our newsletter to receive the latest patent information faster than anyone else.
← Back to list