This article has multiple issues. Please help improve it or discuss these issues on the talk page. (Learn how and when to remove these template messages) This article reads like a press release or a news article and may be largely based on routine coverage. Please help improve this article and add independent sources. (October 2013) The topic of this article may not meet Wikipedia's notability guidelines for products and services. Please help to demonstrate the notability of the topic by citing reliable secondary sources that are independent of the topic and provide significant coverage of it beyond a mere trivial mention. If notability cannot be shown, the article is likely to be merged, redirected, or deleted.Find sources: "Jaguar" software – news · newspapers · books · scholar · JSTOR (October 2013) (Learn how and when to remove this message) A major contributor to this article appears to have a close connection with its subject. It may require cleanup to comply with Wikipedia's content policies, particularly neutral point of view. Please discuss further on the talk page. (July 2019) (Learn how and when to remove this message) (Learn how and when to remove this message)
Jaguar
Developer(s)Schrödinger Inc.
Operating systemLinux, Microsoft Windows, Mac OS X
TypeComputational Chemistry
LicenseCommercial
Websitehttps://www.schrodinger.com/jaguar

Jaguar is a computer software package used for ab initio quantum chemistry calculations for both gas and solution phases.[1] It is commercial software marketed by the company Schrödinger. The program was originated in research groups of Richard Friesner and William Goddard and was initially called PS-GVB (referring to the so-called pseudospectral generalized valence bond method that the program featured).

Jaguar is a component of two other Schrödinger products: Maestro, which provides the graphical user interface to Jaguar, and a QM/MM program QSite, which uses Jaguar as its quantum-chemical engine. The current version is Jaguar 10.4 (2020).

Features

A distinctive feature of Jaguar is its use of the pseudospectral approximation.[2] This approximation can be applied to computationally expensive integral operations present in most quantum chemical calculations. As a result, calculations are faster with little loss in accuracy.[3][4][5]

The current version includes the following functionality:

See also

References

  1. ^ Young, David (2001). "Appendix A. A.2.5 Jaguar". Computational Chemistry. Wiley-Interscience. p. 337.
  2. ^ Orszag, Steven A. (September 1972). "Comparison of Pseudospectral and Spectral Approximation". Studies in Applied Mathematics. 51 (3): 253–259. doi:10.1002/sapm1972513253.
  3. ^ Friesner, R A (October 1991). "New Methods For Electronic Structure Calculations on Large Molecules". Annual Review of Physical Chemistry. 42 (1): 341–367. Bibcode:1991ARPC...42..341F. doi:10.1146/annurev.pc.42.100191.002013. PMID 1747190. S2CID 32730211.
  4. ^ Friesner, Richard A.; Murphy, Robert B.; Beachy, Michael D.; Ringnalda, Murco N.; Pollard, W. Thomas; Dunietz, Barry D.; Cao, Yixiang (April 1999). "Correlated ab Initio Electronic Structure Calculations for Large Molecules". The Journal of Physical Chemistry A. 103 (13): 1913–1928. Bibcode:1999JPCA..103.1913F. doi:10.1021/jp9825157.
  5. ^ Lado, F.; Lomba, E.; Lombardero, M. (1995). "Integral equation algorithm for fluids of fully anisotropic molecules" (PDF). The Journal of Chemical Physics. 103 (1): 481. Bibcode:1995JChPh.103..481L. doi:10.1063/1.469615.