journal article·2011-08

Glass melting and its innovation potentials: The combination of transversal and longitudinal circulations and its influence on space utilisation

Miroslav Polák, Lubomír Němec

Journal of Non-Crystalline Solids· Volume 357· Issue 16-17
Publisher page

Abstract

Abstract This work deals with the increase of the space utilisation caused by changes in glass circulations resulting from different temperature gradients in the melting channel. The space utilisation values were calculated by mathematical modelling of particle dissolution and bubble rising in a model melting channel. It has been found that for a given sand-dissolution time and bubble-growth rate, the space utilisation value was determined as the ratio between transversal and longitudinal temperature gradients. The highest space utilisation values for both dissolution and bubble removal are reached when both types of temperature gradients are combined and the transversal temperature gradient is 5–10 times higher than the longitudinal one. A cautious application of optimal conditions in the model glass furnace leads to an increase in the furnace space utilisation.
Source: openaire · Quality: candidate unverified · Source record ↗

Research context

OpenAlex topics: Radiative Heat Transfer Studies

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

References (8)

Show source-provided references
1. Influence of furnace design and operation parameters on the residence time distribution of glass tanks, predicted by computer simulation
2. Analysis of elementary process steps in industrial melting tanks—some ideas on innovations in industrial glass melting
3. Glass melting and its innovation potentials: impact of the input and output geometries on the utilization of the melting space
4. Glass melting and its innovation potentials: the role of glass flow in the bubble-removal process
5. Glass melting and its innovation potentials: the potential role of glass flow in the sand-dissolution process
6. Glass melting and its innovation potential: the utilization of the melting space (Czech.)
7. Models of glass melting furnaces
8. P. Cincibusová: Physico-chemical processes during the glass melting process and their modelling. Ph.D. thesis, p. 40, Prague (2010).