Publication detail

Techniques of measuring spray-cooling homogeneity

CHABIČOVSKÝ, M. RAUDENSKÝ, M.

Original Title

Techniques of measuring spray-cooling homogeneity

English Title

Techniques of measuring spray-cooling homogeneity

Type

journal article in Web of Science

Language

en

Original Abstract

The cooling homogeneity is one of the most important factors that must be considered in the design of cooling sections for the hot rolling of thin sheets. Inhomogeneous cooling can lead to undesirable thermal distortion. The cooling homogeneity is mainly influenced by the water distribution of the cooling section. And so, one way to measure the cooling homogeneity is to measure the impact-pressure distribution of the cooling section. Another way is to measure the surface-temperature distribution of a steel sample during the cooling process. There are two ways to measure the surface temperature and the temperature field: the contact and non-contact measurements. The contact measurement can be performed with thermocouples and the non-contact method is an optical measurement like the one using an infrared scanner. Each of these methods has their advantages and disadvantages. Their comparison was made during an experimental measurement of the cooling of a stainless steel sheet using full-cone water nozzles and a special linear pneumatic sprayer.

English abstract

The cooling homogeneity is one of the most important factors that must be considered in the design of cooling sections for the hot rolling of thin sheets. Inhomogeneous cooling can lead to undesirable thermal distortion. The cooling homogeneity is mainly influenced by the water distribution of the cooling section. And so, one way to measure the cooling homogeneity is to measure the impact-pressure distribution of the cooling section. Another way is to measure the surface-temperature distribution of a steel sample during the cooling process. There are two ways to measure the surface temperature and the temperature field: the contact and non-contact measurements. The contact measurement can be performed with thermocouples and the non-contact method is an optical measurement like the one using an infrared scanner. Each of these methods has their advantages and disadvantages. Their comparison was made during an experimental measurement of the cooling of a stainless steel sheet using full-cone water nozzles and a special linear pneumatic sprayer.

Keywords

Cooling homogeneity, Full-cone nozzles, Linear pneumatic sprayer, Heat-transfer coefficient

RIV year

2015

Released

01.05.2015

Publisher

Insitute of Metals and Technology, Ljubljana, Slovenia

Location

LJUBLJANA SLOVENIJA

ISBN

1580-2949

Periodical

Materiali in tehnologije

Year of study

49

Number

3

State

SI

Pages from

337

Pages to

341

Pages count

5

URL

http://mit.imt.si/Revija/

Documents

BibTex 


@article{BUT114438,
  author="Martin {Chabičovský} and Miroslav {Raudenský}",
  title="Techniques of measuring spray-cooling homogeneity",
  annote="The cooling homogeneity is one of the most important factors that must be considered in the design of cooling sections for the
hot rolling of thin sheets. Inhomogeneous cooling can lead to undesirable thermal distortion. The cooling homogeneity is
mainly influenced by the water distribution of the cooling section. And so, one way to measure the cooling homogeneity is to
measure the impact-pressure distribution of the cooling section. Another way is to measure the surface-temperature distribution
of a steel sample during the cooling process. There are two ways to measure the surface temperature and the temperature field:
the contact and non-contact measurements. The contact measurement can be performed with thermocouples and the non-contact
method is an optical measurement like the one using an infrared scanner. Each of these methods has their advantages and
disadvantages. Their comparison was made during an experimental measurement of the cooling of a stainless steel sheet using
full-cone water nozzles and a special linear pneumatic sprayer.",
  address="Insitute of Metals and Technology, Ljubljana, Slovenia",
  chapter="114438",
  doi="10.17222/mit.2013.253",
  howpublished="print",
  institution="Insitute of Metals and Technology, Ljubljana, Slovenia",
  number="3",
  volume="49",
  year="2015",
  month="may",
  pages="337--341",
  publisher="Insitute of Metals and Technology, Ljubljana, Slovenia",
  type="journal article in Web of Science"
}