DEFINITIONS AND GENERAL PRINCIPLES. 1. K coefficient. The overall heat transfer coefficient (K coefficient) of the special equipment is defined by the following formula: K = W S. Δ T where W is either the heating power or the cooling capacity, as the case may be, required to maintain a constant absolute temperature difference ΔT between the mean inside temperature Ti and the mean outside temperature Te, during continuous operation, when the mean outside temperature Te is constant for a body of mean surface area S.
Appears in 2 contracts
DEFINITIONS AND GENERAL PRINCIPLES. 1. 1.1 K coefficient. The overall heat transfer coefficient (K coefficient) of the special equipment is defined by the following formula: K = W S. Δ T where W is either the heating power or the cooling capacity, as the case may be, required to maintain a constant absolute temperature difference ΔT T between the mean inside temperature Ti and the mean outside temperature Te, during continuous operation, when the mean outside temperature Te is constant for a body of mean surface area S.
Appears in 2 contracts
Samples: www.vestnesis.lv, www.unece.org
DEFINITIONS AND GENERAL PRINCIPLES. 1. 1.1 K coefficient. The overall heat transfer coefficient (K coefficient) of the special equipment is defined by the following formula: K = W S. Δ T ∆T where W is either the heating power or the cooling capacity, as the case may be, required to maintain a constant absolute temperature difference ΔT ∆T between the mean inside temperature Ti and the mean outside temperature Te, during continuous operation, when the mean outside temperature Te is constant for a body of mean surface area S.
Appears in 1 contract
Samples: tind-customer-undl.s3.amazonaws.com
DEFINITIONS AND GENERAL PRINCIPLES. 1. 1.1 K coefficient. The overall heat transfer coefficient (K coefficient) of the special equipment is defined by the following formula: K = W S. Δ T ΔT where W is either the heating power or the cooling capacity, as the case may be, required to maintain a constant absolute temperature difference ΔT between the mean inside temperature Ti and the mean outside temperature Te, during continuous operation, when the mean outside temperature Te is constant for a body of mean surface area S.
Appears in 1 contract
Samples: unece.org