𝔖 Bobbio Scriptorium
✦   LIBER   ✦

Benzene–dioxane association. The excess molar enthalpy of (cyclohexane + dioxane)(g) and (benzene + dioxane)(g) from the temperature (373.2 to 432.2) K

✍ Scribed by C.J. Wormald; A.P. Parker; F. Rieger

Publisher
Elsevier Science
Year
1998
Tongue
English
Weight
140 KB
Volume
30
Category
Article
ISSN
0021-9614

No coin nor oath required. For personal study only.

✦ Synopsis

Benzene-dioxane association. The excess molar enthalpy of ( ) ( ) cyclohexane H dioxane g and ( ) () benzene H dioxane g from the ( ) temperature 373.2 to 432.

📜 SIMILAR VOLUMES

Benzene – diethyl ketone association. Th
Benzene – diethyl ketone association. The excess molar enthalpy of (cyclohexane + diethyl ketone)(g) and (benzene + diethyl ketone)(g) from temperatures 373.2 K to 423.2 K
✍ C.J. Wormald; C. Mathonat 📂 Article 📅 1998 🏛 Elsevier Science 🌐 English ⚖ 182 KB

cyclohexane q diethyl ketone g and benzene q diethyl ketone g at standard atmospheric pressure over the temperature range 373.2 K to 423.2 K. The non-ideality of the cyclohexane and benzene was fitted using the Kihara potential, and that of the diethyl ketone using the Ž Stockmayer potential. Cross-

Benzene–dichloromethane association. The
Benzene–dichloromethane association. The excess molar enthalpy of (cyclohexane + dichloromethane)(g) and (benzene + dichloromethane)(g) from the temperature 353.2 K to 453.2 K
✍ C.J. Wormald; P.W. Johnson 📂 Article 📅 1998 🏛 Elsevier Science 🌐 English ⚖ 147 KB

cyclohexane q dichloromethane g and benzene q dichloromethane g at standard Ž . atmospheric pressure over the temperature range 353.2 to 453.2 K. The non-ideality of the cyclohexane and benzene was fitted using the Kihara potential, and that of the dichloromethane using the Stockmayer potential. Cro

The excess molar enthalpy of (benzene, o
The excess molar enthalpy of (benzene, or cyclohexane + tetrachloromethane)(g), and (benzene, or cyclohexane + chloromethane)(g) from temperatures 353.2 K to 423.2 K
✍ A.P. Parker; F. Rieger; P.W. Johnson; C.J. Wormald 📂 Article 📅 1998 🏛 Elsevier Science 🌐 English ⚖ 173 KB

cyclohexane q tetrachloromethane g and benzene q tetrachloromethane g at standard atmospheric pressure over the temperature range 353.2 K to 423.2 K. The non-ideality of the cyclohexane, benzene, and tetrachloromethane was fitted using the Kihara potential. Cross-Ž . Ž . 1 r 2 terms were calculated

Benzene – diethyl ether association. The
Benzene – diethyl ether association. The excess molar enthalpy of (cyclohexane + diethyl ether)(g) and (benzene + diethyl ether)(g) from temperatures 353.2 K to 423.2 K
✍ J. Bowles; M. Lacey; C. Mathonat; C.J. Sowden; C.J. Wormald 📂 Article 📅 1998 🏛 Elsevier Science 🌐 English ⚖ 164 KB

cyclohexane q diethyl ether g and benzene q diethyl ether g at standard atmospheric pressure over the temperature range 353.2 K to 423.2 K. The non-ideality of the cyclohexane and benzene was fitted using the Kihara potential, and that of the diethyl ether using the Ž Stockmayer potential. Cross-ter

The excess molar enthalpy of (nitrogen+d
The excess molar enthalpy of (nitrogen+dimethyl ketone)(g) from temperatures of 333.2 K to 423.2 K
✍ J. Doyle; D.J. Hutchings; N.M. Lancaster; C.J. Wormald 📂 Article 📅 1997 🏛 Elsevier Science 🌐 English ⚖ 175 KB

A differential flow mixing calorimeter has been used to measure the excess molar enthalpy H E m of (nitrogen + dimethyl ketone)(g) at standard atmospheric pressure over the temperature range 333.2 K to 423.2 K. The measurements are analysed using the corresponding states correlation of Tsonopoulos u

Second virial coefficients of benzene an
Second virial coefficients of benzene and cyclohexane from measurements of the excess molar enthalpy of (0.5N2+ 0.5C6H6) and (0.5N2+ 0.5C6H12) from 333.2 K to 433.2 K
✍ C.J. Wormald; E.J. Lewis; A.J. Terry 📂 Article 📅 1996 🏛 Elsevier Science 🌐 English ⚖ 329 KB

Values of the second virial coefficient B of benzene and cyclohexane have been obtained from measurements of the excess molar enthalpy H E m of {yN2 + (1y)C6H6} and {yN2+(1-y)C6H12} measured at standard atmospheric pressure over the temperature range 333.2 to 433.2 K. In a hypothetical mixture of an