laurocapram Thermodynamic Properties vs Temperature (CAS 59227-89-3)

Analyze how thermophysical properties change over a temperature range at a constant pressure of 1 atm.

Input Conditions

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Property Profile for laurocapram

Calculated properties vs. Temperature

Profile Data

Equilibrium Thermodynamic and Transport Properties of laurocapram at 1.01325 bar over -23.15–226.85 °C
Temperature (°C)Specific heat capacity (kJ/kg·K)Density (kg/m³)Dynamic viscosity (cP)Thermal conductivity (W/m·K)Prandtl number ()Molar volume (m³/kmol)Specific enthalpy (kJ)Specific entropy (kJ/kg·K)Phase
-23.151.362151086.54N/A N/A N/A 0.259057-210.768-0.781567s
-18.0481.384571083.59N/A N/A N/A 0.259762-203.761-0.753822s
-12.94591.406991080.64N/A N/A N/A 0.260471-196.64-0.726183s
-7.843881.42941077.69N/A N/A N/A 0.261184-189.404-0.698645s
-2.741841.87165959.526N/A 0.10488N/A 0.29335-53.5369-0.188383l
2.36021.89327956.807N/A 0.104203N/A 0.294183-43.9325-0.153196l
7.462241.91472954.082N/A 0.103526N/A 0.295023-34.2182-0.11826l
12.56431.936951.35N/A 0.102849N/A 0.295871-24.3948-0.0835682l
17.66631.95712948.611N/A 0.102173N/A 0.296725-14.4633-0.0491152l
22.76841.97807945.865N/A 0.101496N/A 0.297586-4.42449-0.0148956l
27.87041.99885943.112N/A 0.100819N/A 0.2984555.720770.0190957l
32.97242.01946940.353N/A 0.100142N/A 0.29933115.97160.0528636l
38.07452.0399937.586N/A 0.0994657N/A 0.30021426.32720.0864126l
43.17652.06018934.811N/A 0.0987889N/A 0.30110536.78670.119747l
48.27862.08029932.029N/A 0.0981121N/A 0.30200447.34920.152871l
53.38062.10023929.24N/A 0.0974353N/A 0.30291158.01380.185789l
58.48272.12926.443N/A 0.0967584N/A 0.30382568.77980.218505l
63.58472.1396923.638N/A 0.0960816N/A 0.30474879.64620.251021l
68.68672.15904920.825N/A 0.0954048N/A 0.30567990.61220.283342l
73.78882.17831918.004N/A 0.0947279N/A 0.306618101.6770.315471l
78.89082.19741915.175N/A 0.094051N/A 0.307566112.840.347411l
83.99292.21634912.338N/A 0.0933741N/A 0.308522124.0990.379165l
89.09492.2351909.492N/A 0.0926973N/A 0.309488135.4550.410736l
94.19692.2537906.637N/A 0.0920203N/A 0.310462146.9060.442127l
99.2992.27213903.773N/A 0.0913434N/A 0.311446158.4520.47334l
104.4012.29039900.901N/A 0.0906665N/A 0.312439170.0910.504378l
109.5032.30848898.019N/A 0.0899896N/A 0.313442181.8230.535243l
114.6052.3264895.128N/A 0.0893126N/A 0.314454193.6460.565938l
119.7072.34416892.228N/A 0.0886356N/A 0.315476205.5610.596465l
124.8092.36175889.318N/A 0.0879586N/A 0.316508217.5660.626826l
129.9112.37917886.398N/A 0.0872816N/A 0.317551229.660.657023l
135.0132.39642883.468N/A 0.0866046N/A 0.318604241.8430.687059l
140.1152.4135880.528N/A 0.0859276N/A 0.319668254.1130.716934l
145.2172.43042877.577N/A 0.0852506N/A 0.320743266.470.746652l
150.3192.44717874.616N/A 0.0845735N/A 0.321829278.9130.776213l
155.4212.46375871.644N/A 0.0838965N/A 0.322926291.4410.80562l
160.5232.48016868.661N/A 0.0832194N/A 0.324035304.0530.834875l
165.6262.4964865.667N/A 0.0825423N/A 0.325156316.7490.863978l
170.7282.51248862.661N/A 0.0818652N/A 0.326289329.5260.892931l
175.832.52839859.644N/A 0.0811881N/A 0.327434342.3860.921736l
180.9322.54413856.615N/A 0.0805109N/A 0.328592355.3260.950395l
186.0342.5597853.573N/A 0.0798338N/A 0.329763368.3460.978908l
191.1362.5751850.519N/A 0.0791566N/A 0.330947381.4451.00728l
196.2382.59034847.453N/A 0.0784795N/A 0.332144394.6221.0355l
201.342.6054844.373N/A 0.0778023N/A 0.333356407.8771.06359l
206.4422.6203841.28N/A 0.0771251N/A 0.334581421.2081.09153l
211.5442.63504838.174N/A 0.0764479N/A 0.335821434.6141.11934l
216.6462.6496835.053N/A 0.0757706N/A 0.337076448.0961.14701l
221.7482.66399831.919N/A 0.0750934N/A 0.338346461.6511.17454l
226.852.67822828.77N/A 0.0744161N/A 0.339632475.2791.20194l

Property Profiles for laurocapram

Heat Capacity (Cp) vs Temperature

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Density vs Temperature

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Thermal Conductivity vs Temperature

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Thermodynamic Property Profile at Constant Pressure

This page presents the temperature-dependent thermodynamic and transport properties of laurocapram (CAS 59227-89-3) calculated at a constant pressure of 1 atm (101325 Pa) over the temperature range 250-500 K.

The properties shown - specific heat capacity (Cp), density (ρ), dynamic viscosity (μ), thermal conductivity (k), Prandtl number (Pr), molar volume (Vm), specific enthalpy (H), and specific entropy (S) - are among the most commonly used parameters in chemical engineering calculations, process simulation, and thermal system design.

All values are generated programmatically using validated thermodynamic correlations and equations of state and represent equilibrium properties at the specified pressure.


Understanding the Property Trends

  • Specific heat capacity (Cp) indicates the amount of energy required to raise the temperature of laurocapram and is critical for energy balance and heat-exchanger design.
  • Density (ρ) and molar volume (Vm) describe volumetric behavior and are required for flow calculations, equipment sizing, and storage design.
  • Dynamic viscosity (μ) governs fluid flow resistance, influencing Reynolds number and pressure drop.
  • Thermal conductivity (k) and Prandtl number (Pr) are essential inputs for convective heat-transfer correlations.
  • Specific enthalpy (H) and specific entropy (S) are fundamental thermodynamic properties used in process modeling, compression, and expansion analysis.

Property trends with temperature may vary depending on molecular structure, intermolecular interactions, and phase stability.


Engineering Applications

The temperature-dependent properties of laurocapram at atmospheric pressure are commonly required in:

  • Heat exchanger and reactor design
  • Process simulation and thermodynamic modeling
  • Fluid flow and pressure-drop calculations
  • Energy balance and equipment sizing
  • Chemical engineering education and research

These profiles are particularly useful when evaluating system performance over a wide operating temperature range under near-ambient pressure conditions.


Frequently Asked Questions

At what pressure are these properties calculated?
All properties on this page are calculated at a constant pressure of 1 atm (101325 Pa).

Can these values be used in process simulation software?
Yes. The data is suitable for preliminary design, validation, and educational use. For licensed simulators, vendor-specific property packages should be referenced.

Can I change the pressure or temperature range?
Yes. Use the interactive controls above to generate custom property profiles at different pressures or temperature ranges.


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