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LOX Liquid Oxygen Conversion Data. Weight and volume equivalents for liquid oxygen (LOX) and oxygen gas. Lbs (pounds) Kg (kilograms) Scf (standard cubic foot) Nm3(cubic meters) Gal. (gallons) L (liters) 1.0 Lbs. of Oxygen =. 0.4536 Kg.
Oxygen Quantity Conversions Calculator. Type known value in box > Click mouse anywhere > Read converted units in table. Scf (standard cubic foot) gas measured at 1 atmosphere and 70°F. Nm³ (normal cubic meter) gas measured at 1 atmosphere and 0°C. Liquid measured at 1 atmosphere and boiling temperature.
Liquid Liters Pounds (LO2) Kg Gaseous Liters Lbs/Day Kg/Day Inches mm Pounds Kg Pounds Kg HELiOS Plus 0.38 0.9 0,41 308 1 0,45 10.5 267 2.7 1,22 3.6 1,63 HELiOS Marathon 0.84 2.0 0,91 685 0.85 0,39 15.0 381 3.6 1,63 5.6 2,54 Spirit 300 0.30 0.8 0,36 275 1.30 0,57 8.8 223 3.5 1,60 4.3 1,95 Spirit 600 0.60 1.5 0,68 516 1.30 0,57 11.5 292 4.1 1,86 ...
Notes: · Gasous equivalents and use times are based upon LOX saturated at the economizer setting and upon flow rates at their nominal settings. · Duration times for portables are shown in hours. Reservoir duration times are shown in days. · Duration times for Demand Mode are based on 20 bpm and are shown in italic.
Gas Conversion Charts. The following may be useful for anyone wishing to convert Imperial to Metric for uses such as Ozone production etc; 1 litre per minute =0.06 cubic meters per hour. Amount: 1 cubic meter per hour (m3/h) of flow rate. Equals: 16.67 Liters per minute (L/min) in flow rate. Oxygen Flow Rate.
Liquid oxygen allows the storage of larger quantities of gas more readily than normal gaseous oxygen. One litre of liquid oxygen when evaporated equals approximately 860 litres of gaseous oxygen. Because liquid oxygen can provide more oxygen in small containers, it give people more flexibility and mobility to get out and about; especially for ...
Cryogenic liquids are liquefied gases that have a normal boiling point below –130°F (–90°C). Liquid oxygen has a boiling point of –297°F (–183°C). Because the temperature diference between the product and the surrounding environment is substantial—even in the winter—keeping liquid oxygen insulated from the surrounding heat is essential.
