Temperature is proportional to the average kinetic energy of the molecules of a gas substance, as a good example. Hence, when temperature rises, the molecules move faster, they hit the walls of containers more (hence raising pressure), which may increase the volume (depending on the container - eg. plastic container vs a balloon). If the volume is not able to be increased, the pressure remains at that level. PV=nRT P=pressure V=volume n=number of moles R=a constant T=temperature With the above equation, you can see that by decreasing T, either/both of pressure and/or volume must change so that the left side of the equation equals the right.
Phase diagrams usually show phase transition boundaries relative to two variables. WHICH two variables depends on what they're trying to show, but usually is is two of the following: Temperature Pressure Volume/density Mole fraction Mass fraction ========== PT PV less commonly - TV Isobaric T vs mole fraction (e.g. melting point diagram) Isothermal P vs mole fraction (e.g. a vapor pressure diagram)
well a moutian if it is tall enough can reach the sky and air pressure their is 0
The slop of a line which represents mass over volume would give you density.
Fans, blowers and compressors are differentiated by the method used to move the air, and by the system pressure they must operate against. As per American Society of Mechanical Engineers (ASME) the specific ratio - the ratio of the discharge pressure over the suction pressure is used for defining the fans, blowers and compressors. Equipment /Specific Ratio /Pressure rise (mmWg) Fans /Up to 1.11 /1136 Blowers /1.11 to 1.20 /1136 2066 Compressors /more than 1.20 /
Direct Development vs Indirect Development.
Direct cost is that cost which is directly attributable to units of product like raw material and labor while indirect cost is not directly attributable like factory maintenance cost.
bilirubin (indirect vs. direct) and ammonia ....might just be overwhelmed from a hemolytic anemia....why getting a fractionated bilirubin is good....
It depends, you have to know which variable (Temperature/Pressure/Volume) is constant, see here http://hypertextbook.com/physics/thermal/pressure-volume/
an experiment to test a scientific hypothesis in which the variable component is controlled, not random, eg In an experiment that measures volume vs time to boiling, the volume, being the indirect variable, is measured.
Mass vs Volume graphs have a positive slope and and y intercept of approximately zero
A barograph is a device that monitors pressure. It plots pressure vs time. Units can be kPa vs hr.
Volume of voids divided by Volume of solids
Boyle's Ideal Gas Law:p1.V1 = p2.V2 = constant when temperature and number of moles are kept invariable.
The difference is dynamic pressure vs. static pressure.
1) weight of cement in one cube divided by density of cement = volume of cement in a cube: 2) Similarly volume of fine & Coarse aggregate can be calculated 3) Adding all one will get volume of solids in a Cube-Vs: 4) Subtracting Vs from volume of cube Vc one would get volume of voids Vv 5) taking ratio of Vv to Vs one would get void ratio
In order to solve this we need to understand the formula needed to find Volume of a Sphere, here on abbreviated as Vs. Vs = (4/3)(Pi)(Radius3) Now we can begin the calculation process: Vs = (4/3)(3.14159265)(17 meters³) Vs = (4/3)(3.14159265)(4913 meters³) Vs = 20579.52625 meters³ So there it is, Vs = 20579.52625 meters³ when r = 17m.