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VIRTUAL LAB 7 GASES. INTRO TO GASES SIMULATOR. GASES BACK VIDEO. PRESSURE. What three variables affect gases?. VOLUME. TEMPERATURE. The Temperature Variable.
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VIRTUAL LAB 7GASES INTRO TO GASES SIMULATOR GASES BACK VIDEO
PRESSURE What three variables affect gases? VOLUME TEMPERATURE
The Temperature Variable • The fire makes the particles go _____ and the ice makes the particles go ______. This represents the variable of _________ (also known as _____ energy), which is measured in units of _____. faster slower temperature kinetic Kelvin LAUNCH GAS SIMULATOR
The Pressure Variable pump • The _____ adds more particles to the container, causing ____collisions with the walls of the container. This represents the variable of _______, whichis measured in units of ____. more pressure ATM LAUNCH GAS SIMULATOR
The Volume Variable • The little man changes the amount of _____ the particles can occupy. This represents the variable of ______, which is normally measured in units of Liters space volume LAUNCH GAS SIMULATOR
PRESSURE (atm) What three variables affect gases? VOLUME (L) TEMPERATURE (Kelvin)
Do You Know the Name of This Band? • They are a grunge band from San Diego and their lead singer is Scott Weiland. • They got famous in 1992 with a song called ‘Plush’ and sold 40 million albums worldwide STP Play Music Video
STP • STP stands for Standard _________ and _______. The value for standard temperature is ___K, which is equal to __°C. The value for standard pressure is __atm, which is equal to 101 kPaand760 mmHg. Temperature Pressure 273 0 1 LAUNCH GAS SIMULATOR
STP • Standard Temperature & Pressure 0°C 273K 32°F 760 mmHg 1 atm 101 kPa GASES BACK VIDEO
Fahrenheit Celsius Kelvin Water Boils 212°F 100°C 373K Body Temp 98.6°F 37°C 310K Room Temp 68°F 20°C 293K Water Freezes 32°F 0°C 273K Standard Temperatures 0°C 273K 32°F Standard Pressures 1atm 101kPa 760mmHg K = °C + 273 F = °C·1.8 + 32 Absolute Zero -459.4°F -273°C 0K
P T 4 3 2 1 0 0 GAY-LUSSAC’S LAW:TEMPERATURE VS PRESSURE 137 0.5 Pressure (atm) 273 1 546 2 819 3 1092 4 TEMPERATURE PRESSURE 0 273 546 819 1092 Temperature (K)
Gay-Lussac’s Law • Conclusion: __________ law states that at a constant ______, the _______ of a gas will increase as its_________increases. Gay-Lussac’s pressure volume Joseph Gay-Lussac temperature T P V SCIENCE OF TIRE PRESSURE LAUNCH GAS SIMULATOR HONORS - BOILING WITH PRESSURE VIDEO GASES BACK VIDEO
GAY-LUSSAC’S LAW T P V
GAS LAW SUMMARY • Identify the Gas Law.The gas law we learned in chemistry today was __________, which is defined as… • Give a real life example of the gas law.For instance, _____ is a good real life example of gas law because… • Explain additional details of your example.Furthermore, example shows gas law because it demonstrates…
P T 8 6 4 2 273 2.2 CHARLES’ LAW:TEMPERTURE VS VOLUME 546 4.4 Volume (nm) 819 6.6 1092 8.8 TEMPERATURE VOLUME 0 273 546 819 1092 Temperature (K)
Charles’ Law • Conclusion: _______ law states that at a constant _______, the ______ of a gas will increase as its_________ increases. Charles’ volume pressure Jacques Charles temperature T V P LAUNCH GAS SIMULATOR MR BEAN HOW HOT AIR BALLOONS WORK GASES BACK VIDEO
CHARLES’ LAW T V P
GAS LAW SUMMARY • Identify the Gas Law.The gas law we learned in chemistry today was __________, which is defined as… • Give a real life example of the gas law.For instance, _____ is a good real life example of gas law because… • Explain additional details of your example.Furthermore, example shows gas law because it demonstrates…
P V 4 3 2 1 9.2 1 BOYLE’S LAW:VOLUME VS PRESSURE 4.6 2 Pressure (atm) 2.8 3 2.2 4 VOLUME PRESSURE 0 1 2 3 4 5 6 7 8 9 10 Volume (nm)
Boyle’s Law • Conclusion: ______ law states that at constant __________, the _______ of a gas will increase as its ______decreases. Boyle’s temperature pressure volume Robert Boyle V P T LAUNCH GAS SIMULATOR RESPIRATION VIDEO GASES BACK VIDEO
BOYLE’S LAW V P BREATH OUT T
GAS LAW SUMMARY • Identify the Gas Law.The gas law we learned in chemistry today was __________, which is defined as… • Give a real life example of the gas law.For instance, _____ is a good real life example of gas law because… • Explain additional details of your example.Furthermore, example shows gas law because it demonstrates…
The Gas Laws • Gay-Lussac’s Law is an direct relationship (same direction) between Pressure and Temperature, while Volume is kept constant. • Charles’ Law is an direct relationship (same direction) between Volume and Temperature, while Pressure is kept constant. • Boyle’s Law is a inverse relationship (opposite direction) between Pressure and Volume, while Temperature is kept constant. LAUNCH GAS SIMULATOR GASES BACK VIDEO
I bought some balloons for a party. When I went outside, it was really hot and my balloons got bigger. • What happened? DID YOU GET IT? • Use the whiteboard to show the gas law and draw the arrows. Charles T V P
I left a bag of chips in the car on a really hot day and when I got back the bag was ready to pop. • What happened? DID YOU GET IT? • Use the whiteboard to show the gas law and draw the arrows. Gay-Lussac T P V
I baked a large cake for a party, but when I took it out of the oven, it got small and flat. • What happened? DID YOU GET IT? • Use the whiteboard to show the gas law and draw the arrows. Charles T V P
I dove into the swimming pool with a water bottle in my hand. When I got to the bottom, the bottle got really small. • What happened? DID YOU GET IT? • Use the whiteboard to show the gas law and draw the arrows. Boyle P V T
I went up the mountain to give some balloons to my mother but when I got to the top, my balloons popped. • What happened? DID YOU GET IT? • Use the whiteboard to show the gas law and draw the arrows. Boyle V P T
I pumped up my ball to go play soccer. I put in the garage and it rained last night. In the morning, my soccer ball was squishy. • What happened? DID YOU GET IT? • Use the whiteboard to show the gas law and draw the arrows. Gay-Lussac T P V
WHAT DO THE ARROWS ACT LIKE? GAY-LUSSAC’S LAW CHARLES’ LAW TEMP PRESSURE TEMP VOLUME VOLUME PRESSURE
DIRECT RELATIONSHIP THE ARROWS ACT LIKE TWINS! OLSEN TWINS VIDEO OLSEN TWINS SPOOF VIDEO
DIRECT RELATIONSHIP GAY-LUSSAC’S LAW PRESSURE TEMP VOLUME THEY BOTH GO UP ORTHEY BOTH GO DOWN CHARLES’ LAW VOLUME TEMP PRESSURE
WHAT DO THE ARROWS ACT LIKE? BOYLE’S LAW VOLUME PRESSURE TEMP
INVERSE RELATIONSHIP THE ARROWS ACT LIKE OPPOSITES! SPY VS SPY VIDEO
INVERSE RELATIONSHIP BOYLE’S LAW ONE GOES UP THE OTHER GOES DOWN PRESSURE VOLUME TEMP
THE GAS LAWS GAY-LUSSAC’S LAW CHARLES’ LAW BOYLE’S LAW PRESSURE TEMP VOLUME TEMP PRESSURE VOLUME VOLUME PRESSURE TEMP
THE COMBINED GAS LAW CAN YOU MAKE ONE GAS LAW? Hint: Use one variable from each law! GAY-LUSSAC’S LAW CHARLES’ LAW BOYLE’S LAW
THE COMBINED GAS LAW CAN YOU MAKE ONE GAS LAW? Hint: Use one variable from each law! Boyle Gay-Lussac Charles T T P V P V T P V
THE COMBINED GAS LAW GAY-LUSSAC’S LAW CHARLES’ LAW BOYLE’S LAW THE COMBINED GAS LAW P1 V1 P2 V2 = T1 T2