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![chemistry - Chemistry Formula Series Page 3 Thermochemistry Tmportant Formulos Energy Hear 1. ೧ _ heqT energy' m = moss mcAT < specific heat capacity C= chonge in temperoture AT _ Enthalpy Change 2. enthalpy change AH H(producfs) AH H(reactants) enthalpy = H _ > Heat Capacity] 3. heat capacity C > C = Q Q > heat energy AT temperature_change ] AT > Hess s Law 4. enfhalpy change] AHtotal AH AH + AH2 + AH3 2 = Energy Relarion Bond 5. ZE(bonds broken) _ ZE(bonds_formed) AH = bond energy E > Calorimetry Relation] 6. heaT energy Qgained = lost Chemistry Formula Series Page 3 Thermochemistry Tmportant Formulos Energy Hear 1. ೧ _ heqT energy' m = moss mcAT < specific heat capacity C= chonge in temperoture AT _ Enthalpy Change 2. enthalpy change AH H(producfs) AH H(reactants) enthalpy = H _ > Heat Capacity] 3. heat capacity C > C = Q Q > heat energy AT temperature_change ] AT > Hess s Law 4. enfhalpy change] AHtotal AH AH + AH2 + AH3 2 = Energy Relarion Bond 5. ZE(bonds broken) _ ZE(bonds_formed) AH = bond energy E > Calorimetry Relation] 6. heaT energy Qgained = lost - ShareChat](https://cdn4.sharechat.com/bd5223f_s1w/compressed_gm_40_img_441778_28cd4404_1775048440611_sc.jpg?tenant=sc&referrer=user-profile-service%2FrequestType50&f=611_sc.jpg "chemistry - Chemistry Formula Series Page 3 Thermochemistry Tmportant Formulos Energy Hear 1. ೧ _ heqT energy' m = moss mcAT < specific heat capacity C= chonge in temperoture AT _ Enthalpy Change 2. enthalpy change AH H(producfs) AH H(reactants) enthalpy = H _ > Heat Capacity] 3. heat capacity C > C = Q Q > heat energy AT temperature_change ] AT > Hess s Law 4. enfhalpy change] AHtotal AH AH + AH2 + AH3 2 = Energy Relarion Bond 5. ZE(bonds broken) _ ZE(bonds_formed) AH = bond energy E > Calorimetry Relation] 6. heaT energy Qgained = lost Chemistry Formula Series Page 3 Thermochemistry Tmportant Formulos Energy Hear 1. ೧ _ heqT energy' m = moss mcAT < specific heat capacity C= chonge in temperoture AT _ Enthalpy Change 2. enthalpy change AH H(producfs) AH H(reactants) enthalpy = H _ > Heat Capacity] 3. heat capacity C > C = Q Q > heat energy AT temperature_change ] AT > Hess s Law 4. enfhalpy change] AHtotal AH AH + AH2 + AH3 2 = Energy Relarion Bond 5. ZE(bonds broken) _ ZE(bonds_formed) AH = bond energy E > Calorimetry Relation] 6. heaT energy Qgained = lost - ShareChat")
![chemistry - Chemistry Formula Series Page 1 Mole_Concept] Important Formulas Number of Moles 1) number of moles ٨ > m > mass of substance m n = M M _ molqr mass 2) Avogadro Relation particles N>> number of number of moles ٨ » nxNal N= Avogadro number Na > 3) Avogadro Constant number of particles Na 23 =1 Na 6.022 *10 mol one mole in < Molar Mass Relation 4) M > molor mass M=m m - mqss number of moles n > Gas Volume at STP 5) V ~ volume of gas (liters) V = 22.4 n n > number of moles 6)| Density Relation] density p -> m p = m mass volume > Chemistry Formula Series Page 1 Mole_Concept] Important Formulas Number of Moles 1) number of moles ٨ > m > mass of substance m n = M M _ molqr mass 2) Avogadro Relation particles N>> number of number of moles ٨ » nxNal N= Avogadro number Na > 3) Avogadro Constant number of particles Na 23 =1 Na 6.022 *10 mol one mole in < Molar Mass Relation 4) M > molor mass M=m m - mqss number of moles n > Gas Volume at STP 5) V ~ volume of gas (liters) V = 22.4 n n > number of moles 6)| Density Relation] density p -> m p = m mass volume > - ShareChat](https://cdn4.sharechat.com/bd5223f_s1w/compressed_gm_40_img_187752_4d4a71c_1774974185841_sc.jpg?tenant=sc&referrer=user-profile-service%2FrequestType50&f=841_sc.jpg "chemistry - Chemistry Formula Series Page 1 Mole_Concept] Important Formulas Number of Moles 1) number of moles ٨ > m > mass of substance m n = M M _ molqr mass 2) Avogadro Relation particles N>> number of number of moles ٨ » nxNal N= Avogadro number Na > 3) Avogadro Constant number of particles Na 23 =1 Na 6.022 *10 mol one mole in < Molar Mass Relation 4) M > molor mass M=m m - mqss number of moles n > Gas Volume at STP 5) V ~ volume of gas (liters) V = 22.4 n n > number of moles 6)| Density Relation] density p -> m p = m mass volume > Chemistry Formula Series Page 1 Mole_Concept] Important Formulas Number of Moles 1) number of moles ٨ > m > mass of substance m n = M M _ molqr mass 2) Avogadro Relation particles N>> number of number of moles ٨ » nxNal N= Avogadro number Na > 3) Avogadro Constant number of particles Na 23 =1 Na 6.022 *10 mol one mole in < Molar Mass Relation 4) M > molor mass M=m m - mqss number of moles n > Gas Volume at STP 5) V ~ volume of gas (liters) V = 22.4 n n > number of moles 6)| Density Relation] density p -> m p = m mass volume > - ShareChat")
![chemistry - Chemistry_Formula_Series] Page 2 Gas Laws Important Formulas Boyles Low 1 pressure P > PV PVz = volume > Gas Charles's 2 Law మా Gas V volume V2 temperature (Kelvin) T T2 Goy-Lussoc's 3 Law pressure P _ P2 P Gas Temperature T -> 12 Ideal Gas Equation pressure 4 P > " V > volume PV = nRT number of moles n R gas constant > T Temperafure > Combined Gas Law 5 P pressure > PVz PV V > volume GAS T temperature > T२ T Density of Gos densify p -> pressure ٥ p = PM M > molar mass RT R gas consfanf T Temperafure > Chemistry_Formula_Series] Page 2 Gas Laws Important Formulas Boyles Low 1 pressure P > PV PVz = volume > Gas Charles's 2 Law మా Gas V volume V2 temperature (Kelvin) T T2 Goy-Lussoc's 3 Law pressure P _ P2 P Gas Temperature T -> 12 Ideal Gas Equation pressure 4 P > V > volume PV = nRT number of moles n R gas constant > T Temperafure > Combined Gas Law 5 P pressure > PVz PV V > volume GAS T temperature > T२ T Density of Gos densify p -> pressure ٥ p = PM M > molar mass RT R gas consfanf T Temperafure > - ShareChat](https://cdn4.sharechat.com/bd5223f_s1w/compressed_gm_40_img_113630_365b225f_1774936066040_sc.jpg?tenant=sc&referrer=user-profile-service%2FrequestType50&f=040_sc.jpg "chemistry - Chemistry_Formula_Series] Page 2 Gas Laws Important Formulas Boyles Low 1 pressure P > PV PVz = volume > Gas Charles's 2 Law మా Gas V volume V2 temperature (Kelvin) T T2 Goy-Lussoc's 3 Law pressure P _ P2 P Gas Temperature T -> 12 Ideal Gas Equation pressure 4 P > \" V > volume PV = nRT number of moles n R gas constant > T Temperafure > Combined Gas Law 5 P pressure > PVz PV V > volume GAS T temperature > T२ T Density of Gos densify p -> pressure ٥ p = PM M > molar mass RT R gas consfanf T Temperafure > Chemistry_Formula_Series] Page 2 Gas Laws Important Formulas Boyles Low 1 pressure P > PV PVz = volume > Gas Charles's 2 Law మా Gas V volume V2 temperature (Kelvin) T T2 Goy-Lussoc's 3 Law pressure P _ P2 P Gas Temperature T -> 12 Ideal Gas Equation pressure 4 P > V > volume PV = nRT number of moles n R gas constant > T Temperafure > Combined Gas Law 5 P pressure > PVz PV V > volume GAS T temperature > T२ T Density of Gos densify p -> pressure ٥ p = PM M > molar mass RT R gas consfanf T Temperafure > - ShareChat")
![chemistry - Chemistry Formula Series Page 3 Thermochemistry Tmportant Formulos Energy Hear 1. ೧ _ heqT energy' m = moss mcAT < specific heat capacity C= chonge in temperoture AT _ Enthalpy Change 2. enthalpy change AH H(producfs) AH H(reactants) enthalpy = H _ > Heat Capacity] 3. heat capacity C > C = Q Q > heat energy AT temperature_change ] AT > Hess s Law 4. enfhalpy change] AHtotal AH AH + AH2 + AH3 2 = Energy Relarion Bond 5. ZE(bonds broken) _ ZE(bonds_formed) AH = bond energy E > Calorimetry Relation] 6. heaT energy Qgained = lost Chemistry Formula Series Page 3 Thermochemistry Tmportant Formulos Energy Hear 1. ೧ _ heqT energy' m = moss mcAT < specific heat capacity C= chonge in temperoture AT _ Enthalpy Change 2. enthalpy change AH H(producfs) AH H(reactants) enthalpy = H _ > Heat Capacity] 3. heat capacity C > C = Q Q > heat energy AT temperature_change ] AT > Hess s Law 4. enfhalpy change] AHtotal AH AH + AH2 + AH3 2 = Energy Relarion Bond 5. ZE(bonds broken) _ ZE(bonds_formed) AH = bond energy E > Calorimetry Relation] 6. heaT energy Qgained = lost - ShareChat](https://cdn4.sharechat.com/bd5223f_s1w/compressed_gm_40_img_983789_15fdd7ee_1774922925966_sc.jpg?tenant=sc&referrer=user-profile-service%2FrequestType50&f=966_sc.jpg "chemistry - Chemistry Formula Series Page 3 Thermochemistry Tmportant Formulos Energy Hear 1. ೧ _ heqT energy' m = moss mcAT < specific heat capacity C= chonge in temperoture AT _ Enthalpy Change 2. enthalpy change AH H(producfs) AH H(reactants) enthalpy = H _ > Heat Capacity] 3. heat capacity C > C = Q Q > heat energy AT temperature_change ] AT > Hess s Law 4. enfhalpy change] AHtotal AH AH + AH2 + AH3 2 = Energy Relarion Bond 5. ZE(bonds broken) _ ZE(bonds_formed) AH = bond energy E > Calorimetry Relation] 6. heaT energy Qgained = lost Chemistry Formula Series Page 3 Thermochemistry Tmportant Formulos Energy Hear 1. ೧ _ heqT energy' m = moss mcAT < specific heat capacity C= chonge in temperoture AT _ Enthalpy Change 2. enthalpy change AH H(producfs) AH H(reactants) enthalpy = H _ > Heat Capacity] 3. heat capacity C > C = Q Q > heat energy AT temperature_change ] AT > Hess s Law 4. enfhalpy change] AHtotal AH AH + AH2 + AH3 2 = Energy Relarion Bond 5. ZE(bonds broken) _ ZE(bonds_formed) AH = bond energy E > Calorimetry Relation] 6. heaT energy Qgained = lost - ShareChat")
![chemistry - Chemisfru_Formulq Series Page 4 Imporfan+ Formulas Chemical Equilibrium Equilibrium Constant (Concentration) equilibrium constont Kc - (concentration) [CJc[DJd [A], [B], [C], [D] molar > Kc products | reactants concentrations [A]^[B]b ৭, b, C, d -> sToichiomefric coefficients Equilibrium Constant (Pressure) equilibrium constont Kp P Pd (pressure) gas Kp P P- partial PA pressure Relation between Kp and Kc] R _> gqs consTqnT An T Temperqfure (Kelvin) Kc (RT) Kp = change in moles of gas] An -> Reacfion Quofienf Lproducts ] quotient reacfion products reactants ಕು [reactants] Degree of Dissociation 0 An moles dissociated degree of dissociofion -> C 0 3 C1 moles totall Van't Hoff Equation] equilibrium constonts KI, Kz > =1 (#)(= -=) K ) enthalpy change AH In = T, T2 temperatures Chemisfru_Formulq Series Page 4 Imporfan+ Formulas Chemical Equilibrium Equilibrium Constant (Concentration) equilibrium constont Kc - (concentration) [CJc[DJd [A], [B], [C], [D] molar > Kc products | reactants concentrations [A]^[B]b ৭, b, C, d -> sToichiomefric coefficients Equilibrium Constant (Pressure) equilibrium constont Kp P Pd (pressure) gas Kp P P- partial PA pressure Relation between Kp and Kc] R _> gqs consTqnT An T Temperqfure (Kelvin) Kc (RT) Kp = change in moles of gas] An -> Reacfion Quofienf Lproducts ] quotient reacfion products reactants ಕು [reactants] Degree of Dissociation 0 An moles dissociated degree of dissociofion -> C 0 3 C1 moles totall Van't Hoff Equation] equilibrium constonts KI, Kz > =1 (#)(= -=) K ) enthalpy change AH In = T, T2 temperatures - ShareChat](https://cdn4.sharechat.com/bd5223f_s1w/compressed_gm_40_img_196200_f902462_1774851149312_sc.jpg?tenant=sc&referrer=user-profile-service%2FrequestType50&f=312_sc.jpg "chemistry - Chemisfru_Formulq Series Page 4 Imporfan+ Formulas Chemical Equilibrium Equilibrium Constant (Concentration) equilibrium constont Kc - (concentration) [CJc[DJd [A], [B], [C], [D] molar > Kc products | reactants concentrations [A]^[B]b ৭, b, C, d -> sToichiomefric coefficients Equilibrium Constant (Pressure) equilibrium constont Kp P Pd (pressure) gas Kp P P- partial PA pressure Relation between Kp and Kc] R _> gqs consTqnT An T Temperqfure (Kelvin) Kc (RT) Kp = change in moles of gas] An -> Reacfion Quofienf Lproducts ] quotient reacfion products reactants ಕು [reactants] Degree of Dissociation 0 An moles dissociated degree of dissociofion -> C 0 3 C1 moles totall Van't Hoff Equation] equilibrium constonts KI, Kz > =1 (#)(= -=) K ) enthalpy change AH In = T, T2 temperatures Chemisfru_Formulq Series Page 4 Imporfan+ Formulas Chemical Equilibrium Equilibrium Constant (Concentration) equilibrium constont Kc - (concentration) [CJc[DJd [A], [B], [C], [D] molar > Kc products | reactants concentrations [A]^[B]b ৭, b, C, d -> sToichiomefric coefficients Equilibrium Constant (Pressure) equilibrium constont Kp P Pd (pressure) gas Kp P P- partial PA pressure Relation between Kp and Kc] R _> gqs consTqnT An T Temperqfure (Kelvin) Kc (RT) Kp = change in moles of gas] An -> Reacfion Quofienf Lproducts ] quotient reacfion products reactants ಕು [reactants] Degree of Dissociation 0 An moles dissociated degree of dissociofion -> C 0 3 C1 moles totall Van't Hoff Equation] equilibrium constonts KI, Kz > =1 (#)(= -=) K ) enthalpy change AH In = T, T2 temperatures - ShareChat")
![exams - Chemistry Formula Series Page 1 Mole_Concept] Important Formulas Number of Moles 1) number of moles ٨ > m > mass of substance m n = M M _ molqr mass 2) Avogadro Relation particles N>> number of number of moles ٨ » nxNal N= Avogadro number Na > 3) Avogadro Constant number of particles Na 23 =1 Na 6.022 *10 mol one mole in < Molar Mass Relation 4) M > molor mass M=m m - mqss number of moles n > Gas Volume at STP 5) V ~ volume of gas (liters) V = 22.4 n n > number of moles 6)| Density Relation] density p -> m p = m mass volume > Chemistry Formula Series Page 1 Mole_Concept] Important Formulas Number of Moles 1) number of moles ٨ > m > mass of substance m n = M M _ molqr mass 2) Avogadro Relation particles N>> number of number of moles ٨ » nxNal N= Avogadro number Na > 3) Avogadro Constant number of particles Na 23 =1 Na 6.022 *10 mol one mole in < Molar Mass Relation 4) M > molor mass M=m m - mqss number of moles n > Gas Volume at STP 5) V ~ volume of gas (liters) V = 22.4 n n > number of moles 6)| Density Relation] density p -> m p = m mass volume > - ShareChat](https://cdn4.sharechat.com/bd5223f_s1w/compressed_gm_40_img_38207_1f6cfbaf_1774823036034_sc.jpg?tenant=sc&referrer=user-profile-service%2FrequestType50&f=034_sc.jpg "exams - Chemistry Formula Series Page 1 Mole_Concept] Important Formulas Number of Moles 1) number of moles ٨ > m > mass of substance m n = M M _ molqr mass 2) Avogadro Relation particles N>> number of number of moles ٨ » nxNal N= Avogadro number Na > 3) Avogadro Constant number of particles Na 23 =1 Na 6.022 *10 mol one mole in < Molar Mass Relation 4) M > molor mass M=m m - mqss number of moles n > Gas Volume at STP 5) V ~ volume of gas (liters) V = 22.4 n n > number of moles 6)| Density Relation] density p -> m p = m mass volume > Chemistry Formula Series Page 1 Mole_Concept] Important Formulas Number of Moles 1) number of moles ٨ > m > mass of substance m n = M M _ molqr mass 2) Avogadro Relation particles N>> number of number of moles ٨ » nxNal N= Avogadro number Na > 3) Avogadro Constant number of particles Na 23 =1 Na 6.022 *10 mol one mole in < Molar Mass Relation 4) M > molor mass M=m m - mqss number of moles n > Gas Volume at STP 5) V ~ volume of gas (liters) V = 22.4 n n > number of moles 6)| Density Relation] density p -> m p = m mass volume > - ShareChat")
![chemistry - Chemisfru_Formulq Series Page 4 Imporfan+ Formulas Chemical Equilibrium Equilibrium Constant (Concentration) equilibrium constont Kc - (concentration) [CJc[DJd [A], [B], [C], [D] molar > Kc products | reactants concentrations [A]^[B]b ৭, b, C, d -> sToichiomefric coefficients Equilibrium Constant (Pressure) equilibrium constont Kp P Pd (pressure) gas Kp P P- partial PA pressure Relation between Kp and Kc] R _> gqs consTqnT An T Temperqfure (Kelvin) Kc (RT) Kp = change in moles of gas] An -> Reacfion Quofienf Lproducts ] quotient reacfion products reactants ಕು [reactants] Degree of Dissociation 0 An moles dissociated degree of dissociofion -> C 0 3 C1 moles totall Van't Hoff Equation] equilibrium constonts KI, Kz > =1 (#)(= -=) K ) enthalpy change AH In = T, T2 temperatures Chemisfru_Formulq Series Page 4 Imporfan+ Formulas Chemical Equilibrium Equilibrium Constant (Concentration) equilibrium constont Kc - (concentration) [CJc[DJd [A], [B], [C], [D] molar > Kc products | reactants concentrations [A]^[B]b ৭, b, C, d -> sToichiomefric coefficients Equilibrium Constant (Pressure) equilibrium constont Kp P Pd (pressure) gas Kp P P- partial PA pressure Relation between Kp and Kc] R _> gqs consTqnT An T Temperqfure (Kelvin) Kc (RT) Kp = change in moles of gas] An -> Reacfion Quofienf Lproducts ] quotient reacfion products reactants ಕು [reactants] Degree of Dissociation 0 An moles dissociated degree of dissociofion -> C 0 3 C1 moles totall Van't Hoff Equation] equilibrium constonts KI, Kz > =1 (#)(= -=) K ) enthalpy change AH In = T, T2 temperatures - ShareChat](https://cdn4.sharechat.com/bd5223f_s1w/compressed_gm_40_img_140693_11c5d0ff_1774785139077_sc.jpg?tenant=sc&referrer=user-profile-service%2FrequestType50&f=077_sc.jpg "chemistry - Chemisfru_Formulq Series Page 4 Imporfan+ Formulas Chemical Equilibrium Equilibrium Constant (Concentration) equilibrium constont Kc - (concentration) [CJc[DJd [A], [B], [C], [D] molar > Kc products | reactants concentrations [A]^[B]b ৭, b, C, d -> sToichiomefric coefficients Equilibrium Constant (Pressure) equilibrium constont Kp P Pd (pressure) gas Kp P P- partial PA pressure Relation between Kp and Kc] R _> gqs consTqnT An T Temperqfure (Kelvin) Kc (RT) Kp = change in moles of gas] An -> Reacfion Quofienf Lproducts ] quotient reacfion products reactants ಕು [reactants] Degree of Dissociation 0 An moles dissociated degree of dissociofion -> C 0 3 C1 moles totall Van't Hoff Equation] equilibrium constonts KI, Kz > =1 (#)(= -=) K ) enthalpy change AH In = T, T2 temperatures Chemisfru_Formulq Series Page 4 Imporfan+ Formulas Chemical Equilibrium Equilibrium Constant (Concentration) equilibrium constont Kc - (concentration) [CJc[DJd [A], [B], [C], [D] molar > Kc products | reactants concentrations [A]^[B]b ৭, b, C, d -> sToichiomefric coefficients Equilibrium Constant (Pressure) equilibrium constont Kp P Pd (pressure) gas Kp P P- partial PA pressure Relation between Kp and Kc] R _> gqs consTqnT An T Temperqfure (Kelvin) Kc (RT) Kp = change in moles of gas] An -> Reacfion Quofienf Lproducts ] quotient reacfion products reactants ಕು [reactants] Degree of Dissociation 0 An moles dissociated degree of dissociofion -> C 0 3 C1 moles totall Van't Hoff Equation] equilibrium constonts KI, Kz > =1 (#)(= -=) K ) enthalpy change AH In = T, T2 temperatures - ShareChat")
