We know that hydrogen gas (H2) reacts with nitrogen gas (N2) to produce ammonia gas (NH3). But how much H2 and N2 do we need? This change we can describe as follows: x molecules of H2 with y of N2 produce z molecules of NH3, or: xH2 + yN2 ZNH3 What remains constant in this change? By Lavaisier's law. we know that the number of atoms of each element at the beginning of the reaction must be equal to the number of atoms of this same element, at the end of the reaction. If we can solve such a linear system. let's get to know a little more about

Introduction to Chemical Engineering Thermodynamics
8th Edition
ISBN:9781259696527
Author:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Publisher:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Chapter1: Introduction
Section: Chapter Questions
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We know that hydrogen gas (H2) reacts with nitrogen gas (N2) to
produce ammonia gas (NH3). But how much H2 and N2 do we need?
This change we can describe as follows: x molecules of H2 with y of N2
produce z molecules of NH3, or:
xH2 + yN2
ZNH3
What remains constant in this change? By Lavaisier's law. we know that
the number of atoms of each element at the beginning of the reaction
must be equal to the number of atoms of this same element, at the end
of the reaction.
If we can solve such a linear system. let's get to know a little more about
nature.
Note: Solve the corresponding linear system using Scheduling or
Cramer's Rule (if possible) showing the details of the development.
Transcribed Image Text:We know that hydrogen gas (H2) reacts with nitrogen gas (N2) to produce ammonia gas (NH3). But how much H2 and N2 do we need? This change we can describe as follows: x molecules of H2 with y of N2 produce z molecules of NH3, or: xH2 + yN2 ZNH3 What remains constant in this change? By Lavaisier's law. we know that the number of atoms of each element at the beginning of the reaction must be equal to the number of atoms of this same element, at the end of the reaction. If we can solve such a linear system. let's get to know a little more about nature. Note: Solve the corresponding linear system using Scheduling or Cramer's Rule (if possible) showing the details of the development.
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