• The work function energy for a particular metal is 2.80 eV (electron volts) per electron ejected. Calculate the work function energy in joules per electron ejected. [1 eV = 1.602x10-19 J]. work function energy = joules per electron ejected •The work function energy for a particular metal is 2.50 eV (electron volts) per electron ejected. Calculate the work function energy in kJ/mol (of electrons ejected). [1 eV = 1.602x10-19 J]. work function energy = kJ/mol (of electrons ejected) • Calculate the kinetic energy (in joules) of a proton travelling at a velocity of 3.70x105 meters/sec. kinetic energy (in joules) of a proton = joules • Calculate the velocity of a neutron travelling with a kinetic energy of 9.00x10-1⁹ joules. velocity= meters/sec • Calculate the de Broglie wavelength wavelength (in angstroms) for an electron having kinetic energy of 3.00x10-19 Joules. [Energy →velocity-wavelength] wavelength= Check angstroms

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Chapter1: Chemical Foundations
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- The work function energy for a particular metal is 2.80 eV (electron volts) per electron ejected. Calculate the work function energy in joules per electron ejected. \([1 \text{ eV} = 1.602 \times 10^{-19} \text{ J}]\).

  \[
  \text{work function energy} = \_\_\_\_ \text{ joules per electron ejected} 
  \]

- The work function energy for a particular metal is 2.50 eV (electron volts) per electron ejected. Calculate the work function energy in kJ/mol (of electrons ejected). \([1 \text{ eV} = 1.602 \times 10^{-19} \text{ J}]\).

  \[
  \text{work function energy} = \_\_\_\_ \text{ kJ/mol (of electrons ejected)}
  \]

- Calculate the kinetic energy (in joules) of a proton travelling at a velocity of \(3.70 \times 10^5\) meters/sec.

  \[
  \text{kinetic energy (in joules) of a proton} = \_\_\_\_ \text{ joules}
  \]

- Calculate the velocity of a neutron travelling with a kinetic energy of \(9.00 \times 10^{-19}\) joules.

  \[
  \text{velocity} = \_\_\_\_ \text{ meters/sec}
  \]

- Calculate the de Broglie wavelength (in angstroms) for an electron having kinetic energy of \(3.00 \times 10^{-19}\) joules. \([\text{Energy} \rightarrow \text{velocity} \rightarrow \text{wavelength}]\)

  \[
  \text{wavelength} = \_\_\_\_ \text{ angstroms}
  \]

\[ \text{Check} \]
Transcribed Image Text:- The work function energy for a particular metal is 2.80 eV (electron volts) per electron ejected. Calculate the work function energy in joules per electron ejected. \([1 \text{ eV} = 1.602 \times 10^{-19} \text{ J}]\). \[ \text{work function energy} = \_\_\_\_ \text{ joules per electron ejected} \] - The work function energy for a particular metal is 2.50 eV (electron volts) per electron ejected. Calculate the work function energy in kJ/mol (of electrons ejected). \([1 \text{ eV} = 1.602 \times 10^{-19} \text{ J}]\). \[ \text{work function energy} = \_\_\_\_ \text{ kJ/mol (of electrons ejected)} \] - Calculate the kinetic energy (in joules) of a proton travelling at a velocity of \(3.70 \times 10^5\) meters/sec. \[ \text{kinetic energy (in joules) of a proton} = \_\_\_\_ \text{ joules} \] - Calculate the velocity of a neutron travelling with a kinetic energy of \(9.00 \times 10^{-19}\) joules. \[ \text{velocity} = \_\_\_\_ \text{ meters/sec} \] - Calculate the de Broglie wavelength (in angstroms) for an electron having kinetic energy of \(3.00 \times 10^{-19}\) joules. \([\text{Energy} \rightarrow \text{velocity} \rightarrow \text{wavelength}]\) \[ \text{wavelength} = \_\_\_\_ \text{ angstroms} \] \[ \text{Check} \]
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