Modern Atomic Theory
... – The position of the electron in space – The spin direction of the electron ...
... – The position of the electron in space – The spin direction of the electron ...
quiz1review - WordPress.com
... 1. ____________ consists of protons, neutrons and electrons 2. The atomic number is actually the number of _______________ in the atom. 3. The __________ in the atom carry a positive charge. 4. The ______________ in the atom carry a negative charge 5. The ______________ in the atom carries a neutral ...
... 1. ____________ consists of protons, neutrons and electrons 2. The atomic number is actually the number of _______________ in the atom. 3. The __________ in the atom carry a positive charge. 4. The ______________ in the atom carry a negative charge 5. The ______________ in the atom carries a neutral ...
Chapter 4 Atoms and Elements - Mifflin County School District
... What is the atomic number of boron, B? 5 What is the atomic mass of silicon, Si? 28.09 amu How many protons does a chlorine atom have? 17 How many electrons does a neutral neon atom have? 10 Will an atom with 6 protons, 6 neutrons and 6 electrons be electrically neutral? Yes • Will an atom with 27 p ...
... What is the atomic number of boron, B? 5 What is the atomic mass of silicon, Si? 28.09 amu How many protons does a chlorine atom have? 17 How many electrons does a neutral neon atom have? 10 Will an atom with 6 protons, 6 neutrons and 6 electrons be electrically neutral? Yes • Will an atom with 27 p ...
CHAPTER 4 TEST
... Protons are smaller than quarks. Atoms are larger than protons. Protons are made up of quarks. ...
... Protons are smaller than quarks. Atoms are larger than protons. Protons are made up of quarks. ...
Chemistry I Syllabus 2011-2012
... inorganic, kinetic energy, law of conservation of mass, light energy, luster, malleability, melting point, metal, metalloid, molecule, nonmetal, organic, phase change, physical properties, potential energy, pure substance, reactivity with air (oxidation), solute, solution, solvent, strength, sub-let ...
... inorganic, kinetic energy, law of conservation of mass, light energy, luster, malleability, melting point, metal, metalloid, molecule, nonmetal, organic, phase change, physical properties, potential energy, pure substance, reactivity with air (oxidation), solute, solution, solvent, strength, sub-let ...
2013 Final Exam Answers
... geometry (from the VSEPR model), give the hybridization of the underline atom and indicate if the molecule is polar or nonpolar. The central atom is underlined. (9 points) ...
... geometry (from the VSEPR model), give the hybridization of the underline atom and indicate if the molecule is polar or nonpolar. The central atom is underlined. (9 points) ...
Chapter 6: Electronic Structure of Atoms
... • Describes the three-dimensional orientation of the orbital. Values are integers ranging from -l to l: −l ≤ ml ≤ l • Therefore, on any given energy level, there can be up to 1 s orbital, 3 p orbitals, 5 d orbitals, 7 f orbitals, etc. • Orbitals with the same value of n form a shell. • Different orb ...
... • Describes the three-dimensional orientation of the orbital. Values are integers ranging from -l to l: −l ≤ ml ≤ l • Therefore, on any given energy level, there can be up to 1 s orbital, 3 p orbitals, 5 d orbitals, 7 f orbitals, etc. • Orbitals with the same value of n form a shell. • Different orb ...
development of atomic models
... highest probability of finding an electron (remember the cubes with dots). These areas are called _______________________________, __________________________, _______________________or________________________________________. For simplicity reasons we will use the Bohr model to show the location of ...
... highest probability of finding an electron (remember the cubes with dots). These areas are called _______________________________, __________________________, _______________________or________________________________________. For simplicity reasons we will use the Bohr model to show the location of ...
Early Atomic Theory
... Most of the particles passed through the gold foil, but some were deflected and some even bounced back! This suggested the gold atoms must have a densely, positively charged nucleus to affect the path of an α particle (a positively charged He atom). ...
... Most of the particles passed through the gold foil, but some were deflected and some even bounced back! This suggested the gold atoms must have a densely, positively charged nucleus to affect the path of an α particle (a positively charged He atom). ...
Vocabulary Review
... e. positively charged particle that exists in the nucleus of an atom f. tiny bits of matter that are the building blocks of an atom Set Two----------------------------------------------------------------------------------------------------------1. _____group of elements a. atoms of the same element ...
... e. positively charged particle that exists in the nucleus of an atom f. tiny bits of matter that are the building blocks of an atom Set Two----------------------------------------------------------------------------------------------------------1. _____group of elements a. atoms of the same element ...
Who Discovered Neutrons?
... Neutron was discovered by a British Physicist named Sir James Chadwick. In the early 1900s, scientists were aware that an atom contained electrically charged particles called electrons and protons. Scientists believed that there must be uncharged particles also in an atom. In1932, Chadwick showed th ...
... Neutron was discovered by a British Physicist named Sir James Chadwick. In the early 1900s, scientists were aware that an atom contained electrically charged particles called electrons and protons. Scientists believed that there must be uncharged particles also in an atom. In1932, Chadwick showed th ...
The Wizard Test Maker
... 2. Which of the following is NOT the same for isotopes of the same element? (A) Mass number (B) Atomic number (C) Number of protons (D) Number of valence electrons (E) Number of occupied electron shells in the ground state 3. Two isotopes of uranium are U-237 and U-238. Both would be expected to hav ...
... 2. Which of the following is NOT the same for isotopes of the same element? (A) Mass number (B) Atomic number (C) Number of protons (D) Number of valence electrons (E) Number of occupied electron shells in the ground state 3. Two isotopes of uranium are U-237 and U-238. Both would be expected to hav ...
File
... • Electrons in excited states are farther from the nucleus, have larger orbits, and more energy! ...
... • Electrons in excited states are farther from the nucleus, have larger orbits, and more energy! ...
C. Adding acid shifts the equilibrium to the right
... electrons, the more reactive the metal is. Reactive metals have low ionization energies and low electronegativities. Most nonmetals don’t conduct electricity, are much poorer conductors of heat than metals, and are brittle when solid. Many are gases at room temperature; those that are solids lack th ...
... electrons, the more reactive the metal is. Reactive metals have low ionization energies and low electronegativities. Most nonmetals don’t conduct electricity, are much poorer conductors of heat than metals, and are brittle when solid. Many are gases at room temperature; those that are solids lack th ...
Webquest: Atomic Theories and Models – an Historical Work in
... Rutherford and Bohr Break the “Plum Pudding” Model Go to http://www.pbs.org/wgbh/aso/databank/entries/dp13at.html and use the information found there to answer the following questions: 12. What was the “plum pudding” model of the atom and its electrons? 13. How much smaller was the nucleus, than the ...
... Rutherford and Bohr Break the “Plum Pudding” Model Go to http://www.pbs.org/wgbh/aso/databank/entries/dp13at.html and use the information found there to answer the following questions: 12. What was the “plum pudding” model of the atom and its electrons? 13. How much smaller was the nucleus, than the ...
CHAPTER 2 MATTER IS MADE UP OF ATOMS
... 2. Atoms are indestructible and cannot be divided into smaller particles (atoms are indivisible) (only part of theory that has changed) 3. All atoms of one element are exactly alike, but they are different from atoms of other elements ...
... 2. Atoms are indestructible and cannot be divided into smaller particles (atoms are indivisible) (only part of theory that has changed) 3. All atoms of one element are exactly alike, but they are different from atoms of other elements ...
Chapter 4 power point notes
... • Unstable nuclei lose energy by emitting radiation in a spontaneous process called radioactive decay. • Unstable radioactive elements undergo radioactive decay thus forming stable nonradioactive elements. ...
... • Unstable nuclei lose energy by emitting radiation in a spontaneous process called radioactive decay. • Unstable radioactive elements undergo radioactive decay thus forming stable nonradioactive elements. ...
ch 4 ppt - Madison County Schools
... • Unstable nuclei lose energy by emitting radiation in a spontaneous process called radioactive decay. • Unstable radioactive elements undergo radioactive decay thus forming stable nonradioactive elements. ...
... • Unstable nuclei lose energy by emitting radiation in a spontaneous process called radioactive decay. • Unstable radioactive elements undergo radioactive decay thus forming stable nonradioactive elements. ...
Atomic
... • Not all atoms of the same element have the same number of neutrons. Most Carbon atoms have 6 neutrons, although some have more and some have less. Atoms of the same element with differing numbers of neutrons are called isotopes. The number of neutrons does not change the atom or the element it mak ...
... • Not all atoms of the same element have the same number of neutrons. Most Carbon atoms have 6 neutrons, although some have more and some have less. Atoms of the same element with differing numbers of neutrons are called isotopes. The number of neutrons does not change the atom or the element it mak ...
Chapter 4 PPT
... • Unstable nuclei lose energy by emitting radiation in a spontaneous process called radioactive decay. • Unstable radioactive elements undergo radioactive decay thus forming stable nonradioactive elements. ...
... • Unstable nuclei lose energy by emitting radiation in a spontaneous process called radioactive decay. • Unstable radioactive elements undergo radioactive decay thus forming stable nonradioactive elements. ...
CMC Chapter 04
... • Unstable nuclei lose energy by emitting radiation in a spontaneous process called radioactive decay. • Unstable radioactive elements undergo radioactive decay thus forming stable nonradioactive elements. ...
... • Unstable nuclei lose energy by emitting radiation in a spontaneous process called radioactive decay. • Unstable radioactive elements undergo radioactive decay thus forming stable nonradioactive elements. ...
TEST on Atomic Structure
... _A__ 43) Which of the following occurs in an ionic bond? (electrostatic forces between charged ions) a. Oppositely charged ions attract. c. Two atoms share more than two electrons. b. Two atoms share two electrons. d. Like-charged ions attract. _A__ 44) Which of the following pairs of elements is mo ...
... _A__ 43) Which of the following occurs in an ionic bond? (electrostatic forces between charged ions) a. Oppositely charged ions attract. c. Two atoms share more than two electrons. b. Two atoms share two electrons. d. Like-charged ions attract. _A__ 44) Which of the following pairs of elements is mo ...
Compound Name
... Bohr Diagrams (for first 20 elements) – orbitals/energy shells Lewis Diagrams (all Representative Elements) – valence electrons represented; ...
... Bohr Diagrams (for first 20 elements) – orbitals/energy shells Lewis Diagrams (all Representative Elements) – valence electrons represented; ...
APS Science Curriculum Unit Planner
... The smallest unique particle of matter is an atom and atoms can combine physically and ...
... The smallest unique particle of matter is an atom and atoms can combine physically and ...