Energy Level Diagrams E

Slides:



Advertisements
Similar presentations
Identify how elements are arranged on the Periodic Table. F Fluorine atu 9 How many particles in the nucleus? Protons? Neutrons? Electrons? Now.
Advertisements

Unit 3 Part 2 The Periodic Table ICP Mr. Patel SWHS.
One-qusiparticle excitations of the heavy and superheavy nuclei A. Parkhomenko and and A.Sobiczewski Institute for Nuclear Studies, ul. Hoża 69, Warsaw.
Single particle properties of heavy and superheavy nuclei. Aleksander Parkhomenko.
THE PERIODIC TABLE.
Ionization Energy Hungry for Tater Tots? Mr. C at 7 years old.
Periodic Table.
Periodic Table – Filling Order
THE PERIODIC TABLE.
Neutron (no charge) Hydrogen 1 Proton 1 Electron Oxygen 8 Protons 8 Neutrons 8 Electrons a. b. proton (positive charge) electron (negative charge) Copyright.
Development of the Periodic Table. Mendeleev’s Periodic Table "...if all the elements be arranged in order of their atomic weights a periodic repetition.
Binary Compounds Metals (variable oxidation) + Nonmetals.
Metals, Nonmetals, Metalloids. Metals and Nonmetals Li 3 He 2 C6C6 N7N7 O8O8 F9F9 Ne 10 Na 11 B5B5 Be 4 H1H1 Al 13 Si 14 P 15 S 16 Cl 17 Ar 18 K 19 Ca.
CH. 2 atomic models electronic configuration oxidation numbers
Unit 4 The Periodic Table Chemistry I Mr. Patel SWHS.
Periodic Table of Elements. gold silver helium oxygen mercury hydrogen sodium nitrogen niobium neodymium chlorine carbon.
H 1 N 7 P 15 As 33 Sb 51 Bi 83 O 8 S 16 Se 34 Te 52 Po 84 F 9 Cl 17 Br
Chemical Families. Groups of Elements   Lanthanides Li 3 He 2 C6C6 N7N7 O8O8 F9F9 Ne 10 Na 11 B5B5 Be 4 H1H1 Al 13 Si 14 P 15 S 16 Cl.
Trends of the Periodic Table
Periodic Table Of Elements
Metals, Nonmetals, Metalloids
Ions Wednesday January 8, 2014
s p d (n-1) f (n-2) 6767 Periodic Patterns 1s1s1s1s 2s2s2s2s 3s3s3s3s 4s4s4s4s 5s5s5s5s 6s6s6s6s 7s7s7s7s 3d3d3d3d 4d4d4d4d 5d5d5d5d 6d6d6d6d 1s1s1s1s.
Organization of The Periodic Table Mrs. Russotto.
Bellwork, Fri. Sept. 14 Which element is LEAST likely to combine with another element to form a molecule? -Chlorine (Cl), a halogen -Iron (Fe), a metal.
Modern Periodic Table Objective:
Waves amplitude frequency light crest ROYGBIV electrons EMS energy Photoelectric effect.
Electron Configuration Filling-Order of Electrons in an Atom.
Alkali Metals, Group 1 H N OF Cl Br I Li Na K Fr Be Mg Ca Ra Sc Ac He Ne Ar Kr Rn Ti V Cr Mn Fe Co Ni Cu ZnGa Ge As Se Rb Sr Y Xe Zr Nb Mo Tc Ru Rh Pd.
Electron Configuration
1 Hydro gen 1 3 Li Lithi um 2 1 Na Sodiu m 3 1919 K Potas sium 4 3737 Rb Rubid ium 5 5 Cs Cesiu m 6 8787 Fr Franc ium 7 4 Be Beryl lium 1212 Mg Magne sium.
Fig Fig H Rb K Na Li Fr Cs Sr Ca Mg Be Ra Ba Y Sc Ac La Zr Ti Rf Hf Nb V Db Ta Mo Cr Sg W Tc Mn Bh Re Ru Fe Hs Os Rh Co Mt Ir Pd Ni Uun Pt.
Periodic Table Li 3 He 2 C6C6 N7N7 O8O8 F9F9 Ne 10 Na 11 B5B5 Be 4 H1H1 Al 13 Si 14 P 15 S 16 Cl 17 Ar 18 K 19 Ca 20 Sc 21 Ti 22 V 23 Cr.
Periodic Table of Elements
What are characteristics for: – Metal – Nonmetal – Metalloid.
Chapter 6 Metals, Nonmetals, Metalloids. Metals and Nonmetals Li 3 He 2 C6C6 N7N7 O8O8 F9F9 Ne 10 Na 11 B5B5 Be 4 H1H1 Al 13 Si 14 P 15 S 16 Cl 17 Ar.
Trends of the Periodic Table. Electronegativity ElectronegativityyElectronegativityy.
Electron.1 Wave nature of light  Electromagnetic (EM) radiation- E emits wave like behavior  All waves have: Wavelength- ( ) distance from crest to crest.
Periodic Table Li 3 He 2 C6C6 N7N7 O8O8 F9F9 Ne 10 Na 11 B5B5 Be 4 H1H1 Al 13 Si 14 P 15 S 16 Cl 17 Ar 18 K 19 Ca 20 Sc 21 Ti 22 V 23 Cr.
Electron Configuration
Periodic Table of Elements
The Periodic Table
1.7 Trends in the Periodic Table
The Periodic Table and Periodic Law
1 H 2 He 3 Li 4 Be 5 B 6 C 7 N 8 O 9 F 10 Ne 11 Na 12 Mg 13 Al 14 Si
Periodensystem Biomaterials Research - Manfred Maitz H He Li Be B C N
Groups of Elements 1A 8A H He 2A 3A 4A 5A 6A 7A Li Be B C N O F Ne Na
Do Now: Answer the following:
Emission of Energy by Atoms and Electron Configurations
Trends of the Periodic Table
Periodic Table Kelter, Carr, Scott, Chemistry A Wolrd of Choices 1999, page 74.
Periodic Trends Atomic Size Ionization Energy Electron Affinity
WHAT THE HECK DO I NEED TO BE ABLE TO DO?
4.05 Atomic Structure and Electronic Configuration
THE PERIODIC TABLE.
Periodic Table of the Elements
1.1 Atoms, Elements and the Periodic Table
Electron Configuration
4.2 IONIZATION ENERGY 4.6 TABLE 4.2 Ionization Energy of the Elements
PERIODIC TABLE OF ELEMENTS
Journal: Choose one of these Periodic Table ideas or come up with your own. Explain what different CATEGORIES/SECTIONS you would make to group your “Elements”
Electron Configurations
DETECTION LIMITS < 1 ppt ng/L 1-10 ppt ng/L ppt ng/L
Line Spectra and the Bohr Model
The Periodic Table Part I – Categories of Elements
1.5 Periodic Table: History & Trends
Introduction to Periodic Trends
PeRiOdIc TaBlE of ElEmEnTs
Electron Configurations and the Periodic Table
→ Atomic radius decreases → Ionization energy increases → Electronegativity increases →
Presentation transcript:

Energy Level Diagrams E Hund’s rule – e- half-fill each orbital in a sublevel before pairing up 6s Pictorial representation of electron distribution in orbitals 5p 4d Aufbau principle – e- occupy the lowest energy orbital available p. 188 in text 5s 4p Pauli exclusion principle – max 2 e- per orbital (spin up and spin down) 3d E 4s 3p 3s 2p 2s n = 1 l = 0 ml = 0 ms = -½ 1s

Orbitals Being Filled Groups 1 8 2 1s 1 3 4 5 6 7 1s 2s 2 2p 3 3s 3p 3 4 5 6 7 1s 2s 2 2p 3 3s 3p Periods 4s 3d 4p 4 4d 5p 5 5s La 5d 6p 6 6s Ac 6d 7 7s 4f Lanthanide series 5f Actinide series Zumdahl, Zumdahl, DeCoste, World of Chemistry 2002, page 345

Anions - Add e- to lowest energy sublevel available. Energy Level Diagrams 6s 5p 4d 5s 4p 3d E 4s 3p 3s Cl- 2p 2s Anions - Add e- to lowest energy sublevel available. 1s

Cations - Remove e- from sublevel with highest value of n. Energy Level Diagrams 6s 5p 4d 5s 4p Cations - Remove e- from sublevel with highest value of n. 3d E 4s 3p 3s Sr2+ 2p 2s 1s

Cations - Remove e- from sublevel with highest value of n. Energy Level Diagrams 6s 5p 4d 5s 4p Cations - Remove e- from sublevel with highest value of n. 3d E 4s 3p 3s Fe2+ and Fe3+ 2p 2s 1s

Energy Level Diagram of a Many-Electron Atom 6s 6p 5d 4f 5s 5p 4d 4s 4p 3d Arbitrary Energy Scale 3s 3p 2s 2p 1s NUCLEUS O’Connor, Davis, MacNab, McClellan, CHEMISTRY Experiments and Principles 1982, page 177

Orbital Diagrams for Nickel 58.6934 28 2 2 6 2 6 2 8 1s 2s 2p 3s 3p 4s 3d 2s 2p 3s 3p 4s 3d 1s Excited State 2 2 6 2 6 1 9 2s 2p 3s 3p 4s 3d 1s Pauli Exclusion 2s 2p 3s 3p 4s 3d 1s Hund’s Rule

Homework p. 191 #3alt,4 p. 197 #5

The Periodic Table * Y * Lanthanides Y Actinides Alkaline H He Li Be B Noble gases Alkaline earth metals Halogens 1 18 H 1 He 2 2 13 14 15 16 17 Li 3 Be 4 B 5 C 6 N 7 O 8 F 9 Ne 10 Na 11 Mg 12 3 4 5 6 7 8 9 10 11 12 Al 13 Si 14 P 15 S 16 Cl 17 Ar 18 Transition metals K 19 Ca 20 Sc 21 Ti 22 V 23 Cr 24 Mn 25 Fe 26 Co 27 Ni 28 Cu 29 Zn 30 Ga 31 Ge 32 As 33 Se 34 Br 35 Kr 36 Alkali metals Rb 37 Sr 38 Y 39 Zr 40 Nb 41 Mo 42 Tc 43 Ru 44 Rh 45 Pd 46 Ag 47 Cd 48 In 49 Sn 50 Sb 51 Te 52 I 53 Xe 54 Cs 55 Ba 56 * Hf 72 Ta 73 W 74 Re 75 Os 76 Ir 77 Pt 78 Au 79 Hg 80 Tl 81 Pb 82 Bi 83 Po 84 At 85 Rn 86 Fr 87 Ra 88 Y Rf 104 Db 105 Sg 106 Bh 107 Hs 108 Mt 109 Uun 110 Uuu 111 Uub 112 Uuq 113 Uuh 116 Uuo 118 * Lanthanides La 57 Ce 58 Pr 59 Nd 60 Pm 61 Sm 62 Eu 63 Gd 64 Tb 65 Dy 66 Ho 67 Er 68 Tm 69 Yb 70 Lu 71 Y Actinides Ac 89 Th 90 Pa 91 U 92 Np 93 Pu 94 Am 95 Cm 96 Bk 97 Cf 98 Es 99 Fm 100 Md 101 No 102 Lr 103

Electron Configuration H 1s1 Ca 1s22s22p63s23p64s2 Pb 1s22s22p63s23p64s23d104p65s24d105p66s24f145d106p2 Cl- 1s22s22p63s23p6 Fe2+ 1s22s22p63s23p63d6 Fe3+ 1s22s22p63s23p63d5 Ca [Ar]4s2 Cl- [Ar] Fe2+ [Ar]3d6 Shorthand: [noble gas]

Electron Filling in Periodic Table s s p 1 2 d 3 K 4s1 Ca 4s2 Sc 3d1 Ti 3d2 V 3d3 Cr 3d5 Cr 3d4 Cu 3d9 Mn 3d5 Fe 3d6 Co 3d7 Ni 3d8 Cu 3d10 Zn 3d10 Ga 4p1 Ge 4p2 As 4p3 Se 4p4 Br 4p5 Kr 4p6 4 Cr 4s13d5 Cu 4s13d10 4f 4d n = 4 4p 3d Cr 4s13d5 4s n = 3 3p Energy 3s 4s 3d 2p n = 2 2s Cu 4s13d10 n = 1 1s 4s 3d

Homework p. 194 #6-11 p. 197 #1,2,6-10,13

Anomalous e- Configurations

Ferromagnetic – Fe, Co and Ni are smaller, closely packed atoms able to orient themselves in a magnetic field (group of these atoms oriented in the same direction – domain theory) , explains full magnetism

Paramagnetism – substances exhibit a weak magnetic attraction  believed to be caused by the presence of unpaired electrons Q: Which substances containing calcium, zinc, copper (II) and manganese(II) ions are paramagnetic? CaSO4(s) ZnSO4(s) CuSO4(s) MnSO4(s)

Quantum Challenge The arrangement of elements in the periodic table is a direct consequence of the allowed values for the four quantum numbers. If the laws of physics allowed these numbers to have different values, the appearance of the periodic table would change. Suppose, in a different universe, the quantum number ml has the allowed values of ml = 0,1,…+l. All other allowed values are unchanged so the set of allowed values is: n = 1,2,3… l = 0,1,2…n-1 ml = 0,1…+l ms = ½,-½

Task: Design the periodic table for the first 30 elements. Label the s,p and d block elements. Shade or colour the noble gas-like elements. Show your work!!