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Name: ________________________ Class: ___________________ Date: __________ ID: C Final Exam- Review Fall Semester Multiple Choice Identify the choice that best completes the statement or answers the question. 1. Based on the pattern, what are the next two terms of the sequence? 4, 12, 20, 28, . . . a. 36, 44 b. 224, 1792 c. 44, 52 d. 36, 1792 3. Find a counterexample to show that the conjecture is false. Conjecture: The product of two positive numbers is greater than the sum of the two numbers. a. 3 and 5 b. 2 and 2 c. A counterexample exists, but it is not shown above. d. There is no counterexample. The conjecture is true. 2. Based on the pattern, what is the next figure in the sequence? a. b. c. d. 4. Are E, F, and H collinear? If so, name the line on which they lie. a. b. c. d. Yes, they lie on the line EG. No, the three points are not collinear. Yes, they lie on the line EH. Yes, they lie on the line FH. 1 Name: ________________________ ID: C 8. ∠1 and ∠2 are supplementary angles. m∠1 = x − 36, and m∠2 = x + 60. Find the measure of each angle. a. ∠1 = 78, ∠2 = 102 b. ∠1 = 78, ∠2 = 112 c. ∠1 = 42, ∠2 = 148 d. ∠1 = 42, ∠2 = 138 5. What is the intersection of plane XWST and plane ZWSV ? 9. Find the distance between points P(3, 6) and Q(2, 1) to the nearest tenth. a. 5.1 b. 26 c. 8.6 d. 6 ← → a. ST ← → b. VZ 10. Find the midpoint of PQ. ← → c. TX ← → d. SW 6. If EF = 3x − 14, FG = 4x − 15, and EG = 20, find the values of x, EF, and FG. The drawing is not to scale. a. b. c. d. x = 1, EF = –11, FG = –11 x = 1, EF = 7, FG = 13 x = 7, EF = 35, FG = 43 x = 7, EF = 7, FG = 13 7. If m∠EOF = 37 and m∠FOG = 33, then what is the measure of ∠EOG? The diagram is not to scale. a. b. c. d. a. b. c. d. (–1, 2) (0, 3) (–1, 3) (0, 2) 11. M(6, 3) is the midpoint of RS . The coordinates of S are (10, 5). What are the coordinates of R? a. (14, 7) b. (2, 1) c. (12, 6) d. (8, 4) 4 74 70 66 2 Name: ________________________ ID: C 13. If the perimeter of a square is 108 inches, what is its area? a. 27 in. 2 b. 11,664 in. 2 c. 729 in. 2 d. 108 in. 2 12. Find the circumference of the circle to the nearest tenth.Use 3.14 for π. a. b. c. d. 14. Another name for an if-then statement is a ____. Every conditional has two parts. The part following if is the ____ and the part following then is the ____. a. conditional; conclusion; hypothesis b. hypothesis; conclusion; conditional c. conditional; hypothesis; conclusion d. hypothesis; conditional; conclusion 226.1 m 1017.4 m 113 m 56.5 m 15. What is the conclusion of the following conditional? A number is divisible by 5 if the number ends with digits 0 or 5. a. If a number ends with the digit 0 or 5, then the number is divisible by 5. b. The number ends with digits 0 or 5. c. The number is divisible by 5. d. The number is odd. 17. Which statement provides a counterexample to the following faulty definition? A square is a figure with four congruent sides. a. A six-sided figure can have four sides congruent. b. Some triangles have all sides congruent. c. A square has four congruent angles. d. A rectangle has four sides. 16. Write the two conditional statements that make up the following biconditional. I drink juice if and only if it is breakfast time. a. I drink juice if and only if it is breakfast time. It is breakfast time if and only if I drink juice. b. If I drink juice, then it is breakfast time. If it is breakfast time, then I drink juice. c. If I drink juice, then it is breakfast time. I drink juice only if it is breakfast time. d. I drink juice. It is breakfast time. Use the given property to complete the statement. 18. Transitive Property of Congruence If YZ ≅ WX and WX ≅ UV , then ______. a. WX ≅ UV b. WX ≅ WX c. YZ ≅ UV d. YZ ≅ WX 3 Name: ________________________ ID: C 22. Which lines, if any, can you conclude are parallel given that m∠1 + m∠2 = 180? Justify your conclusion with a theorem or postulate. 19. Find the value of x. a. b. c. d. a. 19 33 –19 147 b. c. 20. Which angles are corresponding angles? d. a. b. c. d. ∠6 and ∠14 ∠5 and ∠6 ∠2 and ∠6 none of these 21. Complete the statement. If a transversal intersects two parallel lines, then ____ angles are supplementary. a. acute b. alternate interior c. same-side interior d. corresponding 4 j Ä k , by the Converse of the Same-Side Interior Angles Theorem j Ä k , by the Converse of the Alternate Interior Angles Theorem g Ä h , by the Converse of the Alternate Interior Angles Theorem g Ä h , by the Converse of the Same-Side Interior Angles Theorem Name: ________________________ ID: C 23. Which figure is a convex polygon? 25. How many sides does a regular polygon have if each exterior angle measures 24? a. 15 sides b. 17 sides c. 18 sides d. 14 sides a. b. 26. The Polygon Angle-Sum Theorem states: The sum of the measures of the angles of an n-gon is ____. n−2 a. 180 b. (n − 1)180 180 c. n−1 d. (n − 2)180 c. 27. Complete this statement. The sum of the measures of the exterior angles of an n-gon, one at each vertex, is ____. a. (n – 2)180 b. 360 (n − 2)180 c. n d. 180n d. 28. Complete this statement. A polygon whose sides all have the same length is said to be ____. a. regular b. equilateral c. equiangular d. convex 24. Classify the polygon by its sides. 29. Write an equation in point-slope form of the line through point J(–1, 1) with slope –3. a. y − 1 = −3 (x + 1 ) b. y − 1 = 3 (x + 1 ) c. y + 1 = −3 (x − 1 ) d. y − 1 = −3 (x − 1 ) a. b. c. d. octagon hexagon triangle pentagon 5 Name: ________________________ ID: C 30. Is the line through points P(3, 1) and Q(–4, –9) parallel to the line through points R(0, 5) and S(–5, –3)? Explain. a. Yes; the lines have equal slopes. b. No, one line has slope, the other has no slope. c. Yes; the lines are both vertical. d. No, the lines have unequal slopes. 31. Which two lines are parallel? 5y = −4x − 5 I. 5y = −1 + 2x II. III. 5y + 4x = −1 a. b. I and III I and II c. d. II and III No two of the lines are parallel. 32. What must be true about the slopes of two perpendicular lines, neither of which is vertical? a. The slopes are equal. b. The slopes have product 1. c. The slopes have product –1. d. One of the slopes must be 0. 33. Construct the line that is perpendicular to the given line through the given point. 6 Name: ________________________ ID: C a. 34. ∠BAC ≅ b. a. b. c. d. ? ∠NPM ∠MNP ∠NMP ∠PNM 35. Justify the last two steps of the proof. Given: MN ≅ PO and MO ≅ PN Prove: ∆MNO ≅ ∆PON c. Proof: 1. MN ≅ PO 2. MO ≅ PN 3. NO ≅ ON 4. ∆MNO ≅ ∆PON d. a. b. c. d. 7 1. Given 2. Given 3. ? 4. ? Reflexive Property of ≅ ; SAS Symmetric Property of ≅ ; SSS Symmetric Property of ≅ ; SAS Reflexive Property of ≅ ; SSS Name: ________________________ ID: C 38. From the information in the diagram, can you prove ∆FDG ≅ ∆FDE ? Explain. 36. What other information do you need in order to prove the triangles congruent using the SAS Congruence Postulate? a. b. c. d. ∠BAC ≅ ∠DAC ∠CBA ≅ ∠CDA AB ⊥ AD AB ≅ AD a. b. c. d. 37. Name the angle included by the sides MP and PN . a. b. c. d. yes, by ASA yes, by AAA yes, by SAS no 39. Based on the given information, what can you conclude, and why? Given: ∠M ≅ ∠Q, MO ≅ OQ ∠P ∠M ∠N none of these a. b. c. d. 8 ∆MNO ≅ ∆OQP by ASA ∆MNO ≅ ∆QPO by SAS ∆MNO ≅ ∆QPO by ASA ∆MNO ≅ ∆OQP by SAS Name: ________________________ ID: C 40. Name the theorem or postulate that lets you immediately conclude ∆ABD ≅ ∆CBD. a. b. c. d. AAS SAS ASA none of these 41. Supply the missing reasons to complete the proof. Given: ∠H ≅ ∠K and HJ ≅ KJ Prove: IJ ≅ LJ Statement 1. ∠H ≅ ∠K and Reasons 1. Given HJ ≅ KJ 2. ∠IJH ≅ ∠LJK 2. Vertical angles are congruent. 3. ∆IJH ≅ ∆LJK 3. ? 4. IJ ≅ LJ 4. ? a. b. ASA; Substitution SAS; CPCTC c. d. AAS; CPCTC ASA; CPCTC 9 Name: ________________________ ID: C 45. Is there enough information to conclude that the two triangles are congruent? If so, what is a correct congruence statement? 42. What is the measure of a base angle of an isosceles triangle if the vertex angle measures 32° and the two congruent sides each measure 21 units? a. b. c. d. 158° 74° 148° 79° a. b. c. d. 43. What is the measure of the vertex angle of an isosceles triangle if one of its base angles measures 38°? a. 71° b. 104° c. 142° d. 76° Yes; ∆CAB ≅ ∆DAC . Yes; ∆ACB ≅ ∆ACD. Yes; ∆ABC ≅ ∆ACD. No, the triangles cannot be proven congruent. 46. Find the value of x. 44. Find the value of x. The diagram is not to scale. a. b. c. d. a. b. c. d. x = 23 x = 40 x = 13 none of these 10 8 6 9.3 10 Name: ________________________ ID: C 49. Which statement can you conclude is true from the given information? 47. The length of DE is shown. What other length can you determine for this diagram? ← → Given: AB is the perpendicular bisector of IK . a. b. c. d. EF = 7 DG = 7 DF = 14 No other length can be determined. a. b. c. d. 48. DF bisects ∠EDG. Find the value of x. The diagram is not to scale. a. b. c. d. ∠IAJ is a right angle. IJ = JK A is the midpoint of IK . AJ = BJ 50. Name a median for ∆CDE. a. b. c. d. 165 15 7 60 23 11 CF CH DF EG Name: ________________________ ID: C 52. What is the name of the segment inside the large triangle? 51. Which diagram shows a point P an equal distance from points A, B, and C? a. b. a. b. c. d. altitude perpendicular bisector median midsegment 53. Name the smallest angle of ∆ABC. The diagram is not to scale. c. a. b. c. d. d. ∠C ∠B ∠A Two angles are the same size and smaller than the third. 54. Which three lengths can NOT be the lengths of the sides of a triangle? a. 21 m, 7 m, 9 m b. 15 m, 12 m, 15 m c. 25 m, 16 m, 12 m d. 7 m, 9 m, 5 m 55. Two sides of a triangle have lengths 5 and 13. What must be true about the length of the third side, x? a. 8 < x < 13 b. 8 < x < 5 c. 8 < x < 18 d. 5 < x < 13 12 Name: ________________________ ID: C 59. LMNO is a parallelogram. If NM = x + 31 and OL = 5x + 7 find the value of x and then find NM and OL. 56. Judging by appearance, classify the figure in as many ways as possible. a. b. c. d. a. b. c. d. rectangle, square, quadrilateral, parallelogram, rhombus rectangle, square, parallelogram rhombus, trapezoid, quadrilateral, square square, rectangle, quadrilateral x = 8, NM = 37, OL = 39 x = 8, NM = 39, OL = 39 x = 6, NM = 37, OL = 37 x = 6, NM = 39, OL = 37 60. Find the values of the variables in the parallelogram. The diagram is not to scale. 57. Find the values of the variables and the lengths of the sides of this kite. a. b. c. d. a. b. c. d. x =16, y = 7; 3, 21 x = 7, y = 16; 3, 21 x =16, y = 7; 12, 12 x = 7, y = 16; 12, 19 58. Which statement is true? a. All parallelograms are quadrilaterals. b. All quadrilaterals are parallelograms. c. All rectangles are squares. d. All parallelograms are rectangles. 13 x = 42, x = 32, x = 32, x = 42, y = 32, y = 42, y = 42, y = 42, z = 106 z = 106 z = 138 z = 138 Name: ________________________ ID: C 62. In the figure, the horizontal lines are parallel and AB = BC = CD. Find JM. The diagram is not to scale. 61. WXYZ is a parallelogram. Name an angle congruent to ∠XWZ. a. b. c. d. ∠XYW ∠WYZ ∠WXY ∠XYZ a. b. c. d. 14 21 7 28 63. What is the missing reason in the proof? Given: parallelogram ABCD with diagonal BD Prove: ∆ABD ≅ ∆CDB Statements 1. AD Ä BC 2. ∠ADB ≅ ∠CBD 3. AB Ä CD 4. ∠ABD ≅ ∠CDB 5. DB ≅ DB 6. ∆ABD ≅ ∆CDB a. b. ASA Reflexive Property of Congruence Reasons 1. Definition of parallelogram 2. Alternate Interior Angles Theorem 3. Definition of parallelogram 4. Alternate Interior Angles Theorem 5. ? 6. ASA c. d. Alternate Interior Angles Theorem Definition of parallelogram 14 Name: ________________________ ID: C 67. The isosceles trapezoid is part of an isosceles triangle with a 52° vertex angle. What is the measure of an acute base angle of the trapezoid? Of an obtuse base angle? The diagram is not to scale. 64. Find values of x and y for which ABCD must be a parallelogram. The diagram is not to scale. a. b. c. d. a. b. c. d. x = 6, y = 3 x = 3, y = 6 x = 3, y = 11 x = 3, y = 29 64°; 116° 52°; 116° 52°; 128° 64°; 128° 68. m∠R = 150 and m∠S = 100. Find m∠T. The diagram is not to scale. 65. In the rhombus, m∠1 = 6x, m∠2 = x + y, and m∠3 = 18z. Find the value of each variable. The diagram is not to scale. a. b. c. d. a. b. c. d. x = 30, y = 75, z = 10 x = 15, y = 165, z = 10 x = 30, y = 165, z = 5 x = 15, y = 75, z = 5 66. DEFG is a rectangle. DF = 6x – 2 and EG = x + 38. Find the value of x and the length of each diagonal. a. x = 4, DF = 42, EG = 42 b. x = 8, DF = 42, EG = 42 c. x = 8, DF = 46, EG = 46 d. x = 8, DF = 46, EG = 49 15 5 10 75 100 ID: C Final Exam- Review Fall Semester Answer Section MULTIPLE CHOICE 1. ANS: OBJ: TOP: 2. ANS: OBJ: TOP: 3. ANS: OBJ: TOP: 4. ANS: OBJ: TOP: 5. ANS: OBJ: TOP: 6. ANS: OBJ: KEY: 7. ANS: OBJ: KEY: 8. ANS: OBJ: 9. ANS: OBJ: KEY: 10. ANS: OBJ: KEY: 11. ANS: OBJ: KEY: 12. ANS: OBJ: TOP: 13. ANS: OBJ: KEY: 14. ANS: OBJ: KEY: A PTS: 1 DIF: L2 REF: 1-1 Patterns and Inductive Reasoning 1-1.1 Using Inductive Reasoning STA: CA GEOM 1.0| CA GEOM 3.0 1-1 Example 1 KEY: pattern | inductive reasoning B PTS: 1 DIF: L2 REF: 1-1 Patterns and Inductive Reasoning 1-1.1 Using Inductive Reasoning STA: CA GEOM 1.0| CA GEOM 3.0 1-1 Example 1 KEY: pattern | inductive reasoning B PTS: 1 DIF: L3 REF: 1-1 Patterns and Inductive Reasoning 1-1.1 Using Inductive Reasoning STA: CA GEOM 1.0| CA GEOM 3.0 1-1 Example 3 KEY: counterexample | conjecture B PTS: 1 DIF: L2 REF: 1-3 Points, Lines, and Planes 1-3.1 Basic Terms of Geometry STA: CA GEOM 1.0 1-4 Example 1 KEY: point | line | collinear points D PTS: 1 DIF: L2 REF: 1-3 Points, Lines, and Planes 1-3.2 Basic Postulates of Geometry STA: CA GEOM 1.0 1-4 Example 3 KEY: plane | intersection of two planes D PTS: 1 DIF: L2 REF: 1-5 Measuring Segments 1-5.1 Finding Segment Lengths TOP: 1-5 Example 2 segment | segment length C PTS: 1 DIF: L2 REF: 1-6 Measuring Angles 1-6.1 Finding Angle Measures TOP: 1-6 Example 3 Angle Addition Postulate D PTS: 1 DIF: L3 REF: 1-6 Measuring Angles 1-6.2 Identifying Angle Pairs KEY: supplementary angles A PTS: 1 DIF: L2 REF: 1-8 The Coordinate Plane 1-8.1 Finding Distance on the Coordinate Plane TOP: 1-8 Example 1 Distance Formula | coordinate plane D PTS: 1 DIF: L2 REF: 1-8 The Coordinate Plane 1-8.2 Finding the Midpoint of a Segment TOP: 1-8 Example 3 coordinate plane | Midpoint Formula B PTS: 1 DIF: L2 REF: 1-8 The Coordinate Plane 1-8.2 Finding the Midpoint of a Segment TOP: 1-8 Example 4 coordinate plane | Midpoint Formula C PTS: 1 DIF: L2 REF: 1-9 Perimeter, Circumference, and Area 1-9.1 Finding Perimeter and Circumference STA: CA GEOM 8.0| CA GEOM 10.0 1-9 Example 2 KEY: circle | circumference C PTS: 1 DIF: L3 REF: 1-9 Perimeter, Circumference, and Area 1-9.2 Finding Area STA: CA GEOM 8.0| CA GEOM 10.0 area | square C PTS: 1 DIF: L2 REF: 2-1 Conditional Statements 2-1.1 Conditional Statements TOP: 2-1 Example 1 conditional statement | hypothesis | conclusion 1 ID: C 15. ANS: OBJ: KEY: 16. ANS: OBJ: KEY: 17. ANS: OBJ: 18. ANS: OBJ: TOP: 19. ANS: OBJ: TOP: 20. ANS: OBJ: TOP: 21. ANS: OBJ: KEY: 22. ANS: OBJ: TOP: 23. ANS: OBJ: TOP: 24. ANS: OBJ: TOP: 25. ANS: OBJ: TOP: 26. ANS: OBJ: KEY: 27. ANS: OBJ: KEY: 28. ANS: OBJ: KEY: 29. ANS: OBJ: KEY: 30. ANS: REF: TOP: C PTS: 1 DIF: L2 REF: 2-1 Conditional Statements 2-1.1 Conditional Statements TOP: 2-1 Example 1 conditional statement | conclusion B PTS: 1 DIF: L2 REF: 2-2 Biconditionals and Definitions 2-2.1 Writing Biconditionals TOP: 2-2 Example 2 biconditional statement | conditional statement A PTS: 1 DIF: L3 REF: 2-2 Biconditionals and Definitions 2-2.2 Recognizing Good Definitions KEY: counterexample C PTS: 1 DIF: L3 REF: 2-4 Reasoning in Algebra 2-4.1 Connecting Reasoning in Algebra and Geometry STA: CA GEOM 1.0| CA GEOM 3.0 2-4 Example 3 KEY: Properties of Congruence A PTS: 1 DIF: L2 REF: 2-5 Proving Angles Congruent 2-5.1 Theorems About Angles STA: CA GEOM 1.0| CA GEOM 2.0| CA GEOM 4.0 2-5 Example 1 KEY: vertical angles | Vertical Angles Theorem A PTS: 1 DIF: L2 REF: 3-1 Properties of Parallel Lines 3-1.1 Identifying Angles STA: CA GEOM 2.0| CA GEOM 4.0| CA GEOM 7.0 3-1 Example 1 KEY: corresponding angles | transversal | parallel lines C PTS: 1 DIF: L2 REF: 3-1 Properties of Parallel Lines 3-1.2 Properties of Parallel Lines STA: CA GEOM 2.0| CA GEOM 4.0| CA GEOM 7.0 transversal | parallel lines | supplementary angles A PTS: 1 DIF: L2 REF: 3-2 Proving Lines Parallel 3-2.1 Using a Transversal STA: CA GEOM 2.0| CA GEOM 4.0| CA GEOM 7.0 3-2 Example 1 KEY: parallel lines | reasoning B PTS: 1 DIF: L2 REF: 3-5 The Polygon Angle-Sum Theorems 3-5.1 Classifying Polygons STA: CA GEOM 12.0| CA GEOM 13.0 3-5 Example 2 KEY: polygon | convex B PTS: 1 DIF: L2 REF: 3-5 The Polygon Angle-Sum Theorems 3-5.1 Classifying Polygons STA: CA GEOM 12.0| CA GEOM 13.0 3-5 Example 2 KEY: classifying polygons A PTS: 1 DIF: L2 REF: 3-5 The Polygon Angle-Sum Theorems 3-5.2 Polygon Angle Sums STA: CA GEOM 12.0| CA GEOM 13.0 3-5 Example 3 KEY: sum of angles of a polygon D PTS: 1 DIF: L2 REF: 3-5 The Polygon Angle-Sum Theorems 3-5.2 Polygon Angle Sums STA: CA GEOM 12.0| CA GEOM 13.0 Polygon Angle-Sum Theorem B PTS: 1 DIF: L2 REF: 3-5 The Polygon Angle-Sum Theorems 3-5.2 Polygon Angle Sums STA: CA GEOM 12.0| CA GEOM 13.0 Polygon Exterior Angle-Sum Theorem B PTS: 1 DIF: L2 REF: 3-5 The Polygon Angle-Sum Theorems 3-5.2 Polygon Angle Sums STA: CA GEOM 12.0| CA GEOM 13.0 polygon | classifying polygons | equilateral A PTS: 1 DIF: L2 REF: 3-6 Lines in the Coordinate Plane 3-6.2 Writing Equations of Lines TOP: 3-6 Example 4 point-slope form D PTS: 1 DIF: L2 3-7 Slopes of Parallel and Perpendicular Lines OBJ: 3-7.1 Slope and Parallel Lines 3-7 Example 1 KEY: slopes of parallel lines | graphing | parallel lines 2 ID: C 31. ANS: REF: TOP: 32. ANS: REF: KEY: 33. ANS: REF: STA: KEY: 34. ANS: OBJ: TOP: 35. ANS: REF: STA: KEY: 36. ANS: REF: STA: KEY: 37. ANS: REF: STA: KEY: 38. ANS: REF: OBJ: TOP: 39. ANS: REF: OBJ: TOP: 40. ANS: REF: OBJ: TOP: 41. ANS: OBJ: TOP: 42. ANS: OBJ: STA: KEY: 43. ANS: OBJ: STA: KEY: A PTS: 1 DIF: L2 3-7 Slopes of Parallel and Perpendicular Lines OBJ: 3-7.1 Slope and Parallel Lines 3-7 Example 2 KEY: slopes of parallel lines | parallel lines C PTS: 1 DIF: L2 3-7 Slopes of Parallel and Perpendicular Lines OBJ: 3-7.2 Slope and Perpendicular Lines slopes of perpendicular lines | perpendicular lines | reasoning A PTS: 1 DIF: L2 3-8 Constructing Parallel and Perpendicular Lines OBJ: 3-8.2 Constructing Perpendicular Lines CA GEOM 16.0 TOP: 3-8 Example 3 construction | perpendicular lines C PTS: 1 DIF: L2 REF: 4-1 Congruent Figures 4-1.1 Congruent Figures STA: CA GEOM 4.0| CA GEOM 5.0| CA GEOM 12.0 4-1 Example 1 KEY: congruent figures | corresponding parts D PTS: 1 DIF: L2 4-2 Triangle Congruence by SSS and SAS OBJ: 4-2.1 Using the SSS and SAS Postulates CA GEOM 2.0| CA GEOM 5.0 TOP: 4-2 Example 1 SSS | reflexive property | proof D PTS: 1 DIF: L2 4-2 Triangle Congruence by SSS and SAS OBJ: 4-2.1 Using the SSS and SAS Postulates CA GEOM 2.0| CA GEOM 5.0 TOP: 4-2 Example 2 SAS | reasoning A PTS: 1 DIF: L2 4-2 Triangle Congruence by SSS and SAS OBJ: 4-2.1 Using the SSS and SAS Postulates CA GEOM 2.0| CA GEOM 5.0 TOP: 4-2 Example 2 angle A PTS: 1 DIF: L2 4-3 Triangle Congruence by ASA and AAS 4-3.1 Using the ASA Postulate and the AAS Theorem STA: CA GEOM 2.0| CA GEOM 5.0 4-3 Example 3 KEY: ASA | reasoning C PTS: 1 DIF: L2 4-3 Triangle Congruence by ASA and AAS 4-3.1 Using the ASA Postulate and the AAS Theorem STA: CA GEOM 2.0| CA GEOM 5.0 4-3 Example 4 KEY: ASA | reasoning A PTS: 1 DIF: L2 4-3 Triangle Congruence by ASA and AAS 4-3.1 Using the ASA Postulate and the AAS Theorem STA: CA GEOM 2.0| CA GEOM 5.0 4-3 Example 3 KEY: ASA | AAS | SAS D PTS: 1 DIF: L2 REF: 4-4 Using Congruent Triangles: CPCTC 4-4.1 Proving Parts of Triangles Congruent STA: CA GEOM 5.0| CA GEOM 6.0 4-4 Example 1 KEY: ASA | CPCTC | proof B PTS: 1 DIF: L2 REF: 4-5 Isosceles and Equilateral Triangles 4-5.1 The Isosceles Triangle Theorems CA GEOM 4.0| CA GEOM 5.0| CA GEOM 12.0 TOP: 4-5 Example 2 isosceles triangle | Converse of Isosceles Triangle Theorem | Triangle Angle-Sum Theorem B PTS: 1 DIF: L2 REF: 4-5 Isosceles and Equilateral Triangles 4-5.1 The Isosceles Triangle Theorems CA GEOM 4.0| CA GEOM 5.0| CA GEOM 12.0 TOP: 4-5 Example 2 isosceles triangle | Isosceles Triangle Theorem | Triangle Angle-Sum Theorem | word problem 3 ID: C 44. ANS: OBJ: STA: KEY: 45. ANS: OBJ: TOP: 46. ANS: OBJ: KEY: 47. ANS: OBJ: STA: KEY: 48. ANS: OBJ: STA: KEY: 49. ANS: OBJ: STA: KEY: 50. ANS: REF: STA: KEY: 51. ANS: REF: STA: KEY: 52. ANS: REF: STA: KEY: 53. ANS: OBJ: TOP: 54. ANS: OBJ: TOP: 55. ANS: OBJ: TOP: 56. ANS: OBJ: TOP: KEY: A PTS: 1 DIF: L3 REF: 4-5 Isosceles and Equilateral Triangles 4-5.1 The Isosceles Triangle Theorems CA GEOM 4.0| CA GEOM 5.0| CA GEOM 12.0 TOP: 4-5 Example 2 Isosceles Triangle Theorem | isosceles triangle B PTS: 1 DIF: L2 REF: 4-6 Congruence in Right Triangles 4-6.1 The Hypotenuse-Leg Theorem STA: CA GEOM 2.0| CA GEOM 5.0 4-6 Example 1 KEY: HL Theorem | right triangle | reasoning B PTS: 1 DIF: L3 REF: 5-1 Midsegments of Triangles 5-1.1 Using Properties of Midsegments STA: CA GEOM 17.0 midpoint | midsegment | Triangle Midsegment Theorem A PTS: 1 DIF: L2 REF: 5-2 Bisectors in Triangles 5-2.1 Perpendicular Bisectors and Angle Bisectors CA GEOM 2.0| CA GEOM 4.0| CA GEOM 5.0 TOP: 5-2 Example 1 perpendicular bisector | Perpendicular Bisector Theorem B PTS: 1 DIF: L2 REF: 5-2 Bisectors in Triangles 5-2.1 Perpendicular Bisectors and Angle Bisectors CA GEOM 2.0| CA GEOM 4.0| CA GEOM 5.0 TOP: 5-2 Example 2 Angle Bisector Theorem | angle bisector B PTS: 1 DIF: L3 REF: 5-2 Bisectors in Triangles 5-2.1 Perpendicular Bisectors and Angle Bisectors CA GEOM 2.0| CA GEOM 4.0| CA GEOM 5.0 perpendicular bisector | Perpendicular Bisector Theorem | reasoning C PTS: 1 DIF: L2 5-3 Concurrent Lines, Medians, and Altitudes OBJ: 5-3.2 Medians and Altitudes CA GEOM 2.0| CA GEOM 21.0 TOP: 5-3 Example 4 median of a triangle A PTS: 1 DIF: L2 5-3 Concurrent Lines, Medians, and Altitudes OBJ: 5-3.1 Properties of Bisectors CA GEOM 2.0| CA GEOM 21.0 TOP: 5-3 Example 2 circumcenter of the triangle | circumscribe B PTS: 1 DIF: L2 5-3 Concurrent Lines, Medians, and Altitudes OBJ: 5-3.2 Medians and Altitudes CA GEOM 2.0| CA GEOM 21.0 TOP: 5-3 Example 4 altitude of a triangle | angle bisector | perpendicular bisector | midsegment | median of a triangle A PTS: 1 DIF: L2 REF: 5-5 Inequalities in Triangles 5-5.1 Inequalities Involving Angles of Triangles STA: CA GEOM 2.0| CA GEOM 6.0 5-5 Example 2 KEY: Theorem 5-10 A PTS: 1 DIF: L2 REF: 5-5 Inequalities in Triangles 5-5.2 Inequalities Involving Sides of Triangles STA: CA GEOM 2.0| CA GEOM 6.0 5-5 Example 4 KEY: Triangle Inequality Theorem C PTS: 1 DIF: L2 REF: 5-5 Inequalities in Triangles 5-5.2 Inequalities Involving Sides of Triangles STA: CA GEOM 2.0| CA GEOM 6.0 5-5 Example 5 KEY: Triangle Inequality Theorem A PTS: 1 DIF: L2 REF: 6-1 Classifying Quadrilaterals 6-1.1 Classifying Special Quadrilaterals STA: CA GEOM 12.0 6-1 Example 1 special quadrilaterals | quadrilateral | parallelogram | rhombus | square | rectangle | kite | trapezoid 4 ID: C 57. ANS: OBJ: TOP: 58. ANS: OBJ: KEY: 59. ANS: OBJ: TOP: 60. ANS: OBJ: KEY: 61. ANS: OBJ: KEY: 62. ANS: OBJ: TOP: 63. ANS: OBJ: KEY: 64. ANS: REF: OBJ: TOP: 65. ANS: OBJ: STA: KEY: 66. ANS: OBJ: STA: KEY: 67. ANS: OBJ: STA: KEY: 68. ANS: OBJ: STA: D PTS: 1 DIF: L2 REF: 6-1 Classifying Quadrilaterals 6-1.1 Classifying Special Quadrilaterals STA: CA GEOM 12.0 6-1 Example 3 KEY: algebra | kite A PTS: 1 DIF: L2 REF: 6-1 Classifying Quadrilaterals 6-1.1 Classifying Special Quadrilaterals STA: CA GEOM 12.0 reasoning | kite | parallelogram | quadrilateral | rectangle | rhombus | special quadrilaterals C PTS: 1 DIF: L2 REF: 6-2 Properties of Parallelograms 6-2.1 Properties: Sides and Angles STA: CA GEOM 7.0| CA GEOM 13.0 6-2 Example 2 KEY: parallelogram | algebra | Theorem 6-1 B PTS: 1 DIF: L2 REF: 6-2 Properties of Parallelograms 6-2.1 Properties: Sides and Angles STA: CA GEOM 7.0| CA GEOM 13.0 parallelogram | opposite angles | consectutive angles | transversal D PTS: 1 DIF: L2 REF: 6-2 Properties of Parallelograms 6-2.1 Properties: Sides and Angles STA: CA GEOM 7.0| CA GEOM 13.0 parallelogram | opposite angles B PTS: 1 DIF: L2 REF: 6-2 Properties of Parallelograms 6-2.2 Properties: Diagonals and Transversals STA: CA GEOM 7.0| CA GEOM 13.0 6-2 Example 4 KEY: transversal | parallel lines | Theorem 6-4 B PTS: 1 DIF: L3 REF: 6-2 Properties of Parallelograms 6-2.2 Properties: Diagonals and Transversals STA: CA GEOM 7.0| CA GEOM 13.0 proof | two-column proof | parallelogram | diagonal B PTS: 1 DIF: L2 6-3 Proving That a Quadrilateral is a Parallelogram 6-3.1 Is the Quadrilateral a Parallelogram? STA: CA GEOM 7.0| CA GEOM 12.0 6-3 Example 1 KEY: algebra | parallelogram | Theorem 6-5 | diagonal D PTS: 1 DIF: L2 REF: 6-4 Special Parallelograms 6-4.1 Diagonals of Rhombuses and Rectangles CA GEOM 7.0| CA GEOM 12.0| CA GEOM 13.0 TOP: 6-4 Example 1 algebra | diagonal | rhombus | Theorem 6-13 C PTS: 1 DIF: L2 REF: 6-4 Special Parallelograms 6-4.1 Diagonals of Rhombuses and Rectangles CA GEOM 7.0| CA GEOM 12.0| CA GEOM 13.0 TOP: 6-4 Example 2 rectangle | algebra | Theorem 6-11 | diagonal A PTS: 1 DIF: L2 REF: 6-5 Trapezoids and Kites 6-5.1 Properties of Trapezoids and Kites CA GEOM 7.0| CA GEOM 12.0| CA GEOM 13.0 TOP: 6-5 Example 2 trapezoid | isosceles trapezoid | base angles | isosceles triangle B PTS: 1 DIF: L2 REF: 6-5 Trapezoids and Kites 6-5.1 Properties of Trapezoids and Kites CA GEOM 7.0| CA GEOM 12.0| CA GEOM 13.0 KEY: kite | sum of interior angles 5