Exam 5: Similar Triangles

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  -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. -Supply missing statements and missing reasons for the following proof. Given:   -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. ; V is the midpoint of   -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. and W is the midpoint of   -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. . Prove:   -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. S1. R1. S2.   -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. and   -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. R2. Definition of midpoint S3.   -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. and   -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. R3. S4. R4. Substitution Property of Equality S5.   -Supply missing statements and missing reasons for the following proof. Given:   ; V is the midpoint of   and W is the midpoint of   . Prove:   S1. R1. S2.   and   R2. Definition of midpoint S3.   and   R3. S4. R4. Substitution Property of Equality S5.   R5. S6. R6. R5. S6. R6.

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S1. S1.   ; V is the midpoint of   and W is the midpoint of   . R1. Given R3. Division Property of Equality S4.   R5. Identity S6.   R6. SAS  ; V is the midpoint of S1.   ; V is the midpoint of   and W is the midpoint of   . R1. Given R3. Division Property of Equality S4.   R5. Identity S6.   R6. SAS  and W is the midpoint of S1.   ; V is the midpoint of   and W is the midpoint of   . R1. Given R3. Division Property of Equality S4.   R5. Identity S6.   R6. SAS  .
R1. Given
R3. Division Property of Equality
S4. S1.   ; V is the midpoint of   and W is the midpoint of   . R1. Given R3. Division Property of Equality S4.   R5. Identity S6.   R6. SAS  R5. Identity
S6. S1.   ; V is the midpoint of   and W is the midpoint of   . R1. Given R3. Division Property of Equality S4.   R5. Identity S6.   R6. SAS  R6. SAS S1.   ; V is the midpoint of   and W is the midpoint of   . R1. Given R3. Division Property of Equality S4.   R5. Identity S6.   R6. SAS

Where Where   and   are natural numbers and   , let   ,   , and   . Verify that   is a Pythagorean Triple. and Where   and   are natural numbers and   , let   ,   , and   . Verify that   is a Pythagorean Triple. are natural numbers and Where   and   are natural numbers and   , let   ,   , and   . Verify that   is a Pythagorean Triple. , let Where   and   are natural numbers and   , let   ,   , and   . Verify that   is a Pythagorean Triple. , Where   and   are natural numbers and   , let   ,   , and   . Verify that   is a Pythagorean Triple. , and Where   and   are natural numbers and   , let   ,   , and   . Verify that   is a Pythagorean Triple. . Verify that Where   and   are natural numbers and   , let   ,   , and   . Verify that   is a Pythagorean Triple. is a Pythagorean Triple.

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We need to show that We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . . Where We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . , We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . , and We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . , it follws that We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . or We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . , so that We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . , We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . or We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . , so that We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . , and We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . or We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . , so that We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . .
Now We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . or We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . , which is the
value of We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . . That is, We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . for all choices of We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . and We need to show that   . Where   ,   , and   , it follws that   or   , so that   ,   or   , so that   , and   or   , so that   . Now   or   , which is the value of   . That is,   for all choices of   and   . .

  -Supply missing statements and missing reasons for for the following proof. Given:   ;   and   are right angles Prove:   S1. R1. S2.   R2. S3. R3.Opposite angles of a parallelogram. S4.   R4. S5.   R5. S6. R6. In a proportion, the product of the means equals the product of the extremes. -Supply missing statements and missing reasons for for the following proof. Given:   -Supply missing statements and missing reasons for for the following proof. Given:   ;   and   are right angles Prove:   S1. R1. S2.   R2. S3. R3.Opposite angles of a parallelogram. S4.   R4. S5.   R5. S6. R6. In a proportion, the product of the means equals the product of the extremes. ;   -Supply missing statements and missing reasons for for the following proof. Given:   ;   and   are right angles Prove:   S1. R1. S2.   R2. S3. R3.Opposite angles of a parallelogram. S4.   R4. S5.   R5. S6. R6. In a proportion, the product of the means equals the product of the extremes. and   -Supply missing statements and missing reasons for for the following proof. Given:   ;   and   are right angles Prove:   S1. R1. S2.   R2. S3. R3.Opposite angles of a parallelogram. S4.   R4. S5.   R5. S6. R6. In a proportion, the product of the means equals the product of the extremes. are right angles Prove:   -Supply missing statements and missing reasons for for the following proof. Given:   ;   and   are right angles Prove:   S1. R1. S2.   R2. S3. R3.Opposite angles of a parallelogram. S4.   R4. S5.   R5. S6. R6. In a proportion, the product of the means equals the product of the extremes. S1. R1. S2.   -Supply missing statements and missing reasons for for the following proof. Given:   ;   and   are right angles Prove:   S1. R1. S2.   R2. S3. R3.Opposite angles of a parallelogram. S4.   R4. S5.   R5. S6. R6. In a proportion, the product of the means equals the product of the extremes. R2. S3. R3.Opposite angles of a parallelogram. S4.   -Supply missing statements and missing reasons for for the following proof. Given:   ;   and   are right angles Prove:   S1. R1. S2.   R2. S3. R3.Opposite angles of a parallelogram. S4.   R4. S5.   R5. S6. R6. In a proportion, the product of the means equals the product of the extremes. R4. S5.   -Supply missing statements and missing reasons for for the following proof. Given:   ;   and   are right angles Prove:   S1. R1. S2.   R2. S3. R3.Opposite angles of a parallelogram. S4.   R4. S5.   R5. S6. R6. In a proportion, the product of the means equals the product of the extremes. R5. S6. R6. In a proportion, the product of the means equals the product of the extremes.

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S1. S1.   ;   and   are right angles R1. Given R2. All right angles are congruent S3.   R4. AA R5. CSSTP S6.  ; S1.   ;   and   are right angles R1. Given R2. All right angles are congruent S3.   R4. AA R5. CSSTP S6.  and S1.   ;   and   are right angles R1. Given R2. All right angles are congruent S3.   R4. AA R5. CSSTP S6.  are right angles
R1. Given
R2. All right angles are congruent
S3. S1.   ;   and   are right angles R1. Given R2. All right angles are congruent S3.   R4. AA R5. CSSTP S6.  R4. AA
R5. CSSTP
S6. S1.   ;   and   are right angles R1. Given R2. All right angles are congruent S3.   R4. AA R5. CSSTP S6.

  -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality -Supply the missing reasons for the following proof. Given:   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality and   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality Prove:   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality S1.   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality and   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality R1. S2.   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality R2. S3.   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality R3. S4.   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality R4. S5.   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality R5. S6.   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality R6. A property of proportions S7.   -Supply the missing reasons for the following proof. Given:   and     Prove:   S1.   and     R1. S2.   R2. S3.   R3. S4.   R4. S5.   R5. S6.   R6. A property of proportions S7.   R7. Substitution Property of Equality R7. Substitution Property of Equality

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Explain (prove) the following property of proportions. "If Explain (prove) the following property of proportions. If   (where   and   ), then   . (where Explain (prove) the following property of proportions. If   (where   and   ), then   . and Explain (prove) the following property of proportions. If   (where   and   ), then   . ), then Explain (prove) the following property of proportions. If   (where   and   ), then   . ."

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  -Supply missing statements and missing reasons in the following proof. Given:   in the figure shown Prove:   S1. R1. S2.   R2. S3. R3. Vertical angles are congruent. S4. R4. -Supply missing statements and missing reasons in the following proof. Given:   -Supply missing statements and missing reasons in the following proof. Given:   in the figure shown Prove:   S1. R1. S2.   R2. S3. R3. Vertical angles are congruent. S4. R4. in the figure shown Prove:   -Supply missing statements and missing reasons in the following proof. Given:   in the figure shown Prove:   S1. R1. S2.   R2. S3. R3. Vertical angles are congruent. S4. R4. S1. R1. S2.   -Supply missing statements and missing reasons in the following proof. Given:   in the figure shown Prove:   S1. R1. S2.   R2. S3. R3. Vertical angles are congruent. S4. R4. R2. S3. R3. Vertical angles are congruent. S4. R4.

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  -Provide all statements and all reasons for this proof. Given:   with   Prove:  -Provide all statements and all reasons for this proof. Given:   -Provide all statements and all reasons for this proof. Given:   with   Prove:  with   -Provide all statements and all reasons for this proof. Given:   with   Prove:  Prove:   -Provide all statements and all reasons for this proof. Given:   with   Prove:

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  -Use the drawing provided to explain the 45 -45 -90 Theorem. In a triangle whose angles measure 45 , 45 , and 90 , the hypotenuse has a length equal to the product of   and the length of either leg. Given:   with   ,   , and   Prove:   and  -Use the drawing provided to explain the 45 -45 -90 Theorem. "In a triangle whose angles measure 45 , 45 , and 90 , the hypotenuse has a length equal to the product of   -Use the drawing provided to explain the 45 -45 -90 Theorem. In a triangle whose angles measure 45 , 45 , and 90 , the hypotenuse has a length equal to the product of   and the length of either leg. Given:   with   ,   , and   Prove:   and  and the length of either leg." Given:   -Use the drawing provided to explain the 45 -45 -90 Theorem. In a triangle whose angles measure 45 , 45 , and 90 , the hypotenuse has a length equal to the product of   and the length of either leg. Given:   with   ,   , and   Prove:   and  with   -Use the drawing provided to explain the 45 -45 -90 Theorem. In a triangle whose angles measure 45 , 45 , and 90 , the hypotenuse has a length equal to the product of   and the length of either leg. Given:   with   ,   , and   Prove:   and  ,   -Use the drawing provided to explain the 45 -45 -90 Theorem. In a triangle whose angles measure 45 , 45 , and 90 , the hypotenuse has a length equal to the product of   and the length of either leg. Given:   with   ,   , and   Prove:   and  , and   -Use the drawing provided to explain the 45 -45 -90 Theorem. In a triangle whose angles measure 45 , 45 , and 90 , the hypotenuse has a length equal to the product of   and the length of either leg. Given:   with   ,   , and   Prove:   and  Prove:   -Use the drawing provided to explain the 45 -45 -90 Theorem. In a triangle whose angles measure 45 , 45 , and 90 , the hypotenuse has a length equal to the product of   and the length of either leg. Given:   with   ,   , and   Prove:   and  and   -Use the drawing provided to explain the 45 -45 -90 Theorem. In a triangle whose angles measure 45 , 45 , and 90 , the hypotenuse has a length equal to the product of   and the length of either leg. Given:   with   ,   , and   Prove:   and

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  -Use the drawing(s) to explain the 30 -60 -90 Theorem. In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   and the length of the shorter leg. Given: Right   with   ,   , and   ; also,   Prove:   and  -Use the drawing(s) to explain the 30 -60 -90 Theorem. "In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   -Use the drawing(s) to explain the 30 -60 -90 Theorem. In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   and the length of the shorter leg. Given: Right   with   ,   , and   ; also,   Prove:   and  and the length of the shorter leg." Given: Right   -Use the drawing(s) to explain the 30 -60 -90 Theorem. In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   and the length of the shorter leg. Given: Right   with   ,   , and   ; also,   Prove:   and  with   -Use the drawing(s) to explain the 30 -60 -90 Theorem. In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   and the length of the shorter leg. Given: Right   with   ,   , and   ; also,   Prove:   and  ,   -Use the drawing(s) to explain the 30 -60 -90 Theorem. In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   and the length of the shorter leg. Given: Right   with   ,   , and   ; also,   Prove:   and  , and   -Use the drawing(s) to explain the 30 -60 -90 Theorem. In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   and the length of the shorter leg. Given: Right   with   ,   , and   ; also,   Prove:   and  ; also,   -Use the drawing(s) to explain the 30 -60 -90 Theorem. In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   and the length of the shorter leg. Given: Right   with   ,   , and   ; also,   Prove:   and  Prove:   -Use the drawing(s) to explain the 30 -60 -90 Theorem. In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   and the length of the shorter leg. Given: Right   with   ,   , and   ; also,   Prove:   and  and   -Use the drawing(s) to explain the 30 -60 -90 Theorem. In a triangle whose angles measure 30 , 60 , and 90 , the hypotenuse has a length equal to twice the length of the shorter leg, and the length of the longer leg is the product of   and the length of the shorter leg. Given: Right   with   ,   , and   ; also,   Prove:   and

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  -Provide the missing statements and missing reasons for the following proof. Given:   and   ;   and   Prove:   S1. R1. Given S2.   R2. S3.   R3. S4. R4. CASTC -Provide the missing statements and missing reasons for the following proof. Given:   -Provide the missing statements and missing reasons for the following proof. Given:   and   ;   and   Prove:   S1. R1. Given S2.   R2. S3.   R3. S4. R4. CASTC and   -Provide the missing statements and missing reasons for the following proof. Given:   and   ;   and   Prove:   S1. R1. Given S2.   R2. S3.   R3. S4. R4. CASTC ;   -Provide the missing statements and missing reasons for the following proof. Given:   and   ;   and   Prove:   S1. R1. Given S2.   R2. S3.   R3. S4. R4. CASTC and   -Provide the missing statements and missing reasons for the following proof. Given:   and   ;   and   Prove:   S1. R1. Given S2.   R2. S3.   R3. S4. R4. CASTC Prove:   -Provide the missing statements and missing reasons for the following proof. Given:   and   ;   and   Prove:   S1. R1. Given S2.   R2. S3.   R3. S4. R4. CASTC S1. R1. Given S2.   -Provide the missing statements and missing reasons for the following proof. Given:   and   ;   and   Prove:   S1. R1. Given S2.   R2. S3.   R3. S4. R4. CASTC R2. S3.   -Provide the missing statements and missing reasons for the following proof. Given:   and   ;   and   Prove:   S1. R1. Given S2.   R2. S3.   R3. S4. R4. CASTC R3. S4. R4. CASTC

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  -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. -Supply missing statements and missing reasons for the following proof. Given:   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. ;   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. bisects   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. and   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7.   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. Prove:   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. is an isosceles triangle S1.   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. ;   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. bisects   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. R1. S2.   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. R2. If a ray bisects one   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. of a   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. . S3. R3. Given S4.   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. R4. S5.   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. , so   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. R5. S6.   -Supply missing statements and missing reasons for the following proof. Given:   ;   bisects   and     Prove:   is an isosceles triangle S1.   ;   bisects   R1. S2.   R2. If a ray bisects one   of a   , it divides the opposite side into segments whose lengths are proportional to the lengths of the two sides that form the bisected   . S3. R3. Given S4.   R4. S5.   , so   R5. S6.   R6. S7. R7. R6. S7. R7.

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  -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. -Supply missing statements and missing reasons for the proof of this theorem. "The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other." Given: Right triangle ABC with rt.   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. ;   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. Prove:   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. S1. R1. S2.   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. R2. S3.   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. and   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. are comp. R3. The acute angles of a rt.   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. are comp. S4.   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. and   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. are comp. R4. S5. R5. If 2   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. s are comp. to the same   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. , these   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. are   -Supply missing statements and missing reasons for the proof of this theorem. The altitude drawn to the hypotenuse of a right triangle separates the right triangle into two right triangles that are similar to each other. Given: Right triangle ABC with rt.   ;   Prove:   S1. R1. S2.   R2. S3.   and   are comp. R3. The acute angles of a rt.   are comp. S4.   and   are comp. R4. S5. R5. If 2   s are comp. to the same   , these   are   . S6. R6. . S6. R6.

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