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Question #1 - Example D: June, midnight and overcast.  Asphalt pavement at temperature 18oC and cloud with a base temperature of 2oC. (2.5 marks)

Solve the equations to determine an answer for EXAMPLE  D:        

Q         = Click or tap here to enter text.   W m-2

aQ       = Click or tap here to enter text.   W m-2

M out    = Click or tap here to enter text.   W m-2

M in      = Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #2 - Example E: December, midday, cloudless and very dry so that downward long wave radiation (Min) is insignificant.  A newly snow covered surface at a temperature of -5oC. Assume a value of Q = 350 W m-2 (2 marks).

Solve the equations to determine an answer for EXAMPLE  E         

Q         = Click or tap here to enter text.   W m-2

aQ       = Click or tap here to enter text.   W m-2

M out    = Click or tap here to enter text.   W m-2

M in      = 0  (given)   W m-2

Rn        = Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #3 - Using the net radiation formula and the data collected outside, compute the net radiation over the grass covered surface (2.5 marks)

Calculations based on the Outside Data:

Mout=36.3 degree celsius

Min= 8.3 degree celsius

Over Grass:

Q           =  Click or tap here to enter text.   W m-2

aQ       =  Click or tap here to enter text.   W m-2

M out    =  Click or tap here to enter text.   W m-2

M in      =  Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #4 - Using the net radiation formula and the data collected outside, compute the net radiation over the concrete sidewalk. (2.5 marks) 

Over Concrete:

Q          =  Click or tap here to enter text.   W m-2

aQ       =  Click or tap here to enter text.   W m-2

M out   =  Click or tap here to enter text.   W m-2

M in     =  Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min =  Click or tap here to enter text.   W m-2

imporant info( 30.2 degree celsius)

sky=13.3 degree celsius)

Question #1 - Example D: June, midnight and overcast.  Asphalt pavement at temperature 18oC and cloud with a base temperature of 2oC. (2.5 marks)

Solve the equations to determine an answer for EXAMPLE  D:        

Q         = Click or tap here to enter text.   W m-2

aQ       = Click or tap here to enter text.   W m-2

M out    = Click or tap here to enter text.   W m-2

M in      = Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #2 - Example E: December, midday, cloudless and very dry so that downward long wave radiation (Min) is insignificant.  A newly snow covered surface at a temperature of -5oC. Assume a value of Q = 350 W m-2 (2 marks).

Solve the equations to determine an answer for EXAMPLE  E         

Q         = Click or tap here to enter text.   W m-2

aQ       = Click or tap here to enter text.   W m-2

M out    = Click or tap here to enter text.   W m-2

M in      = 0  (given)   W m-2

Rn        = Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #3 - Using the net radiation formula and the data collected outside, compute the net radiation over the grass covered surface (2.5 marks)

Calculations based on the Outside Data:

Over Grass:

Q           =  Click or tap here to enter text.   W m-2

aQ       =  Click or tap here to enter text.   W m-2

M out    =  Click or tap here to enter text.   W m-2

M in      =  Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #4 - Using the net radiation formula and the data collected outside, compute the net radiation over the concrete sidewalk. (2.5 marks) 

Over Concrete:

Q          =  Click or tap here to enter text.   W m-2

aQ       =  Click or tap here to enter text.   W m-2

M out   =  Click or tap here to enter text.   W m-2

M in     =  Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min =  Click or tap here to enter text.   W m-2

With reference to the Net Radiation Equation, answer the following questions.

1. By examining the values for each of the four terms in the net radiation equation, explain why more energy is available at the surface over water (Example B) than at the surface over land (Example A). Hint, look at Q, aQ, Mout and Min. Which are different between Example A and Example B? What makes them different? (2 marks)

Click or tap here to enter text.

1. Why, at midday in June, is the water temperature at Example B lower than that of the land at Example A? In answering, consider the demonstration using the sand and water filled beakers and the heat lamps performed during the lab, and Strahler_Text_Figure_4.18.pdf (found in the Assignment 1 folder on Brightspace). (2 marks)

Click or tap here to enter text.

1. In Example A, the net radiation is used to heat the asphalt pavement. What is it used for in Example B? (Hint, only a small percentage is used to heat the water!) (2 marks)

Click or tap here to enter text.

1. Compare Examples C and D. Which will be the warmer night? Briefly explain, using your results from the net radiation equations. (2 marks)

Click or tap here to enter text.

1. Consider Example E. Will the bright sunshine cause the snow to melt? Briefly explain your answer using the results from the net radiation equations. (2 marks)

Click or tap here to enter text.

Global Perspective

Navigate to the following NASA website on Net Radiation:

Read the short description for the map series on the page.

Press the ‘play’ button on the left-hand side of the image and the movie will progress through data from 2006 until the most recent data in 2022. The area in orange indicates the region of positive net radiation, whereas the area in purple indicates the area of negative net radiation.  Watch the area covered by the orange and purple areas. Think about what is happening to create this pattern?

In the movie bar under the graphics that shows the progression of the images, you are able to slide the orange circle in the white bar (left or right) to select a specific month during the year. Slide the orange circle so you are looking at the data for January 2016.

1. Which location would have the highest net radiation loss in January? (1 mark)

1. North Pole (90oN)
2. South Pole (90oS)
3. Equator (0o)

Click or tap here to enter text.

1. Why would that location identified in the question above have the highest net radiation loss in January? (1 mark)

Click or tap here to enter text.

Now move the slider to July of 2016

1. Which location would have the highest net radiation gain in July? (1 mark)

1. Ushuaia, Argentina (54oS)
2. Miami Florida, USA (25oN)
3. Libreville, Gabon (0.4oN)
4. Reykjavik, Iceland (64oN)

Click or tap here to enter text.

1. Does the Niagara Region have a positive or negative net radiation gain in July? (1 mark)

1. Positive
2. Negative

Click or tap here to enter text.

1. When averaged over the entire year, the poles have which of the following? (1 mark)

(click the corresponding checkbox for your answer)

1. Net energy deficit
2. Net energy surplus

Click or tap here to enter text.

With reference to the Net Radiation Equation, answer the following questions.

1. By examining the values for each of the four terms in the net radiation equation, explain why more energy is available at the surface over water (Example B) than at the surface over land (Example A). Hint, look at Q, aQ, Mout and Min. Which are different between Example A and Example B? What makes them different? (2 marks)

Click or tap here to enter text.

1. Why, at midday in June, is the water temperature at Example B lower than that of the land at Example A? In answering, consider the demonstration using the sand and water filled beakers and the heat lamps performed during the lab, and Strahler_Text_Figure_4.18.pdf (found in the Assignment 1 folder on Brightspace). (2 marks)

Click or tap here to enter text.

1. In Example A, the net radiation is used to heat the asphalt pavement. What is it used for in Example B? (Hint, only a small percentage is used to heat the water!) (2 marks)

Click or tap here to enter text.

1. Compare Examples C and D. Which will be the warmer night? Briefly explain, using your results from the net radiation equations. (2 marks)

Click or tap here to enter text.

1. Consider Example E. Will the bright sunshine cause the snow to melt? Briefly explain your answer using the results from the net radiation equations. (2 marks)

Click or tap here to enter text.

Global Perspective

Navigate to the following NASA website on Net Radiation:

Read the short description for the map series on the page.

Press the ‘play’ button on the left-hand side of the image and the movie will progress through data from 2006 until the most recent data in 2022. The area in orange indicates the region of positive net radiation, whereas the area in purple indicates the area of negative net radiation.  Watch the area covered by the orange and purple areas. Think about what is happening to create this pattern?

In the movie bar under the graphics that shows the progression of the images, you are able to slide the orange circle in the white bar (left or right) to select a specific month during the year. Slide the orange circle so you are looking at the data for January 2016.

1. Which location would have the highest net radiation loss in January? (1 mark)

1. North Pole (90oN)
2. South Pole (90oS)
3. Equator (0o)

Click or tap here to enter text.

1. Why would that location identified in the question above have the highest net radiation loss in January? (1 mark)

Click or tap here to enter text.

Now move the slider to July of 2016

1. Which location would have the highest net radiation gain in July? (1 mark)

1. Ushuaia, Argentina (54oS)
2. Miami Florida, USA (25oN)
3. Libreville, Gabon (0.4oN)
4. Reykjavik, Iceland (64oN)

Click or tap here to enter text.

1. Does the Niagara Region have a positive or negative net radiation gain in July? (1 mark)

1. Positive
2. Negative

Click or tap here to enter text.

1. When averaged over the entire year, the poles have which of the following? (1 mark)

(click the corresponding checkbox for your answer)

1. Net energy deficit
2. Net energy surplus

Click or tap here to enter text.

Question #1 - Example D: June, midnight and overcast.  Asphalt pavement at temperature 18oC and cloud with a base temperature of 2oC. (2.5 marks)

Solve the equations to determine an answer for EXAMPLE  D:        

Q         = Click or tap here to enter text.   W m-2

aQ       = Click or tap here to enter text.   W m-2

M out    = Click or tap here to enter text.   W m-2

M in      = Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #2 - Example E: December, midday, cloudless and very dry so that downward long wave radiation (Min) is insignificant.  A newly snow covered surface at a temperature of -5oC. Assume a value of Q = 350 W m-2 (2 marks).

Solve the equations to determine an answer for EXAMPLE  E         

Q         = Click or tap here to enter text.   W m-2

aQ       = Click or tap here to enter text.   W m-2

M out    = Click or tap here to enter text.   W m-2

M in      = 0  (given)   W m-2

Rn        = Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #3 - Using the net radiation formula and the data collected outside, compute the net radiation over the grass covered surface (2.5 marks)

Calculations based on the Outside Data:

Mout=36.3 degree celsius

Min= 8.3 degree celsius

Over Grass: Surface Type Insolation - "Q" (W/m^2)
Grass 466.1
Concrete 97.7

   Reflected - "αQ" (W/m^2) grass113.3

concrete 36.0

Q           =  Click or tap here to enter text.   W m-2

aQ       =  Click or tap here to enter text.   W m-2

M out    =  Click or tap here to enter text.   W m-2

M in      =  Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #4 - Using the net radiation formula and the data collected outside, compute the net radiation over the concrete sidewalk. (2.5 marks) 

Over Concrete:

Over Grass: Surface Type Insolation - "Q" (W/m^2)
Grass 466.1
Concrete 97.7

   Reflected - "αQ" (W/m^2) grass113.3

concrete 36.0

Q          =  Click or tap here to enter text.   W m-2

aQ       =  Click or tap here to enter text.   W m-2

M out   =  Click or tap here to enter text.   W m-2

M in     =  Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min =  Click or tap here to enter text.   W m-2

imporant info( 30.2 degree celsius)

sky=13.3 degree celsius)

Question #1 - Example D: June, midnight and overcast.  Asphalt pavement at temperature 18oC and cloud with a base temperature of 2oC. (2.5 marks)

Solve the equations to determine an answer for EXAMPLE  D:        

Q         = Click or tap here to enter text.   W m-2

aQ       = Click or tap here to enter text.   W m-2

M out    = Click or tap here to enter text.   W m-2

M in      = Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #2 - Example E: December, midday, cloudless and very dry so that downward long wave radiation (Min) is insignificant.  A newly snow covered surface at a temperature of -5oC. Assume a value of Q = 350 W m-2 (2 marks).

Solve the equations to determine an answer for EXAMPLE  E         

Q         = Click or tap here to enter text.   W m-2

aQ       = Click or tap here to enter text.   W m-2

M out    = Click or tap here to enter text.   W m-2

M in      = 0  (given)   W m-2

Rn        = Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #3 - Using the net radiation formula and the data collected outside, compute the net radiation over the grass covered surface (2.5 marks)

Calculations based on the Outside Data:

Over Grass:

Q           =  Click or tap here to enter text.   W m-2

aQ       =  Click or tap here to enter text.   W m-2

M out    =  Click or tap here to enter text.   W m-2

M in      =  Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min = Click or tap here to enter text.   W m-2

Question #4 - Using the net radiation formula and the data collected outside, compute the net radiation over the concrete sidewalk. (2.5 marks) 

Over Concrete:

Q          =  Click or tap here to enter text.   W m-2

aQ       =  Click or tap here to enter text.   W m-2

M out   =  Click or tap here to enter text.   W m-2

M in     =  Click or tap here to enter text.   W m-2

Rn        =  Q - aQ - Mout + Min =  Click or tap here to enter text.   W m-2

With reference to the Net Radiation Equation, answer the following questions.

1. By examining the values for each of the four terms in the net radiation equation, explain why more energy is available at the surface over water (Example B) than at the surface over land (Example A). Hint, look at Q, aQ, Mout and Min. Which are different between Example A and Example B? What makes them different? (2 marks)

Click or tap here to enter text.

1. Why, at midday in June, is the water temperature at Example B lower than that of the land at Example A? In answering, consider the demonstration using the sand and water filled beakers and the heat lamps performed during the lab, and Strahler_Text_Figure_4.18.pdf (found in the Assignment 1 folder on Brightspace). (2 marks)

Click or tap here to enter text.

1. In Example A, the net radiation is used to heat the asphalt pavement. What is it used for in Example B? (Hint, only a small percentage is used to heat the water!) (2 marks)

Click or tap here to enter text.

1. Compare Examples C and D. Which will be the warmer night? Briefly explain, using your results from the net radiation equations. (2 marks)

Click or tap here to enter text.

1. Consider Example E. Will the bright sunshine cause the snow to melt? Briefly explain your answer using the results from the net radiation equations. (2 marks)

Click or tap here to enter text.

Global Perspective

Navigate to the following NASA website on Net Radiation:

Read the short description for the map series on the page.

Press the ‘play’ button on the left-hand side of the image and the movie will progress through data from 2006 until the most recent data in 2022. The area in orange indicates the region of positive net radiation, whereas the area in purple indicates the area of negative net radiation.  Watch the area covered by the orange and purple areas. Think about what is happening to create this pattern?

In the movie bar under the graphics that shows the progression of the images, you are able to slide the orange circle in the white bar (left or right) to select a specific month during the year. Slide the orange circle so you are looking at the data for January 2016.

1. Which location would have the highest net radiation loss in January? (1 mark)

1. North Pole (90oN)
2. South Pole (90oS)
3. Equator (0o)

Click or tap here to enter text.

1. Why would that location identified in the question above have the highest net radiation loss in January? (1 mark)

Click or tap here to enter text.

Now move the slider to July of 2016

1. Which location would have the highest net radiation gain in July? (1 mark)

1. Ushuaia, Argentina (54oS)
2. Miami Florida, USA (25oN)
3. Libreville, Gabon (0.4oN)
4. Reykjavik, Iceland (64oN)

Click or tap here to enter text.

1. Does the Niagara Region have a positive or negative net radiation gain in July? (1 mark)

1. Positive
2. Negative

Click or tap here to enter text.

1. When averaged over the entire year, the poles have which of the following? (1 mark)

(click the corresponding checkbox for your answer)

1. Net energy deficit
2. Net energy surplus

Click or tap here to enter text.

With reference to the Net Radiation Equation, answer the following questions.

1. By examining the values for each of the four terms in the net radiation equation, explain why more energy is available at the surface over water (Example B) than at the surface over land (Example A). Hint, look at Q, aQ, Mout and Min. Which are different between Example A and Example B? What makes them different? (2 marks)

Click or tap here to enter text.

1. Why, at midday in June, is the water temperature at Example B lower than that of the land at Example A? In answering, consider the demonstration using the sand and water filled beakers and the heat lamps performed during the lab, and Strahler_Text_Figure_4.18.pdf (found in the Assignment 1 folder on Brightspace). (2 marks)

Click or tap here to enter text.

1. In Example A, the net radiation is used to heat the asphalt pavement. What is it used for in Example B? (Hint, only a small percentage is used to heat the water!) (2 marks)

Click or tap here to enter text.

1. Compare Examples C and D. Which will be the warmer night? Briefly explain, using your results from the net radiation equations. (2 marks)

Click or tap here to enter text.

1. Consider Example E. Will the bright sunshine cause the snow to melt? Briefly explain your answer using the results from the net radiation equations. (2 marks)

Click or tap here to enter text.

Global Perspective

Navigate to the following NASA website on Net Radiation:

Read the short description for the map series on the page.

Press the ‘play’ button on the left-hand side of the image and the movie will progress through data from 2006 until the most recent data in 2022. The area in orange indicates the region of positive net radiation, whereas the area in purple indicates the area of negative net radiation.  Watch the area covered by the orange and purple areas. Think about what is happening to create this pattern?

In the movie bar under the graphics that shows the progression of the images, you are able to slide the orange circle in the white bar (left or right) to select a specific month during the year. Slide the orange circle so you are looking at the data for January 2016.

1. Which location would have the highest net radiation loss in January? (1 mark)

1. North Pole (90oN)
2. South Pole (90oS)
3. Equator (0o)

Click or tap here to enter text.

1. Why would that location identified in the question above have the highest net radiation loss in January? (1 mark)

Click or tap here to enter text.

Now move the slider to July of 2016

1. Which location would have the highest net radiation gain in July? (1 mark)

1. Ushuaia, Argentina (54oS)
2. Miami Florida, USA (25oN)
3. Libreville, Gabon (0.4oN)
4. Reykjavik, Iceland (64oN)

Click or tap here to enter text.

1. Does the Niagara Region have a positive or negative net radiation gain in July? (1 mark)

1. Positive
2. Negative

Click or tap here to enter text.

1. When averaged over the entire year, the poles have which of the following? (1 mark)

(click the corresponding checkbox for your answer)

1. Net energy deficit
2. Net energy surplus

Click or tap here to enter text.

What is the Shakespeare's' most demanding work ? 

Please help me answer this question

what different between current and voltage ?

Exercise
Answer the following questions with TRUE, FALSE or UNCERTAIN and say why. Each response should not exceed 1/2 page.
1. In equilibrium, an increase in the money supply leads to a decrease in bond prices.
2. The income tax cuts promised by the candidates during the electoral campaign
should lead to an increase in national savings and investments.
3. An exogenous increase in the marginal propensity to consume increases GDP
equilibrium in a closed economy.
4. A drop in consumer confidence (modeled as a drop in the constant C0
in the linear consumption function) decreases the equilibrium GDP and investments in
balance.
5. An increase in the supply of central bank money can be accomplished by purchases on the
open market.
6. In a closed economy, private savings must equal investments in equilibrium.

are they paying to answer? if not stop wasting your time here 

president of kenya

Think of a movie where the actors have portrayed somebody from a different dialect area and either succeeded so well that they fooled you or failed miserably. What about linguistic stereotypes? Can you think of any linguistic stereotypes you noticed in a movie? 

Your answers should not be more than a paragraph. Simply think of linguistic stereotypes of a particular accent or dialect in a movie. Ensure to include the film's name and character(s). 

Here are two sample responses:

Response#1: In Deadpool and Deadpool 2, a character named Dopinder is an Indian cab driver. He only appears in the films briefly, but his role is a stereotype in that one of the few jobs Indians do is drive cabs. Although, that may be the only or one of the few stereotypes portrayed about this character. In the first film, he is only in a quick scene, while in the second film, his character develops a story arc, which is rare for these types of roles. Dopinder is played by Karan Soni, who is of Indian descent but born in America. Therefore, Soni has no Indian accent in his regular speech. However, when he plays Dopinder, his character has an Indian accent, which is done well. It sounds like he uses the retroflex ‘t’ and ‘d’ instead of alveolar ‘t’ and ‘d’, a noticeable and well-known marker for the Indian accent.

Response#2: In the movie Titanic, a character named Rose Dewitt Bukater is portrayed as a wealthy American Socialite. Rose, the film's main protagonist, is played by Kate Winslet, a British actress. Kate Winslet was born in England and, therefore, acquired English with a British accent, showing different pronunciations, grammar, vocabulary, etc. One of the most common differences between American and British accents is the pronunciation of /r/ in the middle or ending of a word. British people typically pronounce /r/ when it appears at the beginning of words. However, American people tend to pronounce /r/ throughout the term. This is demonstrated as Kate plays the upper-class, all-American character Rose; she can produce a compelling American accent due to the pronunciation of /r/ in words like “nerve.” The upper-class status of Rose is reflected through her dialogue speech. Rose uses standard and sophisticated language in all contexts; she even uses formal vocabulary when referring to other people. This is evident in her conversation with Jack:

Jack: “Well, it's a simple question. Do you love the guy?”...

Rose: “You are rude and uncouth, and presumptuous…Jack... Mister Dawson, it's been a pleasure.”

As seen in the conversation, when Rose refers to Jack by his first name, she corrects herself and calls him “Mister Dawson.” Instead, Jack (a lower-class artist) refers to the other person as a “guy.” In addition, Jack utilizes informal language, such as pronouncing “you” as /ja/, contrasting Rose’s formal speech. Lastly, Rose uses super polite forms such as “forgive me” when she disagrees with other men, then explains her reasoning. This presence of euphemism aligns with Lakoff’s claim on women’s speech, where women’s speech reflects their subordinate status in society.  

Think of a movie where the actors have portrayed somebody from a different dialect area and either succeeded so well that they fooled you or failed miserably. What about linguistic stereotypes? Can you think of any linguistic stereotypes you noticed in a movie? 

Your answers should not be more than a paragraph. Simply think of linguistic stereotypes of a particular accent or dialect in a movie. Ensure to include the film's name and character(s). 

Here are two sample:

Response#1: In Deadpool and Deadpool 2, a character named Dopinder is an Indian cab driver. He only appears in the films briefly, but his role is a stereotype in that one of the few jobs Indians do is drive cabs. Although, that may be the only or one of the few stereotypes portrayed about this character. In the first film, he is only in a quick scene, while in the second film, his character develops a story arc, which is rare for these types of roles. Dopinder is played by Karan Soni, who is of Indian descent but born in America. Therefore, Soni has no Indian accent in his regular speech. However, when he plays Dopinder, his character has an Indian accent, which is done well. It sounds like he uses the retroflex ‘t’ and ‘d’ instead of alveolar ‘t’ and ‘d’, a noticeable and well-known marker for the Indian accent.

Response#2: In the movie Titanic, a character named Rose Dewitt Bukater is portrayed as a wealthy American Socialite. Rose, the film's main protagonist, is played by Kate Winslet, a British actress. Kate Winslet was born in England and, therefore, acquired English with a British accent, showing different pronunciations, grammar, vocabulary, etc. One of the most common differences between American and British accents is the pronunciation of /r/ in the middle or ending of a word. British people typically pronounce /r/ when it appears at the beginning of words. However, American people tend to pronounce /r/ throughout the term. This is demonstrated as Kate plays the upper-class, all-American character Rose; she can produce a compelling American accent due to the pronunciation of /r/ in words like “nerve.” The upper-class status of Rose is reflected through her dialogue speech. Rose uses standard and sophisticated language in all contexts; she even uses formal vocabulary when referring to other people. This is evident in her conversation with Jack:

Jack: “Well, it's a simple question. Do you love the guy?”...

Rose: “You are rude and uncouth, and presumptuous…Jack... Mister Dawson, it's been a pleasure.”

As seen in the conversation, when Rose refers to Jack by his first name, she corrects herself and calls him “Mister Dawson.” Instead, Jack (a lower-class artist) refers to the other person as a “guy.” In addition, Jack utilizes informal language, such as pronouncing “you” as /ja/, contrasting Rose’s formal speech. Lastly, Rose uses super polite forms such as “forgive me” when she disagrees with other men, then explains her reasoning. This presence of euphemism aligns with Lakoff’s claim on women’s speech, where women’s speech reflects their subordinate status in society.