Task 1/3: No coding is necessary for this task. Using whatever means you like, process the...

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Task 1/3: No coding is necessary for this task. Using whatever means you like, process the following signal stream into a 52 (width) by 27 (height) ASCII art image frame: ------/XMMMM: :!!nn:X! MMM !MMMMX- MMMMMM !nMMMMM MMMX:X: : :/X:MMnnM: MMMMM innXMMn ∙nn- MMMMMMX: -!! MMM !nMMMM nMMMM: <TODO - Paste resultant image here> I: nnnxnnnXXn MMMMX MMMMnM- :MMMn! XnnMn! XXMMn Paste the parsed image below as text or a screenshot: MMMMM! -/XnMM! MMMMM: MMMM nMMMMX: MMMMM IMMMMM:: MXnn MMMMMMMMM --/::X:M! Task 2/3: But manually reconstituting an image is difficult and we'd much rather have our computers do the task for us. Based on the following code: 27, 52 char each line + public class Main { public static void main(String[] args) { /XnMMMMMMM: String quack = } MMMMMMMM ---::-: } MMMM IMMM: ./main -/XMMMM:: !nn:X!! !MMMMX- MMMMM: nnnxnnnXXn! nMX: MMMn! XnnMn! nMXXnnnnXMMn!! ----/XMMMM: !! MMM MX:X: System.out.print (quack.charAt(0) ); -/XXMMn! :/X:MMnnM: MMMMMMn !nMMMM: Fig. 2.3 - Sample code execution <TODO - Paste code that generates one line of output here> MMMMMMX Write a loop that will print the first "line" (the first 52 chars) of the ASCII image and paste your code below. MMMnl MMMMnM- -/::X:M! Task 3/3: Finally, modify your code from Task 2 to process and represent the whole image. -/XMMMM: ---/XnMM! MMMMM: /X:MMnnM: MMMMMMn- [...] Paste your code and output below: -- <TODO - Paste output here> -/::X:M! -- /XXMMn! wwwww −−!!! - Fig. 2.5 - Sample code execution <TODO - Paste code that generates full frame of output here> Problem Description: In order to transmit data across a cable, a sender transmits a series of high and low voltages which a receiver may interpret as "1's" and "0's". This may be further abstracted by dividing the stream into discrete chunks, then calling these chunks a representation of something (like letters, numbers, frequencies, amplitudes, etc.). One of the most familiar examples of this is video signals, where each pixel P in a frame is transmitted one after another along the wire. SENDER -> Px -> P₁₁ -> P3 -> P₂ -> P, -> P. -> RECEIVER But if the pixels are all lined up, how are they interpreted as an image? In one strategy, the display merely places the pixels as one might place letters when writing a book, from the top left, in horizontal lines, to the bottom right. Each row is referred to as a "scanline", and the display is specified by the width and height in pixels. Currently, a high quality display (colloquially termed '4K') might have a resolution up to 3840 x 2160 (width x height). This is sometimes also called '2160p', or 2160 line resolution. Interlude (just for funsies)! Calculate the number of bytes needed to represent an R:G:B tuple if each color channel can be in a state from 0 to 255. Calculate the following based on a 4K display: How many pixels are present on a 4K image? If the display refreshes at 60 hertz, how many pixels must be processed per second? Based on your byte calculation for the RGB values, how many bytes (minimum) are needed to refresh a 4K image at 60 hertz? An HDMI cable (standard speed) can transmit data at 4.92 gigbits per second. Is this a sufficient connection to carry this signal? Task 1/3: No coding is necessary for this task. Using whatever means you like, process the following signal stream into a 52 (width) by 27 (height) ASCII art image frame: ------/XMMMM: :!!nn:X! MMM !MMMMX- MMMMMM !nMMMMM MMMX:X: : :/X:MMnnM: MMMMM innXMMn ∙nn- MMMMMMX: -!! MMM !nMMMM nMMMM: <TODO - Paste resultant image here> I: nnnxnnnXXn MMMMX MMMMnM- :MMMn! XnnMn! XXMMn Paste the parsed image below as text or a screenshot: MMMMM! -/XnMM! MMMMM: MMMM nMMMMX: MMMMM IMMMMM:: MXnn MMMMMMMMM --/::X:M! Task 2/3: But manually reconstituting an image is difficult and we'd much rather have our computers do the task for us. Based on the following code: 27, 52 char each line + public class Main { public static void main(String[] args) { /XnMMMMMMM: String quack = } MMMMMMMM ---::-: } MMMM IMMM: ./main -/XMMMM:: !nn:X!! !MMMMX- MMMMM: nnnxnnnXXn! nMX: MMMn! XnnMn! nMXXnnnnXMMn!! ----/XMMMM: !! MMM MX:X: System.out.print (quack.charAt(0) ); -/XXMMn! :/X:MMnnM: MMMMMMn !nMMMM: Fig. 2.3 - Sample code execution <TODO - Paste code that generates one line of output here> MMMMMMX Write a loop that will print the first "line" (the first 52 chars) of the ASCII image and paste your code below. MMMnl MMMMnM- -/::X:M! Task 3/3: Finally, modify your code from Task 2 to process and represent the whole image. -/XMMMM: ---/XnMM! MMMMM: /X:MMnnM: MMMMMMn- [...] Paste your code and output below: -- <TODO - Paste output here> -/::X:M! -- /XXMMn! wwwww −−!!! - Fig. 2.5 - Sample code execution <TODO - Paste code that generates full frame of output here> Problem Description: In order to transmit data across a cable, a sender transmits a series of high and low voltages which a receiver may interpret as "1's" and "0's". This may be further abstracted by dividing the stream into discrete chunks, then calling these chunks a representation of something (like letters, numbers, frequencies, amplitudes, etc.). One of the most familiar examples of this is video signals, where each pixel P in a frame is transmitted one after another along the wire. SENDER -> Px -> P₁₁ -> P3 -> P₂ -> P, -> P. -> RECEIVER But if the pixels are all lined up, how are they interpreted as an image? In one strategy, the display merely places the pixels as one might place letters when writing a book, from the top left, in horizontal lines, to the bottom right. Each row is referred to as a "scanline", and the display is specified by the width and height in pixels. Currently, a high quality display (colloquially termed '4K') might have a resolution up to 3840 x 2160 (width x height). This is sometimes also called '2160p', or 2160 line resolution. Interlude (just for funsies)! Calculate the number of bytes needed to represent an R:G:B tuple if each color channel can be in a state from 0 to 255. Calculate the following based on a 4K display: How many pixels are present on a 4K image? If the display refreshes at 60 hertz, how many pixels must be processed per second? Based on your byte calculation for the RGB values, how many bytes (minimum) are needed to refresh a 4K image at 60 hertz? An HDMI cable (standard speed) can transmit data at 4.92 gigbits per second. Is this a sufficient connection to carry this signal?