This is the third time im posting this question and got wrong answers every time .Please can someone do it correctly acoording the lab instruction. This is in C programing language, Thanks a lot.(please show the out put for both programs).

For this lab, you are going to create two programs. The first program (named AsciiToBinary) will read data from an ASCII file and save the data to a new file in a binary format. The second program (named BinaryToAscii) will read data from a binary file and save the data to a new file in ASCII format.

Specifications:
Both programs will obtain the filenames to be read and written from command line parameters. For example:

bash$ AsciiToBinary ascii_in binary_out
bash$ BinaryToAscii binary_in ascii_out

The data contained in the ASCII file (both reading from and writing to) will be 10 signed integers, 10 floating point numbers, and 10 lines of text. There will be only one data item per line, and each line of text will contain up to 40 characters (including '\n' and the NULL terminator).
The following link is ascii_file. txt

https://mymasonportal. gmu. edu/bbcswebdav/pid-7238113-dt-conte nt-rid-107238393_1/xid-107238393_1

The data contained in the binary file (both reading from and writing to) will be 10 signed integers, 10 floating point numbers (of type double), and 400 characters. You may find it helpful to think of the 400 characters as 10 sets of 40 characters each.

The following link is binary_file. bin

https://mymasonportal. gmu. edu/bbcswebdav/pid-7238113-dt-conte nt-rid-107238394_1/xid-107238394_1

Testing:
Besides testing your code with your usual methods, you should also test your programs by reading an ASCII file, converting it to binary, then reading the binary file and converting it to ASCII. The new ASCII file should match exactly with the original ASCII file.

Work with a monitor that’s calibrated and profiled. for critical image editing, calibration and profiling are essential. otherwise, the image you see on your monitor looks different on other monitors or when printed.plan to use adjustment layers to adjust the tonal range and color balance of your image. adjustment layers let you go back and make successive tonal adjustments without discarding or permanently modifying data from the image layer. keep in mind that using adjustment layers adds to the file size of the image and demands more ram from your computer. accessing the color and tonal commands in the adjustments panel automatically creates adjustment layers.if you don’t want to use adjustment layers, you can apply adjustments directly to an image layer. remember that some image information is discarded, when making a color or tonal adjustment directly to an image layer.for critical work and maximum preservation of image data, it’s best if the image you work with is 16 bits per channel (16‑bit image) rather than 8 bits per channel (8‑bit image). data is discarded when you make tonal and color adjustments. the loss of image information is more critical in an 8‑bit image than a 16‑bit image. generally, 16‑bit images have a larger file size than 8‑bit images.duplicate or make a copy of the image file. working on a copy of your image preserves the original in the event you want to use the image in its original state.remove any flaws such as dust spots, blemishes, and scratches from the image before making color and tonal adjustments.open the info or histogram panel in expanded view. as you evaluate and correct the image, both panels display invaluable feedback on your adjustments.you can make a selection or use a mask to confine your color and tonal adjustments to part of an image. another way to apply color and tonal adjustments selectively is to set up your document with image components on different layers. color and tonal adjustments are applied to only one layer at a time. only the image components on the targeted layer are affected.

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