Based on the output in Figure l and the comments given in the following program segment, complete the program by filling in the blanks with an appropriate statement (by invoking an appropriate method explicitly). IMPORTANT: Please write the statement WITHOUT ANY BLANK SPACES. Example: float x=a+b; Before calculate: f1 = 3.56 After calculate: f2 = 7.12 Figure 1 1 2 String value = "3.56"; 4 //Create a Float object named fl with String named value //as argument 7 (i) 8 //Print the value of primitive wrapped in the object f1 System.out.println ("Before calculate: f1 = " + 9. 10 (ii) 11 12 //Convert a String named value to a primitive float named f2 13 (iii) 14 15 f2 *= 2; 16 System.out.println ("After calculate: f2 = " + f2); 17 18

Based on the output in Figure l and the comments given in the following program segment, complete the program by filling in the blanks with an appropriate statement (by invoking an appropriate method explicitly). IMPORTANT: Please write the statement WITHOUT ANY BLANK SPACES. Example: float x=a+b; Before calculate: f1 = 3.56 After calculate: f2 = 7.12 Figure 1 1 2 String value = "3.56"; 4 //Create a Float object named fl with String named value //as argument 7 (i) 8 //Print the value of primitive wrapped in the object f1 System.out.println ("Before calculate: f1 = " + 9. 10 (ii) 11 12 //Convert a String named value to a primitive float named f2 13 (iii) 14 15 f2 *= 2; 16 System.out.println ("After calculate: f2 = " + f2); 17 18

Database System Concepts

7th Edition

ISBN:9780078022159

Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Chapter1: Introduction

Section: Chapter Questions

Problem 1PE

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large_box_height = float(input('Input the height of the large box'))small_box_height = float(input(' Input the height of the small box'))book_thick = float(input(' Input the thickness of the book'))book_ordered = float(input(' Input the number of books ordered')) # Calculate how to find books per large boxbook_per_largebox = large_box_height // book_thick # Calculate how to find book per small boxbook_per_smallbox = small_box_height // book_thick # Calculate how to find number of large boxes needednum_large_box = int(book_ordered // book_per_largebox) # Calculate how many books will be left overbook_left = book_ordered % book_per_largebox if book_left <= book_per_smallbox:num_small_box = int(1)else:num_small_box = book_left // book_per_smallbox# Calculate the numebr of total boxestotal_box = int(num_large_box + num_small_box) if (num_large_box > 0) and (num_small_box > 0):print("Shipping", total_box, "boxes")print(num_large_box, "large")print(num_small_box, "small") elif…
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The text presented the Sierpinski triangle fractal. Inthis exercise, you will write a program to display another fractal, called the Kochsnowflake, named after a famous Swedish mathematician. A Koch snowflake iscreated as follows:1. Begin with an equilateral triangle, which is considered to be the Koch fractalof order (or level) 0, as shown in Figure a.2. Divide each line in the shape into three equal line segments and draw an outwardequilateral triangle with the middle line segment as the base to create aKoch fractal of order 1, as shown in Figure b.3. Repeat Step 2 to create a Koch fractal of order 2, 3, . . . , and so on, as shownin Figures c and d.
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