Questions
At a pressure of 907 mbar , what would the height of the mercury in the...

At a pressure of 907 mbar , what would the height of the mercury in the column of a mercury barometer?

also

A closed container is filled with oxygen. The pressure in the container is 205 kPa . What is the pressure in millimeters of mercury?

In: Chemistry

Use the IS-LM model of a closed economy to explain and graphboth the short run effects...

Use the IS-LM model of a closed economy to explain and graphboth the short run effects and the long-run effects of an increase in the money supply on national income, interest rate, investment, and the price level.

In: Economics

Consider a RC circuit. At time t=0, the circuit is closed. ( a) Draw how the...

Consider a RC circuit. At time t=0, the circuit is closed. ( a) Draw how the current behaves with time. (b) What about the power dissipated by the resistor ? (also draw it as a function of t)

In: Physics

In words and on a graph, diagram the fast response action potential of a cardiomyocyte. Indicate...

In words and on a graph, diagram the fast response action potential of a cardiomyocyte. Indicate which voltage-gated channels are open or closed at each respective phase (0-4) and the direction the ions are moving.

In: Anatomy and Physiology

Determine, Closed Loop Diagram (CLD) for a restaurant case. Following variables: Quality of the service, ...

Determine, Closed Loop Diagram (CLD) for a restaurant case.

Following variables:

Quality of the service,

 New (Arriving) Customer,

 Marketing Studies on Social Media 

Customers occupying tables, 

Queue for seating.

In: Operations Management

Consider a RC circuit. At time t = 0, the circuit is closed. (a) Draw how...

Consider a RC circuit. At time t = 0, the circuit is closed.

(a) Draw how the current behaves with time

(b) What about the power dissipated by the resistor? (also draw it as a function of t)

In: Physics

The following question must be answered in the C programming language and may not be written...

The following question must be answered in the C programming language and may not be written in C++ or any other variation.

Problem 5

This problem is designed to make sure you can write a program that swaps data passed into it such that the caller's data has been swapped. This is something that is done very frequently in manipulating Data Structures.

The Solution / Test Requirements

I want your program to demonstrate that you understand how to swap information passed into a function and have the calling routine print out the data before and after the call to verify the data has been swapped. Call your functions Swap and SwapStructs. Swap is a function that receives the information to swap. The information is two integers. How should Swap receive them? How should it process them? SwapStructs is a function that receives two structs to swap. How should SwapStructs receive them? How should it process them?

Your Test Main must:

1. Declare two integers and initialize them to the values 1 and -1.

2. Print out the integers.

3. Call Swap to swap the values.

4. Print out the values on return from the function.

5. Declare a struct that holds 2 integers using a typedef for the struct.

6. Dynamically allocate two separate variables using the typedef and fill the dynamically allocated structs, filling the first with the values 10 and 20 and the second with 30 and 40.

7. Print out the values in each of the structs

8. Call SwapStructs to swap the contents of the structs.

9. Print out the values in the structs on return.

10. Free the memory that was dynamically allocated.

For your convenience, here is an output of my program:

Before call..I= 1, J=-1 After call.. I=-1, J= 1

Before SwapStructs..ptr1 contains 10 and 20

Before SwapStructs..ptr2 contains 30 and 40

After SwapStructs..ptr1 contains 30 and 40

After SwapStructs..ptr2 contains 10 and 20

Process returned 0 (0x0) execution time : 0.034 s Press any key to continue.

In: Computer Science

Following is a partially completed balance sheet for Hoeman Inc. at December 31, 2020, together with...

Following is a partially completed balance sheet for Hoeman Inc. at December 31, 2020, together with comparative data for the year ended December 31, 2019. From the statement of cash flows for the year ended December 31, 2020, you determine the following:

  • Net income for the year ended December 31, 2020, was $96,500.
  • Dividends paid during the year ended December 31, 2020, were $66,000.
  • Accounts receivable decreased $12,500 during the year ended December 31, 2020.
  • The cost of new buildings acquired during 2020 was $129,000.
  • No buildings were disposed of during 2020.
  • The land account was not affected by any transactions during the year, but the fair value of the land at December 31, 2020, was $191,000.

Required:

  1. Complete the December 31, 2020, balance sheet. (Hint: Long-term debt is the last number to compute to make the balance sheet balance.)
  2. Prepare a statement of cash flows for the year ended December 31, 2020, using the indirect method.

Prepare a statement of cash flows for the year ended December 31, 2020, using the indirect method. (Amounts to be deducted should be indicated by a minus sign.)

Complete the December 31, 2020, balance sheet. (Hint: Long-term debt is the last number to compute to make the balance sheet balance.)

HOEMAN INC.
Comparative Balance Sheets
At December 31, 2020 and 2019
2020 2019
Assets:
Current assets:
Cash $56,000 $48,500
Accounts receivable 126,500 139,000
Inventory 157,000 176,500
Total current assets $339,500 $364,000
Land 143,500 143,500
Buildings 400,500 271,500
Less: Accumulated depreciation (120,500) (105,500)
Total land & buildings $423,500 $309,500
Total assets $763,000 $673,500
Liabilities:
Current liabilities:
Accounts payable $169,000 $189,500
Note payable 157,500 127,000
Total current liabilities $326,500 $316,500
Long-term debt $171,000 $127,000
Stockholders' Equity:
Common stock $52,000 $47,000
Retained earnings 213,500 183,000
Total stockholders' equity $265,500 $230,000
Total liabilities and stockholders' equity $763,000 $673,500
HOEMAN INC.
Statement of Cash Flows
For the Year Ended December 31, 2020
Cash flows from operating activities:
Net income $96,500
Add (deduct) items not affecting cash:
Depreciation expense
Decrease in accounts receivable
Decrease in inventory
Increase in note payable
Decrease in accounts payable
Net cash provided by operating activities $96,500
Cash flows from investing activities:
Cash paid to acquire new buildings
Net cash used for investing activities $0
Cash flows from financing activities:
Cash received from issuance of long-term debt
Cash received from issuance of common stock
Payment of cash dividends on common stock
Net cash used by financing activities $0
Net increase in cash for the year $96,500
Cash balance, January 1, 2020
Cash balance, December 31, 2020 $96,500

In: Accounting

A 5.17-g bullet is moving horizontally with a velocity of +369 m/s, where the sign +...

A 5.17-g bullet is moving horizontally with a velocity of +369 m/s, where the sign + indicates that it is moving to the right (see part a of the drawing). The bullet is approaching two blocks resting on a horizontal frictionless surface. Air resistance is negligible. The bullet passes completely through the first block (an inelastic collision) and embeds itself in the second one, as indicated in part b. Note that both blocks are moving after the collision with the bullet. The mass of the first block is 1213 g, and its velocity is +0.566 m/s after the bullet passes through it. The mass of the second block is 1501 g. (a) What is the velocity of the second block after the bullet imbeds itself? (b) Find the ratio of the total kinetic energy after the collision to that before the collision.

In: Physics

A 4.80-g bullet is moving horizontally with a velocity of +357 m/s, where the sign +...

A 4.80-g bullet is moving horizontally with a velocity of +357 m/s, where the sign + indicates that it is moving to the right (see part a of the drawing). The bullet is approaching two blocks resting on a horizontal frictionless surface. Air resistance is negligible. The bullet passes completely through the first block (an inelastic collision) and embeds itself in the second one, as indicated in part b. Note that both blocks are moving after the collision with the bullet. The mass of the first block is 1150 g, and its velocity is +0.602 m/s after the bullet passes through it. The mass of the second block is 1529 g. (a) What is the velocity of the second block after the bullet imbeds itself? (b) Find the ratio of the total kinetic energy after the collision to that before the collision.

In: Physics