Download the App!

Get 24/7 study help with the Numerade app for iOS and Android! Enter your email for an invite.

Sent to:
  • Textbooks
  • Test Prep
  • Numerade for Schools
  • Bootcamps
  • Class
  • Ask Question
  • StudyParty
  • Earn Money
    Refer a friend. Get $50! Become an Educator
  • Log in

Problem

The isotope $\frac{\gamma_{0}}{38} \mathrm{Sr}$ i…

00:36
preview
Numerade Logo

Get the answer to your homework problem.

Try Numerade free for 7 days

David C.
Numerade Educator

Like

Report

Problem 1 Problem 2 Problem 3 Problem 4 Problem 5 Problem 6 Problem 7 Problem 8 Problem 9 Problem 10 Problem 11 Problem 12 Problem 13 Problem 14 Problem 15 Problem 16 Problem 17 Problem 18 Problem 19 Problem 20 Problem 21 Problem 22 Problem 23 Problem 24 Problem 25 Problem 26 Problem 27 Problem 28 Problem 29 Problem 30 Problem 31 Problem 32 Problem 33 Problem 34 Problem 35 Problem 36 Problem 37 Problem 38 Problem 39 Problem 40 Problem 41 Problem 42 Problem 43 Problem 44 Problem 45 Problem 46 Problem 47 Problem 48 Problem 49 Problem 50 Problem 51 Problem 52 Problem 53 Problem 54 Problem 55 Problem 56 Problem 57 Problem 58 Problem 59 Problem 60 Problem 61 Problem 62

Problem 35 Easy Difficulty

If 1.000 g of 226 Ra produces 0.0001 $\mathrm{mL}$ of the gas 222 $\mathrm{Rn}$ at STP (standard temperature and pressure) in 24 h, what is the half-life of 226 Ra in years?

Answer

This is possible only if the half-life is infinite.

Related Courses

Chemistry 102

Chemistry

Chapter 21

Nuclear Chemistry

Related Topics

Nuclear Chemistry

Discussion

You must be signed in to discuss.
Top Chemistry 102 Educators
Stephanie C.

University of Central Florida

Lizabeth T.
Stephen P.

Drexel University

Jake R.

University of Toronto

Chemistry 102 Courses

Lectures

Video Thumbnail

00:29

Radioactivity - Intro

In nuclear physics, radioa…

Video Thumbnail

08:39

Types Of Radioactivity - Overview

In physics, there are thre…

Join Course
Recommended Videos

03:20

What volume of radon will …

01:38

RADIOACTVITY The decay of …

03:14

Radium-226 (atomic mass = …

03:04

The half-life of radon-222…

01:28

What is the half-life of r…

01:48

Radium-226 (atomic mass $=…

03:00

The half-life of one radon…

01:51

Radon gas has a half-life …

04:01

The decomposition of $\mat…

00:35

What is the half-life of R…

00:55

Deal with radioactive deca…

08:51

Make an order-of-magnitude…

02:34

The half-life of the radio…

01:23

The half-life of radium- 2…

02:06

The decay equation for ra…

01:29

As 1 g of the radioactive …

01:56

A 1.50 -L gas sample at 74…

01:10

How many half-lives of rad…

01:48

Radon-222 The decay equati…

07:25

A 1.50 -L gas sample at 74…

Watch More Solved Questions in Chapter 21

Problem 1
Problem 2
Problem 3
Problem 4
Problem 5
Problem 6
Problem 7
Problem 8
Problem 9
Problem 10
Problem 11
Problem 12
Problem 13
Problem 14
Problem 15
Problem 16
Problem 17
Problem 18
Problem 19
Problem 20
Problem 21
Problem 22
Problem 23
Problem 24
Problem 25
Problem 26
Problem 27
Problem 28
Problem 29
Problem 30
Problem 31
Problem 32
Problem 33
Problem 34
Problem 35
Problem 36
Problem 37
Problem 38
Problem 39
Problem 40
Problem 41
Problem 42
Problem 43
Problem 44
Problem 45
Problem 46
Problem 47
Problem 48
Problem 49
Problem 50
Problem 51
Problem 52
Problem 53
Problem 54
Problem 55
Problem 56
Problem 57
Problem 58
Problem 59
Problem 60
Problem 61
Problem 62

Video Transcript

okay. To answer this question, let's first recognize that radium can convert into raid on gas through an Alfa decay. So every time one radium undergoes a decomposition a decade event, then it will produce one rate on Adam, the rate at which this is calculated using equation. The decay rate equals the decay constant multiplied by the number of radioactive new Clyde's, which in this case are the radium to 26. Okay, could be calculated using the Half Life, which was given to us as 1599 years. So the decay constant is 4.33 times 10 to the negative 41 over years. According to this equation, if we have one gram of radium, then we can convert grams of radium, two moles of radium molds of radium to number of radium. New Clyde's, which is our end value 2.66 10 to 21 radium New Clyde's. Now we can multiply these two values together in order to figure out how quickly radium is decaying. The initial rate then will be 4.33 10 to the negative four. Sorry is R K value multiplied by the number of radioactive new Clyde's gives us an initial rate of 1.16 times 10 to the 18 decay events occurring per year. But we want to figure out the number of leaders of radium a raid on gas produced and we can get there knowing this decay rate, let me show you. So in one hour period, you can convert two years. We can then use this right here that we just determined to convert years into the number of decay events that occurred and every time of decay. Event occurs every time one of these two K's we produced one Adam of rate on gas. Then we can. Knowing the Adams of Radan gas, we can convert moles of rate on gas by dividing by avocados number. Then, when we know the moles of raid on gas that are produced where it STP And if you remember, there's 22.4 leaders of any gas at STP per mole. So we use this as our final conversion factor in order to calculate the leaders of rate on gas that will be produced by the decomposition of radium in one hour. And it's quite small 4.9 times 10 to the negative nine leaders

We have video lessons for 98.09% of the questions in this textbook
Paul Flowers, Klaus Theopold, Richard Langley, William R. Robinson

Chemistry

View More Answers From This Book

Find Another Textbook

Related Topics

Nuclear Chemistry

Top Chemistry 102 Educators
Stephanie C.

University of Central Florida

Lizabeth T.

Numerade Educator

Stephen P.

Drexel University

Jake R.

University of Toronto

Chemistry 102 Courses

Lectures

Video Thumbnail

00:29

Radioactivity - Intro

In nuclear physics, radioactivity is the process by which an unstable atomic…

Video Thumbnail

08:39

Types Of Radioactivity - Overview

In physics, there are three main types of radioactive decay: alpha decay, be…

Join Course
Recommended Videos

03:20

What volume of radon will be produced per hour at STP from 1.000 g of $^{226} \…

01:38

RADIOACTVITY The decay of Radon-222 can be modeled by the equation $y=a e^{-0.1…

03:14

Radium-226 (atomic mass = 226.025402 amu) decays to radon-224 (a radioactive ga…

03:04

The half-life of radon-222, a radioactive gas found in some basements, is 3.82 …

01:28

What is the half-life of radon-222 if a sample initially contains 150 $\mathrm…

01:48

Radium-226 (atomic mass $=226.025402$ amu) decays to radon-224 (a radioactive g…

03:00

The half-life of one radon isotope is 3.8 days. If a sample of gas contains 4.…

01:51

Radon gas has a half-life of 3.82 d. What is the decay constant for radon?

04:01

The decomposition of $\mathrm{N}_{2} \mathrm{O}$ to $\mathrm{N}_{2}$ and $\math…

00:35

What is the half-life of Ra-226?

00:55

Deal with radioactive decay and the function $M(x)=c\left(.5^{x / h}\right) $. …

08:51

Make an order-of-magnitude estimate of the amount of radon-222 gas, measured in…

02:34

The half-life of the radioactive element plutonium- 239 is $25,000$ years. If 1…

01:23

The half-life of radium- 224 is 3.66 days. What was the original mass of radium…

02:06

The decay equation for radon-222 gas is known to be $y=y_{0} e^{-0.18 t},$ wit…

01:29

As 1 g of the radioactive element radium decays over 1 year, it produces $1.16 …

01:56

A 1.50 -L gas sample at 745 $\mathrm{mm}$ Hg and $25.0^{\circ} \mathrm{C}$ cont…

01:10

How many half-lives of radon- 222 have passed in 11.46 days? If $5.2 \times 10^…

01:48

Radon-222 The decay equation for radon- 222 gas is known to be $y=y_{0} e^{-0.1…

07:25

A 1.50 -L gas sample at 745 $\mathrm{mm} \mathrm{Hg}$ and $25.0^{\circ} \mathrm…
Additional Chemistry Questions
analysis-of-the-gases-in-a-sealed-reaction-vessel-containing-mathrmnh_3-mathrmn_2-and

02:05

Analysis of the gases in a sealed reaction vessel containing $\mathrm{NH}_{3…

why-is-boron-limited-to-a-maximum-coordination-number-of-four-in-its-compounds

00:57

Why is boron limited to a maximum coordination number of four in its compoun…

yields-in-organic-reactions-are-sometimes-low-what-is-the-percent-yield-of-a-process-that-produces

01:37

Yields in organic reactions are sometimes low. What is the percent yield of …

draw-the-condensed-formulas-for-each-of-the-following-compounds-a-dipropyl-ether-b-22-dime

00:55

Draw the condensed formulas for each of the following compounds:

(a)…

draw-lewis-structures-for-pyridine-and-its-conjugate-acid-the-pyridinium-ion-c_5-h_5-nh

00:42

Draw Lewis structures for pyridine and its conjugate acid, the pyridinium io…

a-saturated-solution-of-a-slightly-soluble-electrolyte-in-contact-with-some-of-the-solid-electrolyte

01:10

A saturated solution of a slightly soluble electrolyte in contact with some …

nitrogen-in-the-atmosphere-exists-as-very-stable-diatomic-molecules-why-does-phosphorus-form-less-s

00:48

Nitrogen in the atmosphere exists as very stable diatomic molecules. Why doe…

for-each-of-the-following-reaction-diagrams-estimate-the-activation-energy-e_a-of-the-reactio

01:51

For each of the following reaction diagrams, estimate the activation energy …

technetium-99-is-prepared-from-98-molybdenum-98-combines-with-a-neutron-to-give-molybdenum-

00:51

Technetium- 99 is prepared from $^{98}$ Molybdenum- 98 combines with a neutr…

balance-the-following-equations-by-oxidation-reduction-methods-note-that-three-elements-change-oxid

02:18

Balance the following equations by oxidation-reduction methods; note that th…

Add To Playlist

Hmmm, doesn't seem like you have any playlists. Please add your first playlist.

Create a New Playlist

`

Share Question

Copy Link

OR

Enter Friends' Emails

Report Question

Get 24/7 study help with our app

Available on iOS and Android

About
  • Our Story
  • Careers
  • Our Educators
  • Numerade Blog
Browse
  • Bootcamps
  • Books
  • Topics
  • Test Prep
  • Ask Directory
Support
  • Help
  • Privacy Policy
  • Terms of Service
Get started