The probability of striking the bull's-eye all three times when throwing the dart three times is 1/216.
The probability of striking the bull's-eye on each throw is 1/6. Since each throw is an independent event, we can multiply the probabilities to find the probability of striking the bull's-eye all three times.
Let's denote the event of striking the bull's-eye as "B" and the event of not striking the bull's-eye as "N". The probability of striking the bull's-eye is P(B) = 1/6, and the probability of not striking the bull's-eye is P(N) = 1 - P(B) = 1 - 1/6 = 5/6.
Since each throw is independent, the probability of striking the bull's-eye on all three throws is:
P(BBB) = P(B) * P(B) * P(B) = (1/6) * (1/6) * (1/6) = 1/216
Therefore, the probability of striking the bull's-eye all three times is 1/216.
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A sample dataset of 20 values has a mean of 30. One value in
this sample is changed from 25 to 55. What is the new mean value of
the new sample? Explain How you did it?
Original sum of all values = Original mean * Original sample size
The new mean value of the sample after changing one value from 25 to 55 can be calculated as 31.25.
To find the new mean value of the sample, we need to consider the impact of changing one value from 25 to 55.
Original sample size: 20
Original mean value: 30
To calculate the new mean, we can use the formula for the mean:
New Mean = (Sum of all values in the new sample) / (New sample size)
Since only one value is changed, the sum of all values in the new sample remains the same as in the original sample.
Original sum of all values = Original mean * Original sample size
= 30 * 20
= 600
To find the new sum of all values in the sample, we replace the changed value (25) with the new value (55).
New sum of all values = Original sum of all values - Original value + New value
= 600 - 25 + 55
= 630
Now we can calculate the new mean:
New Mean = New sum of all values / New sample size
= 630 / 20
= 31.25
Therefore, the new mean value of the sample after changing one value from 25 to 55 is 31.25.
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Original sum of all values = Original mean * Original sample size
The new mean value of the sample after changing one value from 25 to 55 can be calculated as 31.25.
To find the new mean value of the sample, we need to consider the impact of changing one value from 25 to 55.
Original sample size: 20
Original mean value: 30
To calculate the new mean, we can use the formula for the mean:
New Mean = (Sum of all values in the new sample) / (New sample size)
Since only one value is changed, the sum of all values in the new sample remains the same as in the original sample.
Original sum of all values = Original mean * Original sample size
= 30 * 20
= 600
To find the new sum of all values in the sample, we replace the changed value (25) with the new value (55).
New sum of all values = Original sum of all values - Original value + New value
= 600 - 25 + 55
= 630
Now we can calculate the new mean:
New Mean = New sum of all values / New sample size
= 630 / 20
= 31.25
Therefore, the new mean value of the sample after changing one value from 25 to 55 is 31.25.
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The objective of this project is to find the unique solution to n linear congruencies. Consider the following n equations, 4,6 = b mod m 0,1 = b, mod m 4,7 = b, mod m, : 4x = b mod m where all the variables are integers. Each of the linear congruencies has a unique solution if a and m (for all i
The system of linear congruencies has infinitely many solutions, where b can be any integer and x can take any integer value.
To solve the system of linear congruencies, we can apply the Chinese Remainder Theorem. Let's break down the given equations:
Equation 1: 4 ≡ b (mod m)
Equation 2: 0 ≡ 1 (mod m)
Equation 3: 4 ≡ 7 (mod m)
Equation 4: 4x ≡ b (mod m)
To find the unique solution, we need to find a value for b that satisfies all the congruences. We can start by simplifying equations 2 and 3:
Equation 2 becomes: 0 ≡ 1 (mod m), which is not possible unless m = 1.
Since m = 1, equation 1 becomes: 4 ≡ b (mod 1), which implies b can take any integer value.
Finally, equation 4 can be written as: 4x ≡ b (mod 1). Since m = 1, this congruence simplifies to 4x ≡ b.
Therefore, for any integer value of b, the variable x can take any integer value.
In summary, the system of linear congruencies has infinitely many solutions, where b can be any integer and x can take any integer value.
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A cylinder and a cone have the same volume. A cylinder has a radius of 2 inches and a height of 3 inches. The cone has a radius of 3 inches. What is the height of the cone?
Answer: The height of the cone is 4 inches.
Step-by-step explanation:
Pick the statement that best fits the Contract Family: Conventional (A201) Family of AIA documents. Is the most popular document family because it is used for the conventional delivery approach design-bid-build. Is appropriate when the owner's project incorporates a fourth prime player on the construction team. In this family the functions of contractor and construction manager are merged and assigned to one entity that may or may not give a guaranteed maximum price Is used when the owner enters into a contract with a design-builder who is obligated to design and construct the project. This document family is designed for a collaborative project delivery approach. The variety of forms in this group includes qualification statements, bonds, requests for information, change orders, construction change directives, and payment applications and certificates.
The statement that best fits the Contract Family: Conventional (A201) Family of AIA documents is: "Is the most popular document family because it is used for the conventional delivery approach design-bid-build."
The Conventional (A201) Family of AIA documents is widely used for projects that follow the conventional delivery approach known as design-bid-build. This delivery method involves separate contracts between the owner, architect/designer, and contractor. The A201 General Conditions document, which is part of this contract family, provides standard terms and conditions that govern the relationships and responsibilities of the parties involved in the project.
The Conventional (A201) Family of AIA documents is particularly popular because it is tailored for the conventional design-bid-build delivery approach. This contract family establishes the contractual framework and guidelines for the relationships between the owner, architect/designer, and contractor. The A201 General Conditions document is a key component of this contract family and outlines the rights, responsibilities, and obligations of the parties involved in the project.
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5n−2n is divisble by 3 for all n. Quession - Proove that 5n−2n is divisible by 3 For all 2
In order to prove that 5n - 2n is divisible by 3 for all n, we need to use mathematical induction. Let us begin by verifying the base case of n = 2.5^2 - 2^2 = 25 - 4 = 21.21 is not divisible by 3. Thus, the statement is not true for n = 2.
Let us try to prove that the statement is true for all n greater than or equal to 3.Assume that 5n - 2n is divisible by 3 for some integer k. We need to prove that 5(k + 1) - 2(k + 1) is divisible by 3.5(k + 1) - 2(k + 1) = 5k + 5 - 2k - 2 = 3k + 3 = 3(k + 1)Since k is an integer, we have proved that if 5n - 2n is divisible by 3.
Then 5(n + 1) - 2(n + 1) is also divisible by 3. Therefore, we can conclude that 5n - 2n is divisible by 3 for all n greater than or equal to 3 by the principle of mathematical induction.
Note: The base case of n = 2 fails because 5^2 - 2^2 = 21 is not divisible by 3. However, the statement is true for all n greater than or equal to 3.
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Calculate the work associated with the expansion of a gas from 42.0 L to 79.0 L at a constant pressure of 11.0 atm?. a)-407 L-atm b)-8.69 × 10² L-atm c)407 L'atm d)462 L-atm
The work associated with the expansion of the gas from 42.0 L to 79.0 L at a constant pressure of 11.0 atm is -407 L-atm (option a).
To calculate the work done, we can use the formula W = P * ΔV, where W is the work, P is the pressure, and ΔV is the change in volume. In this case, the change in volume is 79.0 L - 42.0 L = 37.0 L. Plugging in the values, we get W = 11.0 atm * 37.0 L = -407 L-atm.
The negative sign indicates that work is done on the gas. This means that energy is being transferred into the system. The unit of L-atm is used to measure work done in gas systems.
In conclusion, the work associated with the expansion of the gas is -407 L-atm, meaning that 407 L-atm of work is done on the gas as it expands.
Hence the correct option is A.
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explain briefly and in your own words: what is Cognitive Ergonomics?
Cognitive ergonomics strives to create systems and environments that support and enhance human cognition, leading to improved efficiency, safety, productivity, and user satisfaction.
Cognitive ergonomics is the study of how individuals interact with technology and how to optimize these interactions to improve user performance, satisfaction, and well-being. This field is concerned with how people process information, make decisions, solve problems, and communicate in the context of technology use.
Cognitive ergonomics examines how users perceive, think, and reason about information, as well as how they feel and behave when using technology. The goal of cognitive ergonomics is to design systems that are easy to use, intuitive, and efficient, while minimizing cognitive workload and errors.
Cognitive ergonomics is a multidisciplinary field that draws on cognitive psychology, human factors engineering, computer science, and other disciplines to address the challenges of designing technology for human use. It involves a deep understanding of human cognition, emotion, perception, and behavior, as well as an appreciation for the context in which technology is used.
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FOR n=2 prove it
Use mathematical induction to prove 2+6+18+...+2x3 =3"-1 for n=1,2 (LHR on he neglected, then show tha
Given the series `, the aim is to prove the statement `3^n - 1` fo`.The formula to be proved is n = 3^n - 1`.
First, check whether the formula is true for `n = 1`.
When `n = 1`,
we have `2 + 6 = 8` and
3^1 - 1 = 2`.
The formula is true for `
n = 1`.
Now, assume that the formula is true for `n = k`.
That is, we have`2 + 6 + 18 + ... + 2 × 3^k = 3^k - 1`.
Now, let's prove that the formula is also true for `n = k + 1`.
Therefore, for `n = k + 1`,
we have `2 + 6 + 18 + ... + 2 × 3^k + 2 × 3^(k + 1)`
Taking the formula that was assumed earlier for `n = k`,
we can replace the left-hand side of the above equation with `
3^k - 1`.
So we have `
3^k - 1 + 2 × 3^(k + 1)`
3^k - 1 + 2 × 3 × 3^k`
Simplify by adding the `3` and the `k` exponents.
`3^k - 1 + 2 × 3^(k + 1)`
Simplify by combining like terms and rearranging.
`3 × 3^k - 1 + 3^k - 1`
Now, we have
`3 × 3^k + 3^k - 2`.
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The equation 2 + 6 + 18 + ... + 2x3 = 3^n - 1 is proven by mathematical induction for n = 1, 2.
To prove the given equation 2 + 6 + 18 + ... + 2x3 = 3^n - 1 for n = 1, 2 using mathematical induction, we need to follow these steps:
Step 1: Base case
For n = 1, we substitute n into the equation:
2 = 3^1 - 1
2 = 3 - 1
2 = 2
The equation holds true for n = 1.
Step 2: Inductive hypothesis
Assume that the equation holds true for some k = m:
2 + 6 + 18 + ... + 2x3 = 3^m - 1
Step 3: Inductive step
We need to prove that the equation holds true for k = m + 1:
2 + 6 + 18 + ... + 2x3 + 2x3^2 = 3^(m+1) - 1
To do this, we start with the left-hand side (LHS) of the equation for k = m + 1:
LHS = 2 + 6 + 18 + ... + 2x3 + 2x3^2
By the inductive hypothesis, we can rewrite the LHS as:
LHS = 3^m - 1 + 2x3^2
Using the formula for the sum of a geometric series, we can simplify the LHS further:
LHS = 3^m - 1 + 2x3^2
= 3^m - 1 + 18
= 3^m + 17
Now, let's look at the right-hand side (RHS) of the equation for k = m + 1:
RHS = 3^(m+1) - 1
By expanding the RHS, we get:
RHS = 3^m x 3 - 1
= 3^(m+1) - 1
The LHS and RHS are equal, so the equation holds true for k = m + 1.
Therefore, the equation 2 + 6 + 18 + ... + 2x3 = 3^n - 1 is proven by mathematical induction for n = 1, 2.
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Use division and/or multiplication of known power series to find the first four non-zero terms in the Laurent expansion of (e^zcoshz)/z^2 in the region 0<∣z∣<[infinity].
The required answer is the first four non-zero terms in the Laurent expansion of (e^zcoshz)/z^2 in the region 0<|z|<∞ are 1/z^2, (1/z + 1/z^2)/2! * z^2, (1/z^3 + 1/(z^2 * 2!)) * z^4/2!, ... To find the first four non-zero terms in the Laurent expansion of (e^zcoshz)/z^2 in the region 0<|z|<∞, we can use division and multiplication of known power series.
First, let's express the function (e^zcoshz)/z^2 in terms of a power series. We can start by expanding e^z and coshz as follows: e^z = 1 + z + (z^2)/2! + (z^3)/3! + ...
coshz = 1 + (z^2)/2! + (z^4)/4! + (z^6)/6! + ...
Next, we divide the power series expansion of e^z by z^2:
(e^z)/z^2 = (1 + z + (z^2)/2! + (z^3)/3! + ...) / z^2
Simplifying the division, we get:
(e^z)/z^2 = 1/z^2 + 1/z + (z/2!) + (z^2/3!) + ...
Now, let's multiply the power series expansion of (e^z)/z^2 by coshz:
((e^z)/z^2) * coshz = (1/z^2 + 1/z + (z/2!) + (z^2/3!) + ...) * (1 + (z^2)/2! + (z^4)/4! + (z^6)/6! + ...)
Multiplying the terms, we get:
((e^z)/z^2) * coshz = (1/z^2 + 1/z + (z/2!) + (z^2/3!) + ...) * (1 + (z^2)/2! + (z^4)/4! + (z^6)/6! + ...)
= 1/z^2 + 1/z + (z/2!) + (z^2/3!) + ... + (1/z^3 + 1/z^2 + (z/2!) + (z^2/3!) + ...) * (z^2)/2! + (z^2/3!) + (z^2)^2/4! + ...
Simplifying further, we can group the terms with the same powers of z:
((e^z)/z^2) * coshz = 1/z^2 + (1/z + (1/z^2)/2!) * z^2 + (1/z^3 + (1/z^2)/2!) * (z^2)^2/2! + ...
= 1/z^2 + (1/z + 1/z^2)/2! * z^2 + (1/z^3 + (1/z^2)/2!) * (z^2)^2/2! + ...
= 1/z^2 + (1/z + 1/z^2)/2! * z^2 + (1/z^3 + 1/(z^2 * 2!)) * z^4/2! + ...
Now we can identify the first four non-zero terms in the Laurent expansion:
1/z^2, (1/z + 1/z^2)/2! * z^2, (1/z^3 + 1/(z^2 * 2!)) * z^4/2!, ...
Note that the expansion continues, but we only need the first four terms.
In summary, the first four non-zero terms in the Laurent expansion of (e^zcoshz)/z^2 in the region 0<|z|<∞ are 1/z^2, (1/z + 1/z^2)/2! * z^2, (1/z^3 + 1/(z^2 * 2!)) * z^4/2!, ...
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find the magnitude of the vector given below also find a measure in degrees
The magnitude and direction of the vector are r = √61 and θ = 50.194°, respectively.
How to determine the magnitude and the direction of a vector
In this problem we have the representation of a vector in rectangular coordinates, whose magnitude and direction must be determined:
Point in rectangular coordinates:
P(x, y) = (x, y)
Magnitude
r = √(x² + y²)
Direction
θ = tan⁻¹ (y / x)
Where:
x - Horizontal distance with respect to origin.y - Vertical distance with respect to origin.If we know that x = 5 and y = - 6, then the magnitude and the direction of the vector are, respectively:
Magnitude
r = √[5² + (- 6)²]
r = √61
Direction
θ = tan⁻¹ (- 6 / 5)
θ = 50.194°
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Which of the following statements best describes an ionic bond? a)It's an acid b)It's also called a molecule c)It's a bond between a metal and a nonmetal d)It's a bond between a nonmetal and a nonmetal e)Shares electrons in a bond
The correct statement that best describes an ionic bond is c) It's a bond between a metal and a nonmetal.
Ionic bonds occur when there is a complete transfer of electrons from a metal atom to a nonmetal atom, resulting in the formation of ions. The metal atom loses electrons to become a positively charged cation, while the nonmetal atom gains electrons to become a negatively charged anion.
The resulting attraction between these oppositely charged ions forms an ionic bond. Ionic compounds, such as sodium chloride (NaCl) or calcium carbonate (CaCO3), are examples of substances held together by ionic bonds. In these compounds, the positive and negative ions are arranged in a repeating pattern called a crystal lattice.
It's important to note that in an ionic bond, there is no sharing of electrons between the atoms involved. Instead, there is a complete transfer of electrons from one atom to another, leading to the formation of charged ions that are attracted to each other. The correct answer is C.
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For each of the following pairs of complexes, suggest with explanation the one that has the larger Ligand Field Splitting Energy (LFSE). (iii) [Mn(H_2 O)_6 ]^2+ or [Fe(H_2 O)_6]^3+
In this case, [Mn(H₂O)₆]²⁺ and [Fe(H₂O)₆]³⁺ are expected to have similar Ligand Field Splitting Energy (LFSE).
To determine which complex, [Mn(H₂O)₆]²⁺ or [Fe(H₂O)₆]³⁺, has the larger Ligand Field Splitting Energy (LFSE), we need to compare the metal ions' oxidation states and electron configurations.
The Ligand Field Splitting Energy (LFSE) is primarily influenced by the number of d-electrons in the central metal ion. In general, the higher the oxidation state and the more unpaired d-electrons, the greater the LFSE.
Let's analyze the two complexes:
(i) [Mn(H₂O)₆]²⁺:
Manganese (Mn) has an atomic number of 25 and can form various oxidation states. In the case of [Mn(H₂O)₆]²⁺, it has an oxidation state of +2. The electron configuration of Mn²⁺ is 3d⁵.
(ii) [Fe(H₂O)₆]³⁺:
Iron (Fe) has an atomic number of 26 and also exhibits different oxidation states. In [Fe(H₂O)₆]³⁺, iron has an oxidation state of +3. The electron configuration of Fe³⁺ is 3d⁵.
Comparing the electron configurations, we can see that both complexes have the same number of d-electrons (3d⁵). Since the number of d-electrons is the same, the Ligand Field Splitting Energy (LFSE) will be similar for both complexes.
Therefore, in this case, [Mn(H₂O)₆]²⁺ and [Fe(H₂O)₆]³⁺ are expected to have similar Ligand Field Splitting Energy (LFSE).
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Mrs. Jones buys two toys for her son. The probability that the first toy is defective is 1/3
, and the probability that the second toy is defective given that the first toy is defective is 1/5
. What is the probability that both toys are defective?
Answer:
[tex]\frac{1}{15\\}[/tex]
Step-by-step explanation:
The probability that the first toy is defective is [tex]\frac{1}{3}[/tex].
The probability that the second toy is defective given that the first toy is defective is [tex]\frac{1}{5}[/tex].
To find the probability that both toys are defective, we multiply the probability of the first toy being defective by the probability of the second toy being defective given that the first toy is defective.
Therefore, the probability that both toys are defective is [tex]\frac{1}{3}[/tex] x [tex]\frac{1}{5}[/tex] = [tex]\frac{1}{15\\}[/tex].
So the answer is [tex]\frac{1}{15\\}[/tex].
A biomass company plans to build a commercial torrefaction plant in British Columbia, Canada, to utilize the beetle-infested pine forest. This waste product contains 35% moisture (M) on "as-received" basis. The composition of the feed on "dry basis" is as below: Proximate analysis (db): Volatiles: 80.71%, fixed carbon: 16.16%, ash: 3.13%. Ultimate analysis (db): C: 47.99%, H: 6.25%, O: 40.73%, N: 1.31%, S: 0.58%, ASH: 3.13%. Pilot plant tests suggested an optimum torrefaction temperature and residence time for the biomass as 280°C and 20 min, respectively, such that 20% of the dry biomass is converted into volatiles carrying 5% of the total thermal energy. Calculate 1. The lower and higher heating value (HHV) of the biomass feed on (a) wet basis, (b) dry basis, and (c) dry ash free basis. 2. Mass yield on dry basis and on dry ash free basis. Example 4.2 Using data from Example 4.1, calculate the following: a. Energy yield on "dry" and "dry ash free" basis. b. HHV of torrefied biomass on "dry" and on "dry ash free" basis. Example 4.4 Design a moving bed torrefier to produce 1 ton/h (daf) of torrefied biomass from raw biomass containing 30% moisture but negligible amount of ash. Torrefaction at 280°C yields 70% mass (daf). Biomass and air enter the unit at ambient temperature of 20°C. Hot gas leaves torrefier at 105°C.
The mass yield on dry basis is 107.7% and on dry ash-free basis is 90.12%.
The lower and higher heating value (HHV) of the biomass feed on wet basis, dry basis, and dry ash free basis are given below:
a) The lower heating value (LHV) is the amount of heat that can be obtained from a material by combustion, which is also known as the net calorific value (NCV). Wet basis:
The percentage of moisture (M) in the sample is 35%.
Wet Basis: The Lower Heating Value (LHV) of Biomass = 18.49 MJ/kg.
Wet Basis: The Higher Heating Value (HHV) of Biomass = 20.56 MJ/kg.
b) Dry basis: To compute HHV and LHV, the moisture content must be removed from the sample. Therefore, the moisture content is eliminated.
Dry Basis: The Lower Heating Value (LHV) of Biomass = 28.44 MJ/kg.
Dry Basis: The Higher Heating Value (HHV) of Biomass = 31.6 MJ/kg.
c) The ash should be removed to obtain a dry ash free basis. To calculate the ash-free results, we subtract the ash content of the dry sample.
Dry Ash Free: The Lower Heating Value (LHV) of Biomass = 29.3 MJ/kg.
Dry Ash Free: The Higher Heating Value (HHV) of Biomass = 32.5 MJ/kg.
Mass yield on dry basis and on dry ash free basis: The mass yield can be calculated using the following formula:
Mass Yield = (mass of torrefied biomass) / (mass of raw biomass) * 100%
= (mass of torrefied biomass) / (mass of dry biomass) * (100% / (100% - Moisture))
a) The mass yield on the dry basis is calculated below:
Mass of dry biomass = (100% - 35%) * (mass of wet biomass)
= 65% * mass of wet biomass = 65% * 1 kg
= 0.65 kg
Mass Yield on Dry Basis = (mass of torrefied biomass) / (mass of dry biomass) * 100%
= (0.7 kg) / (0.65 kg) * 100%
= 107.7% (Assuming there is no loss of moisture)
b) The mass yield on a dry ash-free basis is calculated below: Ash content of raw biomass = 3.13% Ash content of torrefied biomass
= 3.13% * (0.7 kg / 1 kg) = 2.191%
Mass Yield on a Dry Ash-Free Basis = (mass of torrefied biomass) / (mass of dry ash-free raw biomass) * 100%
= (0.7 kg) / [(1 kg - (30% + 2.191%) * 1 kg)] * 100%
= 90.12%
Therefore, the mass yield on dry basis is 107.7% and on dry ash-free basis is 90.12%.
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If the BOD5 of a waste is 210 mg/L and BOD, (Lo) is 363 mg/L. The BOD rate constant, k for this waste is nearly: 1) k = 0.188 2) k = 0.218 3) k = 0.173 4) k = 0.211
If the BOD5 of a waste is 210 mg/L and BOD, (Lo) is 363 mg/L. The BOD rate constant, k for this waste is nearly: k = 0.173
The BOD rate constant (k) can be calculated using the equation: k = (ln (BOD, (Lo) / BOD5)) / t
Given that BOD, (Lo) is 363 mg/L, BOD5 is 210 mg/L, and the time (t) is not provided, we cannot calculate the exact value of k. However, we can evaluate the options provided to find the closest value.
Using option 1: k = 0.188, we substitute the given values into the equation:
(363 / 210) / t = 0.188
Simplifying the equation, we have:
1.7286 / t = 0.188
Now, if we assume a hypothetical value for t (for example, t = 10 hours), we can solve for the left side of the equation:
1.7286 / 10 = 0.17286
Since 0.17286 is not equal to 0.188, option 1 is not the correct answer.
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name the product of a reaction between propanamide, LiAlH4 and H2O.
if no reaction will occur write none. What if any amine is formed
from the Gabriel synthesis of 1-bromohexane?
The Gabriel synthesis of 1-bromohexane yields n-hexylamine. This is because 1-bromohexane is a primary alkyl halide and will undergo nucleophilic substitution with potassium phthalimide to form the phthalimide salt.
The product formed from the reaction between propanamide, LiAlH4, and H2O is propane-1-amine (1-aminopropane). The reaction is shown below:Propanamide + LiAlH4 + H2O → Propane-1-amine (1-aminopropane) + LiOH + Al(OH)3The product formed is an amine with the general formula RNH2. The Gabriel synthesis is a method for the preparation of primary amines. It involves the reaction of a primary alkyl halide with potassium phthalimide, followed by hydrolysis to yield the primary amine.
The Gabriel synthesis of 1-bromohexane yields n-hexylamine. This is because 1-bromohexane is a primary alkyl halide and will undergo nucleophilic substitution with potassium phthalimide to form the phthalimide salt. The phthalimide salt is then hydrolyzed to yield the primary amine, which is n-hexylamine in this case.The Gabriel synthesis is a useful method for the preparation of primary amines, particularly those that are difficult to obtain by other methods. It is a reliable and efficient method that has been widely used in organic synthesis.
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Answer:
Step-by-step explanation:
The reaction between propanamide (also known as propionamide), LiAlH4 (lithium aluminum hydride), and H2O (water) will result in the formation of the corresponding amine.
The reaction proceeds as follows:
Propanamide + LiAlH4 + H2O → Amine
The exact amine formed depends on the specific conditions and reactants used. In this case, propanamide will be reduced by LiAlH4 in the presence of water to yield the corresponding amine. The specific amine formed would be dependent on the substitution pattern of the propanamide molecule.
Regarding the Gabriel synthesis of 1-bromohexane, the Gabriel synthesis does not directly produce 1-bromohexane or any specific halide compound. The Gabriel synthesis is a method used to synthesize primary amines by reacting phthalimide with an alkyl halide under basic conditions, followed by hydrolysis to obtain the desired primary amine.
So, if we consider the Gabriel synthesis starting with 1-bromohexane, the product obtained would be a primary amine derived from the alkyl halide. The specific primary amine formed would depend on the substitution pattern of the alkyl halide used (in this case, 1-bromohexane).
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please help me to answer this question
Suppose that the nitration of methyl benzoate gave the product of nitration meta to the ester. How many signals would you expect in the aromatic region? A Question 2 \checkmark Saved
Methyl benzoate (MB) is a common substrate for electrophilic aromatic substitution (EAS) reactions due to its electron withdrawing ester substituent. Nitration of methyl benzoate generates a mixture of three isomers, each containing one nitro group.
The three isomers produced in the nitration of methyl benzoate are:ortho-nitro methyl benzoate, meta-nitro methyl benzoate, and para-nitro methyl benzoate. If the product of nitration is meta to the ester then there will be two signals in the aromatic region.
ortho- isomer : It will have two equivalent signals in the aromatic region for its 1H NMR spectrum (6.7 – 8.0 ppm)meta- isomer: It will have only one signal in the aromatic region for its 1H NMR spectrum (6.7 – 8.0 ppm)
para- isomer : It will have two equivalent signals in the aromatic region for its 1H NMR spectrum (6.7 – 8.0 ppm)Therefore, the nitration of methyl benzoate that yields the product of nitration meta to the ester is expected to produce a single signal in the aromatic region.
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How imuch should Derek's dad invest in a savings account today, to be able to pay for Derek's rent for the next six years, if the rent is $500, payable at the beginning of eac month? The savings account earns 2.49% compounded monthly.
Derek's dad should invest $42,484.41 in a savings account today to be able to pay for his son's rent for the next six years.
In order to calculate the investment that Derek's dad should make in a savings account, we need to take into account the future value of his rent payments, the monthly payments, and the interest rate he will earn on his savings account. Since the rent is payable monthly, we must find the future value of the 72 payments he will make (12 months * 6 years) at the end of six years.
For this, we can use the future value formula for an annuity, which is as follows:
FV = PMT × [((1 + i)n - 1) / i]
Where:FV = future valuePM,T = monthly payment,i = interest rate,n = number of payments
We can plug in the values given in the problem to get:
FV = 500 × [((1 + 0.0249/12)72 - 1) / (0.0249/12)]
FV = 500 × [((1.00207)72 - 1) / 0.00207]
FV = $42,484.41
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A compound that contains only carbon, hydrogen, and oxygen is 48.64% C and 8.16% H by mass. Mass spectrometry data indicate the molar mass of this compound is 148 g/mol. What is the molecular formula of this substance? How to enter your answer: Suppose you deduce a formula of C6H7O. Enter it as C6H70
The molecular formula of the compound is C10H21.
The molecular formula of a compound indicates the actual number of atoms of each element present in a molecule. To determine the molecular formula of the compound described in the question, we can follow a step-by-step approach.
1. Begin by assuming a convenient mass for the compound, such as 100g. This assumption allows us to easily calculate the mass percentages of carbon and hydrogen.
2. From the given information, we know that the compound is 48.64% carbon and 8.16% hydrogen by mass.
- Carbon: 48.64% of 100g = 48.64g
- Hydrogen: 8.16% of 100g = 8.16g
3. Next, calculate the number of moles for each element using their molar masses. The molar mass of carbon is approximately 12 g/mol, and the molar mass of hydrogen is approximately 1 g/mol.
- Moles of carbon: 48.64g / 12 g/mol = 4.053 mol
- Moles of hydrogen: 8.16g / 1 g/mol = 8.16 mol
4. Now, we need to find the simplest whole number ratio of carbon to hydrogen. Divide both values by the smaller number of moles, which in this case is 4.053 mol.
- Carbon: 4.053 mol / 4.053 mol = 1
- Hydrogen: 8.16 mol / 4.053 mol ≈ 2
The simplest whole number ratio is 1:2, suggesting the molecular formula of CH2.
5. To verify if the molecular formula is correct, we can compare the molar mass calculated from the molecular formula to the given molar mass of 148 g/mol.
- Molar mass of CH2: (12 g/mol × 1) + (1 g/mol × 2) = 14 g/mol
- The molar mass of CH2 is less than the given molar mass of 148 g/mol.
6. To obtain the correct molecular formula, we need to find the factor by which the empirical formula needs to be multiplied to match the given molar mass.
- Factor = Given molar mass / Molar mass of empirical formula
- Factor = 148 g/mol / 14 g/mol = 10.57
7. Multiply the empirical formula (CH2) by the factor obtained in the previous step.
- Molecular formula = CH2 × 10.57 ≈ C10H21
Therefore, the molecular formula of the compound is C10H21.
Please note that this is just one possible approach to solve the problem. Depending on the specific compound and data given, the process may vary slightly. It is always important to double-check the calculations and consider other possibilities when determining the molecular formula.
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5. What amount of lime (in mg/L) would be required to react with 50 mg/L of "alum" in the coagulation process? the molecular weight of alum is 600 g/mol and the molecular weight of lime Ca(OH)2 is 74 g/mol. Al2(SO4)3 · 14.3H2O + 3Ca(OH)2 + 2Al(OH)3 + 3CaSO4 + 14.3H20
925 mg/L of lime would be required to react with 50 mg/L of alum in the coagulation process.
To find out the amount of lime (Ca(OH)2) required to react with 50 mg/L of alum in the coagulation process, we need to calculate the stoichiometric ratio between the two compounds.
The molecular weight of alum (Al2(SO4)3 · 14.3H2O) is 600 g/mol, while the molecular weight of lime (Ca(OH)2) is 74 g/mol.
Let's start by calculating the molar concentration of alum and lime in mg/L.
For alum:
50 mg/L = 50 mg/L * (1 g / 1000 mg) * (1 mol / 600 g)
= 0.08333 mol/L
Now, let's calculate the molar concentration of lime required using the stoichiometric ratio between alum and lime.
From the balanced equation:
2 mol of alum reacts with 3 mol of lime.
Therefore, the molar concentration of lime required is:
0.08333 mol/L * (3 mol lime / 2 mol alum)
= 0.125 mol/L
Finally, let's convert the molar concentration of lime to mg/L.
0.125 mol/L * (74 g / 1 mol) * (1000 mg / 1 g)
= 925 mg/L
Hence, 925 mg/L of lime would be required to react with 50 mg/L of alum in the coagulation process.
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Pure water turns into a well-mixed tank filled with 100 Liter of brine. Water flows at a constant volumetric feed rate of 10 L/min. Initially, the brine has 7.0 kg of salt dissolved in the 100 Liter of water. The salt solution flows out of the tank at the same inlet volumetric flow rate of water. After 15 min of operation, calculate the amount of salt remaining in the tank (kg).
The amount of salt remaining in the tank after 15 minutes of operation is 3.86 kg.
Given that:
Volume of the tank = 100 Liters,
Flow rate of water = 10 L/min,
Time = 15 mins,
Concentration of salt initially = 7 kg/100 L of water
The mass balance equation for the salt in the tank is:
Mass in - Mass out = Rate of accumulation of salt in the tank
Initially, there is no salt in the tank.
The salt gets accumulated only when the brine starts entering the tank.
The amount of salt present in the tank after 15 minutes of operation is given by,
Mass in = 7 kg Mass out = (10 × 15) kg = 150 kg
Using the mass balance equation and the above values, we get:
7 - 150 = Rate of accumulation of salt in the tank
The rate of accumulationof salt in the tank = - 143 kg
After 15 minutes of operation, the salt concentration in the tank = (mass of salt in the tank / volume of tank)
= (7 - 143/60) kg/L
= 3.86 kg/100 L
The amount of salt remaining in the tank after 15 minutes of operation is 3.86 kg.
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20. In the following diagram, color the structures with the indicated colors Right atrium=yellow Left ventricle-gray Aorta red Left atrium dark green Pulmonary trunk- dark blue Superior vena cava - purple Right ventricle-orange Inferior vena cava - pink Coronary sinus light blue Pulmonary arteries-brown Pulmonary veins- light green QUESTIONS 21-25: On the photo of the thoracic cage, identify the locations of the following cardiac landmarks. Label all the landmarks that you identify 21. Draw a line to show the position of the base of the heart. 22. Draw a line to show the position of the left border of the heart. 23. Draw a line to show the position of the right border of the heart. 24. Draw a line to show the position of the inferior border of the heart. 25. Use an arrow to identify the position of the apex EXERCISE 21 Gross Anatomy of the Heart 393
The position of the apex is represented by an arrow. It is found at the fifth intercostal space, near the midclavicular line.
Right atrium=yellowLeft ventricle=grayAorta=redLeft atrium=dark greenPulmonary trunk=dark blueSuperior vena cava=purpleRight ventricle=orangeInferior vena cava=pink
Coronary sinus=light bluePulmonary arteries=brownPulmonary veins=light greenThe cardiac landmarks on the given thoracic cage are:21.
The base of the heart is represented by drawing a line between the 2nd rib and the 5th thoracic vertebra.22.
The left border of the heart is represented by drawing a line running from the 2nd intercostal space along the sternal border to the apex of the heart.23.
The right border of the heart is represented by drawing a line running from the 3rd intercostal space near the right sternal border to the 6th thoracic vertebra.24.
The inferior border of the heart is represented by drawing a line running from the 6th thoracic vertebra to the 5th intercostal space at the mid-clavicular line.25.
The position of the apex is represented by an arrow. It is found at the fifth intercostal space, near the midclavicular line.
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For the following reaction 5.12 gramt of methane (CH4 ) are mixed wath excess carbon tetrachloride Assume that the percent yield of dichlotomethane (CH2 Cl2) is 73.2% mอethane (CH4Kg)+ carbon tetrachloride(g) ⟶ dichloromethane (CH2Cl2Kg)
Mass of CH2Cl2 = 73.2/100 × 27.12 = 19.85 g Therefore, 19.85 g of CH2Cl2 will be produced when 5.12 g of CH4 is reacted with excess CCl4.
The reaction equation is given by:
CH4(g) + CCl4(g) ⟶ CH2Cl2(l) + 3HCl(g)
First, we need to calculate the number of moles of CH4 by using the given mass of CH4.
Mass of CH4 = 5.12 gMolar mass of CH4 = 16.05 g/molNumber of moles of CH4 = Mass/Molar mass
= 5.12/16.05
= 0.319 mol.
The balanced equation tells us that one mole of CH4 reacts with one mole of CCl4 to give one mole of CH2Cl2.
Therefore, 0.319 moles of CH4 will react with 0.319 moles of CCl4.
Next, we need to calculate the mass of CCl4 that is required.
Number of moles of CCl4
= Number of moles of CH4
= 0.319 mol
Molar mass of CCl4
= 153.82 g/mol
Mass of CCl4
= Number of moles × Molar mass
= 0.319 × 153.82
= 49.22 g
As we are given that there is excess CCl4, we can assume that all of the CH4 reacts to form CH2Cl2.
However, the percent yield of CH2Cl2 is 73.2%.
Therefore, we can calculate the mass of CH2Cl2 that will be produced as follows:
Mass of CH2Cl2
= Percent yield × Theoretical yield Theoretical yield
= Number of moles of CH4 × Molar mass of CH2Cl2
= 0.319 × 84.93
= 27.12 g.
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Let P be a symmetric 4 x 4 matrix such that det (P) = -2. Find adj(2P) PT
P is a symmetric matrix, we can calculate P². We can find 2P² by multiplying P² by 2.
The problem asks us to find the value of adj(2P) PT, where P is a symmetric 4 × 4 matrix with det(P) = -2.
To find the adjoint of a matrix, we need to find the transpose of the cofactor matrix of that matrix.
In this case, we are given P, so we need to find adj(P).
Since P is a symmetric matrix, the cofactor matrix will also be symmetric. Therefore, adj(P) = P.
Now, we need to find adj(2P) PT.
Since adj(P) = P, we can substitute P in place of adj(P).
So,
adj(2P) PT = (2P) PT.
To find (2P) PT, we can first find PT and then multiply it with 2P.
To find PT, we need to transpose P.
Since P is a symmetric matrix, P = PT.
Therefore,
(2P) PT = (2P) P
= 2P².
To find the value of 2P²,
we need to square the matrix P and then multiply it by 2.
Since P is a symmetric matrix, we can calculate P² as
P² = P * P.
Finally, we can find 2P² by multiplying P² by 2.
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Given a symmetric 4x4 matrix P with a determinant of -2, we need to find the adjugate of 2P, denoted as adj(2P), and then find its transpose, denoted as [tex](adj(2P))^T[/tex].
The adjugate of a matrix A, denoted as adj(A), is obtained by taking the transpose of the cofactor matrix of A. The cofactor matrix of A, denoted as C(A), is obtained by replacing each element of A with its corresponding cofactor.
To find adj(2P), we first need to find the cofactor matrix of 2P. The cofactor of each element in 2P is obtained by taking the determinant of the 3x3 matrix formed by excluding the row and column containing that element, multiplying it by (-1) raised to the power of the sum of the row and column indices, and then multiplying it by 2 (since we are considering 2P). This process is performed for each element in 2P to obtain the cofactor matrix C(2P). Next, we take the transpose of C(2P) to obtain adj(2P). The transpose of a matrix is obtained by interchanging its rows and columns. Finally, we need to find the transpose of adj(2P), denoted as [tex](adj(2P))^T[/tex]. Taking the transpose of a matrix simply involves interchanging its rows and columns. Therefore, to find [tex](adj(2P))^T[/tex], we first calculate the cofactor matrix of 2P by applying the cofactor formula to each element in 2P. Then we take the transpose of the obtained cofactor matrix to find adj(2P). Finally, we take the transpose of adj(2P) to get [tex](adj(2P))^T[/tex].
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Assume Earth is a spherical blackbody of radius 6,371 km. It absorbs heat from the Sun at a rate given by the solar constant equal to 1379 W/m². Furthermore, assume Earth has an equilibrium temperature of 278.9 K and is immersed in space, which has a temperature of 50 K. Assume the Earth radiates heat back into space equally in all directions. At what rate will the entropy of Earth increase according to this model?
ΔS = (Q_absorbed - Q_radiated) / T_earth By substituting the calculated values into the formula.
To determine the rate at which the entropy of Earth increases according to this model, we need to consider the heat transfer and the temperature difference between Earth and its surroundings.
The rate of entropy change can be calculated using the formula:
ΔS = Q / T
where ΔS is the change in entropy, Q is the heat transfer, and T is the temperature at which the heat transfer occurs.
In this case, Earth is absorbing heat from the Sun and radiating heat back into space. The heat absorbed from the Sun can be calculated by multiplying the solar constant by the surface area of Earth. The heat radiated back into space can be calculated by considering Earth as a blackbody and using the Stefan-Boltzmann Law, which states that the radiant heat transfer rate is proportional to the fourth power of the temperature difference.
Let's calculate the heat absorbed from the Sun first:
Q_absorbed = Solar constant * Surface area of Earth
The surface area of Earth can be calculated using the formula for the surface area of a sphere:
Surface area of Earth = 4π * Radius^2
Substituting the given radius of Earth (6,371 km) into the formula, we can calculate the surface area.
Next, let's calculate the heat radiated back into space:
Q_radiated = ε * σ * Surface area of Earth * (T_earth^4 - T_space^4)
where ε is the emissivity of Earth (assumed to be 1 for a blackbody), σ is the Stefan-Boltzmann constant, T_earth is the equilibrium temperature of Earth, and T_space is the temperature of space.
Finally, we can calculate the rate of entropy increase:
ΔS = (Q_absorbed - Q_radiated) / T_earth
By substituting the calculated values into the formula, we can determine the rate at which the entropy of Earth increases according to this model.
Please note that the exact numerical calculation requires precise values and conversion of units. The provided equation and approach outline the general methodology for calculating the rate of entropy increase in this scenario.
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What is the correct description of the graph below?
The equation the graph represent is
graph of y = sin x shifted to the right by π unitsWhat is sine graph?Sine waves or sinusoidal waves are the graphs of functions that are defined by the equation y = sin x.
The sine graph in the problem starts at (0, 0)
the amplitude is 1
The equation is y = sin (x + π)
The phase shift is π to the right
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If the summation of BS readings from TP1 to TP8 is 22.9 m and the summation of FS readings from TP1 to TP8 is 25.8 m, what is the difference in elevation between TP8 and TP1? A)-2.9 m B)48.7 m C)2.9m D)none of the given choices
The difference in elevation between TP8 and TP1 is -2.9 m.
The summation of BS readings from TP1 to TP8 is 22.9 m and the summation of FS readings from TP1 to TP8 is 25.8 m.
Now, to find the difference in elevation between TP8 and TP1:
We have to use the formula: ΔH = ΣBS - ΣFS
From the given values, ΣBS = 22.9 m and ΣFS = 25.8 m.
Now putting these values in the above formula, we get:
ΔH = ΣBS - ΣFSΔH = 22.9 - 25.8ΔH = -2.9 m
Therefore, the difference in elevation between TP8 and TP1 is -2.9 m.
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waste water treatment in Peshawar
Subject: Environmental engineering
Discuss water, waste water systems and environmental issues in context of quality and treatment for the city of Peshawar . what are the limitation in the existing system and what are your arguments fo
Peshawar faces significant challenges in water and wastewater management, resulting in environmental issues and compromised water quality. Improving the existing wastewater treatment system through infrastructure upgrades, regulations, and public awareness can help address these limitations and mitigate the environmental impacts.
1. Water quality: Peshawar experiences water pollution due to industrial and domestic wastewater discharge, as well as agricultural runoff. This contamination affects the quality of water sources, making them unsafe for consumption and irrigation.
2. Wastewater treatment: The existing wastewater treatment system in Peshawar has limitations. It lacks sufficient infrastructure and capacity to effectively treat the volume of wastewater generated by the growing population. As a result, untreated or partially treated wastewater is often discharged into rivers, causing pollution and health hazards.
3. Environmental impacts: The discharge of untreated wastewater leads to environmental issues such as water pollution, eutrophication, and damage to aquatic ecosystems. These impacts can have far-reaching consequences for biodiversity, public health, and the overall environment.
To address these issues, arguments can be made for improving the existing wastewater treatment system in Peshawar. This includes:
1. Upgrading infrastructure: Investing in the expansion and improvement of wastewater treatment plants to increase their capacity and efficiency.
2. Implementing stricter regulations: Enforcing stringent regulations on industrial and domestic wastewater discharge to reduce pollution and protect water sources.
3. Promoting public awareness: Educating the public about the importance of proper wastewater management and encouraging responsible water usage to reduce the overall burden on the treatment system.
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Solvents have a multi-purpose role in pharmaceutical processing and need to be chosen with care for the different processing steps of the active pharmaceutical ingredient (API), such as chemical reaction, separation and purification. In these processes, very often a reaction may take place in one solvent (S1) and the next processing step (e.g. another reaction, crystallisation, extraction or washing) may require a different solvent (S2) because the process performance is better than if using the original (S1). Solvent swap, or solvent exchange, is therefore a common and important task in API production within the pharmaceutical industry. The solvent swap task is the operation performed to remove an original solvent (S1) that is used in an earlier processing step and at the same time replace it with another solvent (S2) that is more suitable for the next processing step. The solvent swap task is performed as a separation task that is usually based on volatility difference, immiscibility difference or size difference. Batch distillation is often considered as the operation to perform the solvent swap. In the following, it is initially assumed that the solvent swap step will be followed by a crystallisation step for which the original solvent is not as suitable, for example, because the API would crystallise as needles/needle structures hampering the filtration process subsequent to crystallisation. Crystallisation steps are usually employed for the purification and recovery steps of the APIs, and the solvent selection will have an impact on the solid solubility and crystal structure. For the solvent swap, the swap solvent (S2) is somehow mixed with the original solvent (S1), which contains the API, which has been fed to the bottom of a regular batch distillation column. The original solvent is distilled off and collected as the top product whilst the swap solvent together with the API are collected in the still at the end and moved to the next processing step. For the downstream crystallisation process, one needs to make sure that S2 allows for the product recovery required. For example, cooling crystallisation requires a strong temperature dependence of the API solubility in S2. Special care needs to be taken, however, that the API does not crystallise prematurely during distillation.
1. Proper process control is as important for batch processing as it is for continuous manufacturing. Consider a solvent swap process where the original solvent (S1) and the swap solvent (S2) are pure solvents and propose an operating procedure and a control scheme for the regular batch distillation column when the objective is to keep a high production rate and safe operation, and where the process specification on allowable amount of original solvent remaining in the still is very low.
Assume also that the original solvent is to be recycled back to the reaction step, hence high purity is required.
Solvent swap, or solvent exchange, is a common and important task in pharmaceutical processing. It involves removing the original solvent used in one processing step and replacing it with a different solvent that is more suitable for the next step. This is typically done through batch distillation, where the original solvent is distilled off and collected as the top product, while the new solvent is collected with the active pharmaceutical ingredient (API) at the bottom. The solvent swap is performed to improve process performance and ensure the desired product recovery in downstream steps like crystallisation.
Solvent swap is crucial in pharmaceutical processing because different solvents may be required for different processing steps of the API. For example, a reaction may take place in one solvent, but the next step may require a different solvent for better performance. The solvent swap is performed as a separation task based on volatility difference, immiscibility difference, or size difference. Batch distillation is often used for this operation. In the case of downstream crystallisation, the choice of the swap solvent is important for the desired product recovery. Cooling crystallisation, for instance, requires a strong temperature dependence of the API solubility in the new solvent. Care must be taken to prevent premature crystallisation during distillation. Furthermore, since the original solvent is often recycled back to the reaction step, high purity is required.
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A soil sample has a void ratio of e = 0.650 and a degree of saturation of Sr = 4*.2%. The volume of the solids is Vs = X.85 x103 m³. Determine the following: 46.1 volume of voids in the sample 6.85×103 17³
The volume of voids in the sample is 19.44 m³.
The volume of voids in the sample and the total volume of the sample can be determined from the void ratio of the soil sample as follows:
Given,
e = 0.650
and Sr = 4*.2%
=0.008
Total volume of the sample,
VT= Vs/ (1-e)
= X.85 x 103/ (1-0.650)
= 2.43 x 10³ m³
The volume of voids in the sample can be determined as follows:
Vv= SrVT
= 0.008 × 2.43 x 10³
= 19.44 m³
Therefore, the volume of voids in the sample is 19.44 m³.
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