Question

In: Chemistry

A container was found in the home of the victim that contained 120 g of ethylene...

A container was found in the home of the victim that contained 120 g of ethylene glycol in 550 g of liquid. How many drinks, each containing 100 g of this liquid, would a 80 kg victim need to consume to reach a toxic level of ethylene glycol?

Solutions

Expert Solution

Lethal dose of ethylene glycol for human is 1400mg/kg. Thus to have toxic effects on the victim of 80 kg,

Victim must have consume minimum of = 80×1400mg of ethylene glycol =112000 mg of ethylene glycol.

112000 mg = 112 g of ethylene glycol.

Concentration of ethylene glycol in the liquid is = 120 g/550g =0.2181 g of ethylene glycol per g of liquid.

A drink is made of 100 g of liquid, hence concentration of ethylene glycol in each drink is= 0.2181 × 100 = 218.1 g of ethylene glycol in each drink. Thus theoretically, 0.51 drink are needed to have toxic effects of ethylene glycol to be consumed by victim.

Thus little above half of a drink must have been consumed by the victim.

Please note that toxicity level I have referred is from following link:

https://goo.gl/VnxM7K


Related Solutions

A container was found in the home of the victim that contained 120 g of ethylene...
A container was found in the home of the victim that contained 120 g of ethylene glycol in 550 g of liquid. How many drinks, each containing 100 g of this liquid, would a 80 kg victim need to consume to reach a toxic level of ethylene glycol?
A student drops two metallic objects into a 120-g steel container holding 150 g of water...
A student drops two metallic objects into a 120-g steel container holding 150 g of water at 25°C. One object is a 206-g cube of copper that is initially at 76°C, and the other is a chunk of aluminum that is initially at 5.0°C. To the surprise of the student, the water reaches a final temperature of 25°C, precisely where it started. What is the mass of the aluminum chunk?
Ethylene oxide is produced by the catalytic oxidation of ethylene: C2H4(g)+12 O2(g)→C2H4O(g) An undesired competing reaction...
Ethylene oxide is produced by the catalytic oxidation of ethylene: C2H4(g)+12 O2(g)→C2H4O(g) An undesired competing reaction is the combustion of ethylene to CO2. The feed to a reactor contains 2 mol C2H4/mol O2. The conversion and yield in the reactor are respectively 25% and 0.70 mol C2H4O produced/mol C2H4 consumed. A multiple-unit process separates the reactor outlet stream components: C2H4and O2 are recycled to the reactor, C2H4O is sold, and CO2 and H2O are discarded. The reactor inlet and outlet...
Into a 67.2L container containing O2 (g) at STP is added 32.0g CH4(g); the container is...
Into a 67.2L container containing O2 (g) at STP is added 32.0g CH4(g); the container is sealed and the mixture is combused. Assuming that all reactants and products remain as gases, waht will be the final pressure of the container and the partial pressures of each gas after the flask cools to 100oC?
A gas at a pressure of 2.00 atm is contained in a closed container. Indicate the...
A gas at a pressure of 2.00 atm is contained in a closed container. Indicate the changes in its volume when the pressure undergoes the following changes at constant temperature. (Assume that the volume of the container changes with the volume of the gas.) Part A The pressure increases to 8.50 atm . Give your answer as a factor. Vo is the original volume of the gas (container). V1 =
An ethylene glycol solution contains 16.2 g of ethylene glycol (C2H6O2) in 87.4 mL of water....
An ethylene glycol solution contains 16.2 g of ethylene glycol (C2H6O2) in 87.4 mL of water. Part A Calculate the freezing point of the solution. (Assume a density of 1.00 g/mL for water.) Part B Calculate the boiling point of the solution.
An ethylene glycol solution contains 27.6 g of ethylene glycol (C2H6O2) in 90.4 mL of water....
An ethylene glycol solution contains 27.6 g of ethylene glycol (C2H6O2) in 90.4 mL of water. (Assume a density of 1.00 g/mL for water.) Kb of water=0.51C/m and Kf of water=-1.86C/m Part A: Determine the freezing point of the solution. Express your answer in degrees Celsius. Part B: Determine the boiling point of the solution. Express your answer in degrees Celsius.
An ethylene glycol solution contains 29.8 g of ethylene glycol (C2H6O2) in 92.6 mL of water....
An ethylene glycol solution contains 29.8 g of ethylene glycol (C2H6O2) in 92.6 mL of water. (Assume a density of 1.00 g/mL for water.) Part A Determine the freezing point of the solution. Express you answer in degrees Celsius. Part A Determine the freezing point of the solution. Express you answer in degrees Celsius. Part B Determine the boiling point of the solution. Express you answer in degrees Celsius.
An ethylene glycol solution contains 24.6 g of ethylene glycol (C2H6O2) in 89.8 mL of water....
An ethylene glycol solution contains 24.6 g of ethylene glycol (C2H6O2) in 89.8 mL of water. (Assume a density of 1.00 g/mL for water.) a. Determine the freezing point of the solution in degrees Celsius. b. Determine the boiling point of the solution in degrees Celsius.
Pure hydrogen is contained in a long cylindrical container at a pressure of 10 ATM and...
Pure hydrogen is contained in a long cylindrical container at a pressure of 10 ATM and a temperature of 325 K. The inner diameter of the container is 50 mm and the wall thickness is 4 mm. Air flowing outside of the container does not contain any hydrogen. The mass diffusivity and the solubility of hydrogen in the container material are 1.8x10-11 m2/s and 16 kmol/(m3 ATM), respectively. (a) What is the rate of hydrogen transfer through the walls of...
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT