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QUANTITATIVE ESTIMATION OF ALCOHOL IN ALCOHOLIC BEVERAGES BY USING

DENSITOMETER AND ALCOLYZER

1

Alka Kumari,

1

Department of Forensic Science

2

Chemistry Division, Forensic Science Laboratory, Mahanagar

ARTICLE INFO ABSTRACT

This paper describe how one research team can uses variety of different solvents to analyze their different effect on density of alcohol to better understand the characteristics of alcohol. On many occasions now need to drink, so drinking security has beco

alcohol incidents endanger people’s lives. Different adulterants like methanol, ammonium chloride, Urea in poisoning cases are investigated by using Alcolyzer instrumentation technique. Adulterated alcoholic beverag

criminally adulterating them with water purposely putting them into new container to conceal their true origin or adding toxic substances to manipulate the qualities

serious health difficulties like metabolic problems, blindness, permanent neurological damage and even death [

massive alcohol

Ammonium chloride, also for treating patient of alcohol toxicant Normal saline (9%) solution is admistrated which cause neuro

Copyright©2017, Alka Kumari et al. This is an open access article distributed under the Creative Commons Att distribution, and reproduction in any medium, provided the original work is properly cited.

INTRODUCTION

An alcohol is an organic compound having OH (hydroxyl group). It can be diluted to a certain percentage in order to reduce its effect in human body who intakes it. An alcohol in alcoholic beverages i.e. ethanol is most widely used psychoactive drug in the world and is employed as depressant [I Journals: (IJSRC) ISSN: 2015]. The lethal dose of alcohol is 5 to 8g/Kg in adult and 3g/Kg in children, 300g of alcohol can kill which is equal to about 1 liter of spirits or four bottles of wine [Vonghia et al., 2008]. Its effectiveness decreases when the concentration in the product is less than 70% and increase when the concentration is greater than 75% [Dumas

et al., 2014]. Exposure to ethanol to in air and water is very low as it is broken down by sunlight. Most people will be exposed to ethanol in form of alcoholic beverages in which ethanol is found at varying concentration from 4% to 45%. However exposure to higher concentration may occur in an occupational setting such as in industry or a laboratory, wher 100% ethanol is sometimes used. Ethanol can cause adverse effects on the reproductive system in males and females and on fertility. It can also affect the foetus, such as causing fetal alcoholic syndrome which is characterized by abnormalities, lower birth rate,

*Corresponding author: Manoj K Verma,

Chemistry Division, Forensic Science Laboratory, Mahanagar, Lucknow, Uttar Pradesh, India.

ISSN: 0975-833X

Article History:

Received 28th October, 2016

Received in revised form 14th November, 2016

Accepted 18th December, 2016

Published online 31st January,2017

Key words:

Ethanol, Methanol, Urea, Ammonium chloride, Normal saline,

Densitometer and alcolyzer.

Citation: Alka Kumari, Neeraj Kumar and Manoj K Verma Alcolyzer”, International Journal of Current Research

RESEARCH ARTICLE

QUANTITATIVE ESTIMATION OF ALCOHOL IN ALCOHOLIC BEVERAGES BY USING

DENSITOMETER AND ALCOLYZER

Alka Kumari,

1

Neeraj Kumar and *

,2

Manoj K Verma

Department of Forensic Science, Banaras Hindu University, Varanasi

Chemistry Division, Forensic Science Laboratory, Mahanagar, Lucknow, Uttar Pradesh, India

ABSTRACT

This paper describe how one research team can uses variety of different solvents to analyze their different effect on density of alcohol to better understand the characteristics of alcohol. On many occasions now need to drink, so drinking security has become a bigger problem. There are many fake alcohol incidents endanger people’s lives. Different adulterants like methanol, ammonium chloride, Urea in poisoning cases are investigated by using Alcolyzer instrumentation technique. Adulterated alcoholic beverages are legal alcoholic products that have been illicitly tampered with, for instance by criminally adulterating them with water purposely putting them into new container to conceal their true origin or adding toxic substances to manipulate the qualities

serious health difficulties like metabolic problems, blindness, permanent neurological damage and even death [Magnύsdόttir et al., 2010]. This way of counterfeiting alcoholic drink was the reason of massive alcohol poisoning. Poisoning by toxic chemicals such as Methanol, Urea, Acetone, Ammonium chloride, also for treating patient of alcohol toxicant Normal saline (9%) solution is admistrated which cause neuro-depressive effect.

is an open access article distributed under the Creative Commons Attribution License, which distribution, and reproduction in any medium, provided the original work is properly cited.

alcohol is an organic compound having OH (hydroxyl group). It can be diluted to a certain percentage in order to reduce its effect in human body who intakes it. An alcohol in alcoholic beverages i.e. ethanol is most widely used ld and is employed as depressant ]. The lethal dose of alcohol is 5 to 8g/Kg in adult and 3g/Kg in children, 300g of alcohol can kill which is equal to about 1 liter of spirits or four bottles of Its effectiveness decreases when the concentration in the product is less than 70% and increase Dumas-Campagna Exposure to ethanol to in air and water is very Most people will be exposed to ethanol in form of alcoholic beverages in which ethanol is found at varying concentration from 4% to 45%. However exposure to higher concentration may occur in an occupational setting such as in industry or a laboratory, where 100% ethanol is sometimes used. Ethanol can cause adverse effects on the reproductive system in males and females and on fertility. It can also affect the foetus, such as causing fetal alcoholic syndrome which is characterized by organ

Chemistry Division, Forensic Science Laboratory, Mahanagar, Lucknow, Uttar

abnormal brain development and behavioral problems. However such effects are achieved only due to the consumption of alcoholic beverages rather than occupational exposure or use of consumer products containing ethanol [Bull, 2010]. The quantitative detection was done by using Densitometer and Alcolyzer. The Alcolyzer modules are based on patented NIR (Near infrared spectroscopy) analysis method to determine the alcohol content of various alcoholic beverages with highest accuracy. Different measuring modules used as Beer, Wine, Cider, Vodka, Whiskey cognac, Tequila, Rum, Molasses, Wash [Instruction Manual

Alcohol % v/v calculated by using a specific function of absorption intensity of NIR line of alcohol.

ρ100% alcohol (20˚c) = 0.7924g/cm

ρ = Density

Specific gravity of alcohol = ρ

The different adulterants used for adulteration of alcohol was Water, Methanol, Urea, Ammonium chloride, and the Normal saline (solution of 0.9% sodium chloride in distilled water)used for the treatment of alcohol toxicant. Any amount of water content will help to dilute alcohol concentration in body, so the higher water content, the less concentrated alcohol will become.

Alcohol metabolism rate in human body

metabolic capacity to remove alcohol is about 170 to 240 g/day

Available online at http://www.journalcra.com

International Journal of Current Research Vol. 9, Issue, 01, pp.45232-45236, January, 2017

Manoj K Verma, 2017. “Quantitative estimation of alcohol in alcoholic beverages by using densitometer and

International Journal of Current Research, 9, (01), 45232-45236.

z

QUANTITATIVE ESTIMATION OF ALCOHOL IN ALCOHOLIC BEVERAGES BY USING

Manoj K Verma

Banaras Hindu University, Varanasi

, Lucknow, Uttar Pradesh, India

This paper describe how one research team can uses variety of different solvents to analyze their different effect on density of alcohol to better understand the characteristics of alcohol. On many me a bigger problem. There are many fake alcohol incidents endanger people’s lives. Different adulterants like methanol, ammonium chloride, Urea in poisoning cases are investigated by using Alcolyzer instrumentation technique. Adulterated es are legal alcoholic products that have been illicitly tampered with, for instance by criminally adulterating them with water purposely putting them into new container to conceal their true origin or adding toxic substances to manipulate the qualities of alcoholic beverages, which cause serious health difficulties like metabolic problems, blindness, permanent neurological damage and

]. This way of counterfeiting alcoholic drink was the reason of poisoning. Poisoning by toxic chemicals such as Methanol, Urea, Acetone, Ammonium chloride, also for treating patient of alcohol toxicant Normal saline (9%) solution is

ribution License, which permits unrestricted use,

abnormal brain development and behavioral problems. However such effects are achieved only due to the consumption of alcoholic beverages rather than occupational exposure or use of consumer products containing ethanol ]. The quantitative detection was done by using Densitometer and Alcolyzer. The Alcolyzer modules are based infrared spectroscopy) analysis method to determine the alcohol content of various alcoholic beverages with highest accuracy. Different measuring modules used as Beer, Wine, Cider, Vodka, Whiskey cognac, Tequila, Rum,

Instruction Manual].

Alcohol % v/v calculated by using a specific function of absorption intensity of NIR line of alcohol.

˚c) = 0.7924g/cm3

alcohol/ρ water

The different adulterants used for adulteration of alcohol was Water, Methanol, Urea, Ammonium chloride, and the Normal saline (solution of 0.9% sodium chloride in distilled water)used for the treatment of alcohol toxicant. Any amount help to dilute alcohol concentration in body, so the higher water content, the less concentrated alcohol

Alcohol metabolism rate in human body: The average metabolic capacity to remove alcohol is about 170 to 240 g/day

INTERNATIONAL JOURNAL OF CURRENT RESEARCH

(2)

for a person with a body weight of 70 Kg, this would be equivalent to an average metabolic rate of about 7g/hr. which translate to about one drink per hour. Since alcoholic may consume 200 to 300g of ethanol per day [Clin Liver Dis Methanol has been added to legally produce wines to increase their “bite”. It is a potent toxicant in humans occurs naturally at a low level in most alcoholic beverages without causing harm, tolerable daily dose of Methanol in adult as 2g and toxic dose is 8g. Dose of 3-20ml cause serious damage to Central nervous system (CNS), and gastrointestinal tract irritation.

can consume 100ml standard measures of a drink containing 40% alcohol by volume over a period of 2 hrs. The maximum concentration of methanol in such drink would be

volume. Industrial alcohol contains 4% of methanol, as the consumption of alcohol by criminals making alcohol, which was after drinking, it will produce methanol poisoning. Lethal dose of methanol is about 70 ml, the maximum alcohol limit for human consumption 0.1g/Kg. The minimal lethal dose is considered to be in range of 300-1000 mg/kg. Ocular toxicity ranges from photophobia and blurred vision and an ingestion of 4-10ml of methanol in adults may cause permanent blindness. Although the body has the capacity to metabolize the low doses of methanol to which people regularly exposed, it cannot handle high dose because too much methanol overwhelms the body. The normal blood concentration of methanol from endogenous sources is less than 0.5mg/l, b

may increase blood methanol level. As the methanol concentration increases in alcoholic beverages it causes no changes in density of alcohol, density remains at 0.80g/cm But cause high toxicity [Paine et al., 2001;

Kathleen M. Nauss, 1990; Methanol (Environmental Health Criteria, 1997; 196)-ipcs inchem]. Urea reacts with alcohol to form Urethanes, The discovery of widespread presence of ethylcarbamate or urethane in alcoholic beverages first occurs during the mid-1980s. It is not actually toxic to humans. Acute toxicity studies so that the lowest fatal dose in rats, mice and rabbits equals to 1.2g/Kg or more. When urethane was used medicinally, about 50% of the patients exhibited hemorrhages. The compound has almost no odor and a cooling saline, bitter taste. The contents of urethane in alcoholic beverages vary over a wide range. The levels of urethane in wine ranged from 8µ/L, in stone-fruit brandies ranged from 100 to 22,000µg/kg, 80% of its present in spirits was formed during the distillation step and in beer 5.8µg/kg [Washington, 2016; National toxicology Program, Department of Health and Human Services, Report on carcinogens, 13th edition]. 0.9 % normal saline is frequently use of treat patient with acute alcohol in toxicant despite the lack of evidence for its efficacy. The theory behind the administration of normal saline not only counteract the dehydration effect of alcohol but might also have a dilution effect on the level of alcohol and it neurodepressive effect making a patients sober faster and there for spend the less time in emergency departments [Original research on Intravenous 0.9% sodium chloride therapy does not reduce length of stay of alcohol-intoxication patients in the emergency department: A randomized controlled trial, 2013]

MATERIALS

Highly pure methanol (99.9%) and ethanol (99.9%) of density 0.792g/cm3 and 0.790g/cm3 respectively, obtained from the MERK were used for preparing samples in different concentration, urea(Carmol brand) in solid form from market was bought, Distilled water from laboratory was collected, 10% Ammonium chloride solution and 0.9% normal saline were prepared. The laboratory work was carried out at the

45233 Alka Kumari et al. Quantitative estimation of alcohol in alcoholic beverages by using densitometer and Alcolyzer

body weight of 70 Kg, this would be equivalent to an average metabolic rate of about 7g/hr. which translate to about one drink per hour. Since alcoholic may Clin Liver Dis, 2012]. roduce wines to increase their “bite”. It is a potent toxicant in humans occurs naturally at a low level in most alcoholic beverages without causing harm, tolerable daily dose of Methanol in adult as 2g and toxic dose is mage to Central nervous system (CNS), and gastrointestinal tract irritation. Also an adult can consume 100ml standard measures of a drink containing 40% alcohol by volume over a period of 2 hrs. The maximum concentration of methanol in such drink would be 2 %( v/v) by volume. Industrial alcohol contains 4% of methanol, as the consumption of alcohol by criminals making alcohol, which was after drinking, it will produce methanol poisoning. Lethal dose of methanol is about 70 ml, the maximum alcohol limit The minimal lethal dose is 1000 mg/kg. Ocular toxicity ranges from photophobia and blurred vision and an ingestion of 10ml of methanol in adults may cause permanent blindness. has the capacity to metabolize the low doses of methanol to which people regularly exposed, it cannot handle high dose because too much methanol overwhelms the body. The normal blood concentration of methanol from endogenous sources is less than 0.5mg/l, but dietary sources may increase blood methanol level. As the methanol concentration increases in alcoholic beverages it causes no changes in density of alcohol, density remains at 0.80g/cm3.

., 2001; Robert Kavet and thleen M. Nauss, 1990; Methanol (Environmental Health Urea reacts with alcohol to form Urethanes, The discovery of widespread presence of ethylcarbamate or urethane in alcoholic beverages first occurs . It is not actually toxic to humans. Acute toxicity studies so that the lowest fatal dose in rats, mice and rabbits equals to 1.2g/Kg or more. When urethane was used medicinally, about 50% of the patients exhibited hemorrhages. odor and a cooling saline, bitter taste. The contents of urethane in alcoholic beverages vary over a wide range. The levels of urethane in wine ranged from 8µ/L, fruit brandies ranged from 100 to 22,000µg/kg, 80% of ed during the distillation step and National toxicology Program, Department of Health and Human Services, Report 0.9 % normal saline is frequently toxicant despite the lack of evidence for its efficacy. The theory behind the administration of normal saline not only counteract the dehydration effect of alcohol but might also have a dilution effect on the level of alcohol and it neurodepressive effect making a patients sober faster and there for spend the less time Original research on Intravenous 0.9% sodium chloride therapy does not reduce length of stay of intoxication patients in the emergency department: A

Highly pure methanol (99.9%) and ethanol (99.9%) of density respectively, obtained from the MERK were used for preparing samples in different concentration, urea(Carmol brand) in solid form from market was bought, Distilled water from laboratory was collected, 10% Ammonium chloride solution and 0.9% normal saline The laboratory work was carried out at the

chemistry division of Forensic science laboratory, Lucknow and was carried out by using instrument Densitometer and Alcolyzer Anton Paar DMA 4100M.

METHODS

Adulteration of Ethanol was done with

like Distilled water, Methanol, Urea, Ammonium chloride, Normal saline.

For Adulteration of ethanol with different adulterants: percentage of ethanol was taken by increasing the ethanol concentration with the difference of 10 ml

with different adulterants and makeup up to 100 ml.

Procedure for sampling in instrument

At first dilution of ethanol with different adulterants was done and makeup to 50 ml solution mixture of 90%, 80%, 70%, 60%, 50%, ethanol solution. All the mixture was kept in plastic tubes and sampled in instrument densitometer and X

alcolyzer, and the method setup was at Ethanol OIML (%v/v) and density was measured.

RESULTS AND DISCUSSION

Adulteration of ethanol with water

Observation:-

Table 1

Ethanol % taken Ethanol %

90% 86.57%

80% 79.51%

70% 70.02%

60% 56.74%

50% 47.81%

40% 37.46%

30% 27.12%

20% 18.75%

10% 9.45%

Figure 1

Discussion

As we adulterated ethanol with water simultaneously density increases while alcohol percent decreases as shown in

and Figure 1. The interesting thing observed was that up to the dilution of 50% color of solution become cloudy immediatel but above 50% dilution there is no change in color.

0.7 0.8 0.9 1

90 80 70 60

DENS

ITY (

G/CM

3)

ETHANOL % TAKEN

Adulteration of Ethanol with

water

Quantitative estimation of alcohol in alcoholic beverages by using densitometer and Alcolyzer

chemistry division of Forensic science laboratory, Lucknow and was carried out by using instrument Densitometer and Alcolyzer Anton Paar DMA 4100M.

Adulteration of Ethanol was done with different adulterants like Distilled water, Methanol, Urea, Ammonium chloride,

For Adulteration of ethanol with different adulterants: The percentage of ethanol was taken by increasing the ethanol concentration with the difference of 10 ml for each dilution with different adulterants and makeup up to 100 ml.

ure for sampling in instrument

At first dilution of ethanol with different adulterants was done and makeup to 50 ml solution mixture of 90%, 80%, 70%, All the mixture was kept in plastic tubes and sampled in instrument densitometer and X-sampler alcolyzer, and the method setup was at Ethanol OIML- ITS-90 (%v/v) and density was measured.

AND DISCUSSION

Adulteration of ethanol with water

Table 1.

Ethanol % v/v Density (in g/cm3)

86.57% 0.8401

79.51% 0.8606

70.02% 0.8855

56.74% 0.9163

47.81% 0.9344

37.46% 0.9520

27.12% 0.9657

18.75% 0.9751

9.45% 0.9854

Figure 1

As we adulterated ethanol with water simultaneously density

increases while alcohol percent decreases as shown in Table 1

. The interesting thing observed was that up to the dilution of 50% color of solution become cloudy immediately but above 50% dilution there is no change in color.

50 40 30 20 10

ETHANOL % TAKEN

Adulteration of Ethanol with

water

(3)

Showing color change while adulterating ethanol with water.

Adulteration of ethanol with methanol

Observation

Table 2.

Ethanol % taken Ethanol % v/v Density

50% 95.99%

40% 96.89%

30% 97.16%

20% 97.67%

10% 97.21%

Figure 2.

Discussion

As we adulterated the ethanol with methanol only slight variation was observed in density of ethanol while ethanol percentage decreases initially and after that it become almost constant, as shown in Table 2 and Figure 2.

Adulteration of ethanol with Ammonium chloride solution (10%)

Observation

Table 3.

Ethanol % taken Ethanol % v/v Density

50% 45.32%

40% 33.31%

30% 14.32%

20% 1.61%

10% Out of range

0.796 0.798 0.8 0.802 0.804 0.806

0.8080.81

50 40 30 20 10

DENS

ITY (

G/CM

3)

ETHANOL % TAKEN

Adulteration of Ethanol with

Methanol

45234 International Journal of Current Research,

Showing color change while adulterating ethanol with water.

Density (g/cm3)

0.8075 0.8038 0.8026 0.8003 0.8024

As we adulterated the ethanol with methanol only slight variation was observed in density of ethanol while ethanol percentage decreases initially and after that it become almost

Ammonium chloride solution

Density (g/cm3)

0.9390 0.9579 0.9797 0.9958 1.0098

Figure 3

Discussion

As we adulterated the ethanol with Ammonium chloride, as the ethanol percentage decreases density increases as shown in Table 3 and Figure 3. An interesting thing observed was at 10% dilution of ethanol, density

density of water (pure water at room temperature is about

1g/cm3) [Density, Department of Physical sciences

Kingsborough community College, The city university of New York Winter 2010].

Adulteration of ethanol with methanol and ammonium chloride

Observation

*

Mixture of ethanol % and methanol

adulterated by NH4Clsolution (10%)

Table 4

* Mixture % taken Ethanol %v/v

50% 40.63%

40% 25.28%

30% 9.24%

20% Out of range

10% Out of range

Figure 4 Discussion

As we adulterated the ethanol with mixture of Methanol and ammonium chloride, while decreasing ethanol percentage, density increases. Also at 10% and 20% dilution density was

Adulteration of Ethanol with

0.9 0.92 0.94 0.96 0.98 1 1.02

50 40 30 20

DENS

ITY (G/

CM

3)

ETHANOL % TAKEN

Adulteration of Ethanol with

NH

0.9 0.92 0.94 0.96 0.98 1 1.02

50 40 30 20

DENS

ITY (G/

CM

3)

MIXTURE % TAKEN

Adultration of Ethanol with Mixture of Methanol and NH

International Journal of Current Research, Vol. 9, Issue, 01, pp.45232-45236, January, 2017

Figure 3.

As we adulterated the ethanol with Ammonium chloride, as the ethanol percentage decreases density increases as shown in . An interesting thing observed was at density approximately reached to the (pure water at room temperature is about

Density, Department of Physical sciences

Kingsborough community College, The city university of New

Adulteration of ethanol with methanol and ammonium

and methanol % taken in 1:1 ratio, was Clsolution (10%)

Table 4.

Ethanol %v/v Density (g/cm3)

40.63% 0.9470

25.28% 0.9678

9.24% 0.9856

Out of range 1.0022

Out of range 1.0079

Figure 4.

As we adulterated the ethanol with mixture of Methanol and ammonium chloride, while decreasing ethanol percentage, density increases. Also at 10% and 20% dilution density was

10

ETHANOL % TAKEN

Adulteration of Ethanol with

NH

4

Cl

10 MIXTURE % TAKEN

Adultration of Ethanol with

Mixture of Methanol and NH4Cl

(4)

approximately reached to that of water density as shown in Table 4 and Figure 4.

Adulteration of ethanol with Urea (solid)

Observation

Table 5.

Concentration taken(in ml) Ethanol

% v/v

100% Ethanol(ml) Urea(gm)

50 0.5 93.03%

50 1.0 92.17%

50 1.5 91.84%

50 2.0 88.97%

Figure 5.

Discussion

As we added urea in ethanol (taking constant amount of 50ml) density was slightly increases as the quantity of urea increases, shown in given Table 5 and Figure 5.

Dilution of ethanol with Normal saline

Observation

Table 6.

Ethanol % taken Normal saline Ethanol % v/v

60% 6% 23.47%

50% 5% 39.66%

40% 4% 43.01%

30% 3% 33.21%

20% 2% 20.75%

10% 1% 5.75%

Note: - Percentage of normal saline was taken different for each dilution.

Figure 6.

0.81 0.815 0.82 0.825 0.83 0.835

0.5 1 1.5 2

DENS

ITY (

G/CM

3)

AMOUNT OF UREA

Adulteration of Ethanol with Urea

0.9 0.92 0.94 0.96 0.98 1

60 50 40 30 20 10

DENS

ITY (G/

CM

3)

ETHANOL % TAKEN

Adulteration of Ethanol with Normal Saline

45235 Alka Kumari et al. Quantitative estimation of alcohol in alcoholic beverages by using densitometer and Alcolyzer

approximately reached to that of water density as shown in

Ethanol % v/v

Density ( g/cm3)

93.03% 0.8188

92.17% 0.8218

91.84% 0.8230

88.97% 0.8326

As we added urea in ethanol (taking constant amount of 50ml) density was slightly increases as the quantity of urea increases,

Density (g/cm3)

0.9698 0.9486 0.9430 0.9581 0.9729 0.9901 Percentage of normal saline was taken different for each dilution.

Discussion

As we diluted ethanol with normal saline, by decreasing the ethanol percentage, density also decreases up to 40% and after that density increases as shown in

Conclusion

It is widely accepted in the scientific community that inhaling the Alcoholic Beverages is responsible for adverse health effects. Adulteration of ethanol with different

done for determination of density change for different ethanol concentration. While adulterating ethanol with water, Ammonium Chloride solution and the mixture (NH +Methanol) density increases while ethanol percentage decreases. But in case of Normal s

density decreases and after it increases. And in case of adulteration with Methanol and Urea there is very slight change in density of ethanol. The very interesting thing observed in this experiment was the colour change of solutio when adulterating with water.

done with NH4Cl solution and mixture of NH

at 10% and 20% density reached to the density of water. Therefore in this experiment it is shown that how this adulterants are used for manipulating the quantity of alcoholic beverages cause serious health difficulties like Metabolic and neurological damage and effect on fertility, But Normal saline used for treating patient with acute alcohol in toxicant and it cause neuro-depressive effect making patient sober faster.

Acknowledgement

This research was successfully completed in Chemistry department of Forensic Science laboratory, Lucknow, India. We thanks to the Director of Forensic Science Laboratory who provides us Lab for working. We wo

gratitude to the librarian of FSL for sharing their pearls of wisdom with us during the course of this research, although any errors are our own and should not tarnish the reputation of these esteemed persons.

REFERENCES

[Magnύsdόttir K, et al. leaknabladid. Adulterated alcoholic beverages, 2010 Oct, 96 (10): 626

Clin Liver Dis, Alcohol Metabolism clinics in Liver Disease, 2012 Nov., 1694):667-687.

Density, Department of Physical sciences Kingsborough community College, The

Winter 2010; 10th edition, pp. 18

Dumas-Campagna et al. 2014. J Environ Anal Toxicol

I Journals: International Journal of Social Relevance and Concern (IJSRC) ISSN: 2015 July, vol. 3, issue 7, 2347 9698.

Instruction Manual, Alcolyzer ME, Alcolyzer(Beer ME, Wine ME, Shake ME, Spirits ME), pages 9,21; Version 2.60 Methanol (Environmental Health Criteria, 1997; 196)

inchem.

National toxicology Program, Department of Health and Human Services, Report on carcinogens,

urethane CAS NO. 51-79-6.

Original research on Intravenous 0.9% sodium chloride therapy does not reduce length of stay of alcohol intoxication patients in the emergency department: A

Adulteration of Ethanol with

Adulteration of Ethanol with

Quantitative estimation of alcohol in alcoholic beverages by using densitometer and Alcolyzer

As we diluted ethanol with normal saline, by decreasing the ethanol percentage, density also decreases up to 40% and after that density increases as shown in Table 6 and Figure 6.

It is widely accepted in the scientific community that inhaling the Alcoholic Beverages is responsible for adverse health effects. Adulteration of ethanol with different adulterants was done for determination of density change for different ethanol concentration. While adulterating ethanol with water,

Ammonium Chloride solution and the mixture (NH4Cl

+Methanol) density increases while ethanol percentage decreases. But in case of Normal saline dilution up to 40% density decreases and after it increases. And in case of adulteration with Methanol and Urea there is very slight change in density of ethanol. The very interesting thing observed in this experiment was the colour change of solution when adulterating with water. Also when adulteration was

Cl solution and mixture of NH4Cl and Methanol

at 10% and 20% density reached to the density of water. Therefore in this experiment it is shown that how this nipulating the quantity of alcoholic beverages cause serious health difficulties like Metabolic and neurological damage and effect on fertility, But Normal saline used for treating patient with acute alcohol in toxicant and it

making patient sober faster.

This research was successfully completed in Chemistry department of Forensic Science laboratory, Lucknow, India. We thanks to the Director of Forensic Science Laboratory who We would also like to show our of FSL for sharing their pearls of wisdom with us during the course of this research, although any errors are our own and should not tarnish the reputation of

leaknabladid. Adulterated alcoholic beverages, 2010 Oct, 96 (10): 626-8].

Clin Liver Dis, Alcohol Metabolism clinics in Liver Disease,

Density, Department of Physical sciences Kingsborough community College, The city university of New York

edition, pp. 18-19.

J Environ Anal Toxicol., 5:2.

International Journal of Social Relevance and

2015 July, vol. 3, issue 7,

2347-Manual, Alcolyzer ME, Alcolyzer(Beer ME, Wine ME, Shake ME, Spirits ME), pages 9,21; Version 2.60 Methanol (Environmental Health Criteria, 1997; 196)-ipcs

National toxicology Program, Department of Health and

Human Services, Report on carcinogens, 13th edition,

6.

Original research on Intravenous 0.9% sodium chloride therapy does not reduce length of stay of alcohol-intoxication patients in the emergency department: A

(5)

randomized controlled trial. Vol. 25, issue 6; Dec. 2013, pages 527-534.

Paine A, et al. Hum Exp Toxicol. Defining a tolerable concentration of methanol in alcoholic drinks, 2001.

Robert kavet, Sc.D, and Kathleen M. Nauss, Ph.D.; The

toxicity of inhaled Methanol vapors, 1990. Vol.-21, Issue 1. S Bull CRCE HQ, Health protection Agency, Ethanol general

information 2010 version 1

U.S. EPA, Washington, D.C Office of toxic substances,

Chemical Hazard information profile urethane, 2006 may 13; 12 pages, 26 references.

Vonghia, L., leggio, L., ferrulli, A., Bertini, M., Gasbarrini G., Addolorato, G., et al. 2008. European Journal of Internal Medicine, 19 (8), 561-567.

*******

Figure

Figure 6. 0.810.8150.820.8250.830.8350.5 11.5 2DENSITY (G/CM3) AMOUNT OF UREA

References

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3) Resource Allocation: A well known wired virtual net- work problem is how to embed a virtual network in a physical network (i.e., what nodes, links, and resources should be picked

• CAIR Research pilot using community based participatory principles to document stories of resilience among urban American Indian elders at the Tucson Indian Center. •

(1872–2016) of the floodplain vegetation of a segment of the heavily regulated upper Rhine River to different static approaches for the es- timation of its PNV a) a statistical