Authors

  • Sh. Маkhsumov
    Tashkent Medical Academy
  • О. Zaytseva
    Tashkent Medical Academy
  • G. Djanaev
    Tashkent Medical Academy

DOI:

https://doi.org/10.71337/inlibrary.uz.ijms.114404

Abstract

Nonsteroidal anti-inflammatory drugs belong to the most widely used medications. This work is devoted to studying the effect of benzoic acid derivatives diphenyl-/bis-(benzoyloxy)/-silone and 1,4-bis-(bromobenzoyloxy)-butyne-2 on the exudative and proliferative phases of inflammation. Experiments conducted on animals showed that the mechanism of the anti-inflammatory action of the studied chemical compounds is associated with inhibition of the exudative and proliferative phases of the inflammatory process. 

 

 

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STUDYING THE MECHANISM OF ACTION OF SOME CHEMICAL

COMPOUNDS WITH ANTI-INFLAMMATORY PROPERTIES

Sh.М.Маkhsumov

1

, О.А. Zaytseva

2

,

G.Yu. Djanaev

3

1

Associate professor, Pharmacology department, Tashkent Medical Academy,

Email:

makhsharofiddin15@gmail.com

, Uzbekistan.

2

Associate professor, Pharmacology department, Tashkent Medical Academy,

Email:

ozaytseva43@gmail.com

, Uzbekistan.

3

Senior Lecturer, Department of Pharmacology, Tashkent Medical Academy, Tashkent,

Uzbekistan

,

Email:

gayratdjanayev75@gmail.com

, Uzbekistan.

Abstract.

Nonsteroidal anti-inflammatory drugs belong to the most widely used medications.

This work is devoted to studying the effect of benzoic acid derivatives diphenyl-/bis-

(benzoyloxy)/-silone and 1,4-bis-(bromobenzoyloxy)-butyne-2 on the exudative and

proliferative phases of inflammation. Experiments conducted on animals showed that the

mechanism of the anti-inflammatory action of the studied chemical compounds is associated

with inhibition of the exudative and proliferative phases of the inflammatory process.

Key words:

inflammation, anti-inflammatory effect, analgesic effect, antipyretic effect,

benzoic acid derivative, mechanism of anti-inflammatory action, antiexudative effect,

antiproliferative effect, antiallergic effect.

Introduction.

The process of inflammation, being one of the central links in the

pathogenesis of many diseases, is protective in nature, however, in some cases the

inflammatory reaction has a negative effect on the div, which requires

pharmacotherapeutic intervention. Increasing the effectiveness of pharmacotherapy for

diseases whose pathogenesis involves an inflammatory process is one of the most important

problems of modern medicine. Currently, clinical medicine has a large range of anti-

inflammatory drugs belonging to various classes of compounds. However, many of these

drugs do not meet the requirements of clinicians due to the insufficient therapeutic effect

they cause, frequent adverse events and serious complications. Analysis of literature data

shows that undesirable side effects of non-steroidal anti-inflammatory drugs are less

pronounced and occur more favorably than those of steroidal anti-inflammatory drugs.

Nonsteroidal anti-inflammatory drugs have a universal and unique combination of analgesic

and anti-inflammatory effects for this class of drugs, which explains their leading place in

modern medicine. The role of drugs of this pharmacological group in the practice of a doctor

of any specialty is difficult to overestimate, however, this is what creates the main difficulty

in choosing an adequate drug in each specific case. Nonsteroidal anti-inflammatory drugs

are a class of pharmacological agents whose therapeutic activity is associated with

preventing the development or reducing the intensity of inflammation. Currently, there are

more than fifty dosage forms differing in chemical structure, classified as non-steroidal anti-

inflammatory drugs, which in turn are divided into several main subclasses. Despite the

huge variety of non-steroidal anti-inflammatory drugs, they remain one of the most popular

drug groups. For this reason, the search and study of new highly active and low-toxic anti-

inflammatory drugs among various classes of chemical compounds of non-steroidal


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structure is more appropriate and remains a very pressing problem in practical medicine

[1,2,3,4,5,6].

Objectives of the work.

Studying the anti-inflammatory activity of diphenyl-(bis-

(benzoyloxy))-silane in various models of aseptic arthritis, as well as studying the effect of

this compound on the exudative and proliferative phases of inflammation in comparison

with known anti-inflammatory drugs, such as voltaren, indomethacin and butadione. Study

of the anti-inflammatory, analgesic, antipyretic, antiallergic effects of 1,4-bis-

(bromobenzoyloxy)-butine-2.

Material and research methods.

A study of the anti-inflammatory effect of benzoic acid

derivatives - diphenyl-(bis-(benzoyloxy))-silane and 1,4-bis-(bromobenzoyloxy)-butyne-2 -

was carried out on white rats weighing 150-200 g. For comparison, well-known anti-

inflammatory drugs were used - voltaren (10 mg/kg), indomethacin (15 mg/kg) and

butadione (100 mg/kg). The anti-inflammatory effect of the studied chemical compounds

was studied in well-known models of arthritis caused by formaldehyde, carrageenan,

serotonin, histamine and dextran. Phlogogenic agents were injected in an amount of 0.1 ml

into the dorsal surface of the aponeurosis of the rat ankle joint [7,8,9,10].

The anti-inflammatory activity of the drugs was determined by the difference in the

volume of the paws of control and experimental animals. The test compounds were

administered orally in the form of suspensions in 3% starch paste 48, 24 and 2 hours before

the administration of phlogogenic agents at doses of 50, 100 and 150 mg/kg. Control

animals received an equal volume of starch paste. The volume of the paws was measured at

different time intervals depending on the nature of the phlogogenic agent.

The effect of the compounds on the exudative phase of inflammation was studied in a

model of aseptic peritonitis caused by the introduction of a silver nitrate solution into the

abdominal cavity. The drugs were administered orally 48, 24 and 2 hours before the

administration of silver nitrate. The anti-inflammatory activity of the drug was assessed by

the difference in the amount of exudate in control and experimental animals.

The effect of drugs on the exudative-proliferative phase of inflammation was studied

using the “cotton ball” method. The drugs were administered before implantation and once

within 7 days after implantation of cotton balls. On the eighth day, the animals were killed,

cotton balls were removed and their wet weight was determined, then dried at a temperature

of 70

o

C to constant weight and weighed again in dry form.

When studying diphenyl-(bis-(benzoyloxy))-silane, the technique proposed by Selye was

also used: after introducing an irritant into the cavity of the air sac under the skin of the rat’s

back, a pocket granuloma appears. The study drug was administered orally in doses of 50,

100 and 150 mg/kg for 7 days, once a day. On the eighth day, the pocket granuloma was

separated, the exudate was sucked out with a syringe, it was weighed to a constant weight

and weighed in dry form, the volume of exudate in the bag and the total protein content in it

were determined.

The effect of 1,4-bis-(bromobenzoyloxy)-butine-2 on pain sensitivity was studied in rats

using the method of A.K.Sangailo. The antipyretic effect of the drug was studied on white


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laboratory mice against the background of preliminary administration of a standard solution

of pyrogenal. The antiallergic effect of this chemical compound was studied in guinea pigs

using the generally accepted method [11,12,13,14,15,16,17,18].

The resulting digital material was subjected to statistical processing using the standard

software package using the well-known method of variation statistics with assessment of the

significance of indicators and differences in the samples under consideration using the

Student’s t-test.

Research results and discussion.

A study of the anti-inflammatory effect of diphenyl-(bis-(benzoyloxy))-silane showed its

high activity in various aseptic arthritis. Thus, this chemical compound had a pronounced

inhibitory effect on the course of formaldehyde arthritis, starting with small doses. The drug

at a dose of 50 mg/kg suppressed the development of the inflammatory process by 40.3%;

with an increase in dose to 100 and 150 mg/kg, a significant increase in the effect was noted

by 47.3% and 52.8%, respectively. Whereas, in the formaldehyde edema model, comparison

drugs reduced edema as follows: voltaren by 38.4%, indomethacin by 36.1% and butadione

by 27.3%. Consequently, the drug under study turned out to be more active and superior to

voltaren, indomethacin, and butadione.

A comparison of the data presented in Table 1 shows that the drug under study is

noticeably superior to the comparison drugs in its ability to suppress inflammation caused by

various phlogogenic agents.

Table 1

Effect of diphenyl-(bis-(benzoyloxy))-silane, voltaren, indomethacin and butadione on

inflammation caused by various phlogogenic agents

(at P<0.05)

A drug

Dose,

mg/kg

Numbe

r

of

animals

in the

group

Inhibition of inflammation (%) caused

Formalin Corragenine Seroton

in

Histami

ne

Dextra

n

Diphenyl-(bis-

(benzoyloxy))-

silane

50

10

40,9

39,1

38,0

37,3

36,2

Diphenyl-(bis-

(benzoyloxy))-

silane

100

10

47,9

46,3

46,1

45,4

44,1

Diphenyl-(bis- 150

10

52,8

51,9

50,3

50,8

49,8


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(benzoyloxy))-

silane

Voltaren

10

10

38,4

40,9

38,2

39,4

38,2

Indomethacin

15

10

36,1

35,3

33,4

35,8

35,6

Butadion

100

10

27,3

28,1

25,0

26,9

26,1

A study of the anti-inflammatory effect of 1,4-bis-(bromobenzoyloxy)-butine-2 revealed

its high activity in various types of aseptic arthritis. The drug had a pronounced inhibitory

effect on the course of formaldehyde arthritis, starting with small doses: at a dose of 50

mg/kg it suppressed the development of the inflammatory process by 48.1%. With an

increase in dose to 100 and 150 mg/kg, an increase in effect was observed by 53.5% and

59.8%, respectively. Whereas in this model, voltaren at a dose of 10 mg/kg suppressed the

development of the inflammatory process by 40.1%, indomethacin at a dose of 15 mg/kg -

by 40.1%, and butadione at a dose of 100 mg/kg - by 28.4%. Consequently, the drug under

study is more active and exceeds voltaren and indomethacin by 1.5 times, butadione by 2.5

times.

To fully characterize the anti-exudative effect of the first test drug, experiments were

conducted to study its effect on the amount of exudative fluid in the abdominal cavity of rats

with intraperitoneal administration of 1 ml of 0.2% silver nitrate solution.

It was noted that in animals of the control group after administration of silver nitrate, the

amount of exudative fluid averaged 2.3 ± 0.04 ml, and in rats that had previously received

the drug, it was less. Thus, when the drug was administered at a dose of 50 mg/kg, the

amount of peritoneal fluid averaged 1.4±0.02 ml, and at doses of 100 and 150 mg/kg -

1.31±0.03 ml and 1.25±0 .04 ml respectively. This means that the drug reduced the

formation of exudative fluid at a dose of 50 mg/kg by 39.2%, at a dose of 100 mg/kg by

43.1%, and at a dose of 150 mg/kg by 45.7%. The formation of peritoneal fluid was also

suppressed under the influence of known anti-inflammatory drugs. Thus, with the

introduction of butadione, the amount of peritoneal fluid decreased compared to the control

by 26.1%, and with indomethacin and voltaren by an average of 32.2% and 34.8% (Table 2).

Table 2

Effect of diphenyl-(bis-(benzoyloxy))-silane, voltaren, indomethacin and butadione on

aseptic peritonitis caused by silver nitrate in rats (at P<0.05)

A drug

Number

of

animals in the

group

Dose, mg/kg Amount

of

exudate in the

abdominal

cavity in ml

Antiexudative

effect in %

Control

10

-

2,3 ±0,04

0

Diphenyl-(bis-

(benzoyloxy))-

10

50

1,4 ±0,02

39,2


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silane

Diphenyl-(bis-

(benzoyloxy))-

silane

10

100

1,31 ±0,03

43,1

Diphenyl-(bis-

(benzoyloxy))-

silane

10

150

1,25 ±0,04

45,7

Voltaren

10

10

1,5 ±0,04

34,8

Indomethacin

10

15

1,56 ±0,03

32,2

Butadion

10

100

1,7 ±0,04

26,1

These data indicate that the drug has a fairly pronounced anti-exudative activity and in

this ratio is approximately 1.7 times higher than butadione, 1.4 and 1.3 times higher than

indomethacin and voltaren, respectively.

When studying the effect of the second drug under study on the exudative phase of

inflammation, a decrease in the amount of fluid in the abdominal cavity was noted compared

to the control; in this indicator, 1,4-bis-(bromobenzoyloxy)-butyne-2 is 2 times superior to

the comparison drugs.

Thus, analysis of the data obtained allows us to conclude that benzoic acid derivatives:

diphenyl-/bis-(benzoyloxy)/-silone and 1,4-bis-(bromobenzoyloxy)-butyne-2 are quite active

in terms of anti-exudative effect, and in this significantly superior to comparison drugs:

voltaren, indomethacin and butadione.

In the next series of experiments, we studied the ability of 1,4-bis-(bromobenzoyloxy)-

butine-2 to have an inhibitory effect on the formation of granulomas during subcutaneous

implantation of “cotton balls” in rats. As can be seen from the data presented in Table 3, on

the eighth day of the experiment, the weight of wet balls in control animals was 233.9 ± 4.42

mg. This indicator in experimental rats who were orally administered the drug for seven

days was equal to: at a dose of 50 mg/kg - 179.17 ± 3.11 mg, at a dose of 100 mg/kg 139.64

± 3.01 mg and at dose of 150 mg/kg – 127.7±2.88 mg. Consequently, the activity of

diphenyl-(bis-(benzoyloxy))-silane was 23.4% at a dose of 50 mg/kg, and 40.3% and 45.4%

at doses of 100 mg/kg and 150 mg/kg, respectively. Under similar conditions, voltaren,

indomethacin and butadione inhibited exudative impregnation of granulation tissue around

cotton balls by 24.9%, 22.4% and 16.5%, respectively. Consequently, the drug under study

has a more pronounced anti-exudative effect than voltaren, indomethacin and butadione.

Table 3

The influence of diphenyl-(bis-(benzoyloxy))-silane, voltaren, indomethacin and

butadione on the weight gain of wet and dry cotton swabs after

7 day subcutaneous implantation

A drug

Dose Numb Wet

Reductio Р

Weight

Reductio Р


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,

mg/k

g

er of

animal

s

in

the

group

weight of

granulatio

n tissue,

mg

n in the

weight of

wet

granulati

on tissue

compare

d

to

control

in %

of

granulati

on tissue

after

drying

n in the

weight of

dry

granulati

on tissue

compare

d

to

control

in %

Контроль

-

10

233,9±4,4

2

0

-

33,9±3,1

8

0

-

Diphenyl-

(bis-

(benzoyloxy

))-silane

50

10

179,17±3,

11

23,4

<0,0

5

25,12±2,

06

25,9

<0,0

5

Diphenyl-

(bis-

(benzoyloxy

))-silane

100

10

139,64±3,

01

40,3

<0,0

5

19,63±2,

01

42,1

<0,0

5

Diphenyl-

(bis-

(benzoyloxy

))-silane

150

10

127,7±2,8

8

45,4

<0,0

5

17,83±1,

65

47,4

<0,0

5

Voltaren

10

10

175,66±3,

09

24,9

<0,0

5

25,15±2,

68

25,8

<0,0

5

Indomethaci

n

15

10

181,5±3,1

8

22,4

<0,0

5

26,01±2,

74

23,2

<0,0

5

Butadion

100

10

195,3±3,9

1

16,5

<0,0

5

28,0±2,9

1

17,4

<0,0

5

This drug had a clear inhibitory effect on the development of granulomas according to the

Selye method. This effect of the drug at doses of 50, 100 and 150 mg/kg was expressed by a

decrease in the weight of the wet granuloma sac by 60.1%, 50.3%, 47.5%, respectively, and

the dried one - by 48.1%, 40.8%, 39 .0%. The effectiveness of voltaren, indomethacin and

butadione was slightly lower. At the same time, voltaren reduced the weight of the wet

granuloma sac by 61.4% and dry by 53.5%, and indomethacin and butadione, respectively,

by 64.8% and 56.4%, by 74.3% and 65.4% (Table 4).

Table 4

Effect of diphenyl-(bis-(benzoyloxy))-silane, voltaren, indomethacin and butadione on

the weight of the granuloma sac in exudative inflammation

according to Selye (P<0.05)

A drug

Dose,

mg/kg

Number of

animals in

the group

Wet sac weight

Dry sac weight

г

%

г

%


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Control

-

10

3,142±0,11 100

2,12±0,09

150

Diphenyl-(bis-

(benzoyloxy))-

silane

50

10

1,911±0,08 60,8

1,02±0,04

48,1

Diphenyl-(bis-

(benzoyloxy))-

silane

100

10

1,580±0,06 50,3

0,865±0,04 40,8

Diphenyl-(bis-

(benzoyloxy))-

silane

150

10

1,486±0,05 47,3

0,827±0,03 39,0

Voltaren

10

10

1,929±0,08 61,4

1,134±0,07 53,5

Indomethacin

15

10

2,036±0,08 64,8

1,196±0,06 56,4

Butadion

100

10

2,334±0,09 74,3

1,386±0,07 65,4

The drug under study reduces the intensity of the development of exudative phenomena.

This is evidenced by a decrease in the volume of exudate in the granuloma sac. If the

volume of exudate in the granuloma sac in animals of the control group averaged 6.3 ± 0.3

ml, then in experimental animals that were administered the first test drug, the amount of

exudate in the granuloma sac was 4.4 ± 0.15 ml, 3. 9±0.1 ml and 3.1±0.12 ml according to

the administered doses. At the same time, the effectiveness of voltaren, indomethacin and

butadione was slightly lower: the volume of exudate in the granuloma sac upon

administration of voltaren was 4.4±0.21 ml, and for indomethacin and butadione 4.6±0.22

and 4.9±0.24 ml respectively.

Thus, the studies have convincingly shown that the studied chemical compound diphenyl-

(bis-(benzoyloxy))-silane exhibits a pronounced anti-inflammatory effect, which is

expressed by a significant decrease in the mass of the granuloma sac (wet and dry) and the

amount of exudate in it. According to these indicators, it is superior to Voltaren,

indomethacin and butadione.

In the next series of experiments, the effect of 1,4-bis-(bromobenzoyloxy)-butine-2 on the

pain sensitivity threshold of animals was studied. First, the pain sensitivity threshold was

determined in all male rats, then the animals were divided into four groups. The first group

is the control group. Animals in this group were administered a suspension of 3% starch

paste. Rats of the second group were administered the study drug at a dose of 50 mg/kg, the

third - at a dose of 100 mg/kg, and the fourth - at a dose of 150 mg/kg. Pain sensitivity was

measured every 30 minutes for 5 hours. During the experiments, it was found that the

threshold of pain sensitivity in animals in the control group remained the same as before the

introduction of a suspension of 3% paste, while the drug at a dose of 50 mg/kg increased the

threshold of pain sensitivity by 42.3% compared to the initial level. As the dose of the drug

increased, an increase in the threshold of pain sensitivity was observed.

Consequently, the drug under study quite significantly increases the threshold of pain

sensitivity in rats.

An increase in div temperature is one of the main components of the inflammatory

process and occurs as a result of destructive changes in tissue, which leads to the formation

and entry into the general bloodstream of protein breakdown products, polysaccharides, etc.


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In this regard, studying the effect of the drug on the div temperature of animals is of

particular interest. In the first series of experiments, the effect of the drug on the temperature

of intact animals was studied. Analysis of the results showed that the div temperature of

animals in the control group, which were administered a starch suspension, fluctuated during

the observed period by only 0.1-0.2 degrees. In experimental mice, after administration of

the drug, a tendency to a decrease in div temperature was observed within 30 minutes.

Thus, the drug at a dose of 50 mg/kg caused a decrease in div temperature by 0.5 degrees,

at a dose of 100 mg/kg - by 0.6 degrees, and at a dose of 150 mg/kg - by 0.7 degrees Celsius.

The duration of action of the drug was 3-4 hours.

In the second series of experiments, the effect of the drug on the div temperature of

animals that had previously received pyrogenal was studied. In all experimental animals,

approximately 2 hours after the administration of pyrogenal, an increase in div temperature

of 2.3-2.5 degrees Celsius was noted. Subsequent administration of the drug after 30

minutes caused a decrease in div temperature. This effect gradually increased and reached

its maximum 2-3 hours after administration of the drug.

Thus, in animals, 3 hours after administration of the drug at a dose of 50 mg/kg of

weight, a decrease in div temperature was observed, at a dose of 100 mg/kg - by 1.6-1.7

degrees, and at a dose of 150 mg/kg - by 1. 9-2.0 degrees. Then a gradual decrease in the

div temperature of the animals was observed almost to normal.

Therefore, based on the data obtained, we can conclude that the drug, under

conditions of a febrile reaction caused by the administration of pyrogenal, clearly lowers the

div temperature of animals, that is, it has a pronounced antipyretic effect.

A study of the antiallergic effect of the drug under study showed that 1,4-bis-

(bromobenzoyloxy)-butine-2 exhibits an antiallergic effect, which is manifested by a mild

course of anaphylactic shock and a decrease in the number of dead animals. Thus, if in the

control group, after the introduction of a permissive dose of horse serum, 10 (100%) out of

10 guinea pigs died, then when the drug was administered at a dose of 50 mg/kg, 8 (80%)

out of 10 died, and at doses of 100 and 150 mg/kg kg - 7 (70%) out of 10 and 6 (60%) out of

10, respectively.

Thus, the successful combination of anti-inflammatory, analgesic, antipyretic and

antiallergic properties of the drug makes it promising in the treatment of various

inflammatory diseases, including those with an allergic component.

Conclusions:

1. Diphenyl-/bis-(benzoyloxy)/-silone and 1,4-bis-(bromobenzoyloxy)-butyne-2 are highly

active anti-inflammatory drugs and are superior in their activity to comparison drugs.

2. The drug under study, 1,4-bis-(bromobenzoyloxy)-butine-2, exhibits analgesic, antipyretic

and antiallergic effects.

3. Diphenyl-[bis-(benzoyloxy)]-silone and 1,4-bis-(bromobenzoyloxy)-butyne-2 are of some

theoretical and practical interest as potential anti-inflammatory drugs.


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2. Barkin R.L. Topical Nonsteroidal Anti-Inflammatory Drugs: The Importance of Drug,

Delivery, and Therapeutic Outcome // Am J Ther. – 2015. Sep-Oct; 22(5). – Р. 388-407.

3. Bindu S., Mazumder S., Bandyopadhyay U. Non-steroidal anti-inflammatory drugs

(NSAIDs) and organ damage: a current perspective // Biochem. Pharmacol. – 2020. -

Oct:180. - Р. 114-147.

4. Gunaydin C., Bilge S. S. Effect of nonsteroidal anti- inflammatory drugs at the molecular

level // Eurasian J. Med. – 2018. - №50. – Р. 116 —121.

5. Honvo G., Leclercq V., Geerinck A., Thomas T., Veronese N., Charles A., Rabenda V.,

Beaudart C., Cooper C., Reginster J.Y. et al. Safety of Topical Non-steroidal Anti-

Inflammatory Drugs in Osteoarthritis: Outcomes of a Systematic Review and Meta-Analysis

// Drugs Aging. – 2019.- 36 (Suppl. 1). – Р. 45–64.

6. Hunter L.J., Wood D.M., Dargan P.I. The patterns of toxicity and management of acute

nonsteroidal anti-inflammatory drug (NSAID) overdose // Open Access Emerg Med. – 2011.

- №3. – Р. 39-48.

7. Kabulov Sh.M., Makhsumov Sh.M., Zaitseva O.A., Muratkhanova D.A., Khasanova D.A.

Anti-inflammatory, analgesic and antipyretic activity of the drug 1,4-bis-

(bromobenzoyloxy)-butine-2 // Dermatovenereology and aesthetic medicine. - 2015. - No. 2.

- P. 106-109.

8. Kate R.J., Perez R.M., Mazumdar D., Pasupathy K.S., Nilakantan V. Prediction and

detection models for acute kidney injury in hospitalized older adults // BMC Med Inform

Decis Mak. - 2016. (16). Р. 39.

9. Makhsumov Sh.M., Zaytseva O.A. On the mechanism of action and some toxicological

characteristics of the drug 3,4-bis-(2,4-dinitrobenzoyloxymethyl)-pyrazole // Electronic

Innovation Bulletin. - 2018. - No. 1. – pp. 14–15.

10. Makhsumov Sh.M., Zaytseva O.A. Anti-inflammatory activity of a new benzoic acid

derivative diphenyl-/bis-(benzoyloxy)/-silone // FEN-SCIENCE. Periodical journal of

scientific works. – 2015. - No. 6 (45). – pp. 41-44.

11. Makhsumov Sh.M., Zaytseva O.A., Mamajanova M.A. The mechanism of the anti-

inflammatory action of some pyrazole derivatives // Electronic Innovation Bulletin. - 2018. -

No. 1. – pp. 12–13.

12. Nagesh Kishan Panchal, Evan Prince Sabina. Non-steroidal anti-inflammatory drugs

(NSAIDs): A current insight into its molecular mechanism eliciting organ toxicities // Food

and Chemical Toxicology. – 2023. - Volume 172. – Р. 113598.


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13. Rinott E., Kozer E., Shapira Y., Bar-Haim A., Youngster I. Ibuprofen use and clinical

outcomes in COVID-19 patients. // Clin. Microbiol. Infect. - 2020. -№26(9). – Р. 1259 е5-

1259 е7.

14. Sandu R.E., Uzoni A., Coman C., Popa-Wagner A. Cerebral ischemia in the aged.

Limited anti-inflammatory efficacy of the indomethacin treatment // Rom J Morphol

Embryol

. -

2015. - №56. – Р. 1111-1117.

Shekelle P.G., Newberry S.J., FitzGerald J.D., Motala A., O'Hanlon C.E., Tariq A.,

Okunogbe A., Han D., Shanman R. Management of Gout: A Systematic Review in Support

of an American College of Physicians Clinical Practice Guideline // Ann Intern Med. – 2017.

- №166(1). – Р. 37-51.

15. Yakubova L.K., Chirko M.Yu. , Makhsumov Sh.M., Zaytseva O.A. Some mechanisms

of the anti-inflammatory action of the drug 3,4-bis-(2-bromobenzoyloxymethyl)-pyrazole //

Bulletin of the Tashkent Medical Academy. - 2013. - No. 1. - P. 31-35.

References

Asfandiyarova N.S., Philippov E.V. The use of nonsteroidal anti-inflammatory drugs in polymorbid pathology // Ter Arkh. – 2020. – Jan 15; (1). – Р. 82-88.

Barkin R.L. Topical Nonsteroidal Anti-Inflammatory Drugs: The Importance of Drug, Delivery, and Therapeutic Outcome // Am J Ther. – 2015. Sep-Oct; 22(5). – Р. 388-407.

Bindu S., Mazumder S., Bandyopadhyay U. Non-steroidal anti-inflammatory drugs (NSAIDs) and organ damage: a current perspective // Biochem. Pharmacol. – 2020. - Oct:180. - Р. 114-147.

Gunaydin C., Bilge S. S. Effect of nonsteroidal anti- inflammatory drugs at the molecular level // Eurasian J. Med. – 2018. - №50. – Р. 116 —121.

Honvo G., Leclercq V., Geerinck A., Thomas T., Veronese N., Charles A., Rabenda V., Beaudart C., Cooper C., Reginster J.Y. et al. Safety of Topical Non-steroidal Anti-Inflammatory Drugs in Osteoarthritis: Outcomes of a Systematic Review and Meta-Analysis // Drugs Aging. – 2019.- 36 (Suppl. 1). – Р. 45–64.

Hunter L.J., Wood D.M., Dargan P.I. The patterns of toxicity and management of acute nonsteroidal anti-inflammatory drug (NSAID) overdose // Open Access Emerg Med. – 2011. - №3. – Р. 39-48.

Kabulov Sh.M., Makhsumov Sh.M., Zaitseva O.A., Muratkhanova D.A., Khasanova D.A. Anti-inflammatory, analgesic and antipyretic activity of the drug 1,4-bis-(bromobenzoyloxy)-butine-2 // Dermatovenereology and aesthetic medicine. - 2015. - No. 2. - P. 106-109.

Kate R.J., Perez R.M., Mazumdar D., Pasupathy K.S., Nilakantan V. Prediction and detection models for acute kidney injury in hospitalized older adults // BMC Med Inform Decis Mak. - 2016. (16). Р. 39.

Makhsumov Sh.M., Zaytseva O.A. On the mechanism of action and some toxicological characteristics of the drug 3,4-bis-(2,4-dinitrobenzoyloxymethyl)-pyrazole // Electronic Innovation Bulletin. - 2018. - No. 1. – pp. 14–15.

Makhsumov Sh.M., Zaytseva O.A. Anti-inflammatory activity of a new benzoic acid derivative diphenyl-/bis-(benzoyloxy)/-silone // FEN-SCIENCE. Periodical journal of scientific works. – 2015. - No. 6 (45). – pp. 41-44.

Makhsumov Sh.M., Zaytseva O.A., Mamajanova M.A. The mechanism of the anti-inflammatory action of some pyrazole derivatives // Electronic Innovation Bulletin. - 2018. - No. 1. – pp. 12–13.

Nagesh Kishan Panchal, Evan Prince Sabina. Non-steroidal anti-inflammatory drugs (NSAIDs): A current insight into its molecular mechanism eliciting organ toxicities // Food and Chemical Toxicology. – 2023. - Volume 172. – Р. 113598.

Rinott E., Kozer E., Shapira Y., Bar-Haim A., Youngster I. Ibuprofen use and clinical outcomes in COVID-19 patients. // Clin. Microbiol. Infect. - 2020. -№26(9). – Р. 1259 е5-1259 е7.

Sandu R.E., Uzoni A., Coman C., Popa-Wagner A. Cerebral ischemia in the aged. Limited anti-inflammatory efficacy of the indomethacin treatment // Rom J Morphol Embryol. - 2015. - №56. – Р. 1111-1117.

Shekelle P.G., Newberry S.J., FitzGerald J.D., Motala A., O'Hanlon C.E., Tariq A., Okunogbe A., Han D., Shanman R. Management of Gout: A Systematic Review in Support of an American College of Physicians Clinical Practice Guideline // Ann Intern Med. – 2017. - №166(1). – Р. 37-51.

Yakubova L.K., Chirko M.Yu. , Makhsumov Sh.M., Zaytseva O.A. Some mechanisms of the anti-inflammatory action of the drug 3,4-bis-(2-bromobenzoyloxymethyl)-pyrazole // Bulletin of the Tashkent Medical Academy. - 2013. - No. 1. - P. 31-35.