Authors

  • L.M. Zakirova
    Andijan State Medical Institute, Uzbekistan
  • J.A. Nazarova
    Center for the Development of Professional Qualifications of Medical Workers of the Ministry of Health of the Republic of Uzbekistan, Uzbekistan

DOI:

https://doi.org/10.37547/TAJMSPR/Volume06Issue10-04

Keywords:

Chronic cerebral ischemia chronic obstructive pulmonary disease echocardiography

Abstract

This study examines the main echocardiographic parameters in patients with chronic cerebral ischemia (CCI) and analyzes how these parameters are influenced by the presence of concomitant chronic obstructive pulmonary disease (COPD). CCI, associated with reduced cerebral blood flow, can be exacerbated by COPD, which negatively affects cardiovascular and respiratory functions. The study evaluates key echocardiographic markers such as left ventricular ejection fraction, right ventricular function, and pulmonary artery pressure. The findings indicate that patients with both CCI and COPD exhibit more significant cardiac dysfunction, suggesting that COPD may worsen cardiovascular complications in CCI patients.


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PUBLISHED DATE: - 09-10-2024

DOI: -

https://doi.org/10.37547/TAJMSPR/Volume06Issue10-04

PAGE NO.: - 21-26

MAIN ECHOCARDIOGRAPHIC PARAMETERS
IN PATIENTS WITH CHRONIC CEREBRAL
ISCHEMIA DEPENDING ON THE PRESENCE
OF CONCOMITANT CHRONIC OBSTRUCTIVE
PULMONARY DISEASE


L.M. Zakirova

Andijan State Medical Institute, Uzbekistan

J.A. Nazarova

Center for the Development of Professional Qualifications of Medical

Workers of the Ministry of Health of the Republic of Uzbekistan, Uzbekistan

INTRODUCTION

According to the World Health Organization,
chronic obstructive pulmonary disease (COPD)
caused the death of 2.32 million people in 2019 [1].
Chronic inflammation, progressive emphysema,
and pulmonary hyperinflation lead to an increase
in the afterload on the right ventricle (RV) in
patients with COPD due to an increase in
pulmonary vascular resistance and a moderate
increase in systolic pressure in the pulmonary

artery (PA), which over time causes structural
changes in the right chambers of the heart and
right ventricular failure [1,2].

The first key provision of chronic obstructive
pulmonary disease (COPD) is a disease
characterized by significant extrapulmonary
manifestations that can further aggravate the
course of the disease in individual patients [4,5].
According to the results of a large study in patients

RESEARCH ARTICLE

Open Access

Abstract


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hospitalized for exacerbation of COPD, the
prevalence of comorbidity with

arterial

hypertension (AH) is 65.6% [4,5].

Aim

: To study the main echocardiographic

parameters in patients with chronic cerebral
ischemia depending on the presence of
concomitant chronic obstructive pulmonary
disease.

METHODS

Over a period of 3 years, patients were selected: 1)
patients with CCI stage II with concomitant COPD
(main group - MG); 2) patients with CCI stage II
without COPD (comparison group - CG). The
control group (CG) included 20 patients, 10 men
and 10 women, average age 63.1±6.4 years (Table
1).

The MG comprised 57 patients (47.5%) and the CG
comprised 63 patients (52.5%). As can be seen
from Table 1, the MG had a predominance of males
- 34 (59.6%) versus females - 23 (40.4%) (p <
0.05). In the CG, there was a predominance of
women - 36 (57.1%), the proportion of men was

42.9% (p < 0.05). The groups were dominated by
elderly people according to WHO, 2022.

The diagnosis and stages of CIM were established
according to the generally accepted criteria for the
Republic after conducting thorough clinical,
neurological,

neuropsychological

and

instrumental (duplex scanning, MRI of the brain)
studies (3).

The diagnosis of COPD was made on the basis of
complaints (shortness of breath, cough with
sputum), clinical picture of the disease, anamnestic
data (presence of risk factors), results of physical
and

laboratory

examination

methods,

instrumental data (measurements of airflow
limitation (spirometry) - the ratio of FEV1 / FVC <
70%; post-bronchodilator value of FEV1 less than
80% of the expected) in accordance with the

“Global strategy for the diagnosis, treatment and

prevention of chronic obstructive pulmonary

disease” (National Heart, Lung, and Blood
Institute; revision 2008) and the “Respiratory

Med

icine Guidelines” (6).

Table.1.

Distribution of patients by groups, gender and age

Groups

gender

Age, WHO, 2022

60 - 74 years

old

75 - 90 years

old

total

M

abs

13

21

34

MG

%

38,2%

61,8%

59,6%

n=57

F

abs

9

14

23

%

39,1%

60,9%

40,4%

total

abs

22

35

57

%

38,6%

61,4%

47,5%

M

abs

9

18

27


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CG

%

33,3%

66,7%

42,9%

n=63

F

abs

12

24

36

%

33,3%

66,7%

57,1%

total

abs

21

42

63

%

33,3%

66,7%

52,5%

M

абс

22

39

61

Total

%

36,1%

63,9%

50,8%

n=120

F

abs

21

38

59

%

35,6%

64,4%

49,2%

total

abs

43

77

120

%

35,8%

64,2%

100,0%

Note: OG - main group; CG - comparison group; m - men; f - women; abs - absolute

values; WHO - World Health Organization.

All patients underwent a standard clinical and
neurological examination (analysis of patient
complaints, life history and medical history,
objective examination, including study of
neurological status) and somatic examination.

Electrocardiography was performed in 3 standard
and 6 chest leads with the assessment of the
following parameters: signs of right heart
hypertrophy, signs of left heart hypertrophy, signs
of combined lesions. All patients underwent
echocardiography (ECHOCG) (Vivid 9, GE
Healthcare, USA). The following parameters were
assessed using the apical four- and two-chamber
position: sizes of the right and left atria (RA and
LA), right and left ventricles (RV and LV), mean
PAP, end-diastolic volume (EDV) and end-systolic
volume (ESV) of the LV, ejection fraction (EF)
according to Simpson, LV diastolic dysfunction
parameters (LVD).

Statistical processing of the research results was

carried out using variation statistics methods
using Microsoft Office Excel-2019 programs.

RESULTS

In order to identify signs of overload and/or
hypertrophy of the right heart, all patients
underwent such studies as ECG and ECHO-CG. On
ECG, signs of hypertrophy of the left heart were
detected in 54 (94.7%) patients of the MG, 48
(76.2%) patients of the CG. Signs of hypertrophy of
the right heart: MG - 32 (56.1%) patients, CG - 5
(7.9%) patients, data for hypertrophy of the right
and left heart - in 7 (13.2%) patients of the MG, 0
(0.0%) patients of the CG. Reliable differences
were revealed among patients of the MG and CG
(p> 0.05).

The systolic pressure in the pulmonary artery
(SPPA), measured by echocardiography, averaged
42.4±33.7 mm Hg. Increased systolic pressure in
the pulmonary artery and hypertrophy of the right


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heart were significantly more common in the MG.

Figure 1. Percentage of identified patients with elevated pressure (more

than 30 mm Hg) in the pulmonary vein

A mean pulmonary artery pressure (MPAP) of
more than 20 mm Hg was considered
characteristic of pulmonary hypertension. An
increase in MPAP in the MG was detected in 38
people (66.7%). The MPAP level varied from 21.7
to 34. In the CG, MPAP was initially within the
normal range

17.3+1.4 mm Hg.

Echocardiography to assess primarily the right

heart and pulmonary artery pressure. The
echocardiography results in the groups are
presented in Table 2. As can be seen from Tables 2
and 3, statistically significant differences between
the parameters were recorded when assessing the
left ventricular end-systolic size, interventricular
septum thickness, LV myocardial mass index, atrial
areas, and some right ventricular dimensions
(p<0.05).

Table 2

Main echocardiographic parameters of the left heart chambers in patients

with chronic myocardial infarction depending on the presence of

concomitant COPD

Indicators

ОГ, п=57

ГС, п=63

р<

0

20

40

60

ОГ, п=57

ГС, п=63

49.2

31.5

Signs of increased pulmonary artery pressure over

30 mm Hg (%)


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LV EDS, cm

5,1±0,49

5,2±0,78

LV ESR, cm

3,2±0,41

3,4±0,67

0,05

T MZhP, cm

1,18±0,13

1,24±0,22

0,05

T ZS, cm

1,13±0,10

1,15±0,16

OTM, units

0,46±0,04

0,46±0,07

LV IMM, g/m2

109,0±17,2

117,9±20,2

0,05

LVEF according to Simpson,
%

60,2±4,5

55,7±14,9

S LP, cm2

15,5±3,1

19,5±5,05

0,05

As mentioned earlier, one of the objectives of the
study was to identify predictors of myocardial
damage in patients with a high risk of apnea
syndrome. For this purpose, the method of
stepwise regression analysis was used. According
to the regression equations, the degree of risk of
apnea syndrome participated as an independent
predictor both in the development of pathological

remodeling of the heart and in the processes of
diastolic dysfunction of the right ventricle.

The contribution of dynamic obstruction of the
upper respiratory tract during sleep to the process
of pathological remodeling was also indirect,
through the development of nocturnal systolic
hypertension and changes in the morning
dynamics of blood pressure.

Table 3

Main echocardiographic parameters of the right heart chambers in patients

with chronic myocardial infarction depending on the presence of

concomitant COPD

Indicators

MG ,
п=57

CG, n=63

р<

PJ-lax, cm

2,9±0,27

3,1±0,32

0,05

PJ-sax, cm

2,5±0,28

2,5±0,43

PJ-diam.base, cm

3,8±0,37

4,1±0,71

0,05

S PP, cm2

16,5±4,6

18,9±5,7

0,05

FI-S PJ,%

47,4±12,8

51,3±9,5

TAPSE, cm

2,3±0,54

2,1±0,5

LA, cm

2,1±0,19

2,1±0,18

Average pressure in the pulmonary artery, mm
Hg.

28,4±4,74

29,5±5,98

0,05


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CONCLUSION

In patients with OH, a slight relative dilatation of
the RV and RA, diastolic dysfunction of the LV, a
decrease in Sm of the fibrous ring of the mitral and
tricuspid valves is detected; diastolic dysfunction
of the RV, RV hypertrophy is formed. According to
the regression equations, the degree of risk of
apnea syndrome appeared as an independent
predictor in the development of pathological
remodeling of the heart, and in the processes of
diastolic dysfunction of the RV.

REFERENCES

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Alekhine M.N. Ultrasound methods for
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References

Akramova E.G., Struchkov P.V., Khamitov R.F., Bakirov R.S. Electro- and echocardiographic signs of pulmonary heart disease in patients with chronic obstructive pulmonary disease with concomitant arterial hypertension. Pulmonology. 2013;(4):46-51

Alekhine M.N. Ultrasound methods for assessing myocardial deformation and their clinical significance. Moscow: Vidar; 2011.

Suslina Z.A., Varakin Yu.Ya., Vereshchagin N.V. Vascular diseases of the brain. - Moscow: MEDpress-inform, 2015. - 356 p.

Almagro P., López F., Cabrera F.J. et al. Comorbidities in patients hospitalized due to chronic obstructive pulmonary disease. A comparative analysis of the ECCO and ESMI studies. Rev. Clin. Esp. 2012; 212 (6): 281-286.

Nazarova J.A. Cerebral hemodynamics in patients with cerebral venous disfunction. // European science review. -Austria, 2018. -№ 1–2. Volume 2. -pp. 172–175. (14.00.00; №19).

Chuchalin A.G., Avdeev S.N., Aysanov Z.R., Belevskiy A.S., Leshchenko I.V., Meshcheryakova N.N., Ovcharenko S.I., Shmelev E.I. Russian respiratory society. federal guidelines on diagnosis and treatment of chronic obstructive pulmonary disease// J. Pulmonologiya. -2014. -№3 -P.15-54. https://doi.org/10.18093/0869-0189-2014-0-3-15-54