» The comfort of the environment is manifested through. The comfort of the environment for human activities. Recommended list of dissertations

The comfort of the environment is manifested through. The comfort of the environment for human activities. Recommended list of dissertations

1. Security and comfort of human interaction with the environment

2. Influence of the microclimate

3. Ventilation and air conditioning

4. Heating

5. Frostbite of tissues

1. Security and comfort of interaction with the environment.

Man and the environment interact only under conditions when the flows of energy, matter and information are within the limits favorably perceived by man and the natural environment. The interaction of a person with the environment can be positive or negative, the nature of the interaction is determined by the flows of substances, energies and information. Any excess of the usual levels of flows is accompanied by negative impacts on humans or the natural environment. In the conditions of the technosphere, negative impacts are caused by elements of the technosphere (machines, structures, etc.) and human actions. By measuring the value of any flow from the minimum significant to the maximum possible, one can

go through a number of characteristic states of interaction in the system " man-environment habitat": - comfortable(optimal) when the flows correspond to the optimal conditions of interaction: they create optimal conditions for activity and rest; prerequisites for the manifestation of the highest working capacity and, as a result, the productivity of activity; guarantee

preservation of human health and integrity of habitat components.

-admissible when flows, affecting a person and the environment, do not have a negative impact on health, but lead to discomfort, reducing the efficiency of human activity.

Compliance with the conditions of permissible interaction guarantees the impossibility

the emergence and development of irreversible processes in humans and in the environment.

-dangerous when the flows exceed the allowable levels and have a negative impact on human health, causing diseases in the long-term interaction, and / or lead to the degradation of the natural environment.

-extremely dangerous when the flows are high

levels in a short period of time can cause injury, lead to death, cause disturbances in the natural environment.

Of the four characteristic states of human interaction with the environment, only the first two (comfortable and acceptable) correspond to positive conditions

daily activities, and the other two (dangerous and extremely dangerous) are unacceptable for the processes of human life, conservation and development

natural environment. Therefore, maintaining a comfortable and/or acceptable state is a way to increase the security of a person.

The comfortable state of the living space in terms of microclimate and lighting is achieved by compliance with regulatory requirements. As

comfort criteria set the values ​​of the air temperature in the premises, its humidity and mobility, compliance with regulatory requirements for

artificial lighting of premises and territories.

2. Influence of the microclimate.

Parameters - the temperature of surrounding objects and the intensity of physical heating of the body characterize a specific production environment and

are of great variety. The remaining parameters are temperature, speed, relative humidity and atmospheric pressure of the ambient air.

- received the name of microclimate parameters.

The parameters of the microclimate of the air environment, which determine the optimal metabolism in the body and in which there are no unpleasant sensations and tension in the body's thermoregulation system, are called comfortable or optimal.

Conditions under which the normal thermal state of a person is violated are called uncomfortable. Methods to reduce the adverse effects of, first of all, the industrial microclimate are carried out by a complex of technological, sanitary, organizational and medical and preventive measures: ventilation, thermal insulation of the surfaces of heat radiation sources (furnaces, pipelines with hot gases and liquids), replacement of old equipment with more modern ones, application collective means of protection (shielding of workplaces or sources,

air showers, etc.), etc.

One of the necessary conditions for normal human life is to ensure normal conditions in the premises, which have a significant impact on the thermal well-being of a person. Meteorological conditions or microclimate depend on the thermophysical features of the technological process, climate, season, heating and ventilation conditions.

Human activity is accompanied by a continuous release of heat into the environment. Its amount depends on the degree of physical stress in

certain climatic conditions and ranges from 85 J / s (at rest) to 500 J / s (during hard work). The heat transfer of the human body is determined by the temperature of the surrounding air and objects, the speed of movement and the relative humidity of the air. In order for the physiological processes in the body to proceed normally, the heat released by the body must be completely removed to the environment. Violation of the thermal balance can lead to overheating or hypothermia of the body and, as a result, to loss

disability, fatigue, loss of consciousness and heat death.

One of the important indicators of the thermal state of the body is the average temperature of the body (internal organs) of the order of 36.5 degrees C. It depends on the degree of violation of the heat balance and the level of energy consumption during the performance of physical work. When performing moderate and heavy work at high air temperature, body temperature may rise from several

tenths of a degree to 1.2 degrees C. The highest temperature of the internal organs that a person can withstand is +45 degrees C, the minimum is +25 degrees C. main

skin temperature plays a role in heat transfer. Its temperature varies within fairly significant limits and under normal conditions the average temperature of the skin under clothing is 30.34 degrees C. With unfavorable

meteorological conditions in certain parts of the body, it can drop to 20 degrees C., and sometimes even lower.

Heat exchange between a person and the environment is carried out by convection as a result of washing the body with air, thermal conductivity, radiation to the surrounding surfaces and in the process of heat exchange during the evaporation of moisture, which is removed to the surface of the skin by sweat glands and during breathing.

Together with sweat, the body loses a significant amount of mineral salts (up to 1%, including 0.4.0.6 NaCl). Under unfavorable production conditions, the loss

liquids - 8-10 liters per shift and in it up to 60 gr. table salt (in total, about 140 g of NaCl in the body). Blood loss deprives the blood of its ability to retain water and leads to impaired cardiovascular activity.

systems. Also, at high temperatures, carbohydrates, fats are easily consumed, proteins are destroyed, which can also lead to negative consequences. It is considered acceptable for a person to reduce his weight by 2-3% by evaporation of moisture - dehydration of the body. Dehydration by 6% leads to a violation

mental activity, decreased visual acuity; evaporation of moisture by 15-20% leads to death. To restore the water balance of those working in conditions of elevated temperature, replenishment points with salted (about 0.5% NaCl) carbonated water are installed. In some cases, a protein-vitamin drink is used for this purpose. In hot climates, it is recommended to drink chilled water or tea.

Normal thermal well-being takes place when the heat release of a person is completely perceived by the environment, because. then there is a thermal

balance. In this case, the temperature of the internal organs remains constant.

If the body's heat production cannot be fully transferred to the environment, the temperature of the internal organs rises, and such a thermal well-being is characterized by the concept of "hot". Overheating leads to hyperthermia - overheating of the body above the permissible level (up to 38-39 degrees C), with the same symptoms as those of heat stroke. In the case when the environment perceives more heat than it is reproduced by a person, then the body cools down (cold). Prolonged exposure to low temperature, high mobility and humidity of the air can cause cooling and even hypothermia of the body - hypotemia.

The thermal insulation of a person at rest (rest sitting or lying down) from the environment leads to an increase in the temperature of internal organs by 1.2 degrees C after 1 hour. The thermal insulation of a person doing moderate work will cause an increase in temperature already by 5 degrees C. and come close to the maximum allowable.

Thermal well-being of a person, heat balance in the system man - env. The environment depends on the ambient temperature. environment, mobility and relative humidity

air, atmospheric pressure, temperature of surrounding objects and the intensity of physical heating of the body. Exposure to too low temperatures can lead to frostbite of human tissues, and exposure

too high temperatures - to burns.

Comfort and discomfort, concepts that reflect the degree of conformity of the conditions of the environment in direct contact with a person to his needs for good rest, the acquisition of psycho-emotional (“spiritual”) and functional balance by him.

The problem of comfortable and uncomfortable conditions has long been considered and often continues to be considered narrowly - in relation to the totality of available household amenities: the livability of dwellings, some public buildings and structures (for example, hotels, baths, sanatoriums, hospitals, entertainment), the volume and quality of services, rendered by institutions of service of a life. However, such, although legitimate, but rather one-sided approach is not able to provide a proper understanding of comfort and discomfort as a broader conditional measure of biomedical and socio-psychological favorable environmental conditions for maintaining and strengthening physical, mental and social health. person. This can only be achieved if the utilitarian living conditions of a person are considered and evaluated in close connection with the social and natural factors affecting him. It is the analysis of the totality of household, social and natural factors that affect a person that constitutes an objective basis for assessing the comfort of the conditions of his stay in it. The subjective imprint on such an assessment is left by individual characteristics, requests and needs (physiological, mental, social) of a particular person, associated with his personal perception and assessment of the surrounding reality: in the same environment, one person is able to feel like a fish in water , to experience a feeling of comfortable being in it, the other is to evaluate it as uncomfortable, annoying (for example, a northerner in the hot south, a southerner in the north). The latter, however, does not exclude the presence of some averaged minimum of environmental requirements common to all people. deviation from which is accompanied by the emergence of a feeling of discomfort, dissatisfaction and other factors that can bring the body out of a state of equilibrium with possible negative consequences for health (not only physical, but also mental, moral).

In historical terms, with the development of society (social, scientific, technical, spiritual), the lower limit of this minimum and the breadth of ideas about it inevitably increased: much that seemed exceptionally comfortable in past eras lost its significance and appreciation in the future, while expanding the spectrum " the benefits of civilization” included in the understanding of comfort (for example, a modern person cannot give preference to the most comfortable and cozy carriage of the 19th century over the comfort provided by the cabin of a modern car, or the conveniences of a yurt or an ordinary hut over the conveniences of a modern residential building).

Comfortable living conditions

To date, the possibility of creating comfortable conditions for human life has reached such a level that the latter are often assessed as “hothouse” and, in a number of ways, negative for human health due to their artificiality, isolation of a person from the natural conditions in which he was originally formed and evolved. It should be recognized that “comfort beyond measure”, manifested, for example, in such a phenomenon as “thingism”, is not as harmless to a person as the discomfort of material and psychological disorder. This is indirectly reflected in the demographic situations that have developed in many developed countries (an increase in the birth rate until their population reaches a certain level of material and living conditions and well-being, followed by its decline with a further increase in well-being), an increase in the incidence of people due to the evolutionary unpreparedness of the human body for the action of many surrounding man-made factors (new chemicals, energy, physical radiation; for example, the “comfort” created by the TV can turn into eye diseases), a decrease in physical activity (physical inactivity), an increase in the number of people who are overweight or obese. Consequently, only those conditions and the microenvironment surrounding a person that provide opportunities for a healthy lifestyle can be recognized as objectively comfortable.

From a medical point of view, comfort is understood as a combination of a complex of hygienically favorable working and rest conditions. Comfortable conditions imply the creation of optimal environmental conditions for a person, conducive to active, efficient work and rest.

The constituent components that form comfortable living conditions for a person are, first of all, the microclimate of the premises, clean air, rationally organized lighting, silence, general living conditions, and the interior of the home. A special place in the creation of comfortable working and living conditions is given to the microclimate of the premises, which refers to temperature and humidity, as well as the speed of its movement.

Comfort temperature

In our country, optimal microclimate values ​​have been developed and used in the design and construction of housing in relation to various climatic zones. So, for northern latitudes during the cold season, the temperature in residential premises should be 21-22 ° C, and in temperate and southern latitudes, respectively, 18-20 ° C. Permissible air humidity for all climatic zones - 30-60%, air speed 0.1-0.25 m/sec. The conditions of human comfort when staying indoors are largely determined by the air regime. To maintain the necessary air exchange, it is enough to enter the room with 30 m3/hour of air per adult and 20 m3/hour per child. To ensure air comfort in residential premises, the electrical state of the air environment is of particular importance. Optimal, from a hygienic point of view, is such an air environment, in 1 cm3 of which there are from 1500 to 3000 positive and from 3000 to 5000 negative light ions. An increase in the number of heavy ions in the air is a sign of a deterioration in the air regime of the premises.

Comfortable sound background

An important component of comfort is silence. A set of architectural, planning and organizational measures provides for the maintenance of noise levels in dwellings that do not harm the health and well-being of citizens. The permissible noise level in apartments during the daytime (from 7 am to 11 pm) is a noise intensity equal to 40 decibels (dB), and at night - 30 dB. Decibel - relative physical quantity noise intensity measurements.

Comfort lighting

The light regime of the dwelling also has a great influence on the well-being of a person, his working capacity, and general vitality. Light comfort in modern dwellings is supported by a combination of a certain level of natural (daylight) and artificial lighting. As a criterion for assessing the level of natural light, the coefficient of natural light (KEO) is taken, which is the ratio of the illumination created inside the room to the illumination from the outside. For most territories, KEO in residential premises should be from 0.4 to 0.5%.

Artificial lighting is important for a person, because it is almost impossible to do without it. The main hygienic requirements for artificial lighting are to ensure that it is sufficient and of good quality. The normalized values ​​of artificial illumination are 100 lux (lux) for living rooms and kitchens, 50 lux for corridors, bathrooms, toilets. The blinding effect of the light source on the organ of vision is unacceptable. For these purposes, lamps of various designs are used. Light should be evenly distributed throughout the room. Both incandescent lamps and low-pressure fluorescent lamps of the LD or LB type can be used as a light source.

In everyday life, ideas about the rational comfort of a person’s stay in a particular environment are realized through the use of its real, health-friendly preventive, restorative, therapeutic, aesthetic qualities both directly by specific people (household arrangements) and through the social and production structures of society (medical - biological substantiation of ideas about comfort and discomfort, solving social problems, establishing the production of consumer goods, improving the sphere of consumer services for the population). Life outside the sphere of production is the main area where individual actions of a person are carried out to create comfortable conditions in accordance with personal ideas about them. Discomfort in everyday life is the soil and an important source for the formation of stress-distress states of the body. Comfortable living conditions imply at least a good sanitary and hygienic condition of residential and utility rooms, their well-being, rational layout and equipment with the necessary furniture and household appliances, comfort and good conditions for recreation and domestic work. However, this purely practical aspect of comfort may lose all its value if it is not supplemented with conditions that provide a favorable psycho-emotional environment in the family - the proper nature of family relations and a culture of communication. highly moral personal qualities family members, i.e. all topics. which provides a good moral and psychological atmosphere at home and outside. The latter is able to give a feeling of comfort, elation, cheerfulness and optimism, even in far from the best living conditions. And vice versa, even the most comfortable, equipped with everything necessary "mansions" cannot remove the action that is destructive to health and the feeling of discomfort if people who have lost respect for each other, who are socially and psychologically incompatible with each other, stay together in them.

The value of comfortable housing conditions for human health can be significantly reduced if their "greenhouse" side encourages him to passive pastime. and increase if the time freed up due to household arrangements and home appliances is used by him for physical and spiritual self-improvement. Society improves the comfort of dwellings through the introduction of scientifically based building codes and regulations, the introduction of supervision over the implementation of sanitation and hygiene requirements, the implementation of programs for the development of housing construction, healthcare, the service sector and the production of cultural and household goods, the creation of conditions for the introduction of a healthy lifestyle into everyday life . It also takes on the main burden of caring for creating comfortable conditions for psycho-emotional unloading, physical improvement and strengthening human health in conditions of production and stay outside of homes. The range of such concerns, for example, includes issues of planning and improvement of populated areas (communal hygiene), combating environmental pollution, arranging recreation, developing and improving the material and technical base for physical education, sports and tourism, and others that help a person to feel its physical and social usefulness, to achieve in its development the proper harmony and a sense of unity with its environment.

The article was prepared and edited by: surgeon

The quality of human life depends on many factors. But in most cases, good health and mood, as well as high performance is determined by only a few conditions. And with the proper desire, almost everyone can provide them. But in the conditions of labor activity, this task falls on the shoulders of the leaders and organizers of the work process. So the topic of our conversation today will be comfortable conditions for human life. Let's talk about it, as well as about what the comfortable living conditions of a person are in general in a little more detail.

Man is a complex organism that can exist only in special environmental conditions that allow internal tissues and organs to maintain balance. However, the influences of the external world are constantly changing, which forces our body to respond to them accordingly. To mitigate their negative influence, people have to create comfortable living conditions for themselves: cost housing, use clothes, various equipment, for example, air conditioners, fans, heaters, etc. It should be noted that when moving quickly from country to country and to different climatic zones, it is more difficult for the body to maintain the constancy of the internal environment. What conditions can be considered comfortable for life?

For all the time of historical development, people have adapted to special conditions, we are accustomed to living in a familiar, native place. Such adaptability is expressed in differences in skin color, in the section and color of the eyes, as well as in the structure of the body and the characteristics of the course of metabolic processes. Therefore, the characteristics of the surrounding world, in which people feel comfortable, are different.

So in the conditions of the middle zone, most people maintain optimal health, and their heat exchange takes place at an adequate level at temperatures from 17.3C to about 21.7C. This is the average for a naked person. And in clothes, the comfort parameters are somewhat different - from 16.7C to about 20.6C. If a person lives in the north or in the south, then the limits of comfort, respectively, look different.

As for comfortable living conditions in the room, they are possible at a temperature of 18-20C and at a relative humidity of 40-60%.

It is worth noting that high temperature has a less negative impact on human comfort with higher air dryness. However, if the relative humidity drops to 30% or less (for example, in the mountains or in the desert), the skin and mucous membranes begin to dry out in a person, discomfort also appears in the throat and nose, cracking of the lips occurs.

However, for certain people, dry air can be comfortable and beneficial, for example, with kidney diseases. Indeed, in conditions of heat and dryness, the load on the kidneys decreases, since the function of excretion is mostly the skin. However, intense heat - at 40-45C - is a serious burden for other systems and organs of the human body, especially for the heart and blood vessels.

As for too high humidity, this condition also makes life uncomfortable. If this indicator increases to 60% or more, sweat appears on the human skin, which does not disappear. And in the room there is dampness of surrounding objects.

Elevated air temperature combined with high relative humidity creates especially uncomfortable living conditions for people.

Human sensations also depend on the movement of air masses. The comfortable or uncomfortable effect of wind on the human body depends on its strength, as well as on the ambient temperature and on the relative humidity of the air. In addition, the level of comfort in the wind is affected by the terrain and time of day. If the air temperature is close to zero or even lower, and the humidity level is quite high, hypothermia may develop. In the event that such conditions are supplemented by a cold wind, the cooling is greatly enhanced and causes chills. However, in the heat, a slight breeze brings relief.

It is worth noting that absolutely identical environmental influences can be perceived differently by people living in different settlements, or at different times of the year. For example, the same temperature and humidity in autumn can be perceived as warm, and in spring as cold.

Also, in the same weather, the physiological parameters of the body (heat production, sweating, etc.) can differ between immobile people and those who are in a state of physical activity.

Comfortable living conditions in the workplace


Many people experience disruption of comfortable life while doing work. Fortunately, the legislation clearly states what working conditions should be, and they depend on the characteristics of production. The employer must monitor compliance with SanPiN (sanitary norms and rules) and provide its employees with the most comfortable working conditions.

To achieve them, they resort to airing, heating, ventilation (including mechanical and aeration). Air conditioning can be provided. Ensuring sufficient lighting - artificial and natural - also plays an important role.

It must be remembered that insufficiently comfortable working conditions cause, which in turn significantly impairs performance.

Thus, the comfort of human life depends on many factors, most of which can be controlled and regulated.

Folk recipes

Insufficiently comfortable living conditions can cause a number of unpleasant symptoms and even serious health disorders. So low relative humidity and work in unsuitable conditions (for example, in dusty rooms) can lead to drying out of the eyes. It is not easy to get rid of such an unpleasant symptom - you need to contact an ophthalmologist, you can also resort to the use of traditional medicine.

So you can cope with unpleasant dryness with the help of ordinary chamomile. Brew a couple of crushed flowers of this plant with one glass of boiling water. Cool such a tool under the lid, then strain. Use the finished medicine for applying lotions: just blot a couple of cotton pads with it and apply them to closed eyelids for at least a quarter of an hour.

Dry eyes can be treated with regular green tea. Pour forty grams of tea leaves with a glass of only boiled water. Infuse this medicine under the lid for one hour. After that, strain the finished drink and also use it for applying and lotions, and for washing the mucous eyes.

You can cope with the problem of dry eyes with the help of homemade drops. To prepare them, it is necessary to heat fifteen grams of honey in a water bath until dissolved. Pour thirty milliliters of warm, pre-boiled water into the container and mix well. Use the agent for instillation into the conjunctival sac. Repeat this procedure every day for one week. To make the medicine even more effective, add five milliliters of freshly squeezed aloe juice to it.

To treat excessive dry eyes, you can prepare a medicine based on ordinary potatoes. Peel fresh tubers from the peel, then rinse them in water and grate on a small grater. Squeeze the juice from the resulting mass and apply it on the eyelids for seven to twelve minutes. To make the medicine more effective, add a couple of drops of freshly squeezed dill juice to the vegetable gruel.

Thus, ensuring comfortable living conditions plays an extremely important role in maintaining normal health and performance, as well as in preventing various health disorders.

The concept of health was formulated in antiquity: "This is a state of mental and physical well-being, which gives a person the opportunity to endure any life's hardships without losing self-control" (Pericles, V century BC). Human health depends on the state of the environment, in which natural-ecological, socio-ecological and other factors operate. Population or public health should be distinguished from individual health, which is characterized by such indicators as average life expectancy, natural increase, infant mortality, etc.

1. Natural and environmental factors. Their impact has changed in the history of man's relationship with the natural environment. For a man of the Paleolithic era, the main causes of death were injuries received while hunting and in skirmishes with other people, and hunger was in second place, and his average life expectancy did not exceed 26 years. Lack of food limited the number of people living together: Homo sapiens lived in small groups - 20-25 people, and only by the end of the Paleolithic did the groups of Wise Man grow up to 50-70 people.

The comfort of life was determined by such abiotic factors as temperature(40% of the world's population lives in the temperate deciduous forest zone); illumination(man, like his ancestors, primates, is a daytime sun-loving creature); set of trace elements– (there are areas with different contents of microelements - natural biogeochemical provinces, for example, in the mountains there is not enough iodine, which causes endemic goiter, in other areas there is a deficiency of metals Fe, Mg, Mn, which leads to anemia, etc.), combination of climatic factors(man from the very beginning settled near aquatic ecosystems: river civilizations, later marine, and now oceanic); daily allowance And seasonal factors.

2. Socio-ecological factors. In the twentieth century the influence of the artificial, urbanized environment, the “second nature”, which creates its own diseases associated with physical inactivity, overeating, and psycho-emotional stress, is increasing. In this regard, “diseases of the century” appeared - cardiovascular, oncological, allergic, mental diseases, AIDS.

Environmental factors of the urban environment have the greatest impact on: 1) acceleration - an increase in size and body and earlier puberty, which is probably associated with improved physical living conditions; 2) biological rhythms - the daytime lifestyle is replaced by a night one due to electric lighting, which lengthens the day, which is fraught with mental disorders and sleep disorders; 3) allergization associated with disorders of the immune system and the appearance of a large number of artificial compounds and pollutants; 4) an increase in oncological diseases, which are the result of intracellular mutations as a result of exposure to carcinogens, various radiation, oncoviruses; 5) an increase in the number of overweight people; 6) an increase in the proportion of newborns with low levels of physical maturity, which is an indicator of an extremely unfavorable state of the environment; 7) the emergence of new infectious diseases: influenza appeared at the beginning of the 20th century, AIDS appeared in the 1980s, later epidemics of hepatitis A, B and C, “SARS”, “bird flu”, etc.

  • Specialty HAC RF11.00.14
  • Number of pages 362

Chapter 1. THEORETICAL FOUNDATIONS OF REGIONAL POPULATION HEALTH MONITORING AND ENVIRONMENTAL COMFORT ASSESSMENT.

1.1. Regional monitoring of public health as a condition for ensuring environmental safety.

1.2. Ecological bases of human adaptation and pathogenesis.

1.3. Geoecological risk factors for public health.

1.4. Approaches to regional assessment and modeling of environmental comfort.

1.5. Information technologies in evaluation and monitoring medical-geographical research.

Chapter 2. RESEARCH METHODOLOGY,

INFORMATION RESOURCES AND ALGORITHMS.

2.1. Objects, directions and stages of research.

2.2. Information resources for health risk assessment and provision of regional medical-geographical monitoring

2.2.1. Information support for monitoring the health of the population of an industrial-agrarian region.

2.2.2. Information support for monitoring the health of the population of a large industrial city.

2.3. Methods for assessing links in the "environment-health" system and calculating integral medical-geographical criteria.

2.4. Principles of integrated medical-geographical zoning and creation of regional models of environmental comfort.

Chapter 3

ON THE EXAMPLE OF THE CENTRAL BLACK EARTH REGION).

3.1. Comprehensive characteristics of the health status of the population.

3.2. Regional assessment of health risks associated with environmental factors.

3.2.1. Risk assessment due to natural factors.

3.2.2. Risk assessment due to socio-economic factors.

3.2.3. Risk assessment due to health factors.

3.2.4. Assessment of risk caused by environmental comfort factors.

3.3. Medical-geographical ranking.

3.3.1. Ranking of risk factors.

3.3.2. Ranking criteria for the state of health of the population.

3.4. Comprehensive medical-geographical zoning according to the comfort of the environment.

Chapter 4. ASSESSMENT OF THE MEDICAL AND GEOGRAPHICAL SITUATION AND MODELING OF THE COMFORT OF THE HABITAT OF URBANIZED REGIONS.

4.1. Assessment of the medical and geographical situation in large industrial cities.

4.1.1. Krasnodar.

4.1.2. Tambov.

4.1.3. Rossosh, Voronezh region.

4.1.4. Voronezh.

4.2. Factors of comfort and medical and ecological zoning of the urban environment.

Chapter 5. GEOECOLOGICAL FOUNDATIONS OF FORMING AUTOMATED SYSTEMS OF POPULATION HEALTH MONITORING AND MEDICAL AND GEOGRAPHICAL ASPECTS OF REGIONAL ENVIRONMENTAL POLICY.

5.1. Conceptual model of medical-geographical monitoring.

5.2. Regional levels of environmental comfort and ecological bases of population pathogenesis.

5.3. Medico-geographical aspects of regional environmental policy and evaluation of its effectiveness on the example of the Voronezh region).

Recommended list of dissertations

  • Integral assessment and mapping of the geoecological situation of the region of intensive industrial and agricultural development: On the example of the Voronezh region 2006, candidate of geographical sciences Kuprienko, Vladimir Yurievich

  • Geoecological diagnostics of the state of the urban environment: On the example of the city of Voronezh 2003, candidate of geographical sciences Skrynnikova, Miroslava Vasilievna

  • Formation of environmental risk zones in an industrialized city: on the example of the city of Voronezh 2007, candidate of geographical sciences Yeprintsev, Sergey Aleksandrovich

  • Geoecological assessment of the quality of drinking and recreational water use in the territory of the Near Podvoronezhye 2009, candidate of geographical sciences Korchagina, Victoria Alexandrovna

  • Hygienic assessment of the contribution of environmental factors to the formation of oncological morbidity (on the example of the Voronezh region) 2006, candidate of medical sciences Roslyakov, Andrey Ivanovich

Introduction to the thesis (part of the abstract) on the topic "Geoecological bases for monitoring the health of the population and regional models of environmental comfort"

The urgency of the problem. Maintaining a favorable, i.e. a comfortable living environment is the most important condition for ensuring environmental safety and achieving sustainable socio-economic development of society. As emphasized in the WHO Global Strategy for Health and Environment (1993), successful implementation of this task is possible only on the basis of the creation of regional systems for monitoring the environment and health of the population. For Russia, with its unstable economy, deteriorating medical and demographic situation, and deepening environmental degradation in most agricultural and industrialized regions, this problem is especially important and relevant.

Developed in the 70s - early 80s. I.P. Gerasimov /43/, Yu.A. Israel /79/ and developed in the works of B.V. Vinogradova /32/, N.F. Reimers /215/, R.E. Munn /134, 332/ conceptual approaches to monitoring the human environment in the 90s. were logically supplemented with a medical and environmental component. This awareness was largely promoted as fundamental achievements in the field of human ecology, substantiated in the works of A.P. Avtsyna /2/, N.A. Agadzhanyan et al. /3, 87/, A.G. Voronova /34/, V.P. Kaznacheeva /83, 84/, A.A. Keller /88, 219/, S.M. Malkhazova /132/, B.B. Prokhorova /199, 201/, B.C. Preobrazhensky, E.JI. Reich /189, 206/, and the results of regional applied research in geoecology and medical geography /34, 47, 133, 143, 164, 219, 229, 259, 263, 277/. At present, it is already obvious that an effective environmental policy is based on the priority of public health, as the focus reflects the entire range of adverse environmental impacts on humans.

According to the prevailing ideas, "environment-health" monitoring is defined as a system of organizational, technical and preventive measures that ensure the monitoring of the state of the environment, the health of the population, their assessment and forecasting, as well as actions aimed at identifying, preventing and eliminating the influence of harmful environmental factors. habitat (risk factors) on public health. The center of gravity in solving a wide range of issues of ensuring environmental control, monitoring and safe development of society is moving to the regional level. In recent years, against the background of environmental degradation in many industrialized regions of the country, an increase in the incidence of the population has been observed, which correlates with the level of anthropogenic disturbance of the natural environment. In connection with the growing threat to life safety, it is especially important to identify geoecological risk factors for public health, develop methods for assessing health risk, and create regional models of living environment comfort.

These problems are quite acute for the majority of urbanized and industrial-agrarian regions of the country, where more than 60% of the population of Russia lives. In connection with the development of monitoring approaches in the system of environmental control and in the management of environmental quality /1, 79, 249/ certain progress has been made in the development of organizational, technical, informational bases for regional monitoring of public health. A number of specific studies carried out on the basis of the largest regions and industrial centers of European Russia, Siberia and the Far East show the prospects for computer modeling and the use of automated systems to ensure monitoring of public health based on parallel monitoring of environmental quality and public health /41, 47, 73 , 190, 195/. In connection with the development of information technology, the possibilities for the practical implementation of such systems are increasingly expanding.

Various data on the dependence of the state of health of the population on the quality of the environment and socio-economic conditions have been accumulated in domestic and foreign literature. At the same time, a narrow sectoral approach prevails in this subject area, which consists in the analysis of any group of diseases or particular risk factors. Data on the correlation of pollution, other environmental factors and public health are often contradictory and not statistically substantiated. The issue of integral criteria for the medical-geographical well-being of the region and its environmental comfort has been poorly developed. Approaches to complex medical-geographical ranking and territorial zoning remain insufficiently substantiated and debatable. The mechanisms of cause-and-effect relationships in the environment-health system, which are formed under the influence of a complex of natural, socio-economic and health risk factors in specific industrial and industrial-agrarian regions of the country, are largely unclear.

Thus, to date, a holistic approach and a unified methodology for the implementation of regional monitoring of public health, including interrelated organizational, technical and informational and analytical aspects, have not been developed. Approaches to assessing and modeling the levels of comfort of the environment, taking into account regional specifics, have not been developed, which determines the relevance of developing this problem in general and the need for its conceptual justification.

The aim of the work is to develop the geoecological foundations of regional medical and geographical monitoring and substantiate the principles for creating models of the comfort of the environment in industrial-agrarian and urbanized regions.

In accordance with the goal, the following main tasks have been solved.

1. Development of a methodological framework and operating layouts of automated information and reference systems to ensure monitoring of the health of the population of industrial-agrarian regions and industrial cities.

2. Studying the patterns of formation of public health v-» /1 and cause-and-effect relationships in the environment-health system based on the created information systems (health risk assessment).

3. Determination of approaches to the calculation of integral criteria for the medical and geographical well-being of industrial-agrarian and urbanized regions.

4. Implementation of a comprehensive medical-geographical ranking of risk factors according to the degree of impact on health and criteria for the state of health in terms of the level of "response" to the quality of the environment.

5. Creation of regional models of environmental comfort in industrial-agrarian and urbanized regions according to a set of geo-ecological criteria with substantiation of the principles of integrated medical-geographical zoning.

6. Development of a conceptual model of regional medical-geographical monitoring, taking into account the priority criteria for health status, the quality of the environment and assessing the effectiveness of regional environmental policy.

The object of the study was the state of the environment and public health. The subject of research in the dissertation is the state of the environment and public health of a number of large industrial-agrarian and urbanized regions of the Central Chernozem and Kuban regions, including Belgorod, Voronezh, Lipetsk, Tambov regions, as well as industrial cities: Voronezh, Krasnodar, Tambov, Rossosh Voronezh region. More detailed comprehensive studies were carried out on the example of the base (model) Voronezh region.

The work was based on complex medical-geographical studies carried out by the author in a number of regions of the Middle and Southern Russia using probabilistic-statistical approaches and computer modeling over a 10-year period (1988-1997), and for malignant neoplasms - for a longer time (1981-1997

The research allowed us to formulate the conceptual provisions of the regional system of comprehensive monitoring of public health, which, from our point of view, should be called medical-geographical monitoring, taking into account the control of natural, socio-economic, environmental-hygienic and health-care health risk factors in a number of regions Central and Southern Russia, as well as to determine the main directions of regional environmental policy and improvement of the environment.

Scientific novelty and the theoretical significance of the studies are connected, firstly, with the development of the theory and improvement of the methodology of evaluative medical and geographical studies aimed at identifying cause-and-effect relationships in the "environment-health" system, ranking risk factors by priority, regional zoning according to the criteria of medical and geographical well-being ; secondly, with the development of a conceptual approach to the integrated monitoring of public health in regions of various sizes, brought to a practical solution based on automated information technologies; thirdly, with the substantiation of the concept of "environmental comfort", which combines the parameters of the quality of the environment and the state of health of the population, and the principles of its assessment, differentiated for industrial-agrarian and urbanized regions.

For the first time, on the example of a number of territories of the Chernozem and Kuban regions, a comprehensive assessment of the risk to public health associated with natural, socio-economic and medical factors was carried out, which made it possible to establish priority criteria for medical and geographical monitoring for various regional levels of environmental protection and public health. The original approaches to the creation of information resources for providing medical-geographical monitoring and the construction of mathematical-cartographic models of the comfort of the environment according to integral medical-geographical criteria with the priority of the health criterion, implemented on the basis of the studied regions, are substantiated. For the first time, a classification system for the levels of environmental comfort was developed and the “quality of life standards” of the population in the agrarian and urbanized regions were characterized. The general scheme of the pathogenesis of the population living in insufficiently comfortable conditions of an agrarian region and a polluted urban environment has been supplemented with new data.

The research made it possible to advance in the theoretical study of the processes of human adaptation to harmful environmental factors, as well as to formulate a number of new fundamental provisions for improving the environment and implementing an effective regional environmental policy.

Practical significance. Based on the identification of priority risk factors and health criteria, complex medical-geographical ranking and zoning, based on the developed conceptual provisions, the study made it possible to develop and implement operating layouts of automated information and reference systems to ensure monitoring of the health of the population of the Voronezh region and the city of Voronezh.

Voronezh, to determine the main directions of regional environmental policy.

Methodological and software-algorithmic support for the formation of computer databanks have been proposed and introduced into the practice of a number of regional environmental and treatment-and-prophylactic departments of the cities of Voronezh, Krasnodar, Tambov, Voronezh, Belgorod, Lipetsk, Tambov regions "environment-health" at the regional and municipal (urban) levels of government, health risk assessment associated with environmental factors, as well as the methodology of integrated medical-geographical zoning of regions.

The effectiveness of the proposed optimization measures was evaluated according to the most important medical and social criteria for stabilizing and reducing environmentally caused morbidity and mortality in the region. The result of the study was a set of regional targeted programs developed jointly with the Centers of the State Sanitary and Epidemiological Supervision, the Health Departments of the Voronezh Region and the City of Voronezh to ensure environmental and hygienic safety in the region (regional program "Urgent measures to ensure health protection and sanitary and epidemiological welfare, disease prevention and reducing the level of premature mortality of the population of the Voronezh region for 1997-2001", 1997; target citywide program "Ecological and hygienic safety of the city of Voronezh", 1998). The effectiveness of the developed programs was positively assessed based on the results of practical implementation.

The results of the study in the form of methodological recommendations and educational automated geo-eco-information systems are implemented in studying proccess Voronezh state university(according to the courses taught by the author "Human Ecology", "Medical and environmental monitoring", " Geoinformation systems”), Voronezh State Medical Academy, Voronezh State technical university and the Voronezh State Technological Academy for students of environmental and medical specializations.

Approbation of work. The dissertation was approved at the following major international and regional conferences: 7, 8 and 9 Interstate Conferences on Medical Geography (St. Petersburg, 1987, 1991, 1995); All-Union Symposium on Microelements (Moscow, 1989); All-Union scientific conference "Ecological problems of wildlife protection" (Moscow, 1990); Interstate scientific conference "Geoecological aspects of management, health and recreation" (Perm, 1993); Interstate scientific symposium "New organizational forms of anti-cancer fight" (Chelyabinsk, 1994); International Scientific Conference on the Environment (Vilnius, 1994); International Scientific and Practical Conference "Region and Geography" (Perm, 1995); International scientific conference "Geoecological problems of sustainable development of the urban environment" (Voronezh, 1996); All-Russian Scientific Conference "Modern Geography and Environment" (Kazan, 1996); International Russian-American Ecological Congress (Voronezh, 1996); Regional scientific conference "Modern hygienic problems of environmental protection and public health in the regions of Russia" (Voronezh, 1997); 3 International Conference " environmental education in Universities" (Vladimir, 1997); International Ecological Readings in memory of K.K. Saint-Hilaire (Voronezh, 1998); 2 International Open Session "Ecology and Humanity on the Threshold of the XXI Ulyanovsk, 1998).

The information resources created by the author are registered in the STC "Informregister" (databases "Geoecological data of the Voronezh region", No. 0229703211; "The state of the environment and health of the population of Voronezh", No. 0229703212). The approaches and methodology outlined in the dissertation, as well as specific research results, were reflected in a number of targeted and federal projects carried out under the guidance of the author under the scientific programs "Universities of Russia" (project "Development of theoretical and applied aspects of medical-geographical analysis and monitoring of the environment", 1993 -1997), "Universities of Russia - fundamental research" (project 8.6.8. "Medical and environmental zoning of the urban environment", state registration number

01.9.90000314, 1998-1999); grants from the Russian Foundation fundamental research(projects: 95-07-19244 "Creation of a database for the organization of regional medical and geographical monitoring", 1995-1997; 98-07-90047 "Development of an information and reference system to provide medical environmental monitoring industrial cities", 1998-1999), state budgetary scientific topics of the VSU ("Development of a regional information system for the organization of medical and geographical monitoring", state registration No. 01.9.60000629, 1995-1997; -ecological monitoring of the industrial region”, state registration No. 01.9.90000906, 1998-1999).

Defense provisions.

1. Scientific and methodological approaches to a comprehensive risk assessment of public health and medical-geographical ranking of risk factors and health criteria based on probabilistic-statistical methods and computer modeling.

2. Methodological principles and algorithms for calculating the integral criteria of medical and geographical well-being, taking into account the priority of public health.

3. Conceptual model of regional medical-geographical monitoring, including organizational, technical and informational-analytical support, formed on the basis of automated information systems.

4. Geoecological principles for creating regional models of environmental comfort and integrated medical-geographical zoning of industrial-agrarian and urbanized regions.

5. The general scheme of the pathogenesis of the population living in regions of reduced comfort of the environment with the justification of the system of compensatory health-improving and preventive measures.

Similar theses in the specialty "Geographical ecology", 11.00.14 VAK code

  • Scientific and methodological support for monitoring environmental risk zones associated with air pollution in urban areas 2013, candidate of geographical sciences Khorpyakova, Tatyana Vladimirovna

  • Geoecological analysis and risk assessment of atmospheric pollution: on the example of Voronezh 2009, candidate of geographical sciences Kostyleva, Lyudmila Nikolaevna

  • Scientific foundations of the hygienic safety system at the regional level in the conditions of seasonal pollution of the environment and in emergency situations 2012, doctor of medical sciences Berezhnova, Tatyana Aleksandrovna

  • Comprehensive geoecological assessment of a large industrial center over the past decade: On the example of the city of Voronezh 2003, candidate of geographical sciences Beshinsky, Vitaly Anatolyevich

  • Ecological foundations for the formation and functioning of a regional environmental monitoring system: On the example of the Voronezh region 2004, candidate of biological sciences Malikov, Viktor Sergeevich

Dissertation conclusion on the topic "Geographical ecology", Kurolap, Semyon Aleksandrovich

1. In the system of a comprehensive regional health risk assessment and medical-geographical ranking (risk factors, health criteria), a probabilistic-statistical method is proposed based on assessing the “weight contribution” of health and environmental quality criteria in the formation of the medical-geographical situation. The basis for ranking and medical-geographical territorial differentiation are integral normalized criteria for the state of health and quality of the environment, calculated by combining private criteria for the bioclimatic comfort of the environment, levels of technogenic load, sanitary and hygienic safety and social development.

2. Regional monitoring of public health (medical-geographical monitoring) is an integral part of integrated geoecological monitoring and is based on the functional interaction of three main blocks: "Automated data banks on the state of health and the environment", "Health risk assessment system", "Management of medical environmental situation", implemented on the basis of information technology. Among the necessary types of system support, the leading one is information and analytical, focused on identifying priority regional criteria for the state of health and environmental quality, as well as building regional models of environmental comfort. The introduction of the proposed model of regional monitoring of public health in the Voronezh region has shown its sufficient effectiveness in developing a regional environmental policy, reducing the risk of environmentally caused diseases of the population, in particular, stabilizing the incidence and mortality from malignant neoplasms.

3. The basis of medical and geographical monitoring of the industrial-agrarian region are such priority, environmentally determined health criteria as the mortality of the working population (the relative "statistical weight" of the response to the quality of the environment is -43%), oncological morbidity, especially cancer of the lung and stomach

45%), incidence of coronary heart disease (27%); and in the conditions of a large industrial city - the incidence of the child population, including diseases of the blood and blood-forming organs (17 - 55%), respiratory organs (25 - 48%), congenital anomalies (17 - 39%), infections (27 - 43% ), neoplasms (14 - 30%). The conditionality of the health status of children by the quality of the environment is more stable for children of middle and older age (over 4 years old).

4. The medical and geographical situation in the industrial-agrarian region is formed under the influence of factors that reflect the natural resource potential and characterize the ecological and climatic conditions, in particular, the meteorological potential for self-purification (the share of “statistical impact” on health is 41%), as well as natural soil-geochemical background (52%). The leading health risk factors include a set of parameters of the bioclimatic comfort of the environment (33-48%). The deterioration of the health status of the population, including reproductive dysfunction, is observed in areas with low social development (22 - 41%), a higher level of chemicals in agriculture (25%).

5. The leading risk factor for the health of the population of large industrial cities is the state of the air basin (the share of "statistical impact" on health is 38%), the indicators of which are dust, phenol, formaldehyde, benzo(a)pyrene. The parameters of the architectural, planning and landscape structure (about 30%) have a significant impact on health. The quality of drinking water and the level of soil contamination with heavy metals are of selective importance as risk factors for diseases of the digestive system (stomach ulcers), stomach cancer, anemia, and congenital anomalies.

6. Regional models of environmental comfort are specific to industrial-agrarian and urban areas, which indicates different levels, i.e. "standards" of a comfortable environment, depending on the scale and industry specialization of the region. The levels of environmental comfort are differentiated into types corresponding to the industrial-agrarian region, large and small industrial cities, local (intra-urban) territory. In the industrial-agrarian region, the comfort of the environment is formed by the natural resource potential and the level of social development, and in the urbanized region, environmental, hygienic and planning factors. The role of the technogenic factor (the degree of environmental pollution, the nature of the social infrastructure) increases as the scale of the study area is detailed from the regional to the intracity local level.

7. Comprehensive medical-geographical zoning of the territory, based on the priority of public health, serves as the basis for improving the comfort of life support in the region. The medical-geographical zoning of the Voronezh region based on the combined use of cluster analysis and the statistical method of weighted points made it possible to identify gradations of the comfort of the environment in terms of the parameters of self-purification of the atmosphere, thermal, radiation climatic characteristics, as well as the level of development of the agro-industrial complex (load on land resources), social sphere and environmentally conditioned diseases. When identifying zones of different comfort in the urban environment, it is advisable to rely on the emission concept of their formation, due to the quality of the air basin, and the analysis of landscape and planning conditions.

8. The general scheme of the pathogenesis of the population living in less comfortable environmental conditions, based on the hypothesis of a decrease in the immunological resistance of the body due to the stress of adaptive mechanisms in individuals of the respective regions, has been supplemented with new ideas. As confirmed by the example of the Central Chernozem region, the first pathological reactions to a decrease in the comfort of the environment are manifested in a violation of the functioning of the most labile systems of the body - hematopoiesis, respiration - and with prolonged exposure in "low doses" - in the growth of socially dangerous (mass) diseases - neoplasms, vascular pathology, impaired reproductive function - and increased mortality of the working population.

CONCLUSION

The study, carried out on the example of a number of industrial-agrarian regions, as well as industrial cities of the Central Chernozem Region and the Kuban Region, illustrates the possibilities and prospects for creating regional systems for monitoring the health of the population based on the use of computer information technologies. Concluding the study, we can state that with the current level of knowledge, the problem of regional modeling of the levels of comfort of the environment lends itself to a completely satisfactory solution. In any case, methodically justified quantitative approaches, as well as methods of mathematical-statistical and mathematical-cartographic modeling, are preferable to still widespread intuitive estimates and descriptive judgments.

On the other hand, the significant expansion in recent years of technical means and methods of monitoring the environment, the accumulation of a large amount of various information about the habitat often puts researchers and specialists from practical monitoring and environmental departments into a paradoxical "information dead end", not giving an answer to the question of the expediency of accumulating numerous data, priority monitoring criteria, the degree of their interdependence and role in shaping the regional geoecological situation. The development of a common methodology for such studies, in our opinion, is especially important, which largely determines the expediency of the geographical approach, which is characterized by regionalism and a comprehensive analysis of the problem.

The main results of the study can be formulated in the following provisions, the totality of which represents the scientific concept of regional medical-geographical monitoring and methodological principles assessing the comfort of the environment. no-cm am ist and h it to their methods and computer simulations, allowing to achieve quite adequate results.

The principle of health risk assessment is based on probabilistic-statistical approaches associated with the use of correlation-regression analysis both in a continuous medical-geographical survey of the region, which we have undertaken in the Voronezh and other regions of the Central Chernobyl region, and in the case of using a special sampling method of cohort groups ( i.e. analysis of the contingents of the population living in ecologically contrasting environmental conditions), tested in the city of Krasnodar.

In the process of medical-geographical ranking, the proportion of reliable correlation models of a particular factor with health parameters was chosen as a measure of the significance of a risk factor, and the proportion of reliable correlation models of this indicator with the studied complex of environmental factors was chosen as the degree of “response response” of the population health indicator. The main ranking criterion was, firstly, a fairly high relative share of significant correlation models (which, with a certain assumption, can be considered as the degree of statistical influence of environmental factors on the level of public health, i.e. the degree of their interdependence), and, secondly, - logicality (plausibility) of connection according to the type "dose (factor) - effect (disease, death)".

2. Integral criteria of medical and geographical well-being, among which the criteria of public health are of priority, serve as an objective basis for building models of the comfort of the environment and its territorial differentiation.

The need to generalize the results of mathematical and statistical analysis required the introduction of a number of derivatives and integral medical and geographical criteria for the quality of the environment and the state of public health. Taking into account the approaches of N.S. Kasimova et al. (1993,1995) on the substantiation of the geochemical principles of the ecological and geographical systematics of cities, B.B. Prokhorova (1999), S.M. Malkhazova (1999), G.P. Krasno-shchekova, G.S. Rosenberg et al. (1994,1996) on the medical-geographical zoning of the regions of the world and Russia, N.P. Tikhomirov (1992) on the development of index-normative criteria for the quality of the environment, we calculated some of the most important parameters of the degree of self-purification of the environment (meteorological potential, etc.) and the anthropo-technogenic load on natural environments - air, water, soil.

In particular, on the example of the Voronezh region, for the first time, using the original method, the author calculated complex criteria for health and the quality of the habitat. These include: the health rating calculated according to the hygienic method, as well as the complex normalized health criterion (Knip), calculated according to the main environmentally determined private health criteria by normalizing them according to the standard normalized deviation formula and subsequent summation. The quality of the habitat is characterized by the criterion of bioclimatic comfort (Kcl), the criterion of technogenic load (Khn), the criterion of sanitary and hygienic safety (Ksg), the criterion of environmental quality (Kks), the criterion of social development (Ksr), the criterion of medical support (Km). The methodology for their calculation is based on the choice of the leading private criteria for the quality of the environment in a particular subject area, their ranking, association and expression in normalized deviations from the average value, which subsequently made it possible to compare them quite adequately, excluding differences in units of measurement of qualitatively different factors.

Among the various approaches tested by us for the implementation of the territorial medical-geographical ranking and zoning, the most adequate results were obtained in the case of applying the statistical method of weighted points, which had not previously been widely used in medical-geographical research. Moreover, the necessary additional information is provided by the conjugated application of complex health criteria (mortality at working age, morbidity in children and the entire population, including neoplasms and coronary artery disease) and the quality of the environment, combined in the process of cluster analysis and the mathematical-statistical method of weighted scoring.

However, it should be noted that only general approaches to identifying risk factors and medical-geographical zoning can be universal. Specific parameters of habitat comfort models are determined on the basis of regional specifics, i.e. regional "standard" of comfortable conditions. So, insufficiently comfortable areas

The Central Chernozem region may well correspond in terms of basic natural and climatic parameters to the most comfortable regions of the Non-Chernozem region, Siberia, or even exceed them. The objectivity of differentiation of such microzones, even in a relatively small area, to which the Voronezh region as a whole (on the scale of Russia) can be attributed, is confirmed by a significant difference and correspondence between public health levels and environmental quality ratings.

3. Regional medical-geographical monitoring should be considered as an integral part of integrated geoecological monitoring and a necessary additional mechanism for ensuring environmental safety and creating comfortable living conditions.

A conceptual model of regional health monitoring of the population (medical-geographical monitoring) has been developed, based on the functional interaction of three main blocks: "Automated data banks on the state of health and the environment", "Health risk assessment system", "Medical and environmental situation management", implemented based on information technology in a continuous-cyclic mode. Among the necessary types of system support, the leading one is information-analytical, focused on identifying priority criteria for health and environmental quality, as well as building regional models of environmental comfort for industrial-agrarian and urbanized regions.

The key block of the monitoring system is the "Health risk assessment" subsystem, aimed at solving three main tasks: 1) building models of the impact of environmental factors on public health; 2) ranking of environmental factors, health parameters and substantiation of priority criteria for medical and geographical well-being; 3) regional medical-geographical modeling and zoning of the territory according to the comfort of the environment. The ultimate goal of the system and the task of the management unit is to choose the most appropriate option for optimizing the medical and geographical situation by correcting "controllable" risk factors and ensuring maximum protection of the population from "little controllable" harmful environmental factors.

The software and hardware complex effectively complements the traditional administrative and control (monitoring, environmental control, expertise) and economic methods environmental management and public health protection.

4. Regional models of living environment comfort are specific for industrial-agrarian and urbanized territories, which indicates different levels, i.e. "standards" of a comfortable environment, depending on the scale and industry specialization of the region.

The results obtained by us testify to the specifics of the formation of zones of different environmental comfort in specific industrial-agrarian and urbanized regions. It is shown that against the background of a general deterioration in the medical and environmental situation in Russia in the 90s. the dynamics of this process has an obvious regional aspect and lends itself in general

66 99 »-» successful correction with a targeted impact on "managed" risk factors. The formation of environmental comfort zones at the regional level has a certain specificity, which allows us to speak about different levels of environmental comfort: regional, urban (large and small industrial city), local (intracity for a large industrial city).

As shown by the example of the Voronezh region and confirmed by a number of parameters by the example of other regions of the Central Chernozem Region, at the regional level of assessing the comfort of the environment, the general patterns of landscape differences, the nature of the bioclimatic comfort of the environment, the balance of biologically active microelements in the soil cover, i.e. natural resource potential. Contrary to the traditional point of view about the direct dependence of the level of public health on the degree of technogenic load (emission load factor, surface water pollution factor), in the Voronezh region the role of these factors turned out to be insignificant and unreliable. To a certain extent, this is apparently due to the general low technogenic industrial pressure on the environment of the rural areas of the Chernozem region, where the main deteriorant processes and factors are manifested in the agro-industrial complex. Apparently, it is quite natural that parameters reflecting the level of agro-industrial impact on the environment, characterized by the degree of plowing of land and the volume of chemicalization in agriculture, are included among the more significant risk factors.

The most important result of the regional stage of the study (on the territory of the Central Chernozem Region) in theoretical terms is the conclusion that the zones of more comfortable natural conditions correspond to the zones of reduced morbidity and mortality. This testifies, in essence, to the manifestation of deep geographical patterns (phenomena of zoning, etc.) in the formation of the medical and geographical situation in a large region. The health of the population in a certain sense can be considered as one of the characteristic features ecosystems and geosystems in general. In the conditions of the Central Chernozem region, among the factors of environmental comfort essential acquire climatic (radiation and thermal) characteristics, in particular, the meteorological potential of the atmosphere, which characterizes the degree of natural self-purification of the environment. A good "indicative" sign is the balance of a number of microelements in the soil cover (molybdenum, barium, iodine, zinc, copper).

The level of social development (including social and domestic comfort) of rural areas, the insufficient development of which provokes a decrease in health rating, an increase in morbidity, disability and mortality of the able-bodied population. Indicators of the general deterioration of the medical and geographical situation in the agricultural region are neoplasms (especially lung and stomach cancer), the frequency of coronary heart disease, which determine the main causes of death in working age, as well as the general morbidity of children and the entire population.

Therefore, when organizing health monitoring in vast industrial-agrarian areas, it is necessary, first of all, to identify zones of reduced comfort of natural (bioclimatic and soil-geochemical) conditions with underdevelopment of the social sphere against the background of intensive agricultural anthropogeogenesis and to carry out purposeful landscape-reclamation and social improvement in them. -oriented optimization policy for "correction" and mitigation of the negative impact of harmful environmental factors on the health of the population living in these territories.

As shown in our study, in the system of medical and environmental zoning of large cities, the least comfortable are areas with high transport and industrial pressure, irrational planning without sufficient sanitary protection zones between industrial and residential buildings. In most cases, the "risk zone" becomes the territory immediately adjacent to the main-line railway within a radius of 300 to 800 m. Quite reliable "indicators" of the general deterioration of the medical and environmental situation in urbanized regions should be considered the prevalence rates among children of anemia, bronchial asthma, congenital anomalies, as well as neoplasms, especially cancer of the digestive system.

Thus, when organizing health monitoring in large industrial cities, it is advisable, first of all, to rely on the emission concept of the formation of zones of different comfort of the environment, aimed at a detailed analysis and monitoring of the state of the air environment, as well as at the "correction" of the architectural and planning organization of the urban environment. . Differences in the formation of discrete zones of environmental comfort at the urban and regional levels of assessment of the situation indicate, in essence, different "standards" of comfortable life for the population in urban and rural areas, where a specific "background" of landscape-ecological and socio-professional conditions for adapting a person to habitat.

5. Features of adaptation to the environment and pathogenesis of the population are specific in regions of various sizes and require a differentiated system of compensatory health-improving and preventive measures.

As confirmed by our studies on the example of the Central Chernozemsk Region, in order to explain the mechanism for reducing the level of public health in less comfortable regions, it is preferable to take into account the point of view of a decrease in the compensatory-adaptive capabilities of the human body in them. The essence of this process lies in the tension of adaptive mechanisms and the decrease in immunological protection in the population living in a polluted urban environment and insufficiently comfortable landscape-climatic, landscape-geochemical conditions of the agricultural region. Pathological "rapid response" reactions in cities manifest themselves in the child population in the form of functional and organic disorders of the hematopoietic, circulatory, respiratory and digestive systems. With a more intense, prolonged exposure, these reactions are manifested in the growth of more dangerous lesions of the gene pool - neoplasms, congenital anomalies. It is these last classes of diseases that should, with a certain degree of conventionality, be considered as a marker of an environmentally dangerous situation that requires the organization of compensatory measures.

Thus, the first pathological reactions to a decrease in the comfort of the environment are manifested in a violation of the functioning of the most labile systems of the body - hematopoiesis, respiration, and with prolonged exposure in "small doses" - in a "failure of adaptation" and the growth of socially dangerous (mass) diseases - neoplasms , vascular pathology, impaired reproductive function - and, as a result, an increase in the mortality of the working population. Moreover, in the conditions of vast regions, where factors of low intensity, for example, climatic comfort of the environment, harsh weather, imbalance of biologically active microelements (zinc, copper, iodine, etc.), act stably and almost continuously, the tension of adaptive mechanisms manifests itself in a decrease in the immune status and the growth of neoplasms, vascular pathology in the population, even with relatively weak regional differences in the state of the environment, as it manifests itself in the conditions of the Chernozem region.

Summing up the work, at the same time, it should be noted a number of debatable points that we discovered in the course of the study, complementing the fundamental ideas about the nature of cause-and-effect relationships in the “human-environment” system.

Thus, often accepted as a postulate of the "hygienic thesis" about the direct (to a greater or lesser extent) dependence of public health on the level of environmental pollution, the quality of the health care network is not always reliably confirmed in practice. We have quite definitely traced this regularity only by the level of air pollution in a number of large cities, primarily Krasnodar. Apparently, the hygienic triad "air-water-soil" plays an unambiguous role when comparing ecologically contrasting urbanized areas (for example, in Krasnodar, where the comfort of natural conditions is optimal for a person). In the Voronezh region (both in the cities of Voronezh, Rossosh, and on the territory of the region), the hygienic significance of the purity of drinking and surface waters, soil is strictly selective in relation to various diseases, and in some cases increased environmental pollution is not accompanied by any ill health. The role of social factors is also ambiguous, and a sufficiently high level of social development in a number of large regional urban-type centers of the Voronezh region is able to some extent compensate for the insufficient comfort of natural conditions and ensure a completely satisfactory level of public health through effective prevention and a higher hygienic culture of life. For example, the frequency of registration of cancer and cardiovascular pathology is largely determined not by demographic and hygienic, but by landscape-ecological (climatic, soil-geochemical) conditions in the region, and the historical picture, in principle, is not changed by such a powerful environmental factor like Chernobyl radiation pollution. The reason for this, apparently, on the one hand, is the effect of the summation of harmful factors in specific regional conditions with varying degrees of self-purification of the environment, and, on the other hand, in the threshold, determining value of the leading risk factors (confirmation of Liebig's ecological law). It is characteristic that in industrial cities the role of the landscape factor, which is inferior to environmental and hygienic conditions in terms of immediate significance, is manifested indirectly (for example, through the planning infrastructure).

As noted in our study, not all criteria for the state of health of the population equally "respond" to the quality of the environment, i.e. can serve as a kind of indicator of its quality, and at the regional and local city levels they also differ. More reliable indicators at the regional level are neoplasms, coronary heart disease - the main causes of death of the population of working age, while in the urban environment, diseases of the blood, respiratory organs, and infectious pathology of the child population, reflecting their immune status, become more important.

Finally, the very concept of “environment comfort”, which is often interpreted quite arbitrarily, should be more clearly and unambiguously substantiated by a system of quantitative environmental criteria in relation to specific types of regions, which was undertaken in our study on the example of industrial-agrarian and urbanized industrial regions. Obviously, an integral criterion of health should be included in the description of the region's comfort in order to combine qualitatively different concepts that reflect the favorable environment - "climatic comfort", "landscape aesthetics", "hygienic safety", etc. In this aspect, the integrated medical-geographical approach can largely concretize and objectively reflect the situation. For example, the Ramon administrative district in the northern Podvoronezhye, which is quite comfortable in terms of natural and recreational conditions (aesthetic in terms of the diversity of forests within the Voronezh biosphere reserve, picturesque landscapes of the Don region), is moderately comfortable in terms of the potential for self-purification of the atmosphere and is not comfortable enough in terms of technogenic load on the environment ( chemicalization is significant in agriculture, there are pockets of radiation pollution), which, apparently, determines the trouble in most parameters of public health. Aesthetic in terms of recreation, but unfavorable in terms of other particular criteria for the quality of the environment and health, this region corresponds to the worst gradation of environmental comfort according to the integral medical-geographical criterion, which is consistent with the low health rating of the population living in it.

The described regularities and practical recommendations form the basis of the environmental policy developed by us in relation to the conditions of the Central Black Earth region. As follows from the estimated medical and geographical studies, it is inappropriate to limit the system of regional health monitoring to the framework of only one department, for example, sanitary and epidemiological surveillance, as from 1994 to the present, this has been developing in most Russian regions after the organization of regional units of social and hygienic monitoring in the system of the State Sanitary and Epidemiological Supervision. The interdepartmental nature of this problem at the junction of geoecology, hygiene, and medical geography orients further research towards the search for a wider range of dependences of population health indicators on environmental factors and elucidation of the mechanisms of the discovered relationships. With the purposeful unification of the efforts of various departmental services, the development of computer medical-geographical monitoring in the future will make it possible to create an interconnected and coordinated system for monitoring the health of the population at the national level, which will serve as a key block in the system of national environmental security.

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