Understanding the physiological and functional characteristics of cancer cells at the individual level, and the tumor tissue as a highly orchestrated multicellular formation, by whose activity the tumor expands, invades and disseminates, is the main goal of cancer biology research today. Defining the causes of abnormal behavior of neoplastic cells individually and in the context of the tumor microenvironment, including the histological, metabolic and immunological specificities of this tissue, represents a platform for designing new approaches in cancer treatment. Investigating the phenomenon of initial or acquired tumor resistance helps to gain deeper insights into the reasons for limited effects of the conventional treatments, enabling the improvement of existing protocols.

Biotechnology is defined as the use of biological processes and systems (living organisms or their parts) to develop or modify different processes or products useful to humans and includes analysis of risks of its implementation (biosafety).

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.

Natural products are complex chemical compounds synthesised by living organisms through biochemical processes, with a specific physiological or ecological function. Researchers at the Institute study the chemical characterization and isolation of natural products, metabolic engineering, as well as the assessment of the possibility of their application in industry (as medicaments, dietary supplements and functional food, biopesticides).

Understanding the physiological and functional characteristics of cancer cells at the individual level, and the tumor tissue as a highly orchestrated multicellular formation, by whose activity the tumor expands, invades and disseminates, is the main goal of cancer biology research today. Defining the causes of abnormal behavior of neoplastic cells individually and in the context of the tumor microenvironment, including the histological, metabolic and immunological specificities of this tissue, represents a platform for designing new approaches in cancer treatment. Investigating the phenomenon of initial or acquired tumor resistance helps to gain deeper insights into the reasons for limited effects of the conventional treatments, enabling the improvement of existing protocols.

Biotechnology is defined as the use of biological processes and systems (living organisms or their parts) to develop or modify different processes or products useful to humans and includes analysis of risks of its implementation (biosafety).

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.

Natural products are complex chemical compounds synthesised by living organisms through biochemical processes, with a specific physiological or ecological function. Researchers at the Institute study the chemical characterization and isolation of natural products, metabolic engineering, as well as the assessment of the possibility of their application in industry (as medicaments, dietary supplements and functional food, biopesticides).

Animal physiology studies how biological processes work, how they operate under different environmental conditions, and how these processes are regulated and integrated. They can be studied at different levels of organisation, from organelles and cell membranes to cells, tissues, organ systems, and the whole animal, both during development and in adulthood.

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.

Behavioural biology studies animal behaviour at a systemic level by integrating behavioural, ecological, physiological, and molecular approaches to describe how different behavioral elements have been shaped through evolution.

Animal physiology studies how biological processes work, how they operate under different environmental conditions, and how these processes are regulated and integrated. They can be studied at different levels of organisation, from organelles and cell membranes to cells, tissues, organ systems, and the whole animal, both during development and in adulthood.

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.

Behavioural biology studies animal behaviour at a systemic level by integrating behavioural, ecological, physiological, and molecular approaches to describe how different behavioral elements have been shaped through evolution.

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.

Understanding the physiological and functional characteristics of cancer cells at the individual level, and the tumor tissue as a highly orchestrated multicellular formation, by whose activity the tumor expands, invades and disseminates, is the main goal of cancer biology research today. Defining the causes of abnormal behavior of neoplastic cells individually and in the context of the tumor microenvironment, including the histological, metabolic and immunological specificities of this tissue, represents a platform for designing new approaches in cancer treatment. Investigating the phenomenon of initial or acquired tumor resistance helps to gain deeper insights into the reasons for limited effects of the conventional treatments, enabling the improvement of existing protocols.

Biotechnology is defined as the use of biological processes and systems (living organisms or their parts) to develop or modify different processes or products useful to humans and includes analysis of risks of its implementation (biosafety).

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.

Natural products are complex chemical compounds synthesised by living organisms through biochemical processes, with a specific physiological or ecological function. Researchers at the Institute study the chemical characterization and isolation of natural products, metabolic engineering, as well as the assessment of the possibility of their application in industry (as medicaments, dietary supplements and functional food, biopesticides).

Redox biology is the study of all aspects of biology mediated or influenced by biochemical processes involving reduction (gain of electrons) and oxidation (loss of electrons). Redox homeostasis is central to the basic functions of life, including metabolism and respiration, and when altered it can promote the progression of disease and ageing.

Understanding the physiological and functional characteristics of cancer cells at the individual level, and the tumor tissue as a highly orchestrated multicellular formation, by whose activity the tumor expands, invades and disseminates, is the main goal of cancer biology research today. Defining the causes of abnormal behavior of neoplastic cells individually and in the context of the tumor microenvironment, including the histological, metabolic and immunological specificities of this tissue, represents a platform for designing new approaches in cancer treatment. Investigating the phenomenon of initial or acquired tumor resistance helps to gain deeper insights into the reasons for limited effects of the conventional treatments, enabling the improvement of existing protocols.

Biotechnology is defined as the use of biological processes and systems (living organisms or their parts) to develop or modify different processes or products useful to humans and includes analysis of risks of its implementation (biosafety).

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.

Natural products are complex chemical compounds synthesised by living organisms through biochemical processes, with a specific physiological or ecological function. Researchers at the Institute study the chemical characterization and isolation of natural products, metabolic engineering, as well as the assessment of the possibility of their application in industry (as medicaments, dietary supplements and functional food, biopesticides).

Redox biology is the study of all aspects of biology mediated or influenced by biochemical processes involving reduction (gain of electrons) and oxidation (loss of electrons). Redox homeostasis is central to the basic functions of life, including metabolism and respiration, and when altered it can promote the progression of disease and ageing.

Behavioural biology studies animal behaviour at a systemic level by integrating behavioural, ecological, physiological, and molecular approaches to describe how different behavioral elements have been shaped through evolution.

The biology of ageing is focused on better understanding the molecular, cellular and physiological processes underlying the ageing process and the diseases associated with this process.

Animal physiology studies how biological processes work, how they operate under different environmental conditions, and how these processes are regulated and integrated. They can be studied at different levels of organisation, from organelles and cell membranes to cells, tissues, organ systems, and the whole animal, both during development and in adulthood.

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.

Animal physiology studies how biological processes work, how they operate under different environmental conditions, and how these processes are regulated and integrated. They can be studied at different levels of organisation, from organelles and cell membranes to cells, tissues, organ systems, and the whole animal, both during development and in adulthood.

Inflammation is a response to damage and danger in organisms and is an integral part of research in immunology, but also in other scientific disciplines, since inflammation occurs in numerous pathological conditions like diabetes or cancer. Immunology studies body’s defence mechanisms at cellular and molecular level in infective diseases, as well as immune system malfunctions in autoimmune diseases and allergies Modification of body’s immune system is useful in treatment of these diseases, and can be performed through pharmacological modulation or immunotherapy, where immune cells or their parts are used. Acute-phase proteins and potential biological markers of inflammation involved in the modification and integration of signalling pathways are being investigated in order to predict and intervene in diseases.

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.

Neurobiology studies the anatomy, physiology, and pathology of the nervous system. From the molecular and biochemical basis of this system, to the study of behavioral plasticity, to understanding the driving forces of neurodegenerative diseases and how they can be treated. Electrophysiology studies biophysical properties in vertebrate neurons and links morphofunctional features of the brain to observed animal behavior. The ultimate goal is to identify active substances that may have a protective effect in neurological and psychiatric diseases.