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WorksheetsWorksheet Questions Extraction
Total questions: 148
Worksheet time: 1hrs 14mins
Histamine and heparin secrete:
Neutrophils
Eosinophils
Monocytes
Basophils
Platelets
The following are involved in the regulation of vascular permeability processes:
Neutrophils
Eosinophils
Basophils
Monocytes
Lymphocytes
A large nucleus and cytoplasm in the form of a thin rim have:
Lymphocytes
Monocytes
Erythrocytes
Basophils
Eosinophils
Differentiates into plasmacyte:
Neutrophil
Basophil
B-lymphocyte
T-lymphocyte
Monocyte
Agranulocytes include:
Monocytes
Basophil
Segmented neutrophils
Eosinophils
Stab neutrophils
After exiting the bloodstream into the connective tissue, the monocyte turns into:
Plasmocyte
Mastocyte
Macrophage
Pericyte
Lipocyte
Blood monocytes differentiate into:
Microglia
Oligodendrogliocyte
Protoplasmic astrocytes
Ependymocytes
Fibrous astrocytes
Acute leukemias are mainly represented by:
Immature poorly differentiated cells
Mature poorly differentiated cells
Immature highly differentiated cells
Mature highly differentiated cells
Atypical cells
In the thymus are formed:
B-lymphocytes
T-lymphocytes
Granulocytes
Monocytes
Platelets
In the process of erythropoiesis in the cytoplasm of erythrocytes occurs:
Accumulation of hemoglobin
The appearance of a specific granularity
Accumulation of lysosomes
Increase in RNA content
Increase in the number of mitochondria
Effector cells of humoral immunity are:
Reticulocytes
Adipocytes
Plasmocytes
T-lymphocytes
Fibroblasts
Effector cells of cellular immunity are:
Reticulocytes
Adipocytes
B-lymphocytes
T-lymphocytes-killers
Plasmocytes
Immunological protection in the body is carried out by:
Fibroblasts
Reticulocytes
Lymphocytes, macrophages, plasma cells
Erythrocytes, platelets
Adipocytes
In the postembryonic period, erythrocytes are formed in:
Thymus
Spleen
Red bone marrow
Lymph nodes
Tonsils
In the embryonic period, intravascular hematopoiesis occurs in:
Spleen
Red bone marrow
Thymus
Pancreas
Yolk sac
In the embryonic period, hematopoiesis in the liver begins with:
3 days
7 days
6th month
5th week
8th month
In the embryonic period, hematopoiesis in the thymus begins with:
3 days
7-8 weeks
3rd month
6th month
9th month
The death of old erythrocytes occurs in:
Lymph nodes
Thymus
Kidney parenchyma
White pulp of the spleen
Red pulp of the spleen
The universal hematopoietic organ in an adult is:
Red marrow
Yellow bone marrow
Liver
Spleen
Thymus
The hematopoietic organ in an adult is not:
Amygdala
Spleen
Thymus
Liver
Appendix
The first organ of hematopoiesis in the embryo is:
Red marrow
Yolk sac
Liver
Spleen
Thymus
The color of the cytoplasm of an oxyphilic erythroblast is determined by:
Bilirubin
Lipofuscin
Melanin
RNA
Hemoglobin
The stroma of the red bone marrow is:
Reticular tissue
Adipose tissue
Reticuloepithelium
Bone
Dense connective tissue
In the thymus mature:
Neutrophils
Monocytes
Erythrocytes
T-lymphocyte
B-lymphocytes
In granulocytopoiesis occurs:
Accumulation of hemoglobin
Accumulation of specific granularity
Formation of multinucleated cells
Cell enlargement
Ejection of nuclei from cells
Antigen-independent reproduction of B-lymphocytes occurs in:
Lymph nodes
Spleen
Tonsils
Red bone marrow
Solitary lymph nodes
From megakaryocytes are formed:
Neutrophils
Monocytes
Erythrocytes
Platelets
Lymphocytes
Blood stem cells are first formed in:
Red bone marrow
Yolk sac
Liver
Spleen
Thymus
In a patient with anemia, a normal number of erythrocytes was found in the blood test, but with a low content of hemoglobin. The function of what hematopoietic organs is impaired?
Red bone marrow
Spleen
Tonsils
Thymus
Lymph node
Hemoglobinopathies are genetic disorders that affect:
Synthesis of globin
Synthesis of pathological forms of all blood cells
Proliferation of leukocytes
Proliferation of erythrocytes
Synthesis of a hemoglobin molecule
When examining a sample of cerebrospinal fluid from a patient with aplastic anemia, it was revealed:
Reduced protein content in the cerebrospinal fluid
High sugar content in the cerebrospinal fluid
The presence of a tumor
Hypercellular bone marrow
Hypocellular bone marrow
Loose fibrous connective tissue. Origins of all connective tissues:
Ectoderm
Splanchnotom
Myotome
Mesenchyme
Once in the connective tissue, the monocyte turns into:
Melanocyte
Macrophage
Mast cell
Adventitial cell
Lipocyte
Melanocyte:
Mesenchymal origin
Formed from the neural crest
Formed from bone marrow precursors
Endodermal origin
Derived from connective tissue stem cells
Getting into the connective tissue, B-lymphocyte can become:
Plasma cell
Macrophage
Mastocyte
Pericyte
Fibroclast
Dense connective tissue differs from loose:
High content of basic amorphous substance
Many macrophages
Greater intensity of the synthesis of glycosaminoglycans in mast cells
A certain orientation of rare fibers in the tissue matrix
Low content of cells and amorphous matter
Functions of a plasma cell:
Blood plasma production
Phagocytosis
Synthesis and secretion of immunoglobulins
Synthesis and secretion of components of the intercellular substance
Synthesis and secretion of histamine and heparin
Adventitial cell:
Produces antibodies
Participates in the resorption of intercellular substance
Regulates the permeability of the walls of blood vessels and amorphous matter
Connective tissue stem cell
Synthesizes histamine, serotonin and bradykinin
The strength of the connective tissue is determined by:
Collagen fibers
Elastic fibers
Components of an amorphous substance
Connective tissue cells
Reticular fibers
Functions of pericyte:
Synthesis and accumulation of melanin
Synthesis and secretion of immunoglobulins
Phagocytosis
Regulation of vascular wall permeability
Synthesis and secretion of elastin and fibrillin
Elastic fibers:
Produced by fibrocytes
Able to restore their original shape after deformation
Give strength to connective tissue
Are part of the stroma of the hematopoietic organs
Produced by mast cells
Fibroblast Function:
Synthesis of fibrous structures of intercellular substance
Synthesis of basic amorphous substance
Resorption of intercellular substance
Uptake and utilization of biogenic amines
Synthesis and secretion of heparin, histamine and serotonin
Fibrocyte is a definitive form:
Fibroblast
Fibroclast
Myofibroblast
Macrophage
Mast cell
Dense unformed connective tissue is located:
Along the blood and lymph vessels
In tendons and ligaments
In the submucosa of hollow tubular organs
In the reticular dermis
In the papillary dermis
The following actively participates in heat production in a newborn:
Reticular connective tissue
Pigmented connective tissue
Mucous connective tissue
Brown adipose tissue
White adipose tissue
The macrophage system of the body includes:
Fibroblasts
Myofibroblasts
Plasmocytes
Loose connective tissue macrophages
Mastocytes
Labrocyte is:
Mast cell
Macrophage
Fibroblast
Myofibroblast
Plasmocyte
Brown adipose tissue differs from white by the presence of:
Iron-containing pigment
Melanin
Carotene
Lipofuscin
Acid phosphatase
Rich in melanocytes:
Brown adipose tissue
Mucous tissue
Loose fibrous tissue
Loosely shaped fibrous tissue
Pigment tissue
Consists of reticular cells and reticular fibers:
Dense irregular fibrous tissue
Densely shaped fibrous tissue
Loose, irregular fibrous tissue
Reticular tissue
Adipose tissue
Cartilaginous tissues. The source of development of cartilaginous tissues is:
Loose fibrous connective tissue
Mucous connective tissue
Mesenchyme
Reticular connective tissue
Dense connective tissue
The ability of cartilage to calcify is associated with the presence in them of:
Proteoglycans
Chondronectins
Type X collagen
Chondroitin sulfates
Keratan sulfates
Localization of hyaline cartilage without perichondrium:
Articular surfaces
Larynx
Connection of the ribs with the sternum
Large caliber bronchi
Bronchi of medium and small caliber
The intervertebral disc is a connection by type:
Syndesmosis
Synchondrosis
Synostosis
Arthrosis
Diarthrosis
Localization of fibrocartilage:
Auricle
External auditory canal
Connection of the ribs with the sternum
Intervertebral discs
Trachea
Interstitial cartilage growth is called:
Proliferation of chondroblasts of the perichondrium
Synthesis of glycosaminoglycans and proteoglycans by chondroblasts
Division of chondrocytes in isogenic groups
Cartilage growth from interstitial tissue
Cartilage growth at the expense of the underlying bone
Cartilage tissue can be nourished by diffusion of substances from:
Vessels of the perichondrium
Vessels of the underlying bone
Cartilage connective tissue
Blood vessels that penetrate cartilage
Intercellular substance of cartilage
The inner layer of the perichondrium contains:
Young chondrocytes
Type 1 chondrocytes
Chondrocytes type 2
Chondrocytes type 3
Prechondroblasts and chondroblasts
The growth of cartilage tissue due to its layering on the existing cartilage (appositional) occurs due to:
Type 1 chondrocytes
Chondrocytes type 2
Chondrocytes type 3
Chondroblasts
Fibroblasts
Location of hyaline cartilage in the body:
Intervertebral discs
Horn-shaped cartilages of the larynx
Trachea
Auricle
Sphenoid cartilages of the larynx
Elastic cartilage differs from hyaline by the presence of:
Basic substance
Elastic fibers
Collagen fibers
Chondrocytes
Perichondrium
The outer layer of the perichondrium is formed by:
Loose fibrous connective tissue
Dense fibrous irregular connective tissue
Dense fibrous connective tissue
Reticular tissue
Adipose tissue
Intercellular substance of hyaline cartilage:
Contains type I collagen
Contains reticular tissue
Has its own blood vessels
Nourishes by diffusion of substances from the synovial fluid
Determines cartilage growth
Chondroblasts:
Capable of calcification of the intercellular substance
Synthesize synovial fluid
Determine the nutrition of cartilage
Formed from chondroclasts
Capable of synthesizing intercellular substance
The first stage of cartilage formation is:
Perichondrium formation
Chondrogenic islet stage
Appositional growth
Interstitial growth
Cartilage differentiation
The cells of the inner layer of the perichondrium are:
Chondroblasts
Chondrocytes
Chondroclasts
Osteoblasts
Osteoclasts
Chondroblasts turn into:
Myofibroblasts
Chondrocytes
Osteoblasts
Osteoclasts
Mast cells
Hyaline cartilage without perichondrium is located in:
Articular surfaces
Larynx
The junction of the ribs with the sternum
Large bronchi
Bronchi of medium and small caliber
Intervertebral disc is a type of connection:
Syndesmosis
Synchondrosis
Synostosis
Arthrosis
Diarthrosis
Urates in gout are deposited in:
extracellularly in avascular tissues;
regarding avascular tissues;
skin around colder distal joints and tissues;
all of the above;
none of the above.
A patient with osteoarthritis of the spine at the level of the discs may (might) develop:
Pronounced thickening of the posterior longitudinal ligaments;
Proliferation of the posterior longitudinal ligaments;
Transverse structures;
All of the above;
None of the above.
Bone tissues. Osteoclast precursor:
Osteoblast
Chondroblast
Macrophage
Monocyte
Basophil
Monocyte, getting into the bone tissue, can turn into:
Osteoblast
Osteocyte
Osteoclast
Chondroclast
Reticulocyte
Localization of coarse fibrous bone tissue in an adult:
Flat bones
Epiphyses of tubular bones
Diaphysis of tubular bones
Metaphyses of tubular bones
Overgrown sutures of the skull
The growth of a tubular bone in length occurs due to:
Metaphyseal cartilaginous plate
Endosteum
Periosteum
Proliferating osteons
Articular cartilage
Washing out of calcium from bone tissue enhances:
Vitamin D3
Calcitonin
Parathyrin
Estrogens
Growth hormone
What layer in the diaphysis of the tubular bone are osteons:
Endosteum
Middle layer of bone plates
Outer layer of bone
Inner layer of bone plates
Periosteum
Indirect osteogenesis begins with:
Perichondral ossification
Endochondral ossification
Stages of the skeletal islet
Cartilage degeneration and calcification
Ingrowth of blood vessels into cartilage
The process of formation of the intercellular substance of bone tissue is carried out:
Osteoblasts
Osteocytes
Osteoclasts
Fibroblasts
Endotheliocytes
Osteoblasts are involved in:
Bone formation
Thermoregulation
Destruction of cartilage and bone
Antibody production
Maintaining bone homeostasis
A bone tissue cell that has lost the ability to divide, having a small body and numerous processes:
Osteoblast
Osteocyte
Osteoclast
Fibroblast
Odontoblast
Cells involved in bone destruction:
Enameloblasts
Odontoblasts
Osteoblasts
Osteocytes
Osteoclasts
Osteoclasts are formed from:
Neutrophils
Monocytes
Basophils
Lymphocytes
Erythrocytes
Tissue located at the sites of fusion of the cranial sutures:
Coarse fibrous bone tissue
Elastic cartilage tissue
Fibrocartilage tissue
Hyaline cartilage tissue
Lamellar bone tissue
The first stage of direct osteogenesis is characterized by the formation of:
Bone trabeculae
Skeletal islets
Osteoid
Bone cuff
Periosteum
The growth of the tubular bone in width occurs due to:
Periosteum
Endosteum
Metaepiphyseal plate
Epiphysis
Diaphysis
The growth of a tubular bone in length occurs due to:
Periosteum
Endosteum
Metaepiphyseal plate
Epiphysis
Diaphysis
In the periosteum (periosteum) in the inner layer are:
Osteoblasts
Chondrocytes
Macrophages
Odontoblasts
Enameloblasts
Directly under the periosteum is located:
Inner layer of bone plates
Osteon layer
Endosteum
Outer layer of bone
Medullary cavity
Osteons are characterized by the fact that:
Located under the periosteum
Made up of cylindrical plates
Form endosteum
Adjacent to the medullary cavity
Make up the outer layer of the periosteum
Osteomyelitis develops due to the possibility of infectious agents to penetrate through:
Periosteum
Nerves
Cartilage
Endosteum
The cortical layer of the bone
Defect of bone mineralization in rickets (not calcipenic) develops due to:
Low levels of phosphate
Dysfunction of osteoblasts
Low concentration of calcium
Options a and b
Options a, b and c
Bone regeneration after an injury occurs by:
Migration of osteocytes
Enhanced differentiation of osteoclasts
Proliferation of the adventitial layer of the periosteum
Cell proliferation of the osteogenic layer of the periosteum
All of the above
Skeletal muscle tissue derives from:
Dermatome
Sclerotome
Myotome
Splanchnotome
Mesenchyme
Intracellular regeneration in adult myocardium occurs via:
Stem cells
Myoblasts
Myosatellite cells
Functions of caveolae in the smooth myocyte cytoplasm:
Accumulate Ca2+ ions
Introduce myosin filaments
Introduce actin filaments
Introduce troponin C
Give excitation to the smooth muscle tissues
Striated cardiac muscle tissue develops from:
Somite myotome
Somite sclerotoma
Somite dermatome
Visceral leaf of splanchnotome
Mesenchyme
Regeneration of skeletal striated muscle tissue occurs due to:
Symplast nuclear fission
Division of myosatellitocytes
Endomysial stem cells
Perimysium stem cells
Myofibroblasts
Smooth muscle tissue of internal organs develops from:
Mesenchyme
Ectoderm
Endoderm
Neural tube
Mesoderm somites
Smooth muscle cell shape:
Cubic
Prismatic
Pyramidal
Fusiform
Pear-shaped
Structures of a smooth muscle cell containing calcium ions:
Mitochondria
Actin filaments
Myosin filaments
Golgi complex
Vesicles of the granular endoplasmic reticulum
Actin filaments of a smooth muscle cell are connected to each other and to the plasmalemma:
Dense bodies
Mitochondria
Lysosomes
Tanks of granular endoplasmic reticulum
Tubules of smooth endoplasmic reticulum
The transmission of a nerve impulse from one smooth muscle cell to another is carried out through:
Desmosome
Interdigitations
Nexuses
Adhesive bands
Tight contacts
Shape of skeletal muscle myosatellitocytes:
Cubic
Prismatic
Flattened
Round
Pyramidal
Regeneration of striated muscle fiber occurs due to:
Sarcolemmas
Myosatellitocytes
Sarcoplasms
Sarcoplasmic reticulum
Myofibrils
The trophism of the striated muscle fiber is carried out:
Nuclei and organelles of general importance
Myofibrils
Telophragms and mesophragms
Sarcolemma
Triads
Thin myofilaments of the sarcomere of the striated muscle fiber are:
Telophragm
Mesophragma
Isotropic disk
Anisotropic disk
T-tubules
Thick myofilaments of the sarcomere of the striated muscle fiber are:
Telophragm
Mesophragma
Isotropic disk
Anisotropic disk
Sarcomere is a section of a myofibril of a muscle fiber between:
Two lines M
Two Z lines
Two lines M and Z
Overlap zone and line M
Overlap zone and Z line
General border structure between adjacent sarcomeres:
Line M
Line Z
Light bar H
T-tubules
Overlap zone
Part of the muscle fiber sarcomere, in which six thin filaments are located around one thick filament:
Telophragm
Mesophragm
Overlap zone
Isotropic disk
H-zone of disk A
During contraction of a striated muscle fiber, myosin interacts with:
Tropomyosin
Nebulin
Actinome
Titin
Myomesin
White muscle fibers of skeletal muscles are characterized by:
A large number of myofibrils
High myoglobin content
A small number of myofibrils
Absence of myofibrils
High content of oxidative enzymes
After a blood and urine test, a final diagnosis of myopathy was made in a patient. For the diagnosis, the key factor was the determination in the analysis of the level:
Tryptophan
Phenylalanine
Acyl-carnitine
Methionine
All of the above
Myasthenia is manifested by a violation of neuromuscular transmission and develops as a result of an autoimmune attack on:
Postsynaptic serotonin receptors
Postsynaptic acetylcholine receptors
Postsynaptic histamine receptors
Postsynaptic norepinephrine receptors
Postsynaptic GABA receptors
In a patient after myocardial infarction, the following process will occur:
Myocardial regeneration
Proliferation of fibrous tissue
Proliferation of pacemaker cells
All of the above
None of the above
Nervous tissue consists of:
Nerve cells and neuroglia
Fibroblasts and reticular fibers
Reticular and fat cells
Histiocytes and collagen fibers
Epithelial cells and oxyalan fibers
Source of development of nervous tissue:
Endoderm
Dorsal thickening of the ectoderm - neural plate
Mesoderm somites
Mesoderm splanchnotome
Mesenchyme
Multipolar neurocytes are characterized by:
One axon and many dendrites
Two axons and one dendrite
One axon and one dendrite
One process, which subsequently divides into an axon and a dendrite
One dendrite and many axons
Pseudo-unipolar neurons are characterized by the fact that:
One process departs from their body, which then divides into two
Two processes extend from opposite poles of the cell
Many processes extend from their body
Granular endoplasmic reticulum is poorly developed in their cytoplasm
In their cytoplasm, the Golgi complex is poorly developed
Location of pseudo-unipolar neurons:
Cerebral cortex
Dorsal horn of the spinal cord
Cerebellar cortex
Spinal ganglia
Anterior horn of the spinal cord
Cells of the nervous tissue containing granules and drops of secretion in the cytoplasm:
Neurosecretory
Normal nerve cells
Oligodendroglia
Astroglia
Microglia
Organelles found only in the nerve cell:
Basophilic substance and neurofibrils
Mitochondria and tonofibrils
Golgi complex and myofibrils
Lysosomes and residual bodies
Centrioles and mitochondria
The chromatophilic substance of nerve cells is:
Accumulation of mitochondria
Accumulation of lysosomes
Cisterns of the Golgi apparatus
Accumulation of cisterns of agranular EPS
Accumulation of cisterns of granular ER, free ribosomes and polysomes
Neurofibrils of nerve cells are:
Invaginations of the plasmalemma
Tubules of agranular er
Fibrous protein collagen of the nervous type
Bundles of neurofilaments and neurotubules
Elements of the Golgi apparatus
Nerve cells are characterized by:
High levels of protein synthesis
Low levels of protein synthesis
Lack of protein synthesis
High phagocytic activity
Lack of retrograde current of neuroplasm
Nerve cells are characterized by:
Strong development of granular endoplasmic reticulum and the Golgi complex
Lack of a cell center
Lack of mitochondria
Absence of neurofibrils
Absence of agranular endoplasmic reticulum
Cells of the nervous tissue that generate a nerve impulse in response to irritation:
Ependymocytes
Protoplasmic astrocytes
Neurocytes
Oligodendrogliocytes
Fibrous astrocytes
Nerve cells differ from other cells by the presence of:
Tonofibrils
Myofibril
Cilia
Basophilic clumps and neurofibrils
Striated border
The following is involved in the conduction of a nerve impulse:
Agranular endoplasmic reticulum
Granular endoplasmic reticulum
Microtubules
Cisterns of the Golgi complex
Plasmalemma
Synthesis of mediators is carried out:
Cell center
Lysosomes
Granular endoplasmic reticulum
Agranular endoplasmic reticulum
Mitochondria
Cells of the nervous tissue incapable of phagocytosis:
Protoplasmic astrocytes
Fibrous astrocytes
Microglia
Neurocytes
Schwann cells
Most of the neurons in the nervous tissue by function are:
Sensitive
Receptor
Associative
Motor
Secretory
When cutting a peripheral nerve, it degenerates and collapses:
Peripheral part of the process of a neuron
The central part of the process of a neuron
Whole neuron
Peripheral neuroglia
Neuroglia of the central part of the process of the neuron
Lemmcocytes perform the following functions:
Secretory
Base, boundary
Trophic
Form sheaths of nerve fibers
Phagocytic
The patient has a tremor of the extremities, especially of the hands in a relaxed position, the tremor usually increases during stress and is often stronger on one side of the body. This neurological disease develops as a result of:
Loss of dopamine-secreting cells
Loss of histamine-secreting cells
Loss of cells secreting serotonin
All of the above
None of the above
Velocity of a nerve impulse in an unmyelinated nerve fiber:
100-200 m/s
50-60 m/s
1-2 m/s
150-200 m/s
200-250 m/s
The speed of the nerve impulse along the myelinated nerve fibers:
10-15 m/s
2-10 m/s
1-2 m/s
5-120 m/s
20-25 m/s
An unmyelinated nerve fiber consists of:
One axial cylinder, myelin sheath
Two axial cylinders and a myelin layer
10-20 axial cylinders immersed in a strand of neurolemmocytes
Five axle cylinders
More than 100 axle cylinders
Axial cylinders of the nerve fiber are:
Axon or dendrite of neurocytes
Processes of protoplasmic astrocytes
Processes of fibrous astrocytes
Chains of oligodendrogliocytes
Processes of microglia
The structure of the nerve fiber stained black with osmic acid:
Axle cylinder
Interceptions of Ranvier
Myelin layer
Neurolemma
Nuclei of neurolemmocytes
Neuroglia cells involved in the formation of the myelin sheath of nerve fibers:
Protoplasmic astrocytes
Fibrous astrocytes
Microglia
Lemmocytes
Ependymocytes
The Schwann sheath of the nerve fiber consists of:
Microglial cells
Fibrous astrocytes
Lemmocytes
Protoplasmic astrocytes
Ependymocytes
Chemical synapses transmit an impulse to another nerve cell with the help of:
Calcium ions
Sodium ions
Neurotransmitters
Potassium ions
Phosphorus ions
The structure of a chemical synapse, equipped with receptors for neurotransmitters:
Presynaptic membrane
Synaptic cleft
Postsynaptic membrane
Neurofilaments
Presynaptic vesicles
Substances involved in the transmission of a nerve impulse:
Calcium ions
Sodium ions
Acetylcholine, norepinephrine
Potassium ions
Phosphorus ions
Synapse in which impulse inhibition occurs:
Axo-somatic
Axo-dendritic
Axo-axonal
Somato - somatic
Dendro - dendritic
What type of receptors does the lamellar body of Vater-Pacini belong to:
Thermoreceptors
Mechanoreceptors
Baroreceptors
Photoreceptors
Chemoreceptors
