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563 Cards in this Set

  • Front
  • Back
Outer portion of an adrenal gland
Cortex
Pertaining to internal secretions
Endocrine
Substance that promotes the production of urine.
Diuretic
Gland that releases its secretion internally into body fluid
Endocrine Gland
Gland that releases its secretion outside through a duct
Exocrine Gland
Substance that a cell secretes that affects another cell.
Hormone
Condition resulting from an above-normal secretion of thyroid hormone.
Hyperthyroidism
Hormone that promotes milk production.
Prolactin
Middle section of an adrenal gland.
Adrenal Medulla
Set of glands located near the surface of the thyroid gland.
Parathyroid Gland
Hormone that stimulates the uterine muscles to contract during childbirth
Oxytocin
Hormone secreted by the anterior pituitary gland that stimulates the adrenal cortex.
Adrenocorticotrophic Hormone
Substance that causes blood vessel walls to contract.
Vasopressin
(General Characteristics of the Endocrine System) Called such due to the fact that glandular cells secrete into other _________ (blood) rather than ________.
Tissues; Ducts
(General Characteristics of the Endocrine System) Endocrine glands help regulate metabolic processes such as rates of reactions, membrane transport, water and electrolyte balance & __________ __________ & ____________ __________.
Blood pressure & Blood glucose
(General Characteristics of the Endocrine System) Endocrine Glands help regulate metabolic processes such as rates of reactions, membrane transport, _________ & _________ __________, Blood pressure & Blood Glucose
Water & Electrolyte Balance
(General Characteristics of the Endocrine System) Endocrine Glands help regulate metabolic processes such as rates of reaction, __________ __________, water & electrolyte & Blood Pressure & Blood Glucose
Membrane Transport
(General Characteristics of the Endocrine System) Endocrine glands and their hormones help regulate metabolic activities such as ________ of _________, membrane transport, water & electrolyte balance, and blood pressure & blood glucose.
Rate of Reaction
Chemical messengers, called ____________, mediate the activities of the endocrine system.
Hormones
(Endocrine System) Secreted hormones are released in a general fashion in the ____________ ____________ and initiate a response in cells with receptors (binding sites) that match the hormones called target cells.
Circulatory System
(Endocrine System) Secreted hormones are released in a general fashion in the circulatory system and initiate a response in cells with ___________ (binding sites) that match the hormones called target cells.
Receptors
(Endocrine System) Secreted hormones are released in a general fashion in the circulatory system and initiate a response in cells with receptors (binding sites) that matches the hormones called __________ ________.
Target Cells
Glands that affect only neighboring cells.
Paracrine
Glands/cells that affect only themselves.
Autocrine
Paracrine glands are glands that affect only ___________ ___________.
Neighboring Cells
Autocrine glands are glands that affect only ____________.
Themselves
Exocrine glands always secrete their products into _____________.
Ducts
(General Characteristics of the Endocrine System) Endocrine glands and their hormones help regulate metabolic activities such as ________ of _________, membrane transport, water & electrolyte balance, and blood pressure & blood glucose.
Rate of Reaction
Chemical messengers, called ____________, mediate the activities of the endocrine system.
Hormones
(Endocrine System) Secreted hormones are released in a general fashion in the ____________ ____________ and initiate a response in cells with receptors (binding sites) that match the hormones called target cells.
Circulatory System
(Endocrine System) Secreted hormones are released in a general fashion in the circulatory system and initiate a response in cells with ___________ (binding sites) that match the hormones called target cells.
Receptors
(Endocrine System) Secreted hormones are released in a general fashion in the circulatory system and initiate a response in cells with receptors (binding sites) that matches the hormones called __________ ________.
Target Cells
Glands that affect only neighboring cells.
Paracrine
Glands/cells that affect only themselves.
Autocrine
Paracrine glands are glands that affect only ___________ ___________.
Neighboring Cells
Autocrine glands are glands that affect only ____________.
Themselves
Exocrine glands always secrete their products into _____________.
Ducts
Some organs perform both exocrine and endocrine functions, such as the _____________.
Pancreas
(HORMONE ACTION) Hormones are released into the ____________ spaces surrounding endocrine glands.
Extracellular
(HORMONE ACTION)
Hormones are released into extracellular spaces surrounding _________ glands.
Endocrine
(HORMONE ACTION)
Hormones are released into ___________ ___________ surrounding _________ __________.
Extracellular Spaces --> Endocrine Glands
Hormones diffuse into the _________ __________.
Blood stream
Hormones affect only ________ cells due to the presence of hormone specific receptors, or binding sites.
Target
Hormones affect only target cells due to the presence of hormone specific receptors, or _________ __________.
Binding Sites
Made from cholestrol and include sex hormones, estrogen and testosterone.
Steroid Hormones
Steroid hormones are made from _________ and include sex hormones, estrogen and testosterone.
Cholestrol
Steroid hormones are made from cholestrol and include ______ hormones, ________ and ____________.
Sex hormones, estrogen & testosterone
Adrenal Cortex Hormones -- Adolsterone & Cortisol
Steroid Hormones
Protein, Glycoprotein & Peptide are all examples of these hormones.
Non-steroid Hormones
Called amines and are derived from amino acids.
Non-steroid hormones
Non-Steroid Hormones are called amines and are derieved from ________ _________.
Amino Acids
Non-Steroid Hormones are called _________ and are derieved from amino acids.
Amines
Protein hormones -- Long chain of amino acids.
Non-steroid hormones
Non-Steroid Hormones are ___________ hormones -- Long chain of amino acids.
Protein
Non-Steroid Hormones are Protein-hormones -- Long chain of _________ _______.
Amino acids
Glycoproteins -- proteins joined to carbohydrates
Non-steroid Hormones
Non-steroid hormones such as _______________, are proteins joined to carbohydrates.
Glycoproteins
Non-steroid hormones such as glycoproteins are __________ joined to _______________.
Carbohydrates
Glycoproteins are produced by the _________ _________ gland.
Anterior Pituitary Gland
Prostaglandins -- paracrine substances are lipids and are synthesized in many tissues.
Non-steroid Hormones
Non-steroid hormones known as ______________; it's paracrine substances are lipids and are synthesized in many tissues.
Prostaglandins
Non-steroid hormones known as prostoglandins; it's paracrine substances are ___________ and are synthesized in many tissues.
Lipids
Non-steroid hormones known as prostoglandins; it's paracrine substances are Lipids and are _____________ in many tissues.
Synthesized
Non-steroid hormones known as Prostoglandins; it's paracrine substances are Lipids and are synthesized in many __________.
Tissues
Cells that hormones attach to
Target Cells
Steroid hormones, being lipid they are ____________ in water, or ECF/ICF
Insoluble
Steroid hormones, being lipid they are insoluble in _________, or ECF/ICF.
Water
Steroid hormones, being lipid, they are insoluble in water, or _____/_____.
ECF/ICF
Steroid hormones, being lipid, they are _________ in __________, or ECF/ICF.
Insoluble in water
_________ __________, being lipid, they are insoluble in water, or ECF/ICF.
Steroid hormones
Steroid hormones, being lipid, diffuse readily through the __________ _________ of any cell in the body
Cell Membrane
Steroid hormones, being lipid, ________ readily through any cell membrane of any cell in the body.
Diffuse
Steroid hormones, being lipid, diffuse readily through any cell membrane of _____ ______ in the _________.
Any cell in the body
Steroid hormones, being lipid ________ _________ through any cell membrane of any cell in the body.
Diffuse readily
_________ _________, being lipid diffuse readily through the cell membrane of any cell in the body.
Steroid Hormones
Steroid hormones & thyroid hormones are ___________ in __________.
Insoluble in water
Steroid hormones & thyroid hormones are insoluble in __________.
water
Steroid hormones & thyroid hormones are _________ in water.
insoluble
____________ & _____________ hormones are insoluble in water.
Steroid & Thyroid
Steroid & Thyroid hormones are carried in the bloodstream weakly bound to __________ proteins.
Plasma
Steroid & Thyroid hormones are carried in the _________ weakly bound to plasma proteins.
Bloodstream
Steroid & Thyroid hormones are carried in the bloodstream weakly bound to _________ ____________.
Plasma proteins
___________ & ________ hormones are carried in the bloodstream and weakly bound to plasma proteins.
Steroid & Thyroid
Steroid & Thyroid hormones are ___________ in water, and ____________ in lipids.
Insoluble --> Soluble
Steroid & Thyroid hormones are insoluble in __________, but soluble in ___________.
Lipids
Steroid & thyroid hormones combine with specific _________ receptors, usually in the nucleus.
Protein
Steroid & thyroid hormones combine with specific protein ________, usually in the nucleus.
Receptors
Steroid & thyroid hormones combine with specific protein receptors, usually in the ____________.
Nucleus
__________ & _________ hormones combine with specific protein receptors, usually in the nucleus.
Steroid & Thyroid
Steroid & Thyroid hormones combine with specific __________ __________, usually in the nucleus.
Protein Receptors
(Steroid & Thyroid hormones) The hormone-receptor complex binds in the nucleusto particular DNA sequences, either activating or inhibiting specific ________.
genes
(Steroid & Thyroid hormones) The hormone-receptor complex binds in the nucleus to particular DNA sequences, either ___________ or ___________ specific genes.
Activating or Inhibiting
(Steroid & thyroid hormones) The hormone-receptor complex binds in the nucleus to particular ______ _____________, either activating or inhibiting specific genes.
DNA sequences
(Steroid & thyroid hormones) The _________-__________ complex binds in the nucleus to particular DNA sequences, either activating or inhibiting specific genes.
Hormone-receptor complex
(Steroid & thyroid hormones) The hormone-receptor complex binds in the _______ to particular DNA sequences, either activating or inhibiting specific genes.
Nucleus
(Steroid & thyroid hormones) After the hormone-receptor complex binds in the nucleus to particular DNA sequences, activated genes are then transcribed into ________, which enters the cytoplasm where it directs synthesis of specific proteins.
mRNA
(Steroid & thyroid hormones) After the hormone-receptor complex binds in the nucleus to particular DNA sequences, activated genes are transcribed in mRNA, which enters the _________ where it directs synthesis of specific protein.
Cytoplasm
(Steroid & thyroid hormones) These hormones are transcribed in the _________.
mRNA
(Steroid & Thyroid hormones) mRNA enters the __________, where it directs synthesis of specific protein.
Cytoplasm
Example of a steroid hormone which enters the kidney tubule cells to stimulate them to produce more Na+/K+ pumps to reclaim sodium from filtrate.
Aldosterone
These hormones include amine, peptide & protein.
Non-steroid hormones
In Non-steroid hormones each receptor molecule is a protein and has two sites, an _________ (binding) and an __________ (activity) site.
Outer --> Inner
In Non-steroid hormones each receptor molecule is a protein and has two sites, an outer (__________) and an inner (_______) site.
Binding --> Active
In ___________ hormones each receptor molecule is a protein and has two sites, an outer (binding) and an inner (active) site.
Non-steroid
In Non-steroid proteins, each receptor molecule is a _______ and has two ______, an outer(binding) and inner(active)
Protein and has two sites
Non-steroid hormones combine with the outer(binding) site this causes the inner(activity) site to interact with other __________ ___________.
Membrane proteins
Non-steroid hormones combine with the _______(_____) site, this causes the inner(activity) site to interact with other membrane proteins.
Outer(binding)
Non-steroid hormones combine with the outer(binding) site, this causes the _______(_________) site to interact with other membrane proteins.
Inner(activity)
In Non-steroid hormones, the hormone combines with the _________(_________) site.
Binding (Outer)
In Non-steroid hormones, the hormone combines with the binding (outer) site, this causes the (inner) activity siite to _____________________________________.
Interact with other membrane proteins
In Non-steroid hormones, the hormone combines with the binding (outer) site, this causes the (inner) activity site to interact with other ____________ ____________.
membrane proteins
In Non-steroid hormones, the hormone combines with the binding (outer) site, this causes the (_________)__________ site to interact with other membrane proteins.
(Inner) activity
In Non-steroid hormones, the ___________ __________ molecule is known as the first messenger.
Initial Hormone
In Non-Steroid hormones, the initial hormone is known as the ___________ ___________.
First Messenger
In Non-Steroid hormones, the chemical components that respond within the cell are called ____________ ___________.
Second Messengers
In Non-Steroid hormones, the ___________ ____________ that respond within a cell are called Second Messengers.
Chemical Components
(Non-Steroid Hormones) Many hormones use a __________ as a second messenger.
cAMP
(Non-Steroid Hormones) Cyclid AMP means ____________ ______________.
Adenosine Monophosphate
(Non-Steroid Hormones) The hormone-receptor complex activates a protein is called a _____________.
G-Protein
(Non-Steroid Hormones) A G-Protein is a __________-__________ complex that activates a protein.
Hormone-receptor
(Non-Steroid Hormones) A G-Protein is a hormone-receptor complex that activates a ________________.
Protein
(Non-Steroid Hormones) The G-Protein _________ an enzyme, called Adenylate Cyclase.
Activates
(Non-Steroid Hormones) The G-Protein activates an enzyme, called __________ _____________.
Adenylate Cyclase
(Non-Steroid Hormones) The __________ activates an enzyme called Adenylate Cyclase.
G-Protein
(Non-Steroid Hormones) An enzyme released by G-Protein that is an integral membrane protein on the inside surface of the cell membrane.
Adenylate Cyclase
(Non-Steroid Hormones) Adenylate Cyclase is an integral membrane protein on the inside surface of the __________ _________.
Cell Membrane
(Non-Steroid Hormones) Adenylate Cyclase is an __________ ___________ protein on the inside surface of the cell body.
Integral Membrane
(Non-Steroid Hormones) Adenylate Cyclase is an integral membrane protein on the _________ _________ of the cell body.
Inside Surface
Kin means
To Move
To Move
Kin
(Non-Steroid Proteins) The activated adenylate cyclase removes two ________ from an ATP, forming a cyclic AMP.
-PO(4)
(Non-Steroid Proteins) The activated adenylate cyclase removes two -PO(4) from an ATP, forming a __________.
cyclic AMP
(NON-Steroid Proteins) The __________ __________ ________ removes two -PO(4) from an ATP, forming a cyclic AMP.
Activated Adenylate Cyclase
(Non-Steroid Proteins) The activated adenylate cyclase removes two -PO(4) from an __________, forming a cyclic AMP.
ATP
Prostaglandins are very potent and are found in ________ quantities.
Minute
Prostaglandins are very ________ and are found in minute quantities.
Potent
Prostoglandins are not stored, but are ___________ just before release.
Synthesized
Prostoglandins are not ________, but are synthesized just before release.
STORED
Prostoglandins are not stored, but are synthesized just before _________.
Release
Prostoglandins balance _____________ __________ __________, such as the stomach, adrenals & regulate BP.
Antagonistic Organs' Activities
Prostoglandins balance antagonistic organs' activities, such as the __________, __________, and regulate BP.
Stomach, Adrenals & Regulate BP
Prostoglandins affect ____________ and promote inflammation.
Reproduction
Prostoglandins affect reproduction and promote _______________.
Inflammation
Very potent and are found in minute qualities.
Prostoglandins
Not stored, but are synthesized just before release.
Prostoglandins
Regulate cellular responses to hormones.
Prostoglandins
Balance antagonistic organs' activities, such as the stomach, adrenals and regulate BP.
Prostoglandins
Affect reproduction and promote inflammation.
Prostoglandins
(Control of Hormone Secretion) Why is precision necessary?
Because hormones exert a very powerful effect.
The three modes of control for hormone secretion are
1)
2)
3)
1) Hypothalamus
2) Nervous System
3) Another group of glands or cells
The three modes of control for hormone secretion are all (positive/negative) feedback?
Negative feedback
(Mode of control for hormone secretion) Controls the anterior pituitary glands' release of tropic hormones monitors via negative feedback how much is needed and present.
Hypothalamus
(Mode of control for hormone secretion) (1) Hypothalamus - controls the _________ _________ _______'s release of tropic hormones. Monitors via negative feedback, how much is needed and present.
anterior pituitary gland's
(Mode of control for hormone secretion) (1) Hypothalamus - controls the anterior pituitary gland's release of ______ _______. Monitors via negative feedback, how much is needed and how much is present.
Tropic Hormones
(Mode of control for hormone secretion) (1) Hypothalamus - controls the anterior pituitary gland's release of tropic hormones. Monitors via negative feedback, how much is ______ and how much is ______.
needed & present
(Mode of control for hormone secretion) This system stimulates some glands e.g. adrenal glands, which it stimulates directly via nerves to the secretory cells of the gland.
Nervous system
(Mode of control for hormone secretion) (2) The nervous system stimulates some glands e.g. _____________, which it stimulates directly via nerves to the secretory cells of the gland.
Adrenal glands
(Mode of control for hormone secretion) (2) The nervous system stimulates some glands e.g. adrenal glands, which stimulates directly via __________ to the secretory cells of the gland.
Nerves
(Mode of control of hormone secretion) (2) The nervous system stimulates some glands e.g. adrenal glands which stimulates via nerves to the ________ _________ of the gland.
Secretory cells
(Mode of control of hormone secretion) (3) Another group of ________, or _________, that responds directly to levels of substances in the body.
Glands; cells
(Mode of control of hormone secretion) (3) Another group of glands, or cells that responds directly to levels of __________ in the _____.
levels of substances in the body
The islets of Langerhans of the pancreas, whose alpha cells produce glucagon to increase blood glucose by the breakdown of glycogen is an example of ....
A mode of control of hormone secretion through a gland or cell that responds directly to levels of substances in the body.
(Mode of control of hormone secretion) The islets of Langerhans of the pancreas, whose alpha cells produce _________ to increase blood glucose by the breakdown of glycogen.
glucagen
(Mode of control of hormone secretion) (3) The islets of ________ of the pancreas, whose alpha cells produce glucagen to increase blood glucose by the breakdown of glycogen.
Langerhans
(Mode of control of hormone secretion) (3) The islets of Langerhans of the _________, whose alpha cells produce glucagen to increase blood glucose by the breakdown of glycogen.
Pancreas
(Mode of control of hormone secretion) (3) The islets of Langerhans of the pancreas, whose ______ ________ produce glucagon to increase blood glucose by the breakdown of glycogen.
Alpha cells
(Mode of control of hormone secretion) (3) The islets of Langerhans of the pancreas whose alpha cells produce glucagon to increase blood glucose by the breakdown of ________.
Glycogen
(Major endocrine glands) (9)
HOPPPATTT
(1) Hypothalamus
(2) Ovaries
(3) Pituitary
(4) Pancreas
(5) Parathyroid
(6) Adrenal
(7) Testis
(8) Thymus
(9) Thyroid
(Major Endocrine Glands) Called the "master gland", also called the hypophysis
Pituitary gland
(Major Endocrine Glands) Attached to the base of the brain at the hypothalamus by a stalk, called the infundibulum and occupies the sella turica of the sphenoid bone.
Pituitary gland
(Major Endocrine Glands) The PITUITARY GLAND is attached to the base of the brain at the hypothalamus by a stalk called the ____________ and occupies the sella turica of the sphenoid bone.
Infundibulum
(Major Endocrine Glands) The PITUITARY GLAND is attached to the base of the ______ at the hypothalamus by a stalk called the infundibulum and occupies the sella turica of the _________ _________.
Sphenoid Bone
(Major Endocrine Glands) GH (growth hormone, TSH (thyroid stimulating hormone), ACTH (adrenocorticotropic hormone) & FSH (follicle stimulating hormone) are all secreted from this lobe.
Anterior lobe of the pituitary gland/ adenohypophysis
(Major Endocrine Glands) All of the following are hormones that are secreted from the anterior pituitary gland except:
(A) GH (growth hormone)
(B) TSH (thyroid stimulating hormone)
(C) PTSH (parathyroid stimulating hormone)
(D) ACTH (adrenocortiocotropic hormone)
(E) FSH (follicle stimulating hormone)
(C) PTSH
(Major Endocrine Glands) GH (growth hormone) is secreted from this lobe.
Anterior lobe of the pituitary gland
(Major Endocrine Glands) TSH (thyroid stimulating hormone) is secreted from this lobe.
Anterior lobe of the pituitary gland
(Major Endocrine Glands) ACTH (adrenocorticotrophic hormone) is secreted from this lobe.
Anterior lobe of the pituitary gland
(Major Endocrine Glands) FSH (follicle stimulating hormone) is secreted from this lobe.
Anterior lobe of the pituitary gland
(Major Endocrine Glands) GH stands for...
Growth hormone
(Major Endocrine Glands) TSH stands for...
Thyroid stimulating hormone
(Major Endocrine Glands) ACTH stands for...
Adrenocorticotrophic hormone
(Major Endocrine Glands) FSH stands for...
Follicle stimulating hormone
(Major Endocrine Glands) LH stands for...
Leuteninizing hormone
(Major Endocrine Glands) PRL stands for...
Prolactin
(Major Endocrine Glands) PRL (prolactin) is secreted from this lobe.
Anterior lobe of the pituitary gland.
(Major Endocrine Glands) LH (leutenizing hormone) is secreted from this lobe.
Anterior lobe of the pituitary gland.
(Major Endocrine Glands) This lobe consists of nerve fibers and neuroglial cells that are termed pituicytes.
Posterior lobe of the pituitary gland/neurohyposphysis
(Major Endocrine Glands) This lobe of specialized neurons produce ADH (antidiuretic hormone) & OT (oxytocin)
Posterior lobe of the pituitary gland/neurohydophysis
(Major Endocrine Glands) ADH (antidiruetic hormone) secretes from this lobe.
Posterior lobe of the pituitary gland/neurohydophysis.
(Major Endocrine Glands) OT (oxytocin) secretes from this lobe.
Posterior lobe of the pituitary gland/neurohydophysis.
(Major Endocrine Glands) The posterior lobe of the pituitary gland produces
(A) LH (leuteinizing hormone)
(B) ADH (antidiruetic hormone)
(C) ACTH (adrenocorticotrophic hormone)
(D) FSH (follicle stimulating hormone)
(B) ADH *antidiruetic hormone*
(Major Endocrine Glands) The posterior pituitary lobe is referred to as the _____________ because it is controlled by the brain (hypothalamus).
Neurohypophysis
(Major Endocrine Glands) The posterior pituitary lobe is controlled by the ________ (_________) via nerve impulses.
Brain (hypothalamus)
(Major Endocrine Gland) The posterior pituitary lobe is controlled by the brain (hypothalamus) via _______ ___________.
Nerve impulses
(Major Endocrine Gland) The anterior pituitary lobe is controlled by this system.
Hypophyseal Portal System
(Major Endocrine Gland) This system controls the anterior pituitary lobe by releasing hormones produced by cells in the hypothalamus and carries them to the adenophypophysis.
Hypophyseal Portal System
(Major Endocrine Gland) The Hypophyseal System controls this lobe.
Anterior lobe of the pituitary gland.
(Major Endocrine Gland) The Hypophyseal System controls the anterior pituitary lobe by releasing hormones produced by cells in the ______________ and carries them to the ________________,
Hypothalalmus --> Adrenophypophysis
(Major Endocrine Glands) Ultimately controlled via a negative feedback system using blood as a medium.
Hypophyseal Portal System
(Major Endocrine Glands) The Hypophyseal Portal System ultimately controlled via a negative feedback system, uses the _________ as a medium.
Blood
(Major Endocrine Glands) A series of two capillary beds, one in the hypothalamus and the other in the adenohypophysis directly connected by veins.
Hypophyseal Portal System
(Major Endocrine Glands) This system contains a series of two capillary beds, one in the ___________ and the other in the ___________ directly connected by veins.
Hypothalamus & Adenohypophysis
(Major Endocrine Glands) Hormones released in the hypophyseal portal system each have its specific target cells in the ________ _________.
Anterior pituitary
(Major Endocrine Glands) These hormones control the pituitary portal system.
Anterior pituitary hormones
(Major Endocrine Glands) Also called somatotrophin, this protein stimulates cells to enlarge and divide.
GH (growth hormone)
(Major Endocrine Glands) Growth Hormone is also called ___________.
Somatotrophin
(Major Endocrine Glands) Somatotrophin is also called ___________.
Growth Hormone
(Major Endocrine Glands) Growth hormone (GH) is a protein that stimulates cells to ____________ and _________.
Enlarge & Divide
(Major Endocrine Glands) This hormone is secreted in pulses, especially during sleep.
Growth Hormone
(Major Endocrine Glands) Growth Hormone (GH) is secreted in pulses, especially during _________.
Sleep
(Major Endocrine Glands) Growth Hormone's secretion is stimulated by ________. (________ ________ ________ _________)
GHRH (Growth hormone releasing hormone)
(Major Endocrine Glands) Growth Hormone's secretion is inhibited by ______. (___________).
SS (Somatostatin)
(Major Endocrine Glands) (TRUE/FALSE) Growth hormone works well on bone but not on cartilage.
TRUE
(Major Endocrine Glands) (TRUE/FALSE) Growth hormone works well on cartilage but not on bone.
FALSE
(Major Endocrine Glands) This somatomedin produced by the liver, promotes the growth of cartilage.
ILGF (Insulin-like growth factor)
(Major Endocrine Glands) Insulin-like growth factor (ILGF) is a somatomedin produced by the liver which promotes the growth of ________.
Cartilage
(Major Endocrine Glands) Insulin-like growth factor (ILGF) is controlled by _______ and somatostatin.
GHRH
(Major Endocrine Glands) When growth hormone (GH) has a deficiency before puberty it results in _________.
Dwarfism
(Major Endocrine Glands) Dwarfism is the result of growth hormone's deficiency before ________.
Puberty
(Major Endocrine Glands) Dwarfism is the result of ___________ __________'s deficiency before puberty.
Growth Hormone's
(Major Endocrine Glands) When growth hormone has an excess before puberty it results in this disorder.
Gigantism
(Major Endocrine Glands) Gigantism is the result of growth hormone's excess before _______.
Puberty
(Major Endocrine Glands) Gigantism is the result of ________ __________ excess before puberty,
Growth Hormone's
(Major Endocrine Glands) When growth hormone has an excess after puberty it results in this disorder.
Acromegaly
(Major Endocrine Glands) Acromegaly is the result of growth hormone's excess after __________.
Puberty
(Major Endocrine Glands) Acromegaly is the result of _________ ____________ excess after puberty.
Growth Hormone's
(Major Endocrine Glands) A protein that produces breast-milk production.
Prolactin (PRL)
(Major Endocrine Glands) Prolactin (PRL) is a protein that promotes ________-________ production.
Breast-milk
(Major Endocrine Glands) Prolactin (PRL) is controlled by _ _ _ & _ _ _.
PIH (prolactin release inhibiting hormone) & PRF (prolactin releasing factor)
(Major Endocrine Glands) This protein is controlled by PIH (prolactin release inhibiting hormone) & PRF (prolactin releasing factor)
Prolactin
(Major Endocrine Glands) Excess Prolactin decreases secretion of (____)_______ _______, which decreases male sex hormones (androgens) and may result in impotency.
(LH) Luteinizing Hormone
(Major Endocrine Glands) Excess of this protein decreases secretion of LH (luteinizing hormone) which decreases male sex hormones (androgens) and may result in impotency.
Prolactin
(Major Endocrine Glands) Excess PRL (Prolactin) decreases secretion of LH (Luteinizing Hormone) which decreases male sex hormones (_______) and may result in ________.
Androgens; Impotency
(Major Endocrine Glands) A glycoprotein also known as thyrotropin.
(TSH) Thyroid stimulating hormone.
(Major Endocrine Glands) Controls secretion of certain hormones from the thyroid gland.
(TSH) Thyroid stimulating hormone.
(Major Endocrine Glands) TSH controls secretion of certain hormones from the ________.
Thyroid
(Major Endocrine Glands) Can stimulate growth of the thyroid gland.
(TSH) Thyroid stimulating hormone
(Major Endocrine Glands) TSH can stimuate growth of the __________ ____________.
Thyroid gland
(Major Endocrine Glands) Thyroid stimulating hormone (TSH) is controlled by (_ _ _)
(THR) Thyrotropin-releasing hormone.
(Major Endocrine Glands) This hormone is controlled by THR.
(TSH) Thyroid stimulating hormone.
(Major Endocrine Glands) High levels of TSH can cause an enlarged thyroid gland, called a _______.
Goiter
(Major Endocrine Glands) High levels of ______ can cause an enlarged ________ gland, called a goiter.
TSH... thyroid gland
(Major Endocrine Glands) Emotional stress can either elevate or depress secretion of _______ and _______.
TRH & TSH
(Major Endocrine Glands) _________ ___________ can either elevate or depress secretion of TRH & TSH.
Emotional stress
(Major Endocrine Glands) Emotional stress can either ________ or _______ secretion of TRH & TSH.
Elevate or Depress
(Major Endocrine Glands) This peptide controls manufacture and secretion of certain adrenal cortex hormones.
Adrenocorticotrophic Hormone
(Major Endocrine Glands) Adrenocorticotrophic hormone, is a peptide that controls manufacture and secretion of certain _________ __________ hormones.
Adrenal cortex
(Major Endocrine Glands) Peptide controlled by CRH (corticotrophin-releasing hormone)
Adrenocorticotrophic Hormone
(Major Endocrine Glands) Increased secretions of ACTH (Adrenocorticotrophic Hormone) is caused by _________.
Stress
(Major Endocrine Glands) Stress can cause increased secretion of (________) by stimulating the release of CRH.
ACTH (Adrenocorticotrophic Hormone)
(Major Endocrine Glands) Stress can cause increased secretion of ACTH (adrenocorticotrophic hormone) by stimulating the release of _____.
CRH (corticotrophin-releasing hormone)
(Major Endocrine Glands) Both of these hormones are called gonadotropins and are glycoproteins.
(FSH) follicle stimulating hormone & (LH) luteinizing hormone
(Major Endocrine Glands) FSH (follicle stimulating hormone) and LH (luteinizing hormone) are both called ____________ and are glycoproteins.
Gonadotropins
(Major Endocrine Glands) These two hormones act on reproductive organs.
FSH & LH
(Major Endocrine Glands) FSH & LH both act on ____________ organs.
Reproductive
(Major Endocrine Glands) This hormone causes growth and development of the follicles that house the egg cells in the ovaries, and stimulates these follicular cells to produce estrogens.
FSH
(Major Endocrine Glands) Follicle Stimulating Hormone (FSH) causes growth and development of the follicles that house the _____ cells in the ovaries, and stimulates these follicular cells to produce estrogens.
Egg
(Major Endocrine Glands) Follicle Stimulating Hormone (FSH) causes growth and development of the follicles that house the egg cells in the ______, and stimulates these follicular cells to produce ________.
Ovaries, Estrogens
(Major Endocrine Glands) In males, FSH stimulates the production of _______ cells in the ________.
Sperm cells in the testes
(Major Endocrine Glands) This hormone stimulates the production of sperm cells in the male testes.
Follicle Stimulating Hormone (FSH)
(Major Endocrine Glands) This hormone promotes secretion of sex hormones in both males and females.
Luteinizing Hormone (LH)
(Major Endocrine Glands) Luteinizing Hormone (LH) promotes secretion of ______ hormones in both males and females.
Sex
(Major Endocrine Glands) This hormone is the essential for release of the egg cells from the follicles of the ovaries.
Luteinizing Hormone (LH)
(Major Endocrine Glands) Luteinizing Hormone (LH) is the essential for ________ of the ______ cells from the follicles of the ovaries.
Release of the egg cells
(Major Endocrine Glands) These hormones are produced in the hypothalamus and travel down axons in the infundibulum to the posterior pituitary for release into the blood in response to nerve impulses from the hypothalamus.
Posterior Pituitary Hormones
(Major Endocrine Glands) Anterior vs. Posterior pituitary hormones. Which one is connected by nerve impulses and which one is connected by blood vessels?
Posterior = nerve impulses
Anterior = blood vessels
(Major Endocrine Glands) Posterior pituitary hormone, also known as vasopressin. This is a short polypeptide.
Antidiruetic hormone (ADH)
(Major Endocrine Glands) Antidiruetic hormone (ADH), also known as vasopressin, is a (ANTERIOR/POSTERIOR) hormone.
POSTERIOR
(Major Endocrine Glands) This hormone decreases urine formation -- or "conserves" water and regulates concentration of body fluids.
Antidiutic Hormone (ADH)
(Major Endocrine Glands) Antidiutic Hormone (ADH) decreases ______ formation or "conserves" water and regulates concentration of body fluids.
Urine
(Major Endocrine Glands) Antidiutic Hormone (ADH) decreases urine formation or "_________" water and regulates concentration of body fluids.
Conserves
(Major Endocrine Glands) Antidiutic Hormone (ADH) decreases urine formation or "conserves" water and ___________ concentration of _____ _______.
Regulates concentration of body fluids
(Major Endocrine Glands) This hormone can contract the certain smooth muscles, including those in the walls of the blood vessels.
Antidiuretic Hormone (ADH)
(Major Endocrine Glands) Antidiuretic Hormone (ADH) can contract the certain _______ ________, including those in the walls of the blood vessels.
Smooth Muscles
(Major Endocrine Glands) The release of Antidiuretic Hormone (ADH) is stimulated by reduced _______ ________.
Blood Pressure
(Major Endocrine Glands) This hormone's release is stimulated by reduced blood pressure.
Antidiuretic Hormone (ADH)
(Major Endocrine Glands) This hormone functions in vasoconstriction and water retention.
Antidiuretic Hormone (ADH)
(Major Endocrine Glands) Antidiuretic Hormone (ADH) is controlled by the _____________ by means of osmoreceptors and baroreceptors.
Hypothalamus
(Major Endocrine Glands) This hormone is controlled by the hypothalamus by osmoreceptors and baroreceptors.
Antidiuretic Hormone (ADH)
(Major Endocrine Glands) Antidiuretic Hormone (ADH) is controlled by the hypothalamus by ______receptors and _______receptors.
Osmoreceptors and Baroreceptors
(Major Endocrine Glands) Antidiuretic Hormone (ADH) is associated with this disorder.
Diabetes Insipidus
(Major Endocrine Glands) Diabetes Inipidus is associated with this hormone.
Antidiuretic Hormone (ADH)
(Major Endocrine Glands) This hormone is a short polypeptide which also has some antidiuretic properties.
Oxytocin (OT)
(Major Endocrine Glands) This hormone functions in uterine contractions of labor, milk "let down", sexual function and possibly movement of fluids in both male and female sexual/reproductive activity.
Oxytocin (OT)
(Major Endocrine Glands) This hormone is controlled by the hypothalamic response to uterine, vagina, breast/nipple and mental/emotional stimulation.
Oxytocin (OT)
(Major Endocrine Glands) This gland is located in the throat on the anterior aspect of the larynx, somewhat "H"-shaped with two lobes.
Thyroid gland
(Major Endocrine Glands) The thyroid gland produces these three hormones.
TTC
1.) Thyroxine
2.) Triiodothyronine
3.) Calcitonin
(Major Endocrine Glands) This hormone of the thyroid is also called tetraiodothyronine, or T(4) due to it having 4 atoms of iodine.
Thyroxine
(Major Endocrine Glands) This hormone of the thyroid is known as T(4).
Thyroxine
(Major Endocrine Glands) The thyroxine hormone of the thyroid is known as __( ).
T4
(Major Endocrine Glands) The hormone Thyroxine is known as T(4) because it has 4 atoms of __________.
Iodine
(Major Endocrine Glands) This hormone of the thyroid is known as T(3) due to having 3 atoms of iodine.
Triiodothyronine
(Major Endocrine Glands) The triiodothyronine hormone of the thyroid is also known as __( ).
T3
(Major Endocrine Glands) The triiodothyronine hormone of the thyroid is also known as T(3) because it has 3 atoms of ___________.
Iodine
(Major Endocrine Glands) This hormone is not usually classified as thyroid hormone due to its production is not in the follicles of the thyroid tissue, but in the "C" cells of the thyroid gland.
Calcitonin
(Major Endocrine Glands) Calcitonin is not usually classified as a thyroid hormone due to its production is not in the follicles of thyroid tissues but in the "____" cells of the thyroid gland.
"C" Cells
(Major Endocrine Glands) These three hormones regulate the metabolism of carbohydrates, lipids and proteins.
Thyroxine, Triidothyronine & Calcitonin
(Major Endocrine Glands) Thyroxin, Triithyronine and Calcitonin are all hormones that regulate the __________ of carbohydrates, lipids and proteins.
Metabolism
(Major Endocrine Glands) Thyroxine, Triiodothyronine and Calcitonin all affect the _________ rate. Especially the basal _______ rate, the resting ______ rate.
Metabolic, Metabolic, Metabolic
(Major Endocrine Glands) Thyroxine, Triidothyronine and Calcitonin all affect the metabolic rate. Especially the ________ ________ _________ => the resting rate.
Basal Metabolic Rate
(Major Endocrine Glands) Which three hormones affects the metabolic rate?
Thyroxine, Triiodothyronine and Calcitonine
(Major Endocrine Glands) This is accomplished by affecting the rate at which protein is synthesized, lipids are broken down and metabolized and how many calories the body must consume.
Basal Metabolic Rate
(Major Endocrine Glands) This hormone is produced by the "C" cells of the thyroid, not the follicles.
Calcitonin
(Major Endocrine Glands) Calcitonin is the hormone produced by the "____" cells of the thyroid, not the __________.
"C" cells not the follicles
(Major Endocrine Glands) This hormone controls blood calcium and phosphate concentrations.
Calcitonin
(Major Endocrine Glands) Calcitonin controls blood _________ and phosphate __________.
Calcium & Concentrations
(Major Endocrine Glands) Calcitonin controls __________ calcium and __________ concentrations.
Blood & Phosphate
(Major Endocrine Glands) This hormone lowers concentrations of serum Ca(+) and -PO4 ions by decreasing how fast they leave bones and inhibiting the bone dissolving properties of osteoclasts.
Calcitonin
(Major Endocrine Glands) Calcitonin (Raises/Lowers) concentrations of serum Ca(+) and -PO4 ions by decreasing how fast they leave bones and inhibiting the bone dissolving properties of osteoclasts.
Lowers
(Major Endocrine Glands) Calcitonin lowers concentrations of serum ______ and _______ ions by decreasing how fast they leave bones and inhibiting the bone dissolving properties of osteoclasts.
Ca(+) & -PO4
(Major Endocrine Glands) Calcitonin lowers concentrations of serum Ca(+) and -PO4 ions by decreasing how fast they leave bones and inhibiting the bone dissolving properties of ____________.
Osteoclasts
(Major Endocrine Glands) This hormone promotes the bone-building activities of the osteoblasts.
Calcitonin
(Major Endocrine Glands) Calcitonin promotes the _________-_________ activities of osteoblasts.
Bone building
(Major Endocrine Glands) Calcitonin promotes the bone building activities of ________.
Osteoblasts
(Major Endocrine Glands) This hormone prevents bone resorption during pregnancy (Ca and Phos required for milk and bone)
Calcitonin
(Major Endocrine Glands) Calcitonin prevents bone resorption during __________ (Ca and Phos required for milk and bone)
Pregnancy
(Major Endocrine Glands) This hormone increases excretion of Ca(+) and -PO4 ions by the kidneys.
Calcitonin
(Major Endocrine Glands) Calcitonin increases excretion of _____ and _____ ions by the kidneys.
Ca(+) and -PO4
(Major Endocrine Glands) Calcitonin increases excretion of Ca(+) and -PO4 ions by the ________.
Kidneys
(Major Endocrine Glands) A deficiency of thyroxine or thyroid in newborn babies results in this disorder. (a developmental retardation)
Cretinism
(Major Endocrine Glands) A deficiency of ___________ or __________ in newborn babies results in cretinism (a developmental retardation)
Thyroxine or Thyroid
(Major Endocrine Glands) This results in Grave's disease, which symptoms include weight loss, rapid HR, sweating and exopthalmos.
Hyperthyroidism
(Major Endocrine Glands) Hyperthyroidism results in this disease, which symptoms include weight loss, rapid HR, sweating and exopthalmos.
Grave's Disease
(Major Endocrine Glands) Hyperthyroidism results in Grave's disease. What are three symptoms of this disease?
Weight loss, Rapid HR, Sweating & Exopthalmos
(Major Endocrine Glands) This protrusion of the eyes is a symptom of Grave's disease.
Exopthalmus
(Major Endocrine Glands) Exopthalmus is a symptom of Grave's Disease; and means protrusion of the ______.
eyes
(Major Endocrine Glands) Thyroid and Thyroxine disorders: A deficiency in this may result in goiter -- enlargement of the thyroid.
Iodine
(Major Endocrine Glands) Thyroid and Thyroxine disorders: Iodine deficiency may result in _______ -- enlargement of the thyroid.
Goiter
(Major Endocrine Glands) Hyperthyroidism also results in ________, which symptoms include low MR, feeling chilled, constipation; thick, dry skin and puffy eyes; edema; lethargy; and mental sluggishness-- but not mental retardation.
Myxedema
(Major Endocrine Glands) ______________ also results in Myxedema, which symptoms include low MR, feeling chilled, constipation; thick, dry skin and puffy eyes; edema; lethargy; and mental sluggishness -- but not mental retardation.
Hyperthyroidism
(Major Endocrine Glands) Hyperthyroidism may result in these two diseases:
1.)
2.)
1.) Grave's disease
2.) Myxedema
(Major Endocrine Glands) These glands are on the posterior surface of the thyroid gland.
Parathyroid Glands
(Major Endocrine Glands) Parathyroid glands are on the ________ surface of the thyroid gland.
Posterior
(Major Endocrine Glands) This hormone known as parathormone, is produced by the parathyroid glands.
Parathyroid hormones
(Major Endocrine Glands) Parathyroid hormone, known as parathormone, is produced by these glands.
Parathyroid Glands
(Major Endocrine Glands) This hormone increases blood Ca(+) by stimulating the activity of osteoclasts.
Parathyroid hormones
(Major Endocrine Glands) Parathyroid hormones increase ________ _____(+) by stimulating the activity of osteoclasts.
blood Ca(+)
(Major Endocrine Glands) Parathyroid hormones increase blood Ca(+) by stimulating the activity of __________.
Osteoclasts
(Major Endocrine Glands) This hormone increases blood Ca (+) by stimulating the activity of osteoclasts and inhibiting osteoblasts.
Parathyroid hormones
(Major Endocrine Glands) Parathyroid hormone increases blood Ca (+) by stimulating the activity of _________ and inhibiting ___________.
osteoclasts...osteoblasts
(Major Endocrine Glands) In the Parathyroid hormone, the increase in blood Ca(+) is due to resorption from bone by ___________.
Osteoclasts
(Major Endocrine Glands) In the Parathyroid hormone, the increase in blood Ca(+) is due to ________ from bone by osteoclasts.
resorption
(Major Endocrine Glands) This hormone decreases blood -PO4 by actions in the bone, kidneys and intestines.
Parathyroid hormones
(Major Endocrine Glands) Parathyroid hormones decreases _______ (-)______ by actions in the bone, kidneys and intestines.
blood -PO4
(Major Endocrine Glands) Parathyroid hormones decreases blood -PO4 by actions in the _________, kidneys and intestines.
Bone
(Major Endocrine Glands) Parathyroid hormones decreases blood -PO4 by actions in the bone, ________ and intestines.
Kidneys
(Major Endocrine Glands) Parathyroid hormones decreases blood -PO4 by actions in the bone, kidneys and ___________.
Intestines
(Major Endocrine Glands) Parathyroid hormones increases __________ and decreases ___________.
Increases blood Ca(+)
Decreases blood -PO4
(Major Endocrine Glands) In the parathyroid hormone, when blood -PO4 decreases it influences metabolism of vitamin D, and therefore, calcium ___________.
Absorption
(Major Endocrine Glands) In the parathyroid hormone, the decrease in -PO4 is required for vitamin ____ metabolism.
D
(Major Endocrine Glands) This disorder is caused by a tumor of the parathyroid glands.
Hyperparathyroidism
(Major Endocrine Glands) Hyperparathyroidism is a disorder caused by a ______ of the parathyroid glands.
tumor
(Major Endocrine Glands) Hyperparathyroidism is a disorder caused by a tumor of the _______ __________.
Parathyroid glands
(Major Endocrine Glands) This disorder is caused by accidental surgical removal (of thyroid) and injuries.
Hypoparathyroidism
(Major Endocrine Glands) Hypoparathyroidism is the disorder caused by accidental surgical removal of the _________ and _________.
thyroid and injuries
(Major Endocrine Glands) These glands are also called "suprarenal" glands. They are pyramid-shaped and sit atop the kidneys.
Adrenal Glands
(Major Endocrine Glands) These glands consist of a cortex and medulla.
Adrenal Glands
(Major Endocrine Glands) Adrenal Glands consist of these two parts.
1.) Cortex
2.) Medulla
Cortex & Medulla
(Major Endocrine Glands) The three outer layers of the adrenal glands is known as the __________.
Cortex
(Major Endocrine Glands) The central portion of the adrenal glands is known as the __________.
Medulla
(Major Endocrine Glands) This hormone of the medulla is also known as adrenalin, and is classified as catecholamine.
Epinephrine
(Major Endocrine Glands) Epinephrine is a hormone of the _________, and is also known as adrenalin, and is classified as catecholamine.
Medulla
(Major Endocrine Glands) Epinephrine is a hormone of the medulla, and is also known as __________, and is classified as catecholamine.
Adrenaline
(Major Endocrine Glands) Adrenaline is also known as this hormone of the medulla.
Epinphrine
(Major Endocrine Glands) Epinephrine and Norepinphrine are both classified as _______________.
Catecholamine
(Major Endocrine Glands) Norepinephrine is a hormone of the medulla also known as _________.
Noradrenaline
(Major Endocrine Glands) (Adrenal Glands) (Hormones of the Medulla)
Adrenalin is known as __________.
Noradrenaline is known as _________________.
Adrenaline = Epinphrine
Noradrenaline = Norepinephrine
(Major Endocrine Glands) The ratio of hormones of the medulla is ____% epinephrine and _____% norepinephrine.
80% and 20%
(Major Endocrine Glands) The ratio of hormones in the medulla result in 80% _________ and 20% ____________.
Epinphrine (adrenaline) and Norepinephrine (noradrenaline)
(Major Endocrine Glands) Epinephrine and Norepinephrine both begin as the amino acid _______.
Tyrosine
(Major Endocrine Glands) The production sequence for hormones of the medulla goes tyrosine => dopa => dopamine => norepinephrine => ____________.
epinphrine
(Major Endocrine Glands) The production sequence for hormones of the medulla goes tyrosine => dopa => dopamine => ____________ => epinphrine.
norepinephrin
(Major Endocrine Glands) The production sequence for hormones of the medulla goes tyrosine => dopa => _____________ => norepinephrin => epinephrine
Dopamine
(Major Endocrine Glands) The production sequence for hormones of the medulla goes tyrosine => __________ => dopamine => norepinephrin => epinphrine
Dopa
(Major Endocrine Glands) The production sequence for hormones of the medulla goes ________ => dopa => dopamine => norepinephrin => epinphrine
Tyrosine
(Major Endocrine Glands) In hormones of the medulla, ____% of norepinephrin is stored for later use.
15%
(Major Endocrine Glands) This hormone of the medulla increases heart rate, cardiac contraction, blood pressure, MR and respiratory rate.
Epinephrine
(Major Endocrine Glands) This hormone of the medulla decreases the activity of the digestive system.
Epinephrine
(Major Endocrine Glands) Which hormone of the medulla has a greater effect on alpha sites, enhancing its effectiveness?
Norepeinephrine
(Major Endocrine Glands) (Hormones of the Medulla) Cells with more Alpha sites experience a greater impact from norepinephrine than cells with more beta sites, which would be more influenced by _____________.
Epinephrine
(Major Endocrine Glands) (Hormones of the Medulla) Epinephrine has a greater impact on ________ sites, while Norepinephrine has a greater impact on _______ sites.
Beta, Alpha
(Major Endocrine Glands) What are the two hormones of the adrenal cortex?
1.)
2.)
Aldosterone & Cortisol
(Major Endocrine Glands) ________________ usually sends nerve impulses to the adrenal medulla in response to stress. This is known as "fight" or "flight" response.
Hypothalamus
(Major Endocrine Glands) Hypothalamus usually sends nerve impulses to the _________ _________ in response to stress. This is known as "fight" or "flight" response.
Adrenal Medulla
(Major Endocrine Glands) Hypothalamus usually sends nerve impulses to the adrenal cortex in response to __________. This is known as "fight" or "flight" response.
Stress
(Major Endocrine Glands) (Control of Medullary hormones) Hypothalamus usually sends nerve impulses to the adrenal cortex in response to stress. This is known as "_______" or "________" response.
Fight or Flight Response
(Major Endocrine Glands) In the control of medullary hormones this makes up the bulk of the gland.
Adrenal Cortex
(Major Endocrine Glands) In the control of medullary hormones, this consists of three layers that have distinctly different functions, but anatomically are not very well differentiated.
Adrenal Cortex
(Major Endocrine Glands) (Medullary Hormones) The outer layer of the adrenal cortex, where adosterone is produced.
Zona glomerulosa
(Major Endocrine Glands) (Medullary Hormones) The outer layer (Zona glomerulosa) of the adrenal cortex is where _________ is produced.
Adosterone
(Major Endocrine Glands) (Medullary Hormones) Adosterone is produced in the outer layer of this: ____________.
Adrenal Cortex
(Major Endocrine Glands) (Medullary Hormones) Aldosterone is a "mineralocorticoid" because it helps regulate the concentration of mineral _______ (Na+ and K+)
electrolytes
(Major Endocrine Glands) (Medullary Hormones) Aldosterone is a "______________" because it helps regulate the concentration of mineral electrolytes (Na+ and K+)
Mineralcorticoid
(Major Endocrine Glands) (Medullary Hormones) ____________ is a "mineralcorticoid" because it helps regulate the concentration of mineral electrolytes (Na+ and K+)
Adosterone
(Major Endocrine Glands) (Medullary Hormones) Adosterone is a "mineralcorticoid" because it helps regulate the concentration of mineral electrolytes (_____ and ______)
Na+ and K+
(Major Endocrine Glands) (Medullary Hormones) When you think of where aldosterone acts, think of the __________, especially collecting ducts.
Kidney
(Major Endocrine Glands) (Adrenal Cortex Hormones) This hormone is directly linked to plasma Na(+) levels via renin-angiotensin system.
Aldosterone
(Major Endocrine Glands) (Adrenal Cortex Hormones) This hormone controls Na+ reabsorption.
Aldosterone
(Major Endocrine Glands) (Adrenal Cortex hormones) Where the Na+ goes, so goes the water through ___________.
Osmosis
(Major Endocrine Glands) (Adrenal Cortex Hormones) ADH controls _______ reabsorption (not _______) by blood vessel wall contraction and increasing water absorption in the collecting ducts.
Water (not sodium)
(Major Endocrine Glands) (Adrenal Cortex Hormones) ADH controls water reabsorption (not sodium) by _________ ____________ _________ ___________ and increasing water absorption in the collecting ducts.
blood vessel wall constriction
(Major Endocrine Glands) (Adrenal Cortex Hormones) ADH controls water reabsorption (not sodium) by blood vessel wall constriction and increasing _______ absorption in the collecting _________.
water ...ducts
(Major Endocrine Glands) This part of the adrenal gland is a glucocorticoid that affects glucose, lipid and protein metabolism.
Cortisol
(Major Endocrine Glands) Cortisol is the part of the adrenal gland that affects _________, lipid and protein metabolism.
glucose
(Major Endocrine Glands) Cortisol is the part of the adrenal gland that affects glucose, ______ and protein metabolism.
lipid
(Major Endocrine Glands) Cortisol is the part of the adrenal gland that affects glucose, lipid and __________ _____________.
protein metabolism
(Major Endocrine Glands) This part of the adrenal gland is produced in the middle cortical layer, the zona faciculata.
Cortisol
(Major Endocrine Glands) This part of the adrenal gland inhibits protein synthesis which results in increased-serum amino acids => glucose.
Cortisol
(Major Endocrine Glands) Cortisol inhibits ________ ________ which results in increased-serum amino acids => glucose.
Protein Synthesis
(Major Endocrine Glands) Cortisol inhibits protein synthesis which results in increased-serum ________ ________ => glucose.
amino acids
(Major Endocrine Glands) Cortisol inhibits protein synthesis which results in increased-serum amino acids => __________.
glucose
(Major Endocrine Glands) Cortisol promotes the release of ______ _______ from the adipose tissues and reduces the need requirement of glucose as an energy source as it provides an alternative source.
fatty acids
(Major Endocrine Glands) Cortisol promotes the release of fatty acids from the ______ ________ and reduces the need requirement of glucose as an energy source as it provides an alternative source.
adipose tissues
(Major Endocrine Glands) Cortisol promotes the release of fatty acids from the adipose tissues and reduces the need requirement of ________ as an energy source as it provides an alternative source.
glucose
(Major Endocrine Glands) Cortisol promotes the release of fatty acids from the adipose tissues and reduces the need requirement of glucose as an _______ _________ as it provides an alternative source.
energy source
(Major Endocrine Glands) Cortisol promotes the release of fatty acids from the adipose tissues and reduces the need requirement of glucose as an energy source as it provides an ___________ ____________.
alternative source
(Major Endocrine Gland) The process where cortisol stimulates the liver to synthesize glucose from glycerol and amino acids to increase blood glucose.
Gluconeogenesis
(Major Endocrine Glands) Keeps blood glucose levels within the preset normal homeostatic range.
Cortisol
(Major Endocrine Glands) Cortisol keeps blood glucose levels within the preset normal _______ _______.
Homeostatic Range
(Major Endocrine Glands) The hypothalamus secretes __________ _________ _________ which causes the anterior pituitary gland to alter the release of cortisol accordingly.
(CRH) Cortisol releasing hormone
(Major Endocrine Glands) The ___________ secretes CRH which causes the anterior pituitary gland to alter the release of ________ accordingly.
Cortisol
(Major Endocrine Glands) The hypothalamus secretes CRH which causes the _________ _________ __________ to alter the release of cortisol accordingly.
Anterior Pituitary Gland
(Major Endocrine Glands) This disorder of the adrenal glands is caused by the insufficient cortical output due to immune system attack. This is a severe electrolyte imbalance, if untreated, death in days.
Addison's disease
(Major Endocrine Glands) Addison's disease (a disorder of the adrenal gland) is the result in insufficient _________ output due to immune system attack. Severe electrolyte imbalance, if untreated, death in days.
Cortisol
(Major Endocrine Glands) This disorder of the adrenal gland is due to an insufficient cortical output.
Addison's Disease
(Major Endocrine Glands) This disorder of the adrenal gland is due to severe electrolyte imbalance. If untreated, death in days.
Addison's Disease
(Major Endocrine Glands) This disorder of the adrenal gland leads to hypoglycemia because the glucocorticoids help maintain normal blood glucose levels.
Addison's Disease
(Major Endocrine Glands) This disorder of the adrenal gland is caused by too many corticosteroids that maintain the blood glucose too high.
Adrenal Diabetes
(Major Endocrine Glands) Adrenal Diabetes is a disorder of the adrenal gland caused by too many ________________ that maintain the blood glucose too high.
corticosteroids
(Major Endocrine Glands) Adrenal Diabetes is a disorder of the adrenal gland caused by too many corticosteroids that maintain the _____ ________ too high.
blood glucose
(Major Endocrine Glands) Adrenal Diabetes is a disorder of the adrenal gland caused by too many corticosteroids that maintain the blood glucose too _______.
high
(Major Endocrine Glands) This disorder is caused by adrenal tumor or oversecretion of ACTH.
Cushing's Syndrome
(Major Endocrine Glands) Cushing's Syndrome is caused by _______ tumor or oversecretion of ACTH.
adrenal
(Major Endocrine Glands) Cushing's Syndrome is caused by adrenal ________ or oversecretion of ACTH.
Tumor
(Major Endocrine Glands) This disorder is caused by adrenal tumor or oversecretion of ________.
ATCH
(Major Endocrine Glands) This disorder is caused by adrenal tumor or __________ of ATCH.
Oversecretion
(Major Endocrine Glands) This disorder may result from taking corticosteroid drugs for many years.
Cushing's Syndrome
(Major Endocrine Glands) Cushing's syndrome may result from taking ___________ drugs for many years.
Corticosteroid
(Major Endocrine Glands) This syndrome is nicknamed "moon face" and seen due to the overuse of steroids.
Cushing's Syndrome
(Major Endocrine Glands) This gland lies in the curve of the duodenum, posterior to the stomach with a "tail" extending to the spleen, almost to the side of the abdominal cavity. Informally, has a "head" and "tail"
Pancreas
(Major Endocrine Glands) This gland is both endocrine and exocrine in structure and function.
Pancreas
(Major Endocrine Glands) The endocrine part of the pancreas produces ________ and the exocrine part produces __________ _________.
Endocrine produces hormones.
Exocrine produces digestive enzymes.
(Major Endocrine Glands) The follicles of the endocrine portion of the pancreas are known as:
islets of Langerhans
(Major Endocrine Glands) Islets of Langerhans are the follicles of the _______ portion of the pancreas.
endocrine
(Major Endocrine Glands) Islets of Langerhans are the name of the follicles of the endocrine portion of the _________.
pancreas
(Major Endocrine Glands) What are the three types of cells consisting in an islet of Langerhan?
Alpha, Beta and Delta Cells
(Major Endocrine Glands) The three types of cells consisting in an islet of Langerhan are alpha, beta and _______ cells.
delta
(Major Endocrine Glands) The three types of cells consisting in an islet of Langerhan are alpha, _____ and delta cells.
beta
(Major Endocrine Glands) The three types of cells consisting in an islet of Langerhan are ______, beta and delta cells.
alpha
(Major Endocrine Glands) Alpha, beta and delta cells are the three types of cells that make up a _________ of _________.
Islet of Langerhans
(Major Endocrine Glands) A protein hormone that is produced by the alpha cells, and acts to elevate blood glucose by stimulating the breakdown of glycogen into glucose, fatty acids and glycerol into glucose and amino acids into glucose (gluconeogenesis)
Glucagon
(Major Endocrine Glands) Glucagon is a protein hormone produced by _______ cells.
Alpha
(Major Endocrine Glands) Glucagon acts to elevate blood glucose by stimulating the breakdown of glycogen into ________, fatty acids and glycerol into __________ and amino acids into ________ (glucogenesis)
GLUCOSE GLUCOSE GLUCOSE
(Major Endocrine Glands) Glucagon acts to elevate blood glucose by stimulating the breakdown of _________ into glucose, fatty acids and glycerol into glucose and amino acids into glucose (glucogenesis)
glycogen
(Major Endocrine Glands) Glucagen is a protein hormone that acts to elevate blood glucose by stimulating the breakdown of glycogen into glucose, _______ ________ and _______ into glucose and amino acids into glucose (glucogenesis)
Fatty acids & glycerol
(Major Endocrine Glands) Glucagen is a protein hormone that acts to elevate blood glucose by stimulating the breakdown of glycogen into glucose, fatty acids and glycerol into glucose and _______ _________ into glucose (glucogenesis)
amino acids
(Major Endocrine Glands) Glucagen is a protein hormone that acts to elevate blood glucose by stimulating the breakdown of glycogen into glucose, fatty acids and glycerol into glucose and amino acids into glucose (_________________)
Glucogenesis
(Major Endocrine Glands) This protein hormone's main effect is exacly the opposite of glucagon.
Insulin
(Major Endocrine Glands) Glucagon is produced by _______ cells; while insulin is produced by ________ cells.
Glucagon = Alpha Cells
Insulin = Beta Cells
(Major Endocrine Glands) Insulin is produced by __________ cells.
Beta
(Major Endocrine Glands) This stimulates the liver to form glycogen from glucose and inhibits conversion of noncarbohydrates into glucose.
Insulin
(Major Endocrine Glands) Insulin stimulates the ______ to form glycogen from glucose and inhibits conversion of noncarbohydrates into glucose.
Liver
(Major Endocrine Glands) Insulin stimulates the liver to form _________ from glucose and inhibits conversion of noncarbohydrates into glucose.
Glycogen
(Major Endocrine Glands) Insulin stimulates the liver to form glycogen from glucose and inhibits conversion of ____________ into glucose.
Noncarbohydrates
(Major Endocrine Glands) Insulin stimulates the liver to form glycogen from _______ and inhibits conversion of noncarbohydrates into glucose.
Glucose
(Major Endocrine Glands) Insulin stimulates the liver to form glycogen from glucose and inhibits conversion of noncarbohydrates into ________.
Glucose
(Major Endocrine Glands) This promotes facilitated diffusion of glucose through cell membranes, plus it stimulates the cells' uptake of amino acids and the production of protein.
Insulin
(Major Endocrine Glands) Insulin promotes ________ __________ of glucose through cell membranes, plus it stimulates the cells' uptake of amino acids and the production of protein.
Facilitated Diffusion
(Major Endocrine Glands) Insulin promotes facilitated diffusion of _________ through cell membranes, plus it stimulates the cells' uptake of amino acids and the production of protein.
Glucose
(Major Endocrine Glands) Insulin promotes facilitated diffusion of glucose through ______ _________, plus it stimulates the cells' uptake of amino acids and the production of protein.
Cell Membranes
(Major Endocrine Glands) Insulin promotes facilitated diffusion of glucose through cell membranes, plus it ___________ the cells' uptake of amino acids and the production of protein.
stimulates
(Major Endocrine Glands) Insulin promotes facilitated diffusion of glucose through cell membranes, plus it stimulates the cells' uptake of _______ ________ and the production of _________.
Stimulates cells uptake of AMINO ACIDS.
Stimulates production of PROTEIN.
(Major Endocrine Glands) This has an effect of lowering blood glucose.
Insulin
(Major Endocrine Glands) Insulin has an effect of (RAISING/LOWERING) blood glucose.
Lowering
(Major Endocrine Glands) Insulin has an effect of lowering ________ ___________.
Blood glucose
(Major Endocrine Glands) This is produced by the delta cells, and helps regulate glucose metabolism by inhibiting the secretion of glucagon and insulin (takes the harshness out of the effects of insulin/glucagon)
Somatostatin
(Major Endocrine Glands) Somatostatin is produced by the ________ cells, and helps regulate glucose metabolism by inhibiting the secretion of glucagon and insulin (takes the harshness out of the effects of insulin/glucagon)
Delta
(Major Endocrine Glands) Glucagon, Insulin and Somatostatin all occur in this gland.
Pancreas
(Major Endocrine Glands) (Pancreas) What cells produce these following hormones:
1.) Glucagon
2.) Insulin
3.) Somatostatin
1.) Alpha Cells
2.) Beta Cells
3.) Delta Cells
(Major Endocrine Glands) (Pancreas) Which hormone is produced from these following cells:
1.) Alpha Cells
2.) Beta Cells
3.) Delta Cells
1.) Glucagon
2.) Insulin
3.) Somatostatin
(Major Endocrine Glands) This helps regulate glucose metabolism by inhibiting the secretion of glucagon and insulin.
Somatostatin
(Major Endocrine Glands) Somatostatin helps regulate glucose metabolism by inhibiting the secretion of __________ and _________.
Glucagon and Insulin
(Major Endocrine Glands) What controls glucagon and insulin?
Blood glucose concentrations
(Major Endocrine Glands) Blood glucose concentrations controls what two things?
glucagon and insulin
(Major Endocrine Glands) It is unknown what controls somatostatin, but it is probably either blood glucose or _________ _________ _________ on a hormonal basis.
Direct negative feedback
(Major Endocrine Glands) It is unknown what controls somatostatin, but it is probably either blood glucose or direct negative feedback on a __________ ____________.
Hormonal Basis
(Major Endocrine Glands) It is unknown what controls somatostatin, but it is probably either _________ _________ or direct negative feedback on a hormonal basis.
blood glucose
(Major Endocrine Glands) It is unknown what controls _______________ but it is probably either blood glucose or direct negative feedback on a hormonal basis.
Somatostatin
(Major Endocrine Glands) Disorders of the hormones in the pancreas (insulin, glucagon and somatostatin) may result in __________ ___________.
Diabetes Mellitus
(Major Endocrine Glands) Diabetes Mellitus stems from the hormones of this gland.
Pancreas
(Major Endocrine Glands) What is type 1 diabetes?
Early onset/ juvenile diabetes
(Major Endocrine Glands) What is type 2 diabetes?
Mature or adult onset diabetes
(Other Endocrine Glands) This is a small, oval structure that is shaped like a pine cone.
Pineal Gland
(Other Endocrine Glands) The Pineal gland is a small, oval structure that is shaped like a _______ ______.
Pine cone
(Other Endocrine Glands) This gland is between the cerebral hemisphere attached to the upper portion of the thalamus.
Pineal Gland
(Other Endocrine Glands) The Pineal Gland is between the ________ _________ attached to the upper portion of the thalamus.
cerebral hemisphere
(Other Endocrine Glands) The Pineal Gland is between the cerebral hemisphere attached to the upper portion of the _________.
thalamus
(Other Endocrine Glands) This is produced by the pineal gland, which is synthesized from serotonin.
Melatonin
(Other Endocrine Glands) Melatonin is produced by this gland.
Pineal Gland
(Other Endocrine Glands) Melatonin, produced by the pineal gland, is synthesized from _____________.
Serotonin
(Other Endocrine Glands) From where is melatonin synthesized?
Seratonin
(Other Endocrine Glands) This substance produced by the pineal gland is synthesized by seratonin.
Melatonin
(Other Endocrine Glands) This inhibits secretion of gonadotrophins from the anterior pituitary and helps regulate the female reproductive cycle and may induce sleepiness.
Melatonin
(Other Endocrine Glands) Melatonin inhibits secretion of ___________________ from the anterior pituitary and helps regulate the female reproductive cycle and may induce sleepiness.
gonadotrophins
(Other Endocrine Glands) Melatonin inhibits secretion of gonadotrophins from the ____________ _____________ and helps regulate the female reproductive cycle and may induce sleepiness.
anterior pituitary
(Other Endocrine Glands) Melatonin inhibits secretion of gonadotrophins from the anterior pituitary and helps regulate the ____________ ____________ ___________ and may induce sleepiness.
female reproductive cycle
(Other Endocrine Glands) Melatonin inhibits secretion of gonadotrophins from the anterior pituitary and helps regulate the female reproductive cycle and may induce _________.
sleepiness
(Other Endocrine Glands) This plays a role in the regulation of circadian rhythm and fertility cycles.
Melatonin
(Other Endocrine Glands) Melatonin plays a role in the regulation of __________ _________ and fertility cycles.
circadium rhythm
(Other Endocrine Glands) Melatonin plays a role in the regulation of circadian rhythm and ___________ ___________.
fertility cycles
(Other Endocrine Glands) Melatonin's control is influenced by the degree of exposure to light and dark and is increased by _________.
Dark
(Other Endocrine Glands) This substance's control is influenced by the degree of exposure to light and dark and is increased by dark.
Melatonin
(Other Endocrine Glands) Melatonin's control is influenced by the degree of exposure to _________ and _________ and is increased by _______.
LIGHT DARK DARK
(Other Endocrine Glands) This disorder, known as "winter depression" is thought to be related to pineal gland problems.
S.A.D (Seasonal Affective Disorder)
(Other Endocrine Glands) S.A.D (seasonal affective disorder), known as "________ __________" is thought to be related to pineal gland problems.
Winter depression
(Other Endocrine Glands) S.A.D (seasonal affective disorder), known as "winter depression" is thought to be related to _______ _______ problems.
Pineal Gland
(Other Endocrine Glands) This gland is located in the medianastinum posterior to the sternum and between the lungs.
Thymus gland
(Other Endocrine Glands) The thymus gland is located in the _______________ posterior to the sternum and between the lungs.
medianastinum
(Other Endocrine Glands) The thymus gland is located in the medianastinum posterior to the _________ and between the lungs.
sternum
(Other Endocrine Glands) The thymus gland is located in the medianastinum posterior to the sternum and between the _______.
lungs
(Other Endocrine Glands) The thymus gland varies in size depending on ______.
Age
(Other Endocrine Glands) The thymus gland varies in _______ depending on age.
size
(Other Endocrine Glands) The thymus gland is ______ as a child and it gets ________ as one ages.
Large and gets smaller
(Other Endocrine Glands) (TRUE/FALSE) The thymus gland is small as a child and gets larger as one ages.
FALSE = large and gets smaller
(Other Endocrine Glands) A group of hormones that affect the differentiation of white blood cells called T-lymphocytes and plays a major role in immunity.
Thymosins
(Other Endocrine Glands) Thymosins are a group of hormones that affect the differentiation of white blood cells called ______________ and plays a major role in immunity.
T-lymphocytes
(Other Endocrine Glands) Thymosins are a group of hormones that affect the _____________ of white blood cells called T-lymphocytes and plays a major role in immunity.
differenation
(Other Endocrine Glands) Thymosins are a group of hormones that affect the differentiation of _______ ________ _______ called T-lymphocytes and plays a major role in immunity.
white blood cells
(Other Endocrine Glands) Thymosins are a group of hormones that affect the differentiation of white blood cells called T-lymphocytes and plays a major role in __________.
immunity
(Other Endocrine Glands) What are the three reproductive glands?
1.)
2.)
3.)
1.) Ovaries
2.) Testes
3.) Placenta
(Other Endocrine Glands) The ovaries, testes and placenta are the three __________ glands.
Reproductive
(Other Endocrine Glands) This reproductive gland produces estrogens and progesterone.
Ovaries
(Other Endocrine Glands) This reproductive gland produces estrogens and progesterone.
Ovaries
(Other Endocrine Glands) The ovaries produce estrogens and ________.
progesterone
(Other Endocrine Glands) The ovaries produce _________ and progesterone.
estrogen
(Other Endocrine Glands) The ovaries produce _________ & __________.
estrogen & progesterone
(Other Endocrine Glands) This reproductive gland produces testosterone.
Testes
(Other Endocrine Glands) What do the testes produce?
testosterone
(Other Endocrine Glands) This reproductive gland produces estrogen, progesterone and a gonadatrophin.
Placenta
(Other Endocrine Glands) Placenta produces estrogen, progesterone and a ____________.
gonadatrophin
(Other Endocrine Glands) Placenta produces estrogen, ___________ and a gonadatrophin.
progesterone
(Other Endocrine Glands) Placenta produces ____________, progesterone and a gonadatrophin.
estrogen
(Other Endocrine Glands) Placenta produces _________, ____________ and a ____________.
estrogen, progesterone and a gonadatrophin
(Other Endocrine Glands) This part of the placenta promotes mammary gland development during pregnancy and prepares the breast for lactation.
Placental Lactogen
(Other Endocrine Glands) Placental Lactogen promotes the _________ ____________ development during pregnancy and prepares the breast for lactation.
Mammary gland
(Other Endocrine Glands) Placental Lactogen promotes the mammary gland development during _________ and prepares the breast for lactation.
pregnancy
(Other Endocrine Glands) Placental Lactogen promotes the mammary gland development during pregnancy and prepares the breast for _________.
lactation
(Other Endocrine Glands) Placental Lactogen promotes the mammary gland development during pregnancy and prepares the ________ for lactation.
breast
(Other Endocrine Glands) These glands of the stomach and small intestines regulate digestion and appetite through the production of gastrin, leptin and cholesystokinin.
Digestive Glands
(Other Endocrine Glands) Digestive glands of the stomach and small intestines regulate ________ and ________ through the production of gastrin, leptin and cholesystokinin.
digestion & appetite
(Other Endocrine Glands) Digestive glands of the stomach and small intestines regulate digestion and appetite through the production of _________, leptin and cholesystokinin.
gastrin
(Other Endocrine Glands) Digestive glands of the stomach and small intestines regulate digestion and appetite through the production of gastrin, ________ and cholesystokinin.
leptin
(Other Endocrine Glands) Digestive glands of the stomach and small intestines regulate digestion and appetite through the production of gastrin, leptin and ___________.
cholesystokinin
(Other Endocrine Glands) Digestive glands of the stomach and small intestines regulate digestion and appetite through the production of __________, _____________ and ____________.
gastrin, leptin and cholesystokinin
(Other Endocrine Glands) Digestive glands of the ________ and _________ _________ regulate digestion and appetite through the production of gastrin, leptin and cholesystokinin.
stomach & small intestines
(Other hormone-producing organs) This produces natriuretic peptide to regulate blood pressure by responding to increased filling of the right atrium.
Atria of the heart
(Other hormone-producing organs) The atria of the heart produces _________ ________ to regulate blood pressure by responding to increased filling of the right atrium.
natriuretic peptide
(Other hormone-producing organs) The atria of the heart produces natriuretic peptide to regulate _______ _________ by responding to increased filling of the right atrium.
blood pressure
(Other hormone-producing organs) The atria of the heart produces natriuretic peptide to regulate blood pressure by responding to increased ______ of the right atrium.
filling
(Other hormone-producing organs) The atria of the heart produces natriuretic peptide to regulate blood pressure by responding to increased filling of the ________ _________.
right atrium
(Other hormone-producing organs) This organ produces erythropoietin that stimulates the production of red blood cells.
Kidneys
(Other hormone-producing organs) Kidneys produces __________ that stimulates the production of red blood cells.
erythropoietin
(Other hormone-producing organs) Kidneys produces erythropoietin that stimulates the production of _______ _________ _________.
Red Blood Cells