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30 Cards in this Set

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treatment of type I diabetes
low-sugar diet, insulin replacement
type II diabetes
dietary modification, exercise, wl, oral hypoglycemics and insulin replacement
insulin lispro
rapid acting
Action: Bind insulin receptor (tyrosine kinase activity).
Liver: increase glucose stored as
glycogen.
Muscle: increase glycogen and
protein synthesis, K+uptake.
Fat: aids TG storage.

Clinical use:
Type I DM, type 2 DM , gestational diabetes, Iife-threatening hyperkalemia, and stress-induced hyperglycemia.

Toxicities: hypoglycemia, hypersensitivity reaction (very rare)
insulin aspart
rapid-acting
Action: Bind insulin receptor (tyrosine kinase activity).
Liver: increase glucose stored as
glycogen.
Muscle: increase glycogen and
protein synthesis, K+uptake.
Fat: aids TG storage.

Clinical use:
Type I DM, type 2 DM , gestational diabetes, Iife-threatening hyperkalemia, and stress-induced hyperglycemia.

Toxicities: hypoglycemia, hypersensitivity reaction (very rare)
regular insulin
rapid-acting
Action: Bind insulin receptor (tyrosine kinase activity).
Liver: increase glucose stored as
glycogen.
Muscle: increase glycogen and
protein synthesis, K+uptake.
Fat: aids TG storage.

Clinical use:
Type I DM, type 2 DM , gestational diabetes, Iife-threatening hyperkalemia, and stress-induced hyperglycemia.

Toxicities: hypoglycemia, hypersensitivity reaction (very rare)
NPH insulin
intermediate acting
Action: Bind insulin receptor (tyrosine kinase activity).
Liver: increase glucose stored as
glycogen.
Muscle: increase glycogen and
protein synthesis, K+uptake.
Fat: aids TG storage.

Clinical use:
Type I DM, type 2 DM , gestational diabetes, Iife-threatening hyperkalemia, and stress-induced hyperglycemia.

Toxicities: hypoglycemia, hypersensitivity reaction (very rare)
insulin glargine
long-acting
Action: Bind insulin receptor (tyrosine kinase activity).
Liver: increase glucose stored as
glycogen.
Muscle: increase glycogen and
protein synthesis, K+uptake.
Fat: aids TG storage.

Clinical use:
Type I DM, type 2 DM , gestational diabetes, Iife-threatening hyperkalemia, and stress-induced hyperglycemia.

Toxicities: hypoglycemia, hypersensitivity reaction (very rare)
insulin detemir
long-acting
Action: Bind insulin receptor (tyrosine kinase activity).
Liver: increase glucose stored as
glycogen.
Muscle: increase glycogen and
protein synthesis, K+uptake.
Fat: aids TG storage.

Clinical use:
Type I DM, type 2 DM , gestational diabetes, Iife-threatening hyperkalemia, and stress-induced hyperglycemia.

Toxicities: hypoglycemia, hypersensitivity reaction (very rare)
tolbutamide
Sulfonylurea; first generation
Action: Close K+ channel in B-cell membrane, so cell depolarizes --> triggering of insulin release vie increased Ca2+ influx

Clinical use:
Stimulate release of endogenous insulin in type 2 DM. Requires some islet function, so USELESS IN TYPE I DM.

Toxicities: disulfiram like effects
chlorpropamide
Sulfonylurea; first generation
Action: Close K+ channel in B-cell membrane, so cell depolarizes --> triggering of insulin release vie increased Ca2+ influx

Clinical use:
Stimulate release of endogenous insulin in type 2 DM. Requires some islet function, so USELESS IN TYPE I DM.

Toxicities: disulfiram like effects
Glyburide
Sulfonylurea, Second generation
Action: Close K+ channel in B-cell membrane, so cell depolarizes --> triggering of insulin release vie increased Ca2+ influx

Clinical use:
Stimulate release of endogenous insulin in type 2 DM. Requires some islet function, so USELESS IN TYPE I DM.

Toxicities: hypoglycemia
Glimepiride
Sullfonylurea, Second generation
Action: Close K+ channel in B-cell membrane, so cell depolarizes --> triggering of insulin release vie increased Ca2+ influx

Clinical use:
Stimulate release of endogenous insulin in type 2 DM. Requires some islet function, so USELESS IN TYPE I DM.

Toxicities: hypoglycemia
Glipizide
Sulfonylurea, Second generation
Action: Close K+ channel in B-cell membrane, so cell depolarizes --> triggering of insulin release vie increased Ca2+ influx

Clinical use:
Stimulate release of endogenous insulin in type 2 DM. Requires some islet function, so USELESS IN TYPE I DM.

Toxicities: hypoglycemia
Metformin
Biguanide
Action: Exact mechanism is unknown. decreased gluconeogenesis, increased glycolysis, increased peripheral glucose uptake (insulin sensitivity).

Clinical use:
Oral
can be used in patients WITHOUT islet function

Toxicities: Most grave adverse effect is lactic acidosis (CI in renal failure) - lactate is taken up into liver for gluconeogenesis, which is inhibited by metformin, therefore it builds up in the blood.
Pioglitazone
glitazones/thiazolidinediones
Action: Increase insulin sensitivity in peripheral tissues (by causing a release of adipnectin from adipocytes). Binds to PPAR-gamma nuclear transcription regulator.
Overall decreased gluconeogenesis and increased uptake in muscle.

Clinical use: Used as monotherapy in type 2 DM or combined with other agents.

toxicity: weight gain, edema, hepatotoxic. CI in class III/IV HF
Rosiglitazone
glitazones/thiazolidinediones
Action: Increase insulin sensitivity in peripheral tissues (by causing a release of adipnectin from adipocytes). Binds to PPAR-gamma nuclear transcription regulator.
Overall decreased gluconeogenesis and increased uptake in muscle.

Clinical use: Used as monotherapy in type 2 DM or combined with other agents.

toxicity: weight gain, edema, hepatotoxic. CI in class III/IV HF
Acarbose
alpha-glucosidase inhibitors
Action: Inhibit intestinal brush border alpha-glucosidases. Delayed sugar hydrolysis and glucose absorption leads to DECREASED postprandial hyperglycemia.

Clinical use: used as a monotherapy in type 2 DM or in combo.

toxicity: GI disturbances
Miglitol
alpha-glucosidase inhibitors
Action: Inhibit intestinal brush border alpha-glucosidases. Delayed sugar hydrolysis and glucose absorption leads to DECREASED postprandial hyperglycemia.

Clinical use: used as a monotherapy in type 2 DM or in combo.

toxicity: GI disturbances
Pramlintide
amylin mimetic
Action: decreases release of glucagon
Clinical use: type 2 DM
toxicities: hypoglycemia, nausea, diarrhea
Exenatide
GLP-1 analog
Action: increases insulin by stimulating release from beta cells
decreases glucagon release
slows gastric emptying

clinical use: type 2 DM

toxicities: nausea, vomiting, pancreatitis
propylthiouracil
Mechanism: inhibit organification of iodide (I- --> I) and coupling (iodination) of thyroid hormone synthesis.
Also decreases peripheral conversion of T4 to T3 (methimazole does not)
Clinical use: hyperthyroidism
Toxicity: skin rash, agranulocytosis (rare severe and dangerous leukopenia), aplastic anemia
methimazole
Mechanism: inhibit organification of iodide (I- --> I) and coupling (iodination) of thyroid hormone synthesis.
Clinical use: hyperthyroidism
Toxicity: skin rash, agranulocytosis (rare severe and dangerous leukopenia), aplastic anemia
Possible teratogen (PTU is not)
levothyroxine
T4
Mechanism: thyroxine replacement
Clinical use: hypothyroidism, myxedema
Toxicity: tachycardia, heat intolerance, tremors, arrhythmias
triiodothyronine
T3
Mechanism: thyroxine replacement
Clinical use: hypothyroidism, myxedema
Toxicity: tachycardia, heat intolerance, tremors, arrhythmias
GH
GH deficiency
Turner's
Somatostatin (octreotide)
acromegaly
carcinoid
gastrinoma
glucagonoma
oxytocin
stimulates labor
uterine contractions
milk let-down
controls uterine hemorrhage
ADH (desmopressin)
pituitary (central) DI
Demeclocycline
Mechanism: ADH antagonist (a tetracycline antibiotic)
clinical use: SIADH
toxicity: nephrogenic DI, photosensitivity, abnormalities of bone and teeth

conivaptan also used to treat SIADH
Hydrocortisone
Prednisone
Triamcinolone
dexamethasone
beclomethasone
Mechanism: decrease the production of leukotrienes and prostaglandins by inhibiting PLA2 and expression of COX2.
Clinical use: Addison's disease, inflammation, immune suppression, asthma.
Toxicity: Iatrogenic Cushing's syndrome - buffalo hump, moon facies, truncal obesity, muscle
wasting, thin skin, easy bruisability, osteoporosis, adrenocortical atrophy, peptic ulcers, diabetes (if chronic - GCs are primarily catabolic; also increase the enzymes for gluconeogenesis and glycogen synthesis, thereby antagonizing insulin, leading to hyperglycemia).
Adrenal insufficiency when drug stopped after chronic use.