what are the complications of a diuretic. how do you know if a diuretic is effective course hero

by Sean Dibbert 6 min read

What are the side effects of diuretics?

Aug 13, 2021 · Diuretics are generally safe. Side effects include increased urination and sodium loss. Diuretics can also affect blood potassium levels. If you take a thiazide diuretic, your potassium level can drop too low (hypokalemia), which can …

What is an example of a diuretic?

Types of diuretics include: Thiazide diuretics, such as hydrochlorothiazide (Microzide® or Oretic®) or chlorthalidone (Hygroton® or Thalitone®). What they do: They make your kidneys pull salt and extra water into your pee. Selected side effects: Headache. Loss of appetite. Hair loss. Loop diuretics, such as furosemide or bumetanide.

How do diuretics work at the Mayo Clinic?

Diuretics are widely used and generally safe, but like any therapeutic agents, they may cause side effects. A review of recent literature pertaining to diuretic usage was performed, with emphasis ...

Are diuretics safe for high blood pressure?

Abstract. Background:Diuretics are widely used and generally safe, but like any therapeutic agents, they may cause side effects. Methods:A review of recent literature pertaining to diuretic usage was performed, with emphasis on specific reports of side effects.Reports of largescale hypertension trials employing diuretics were also examined for descriptions of diuretic-related …

What are the complications of diuretic therapy?

The more common side effects of diuretics include:too little potassium in the blood.too much potassium in the blood (for potassium-sparing diuretics)low sodium levels.headache.dizziness.thirst.increased blood sugar.muscle cramps.More items...

How do diuretics Work?

Diuretics, sometimes called water pills, help rid your body of salt (sodium) and water. Most of these medicines help your kidneys release more sodium into your urine. The sodium helps remove water from your blood, decreasing the amount of fluid flowing through your veins and arteries. This reduces blood pressure.

Who should not take diuretics?

Ask your doctor if you should avoid or be cautious using diuretics if you:Have severe liver or kidney disease.Are dehydrated.Have an irregular heartbeat.Are in the third trimester of pregnancy and/or have developed high blood pressure during your pregnancy.Are age 65 or older.Have gout.More items...•Oct 20, 2015

What is the safest diuretic?

TUESDAY, Feb. 18, 2020 (HealthDay News) -- Patients taking a common diuretic to help lower blood pressure may be better off with a similarly effective but safer one, a new study suggests. Current guidelines recommend the drug chlorthalidone (Thalitone) as the first-line diuretic.Feb 18, 2020

For Which complication should you remain alert when a patient is taking any type of diuretic?

The most common adverse effect for any diuretic is mild hypovolemia, which can lead to transient dehydration and increased thirst. When there is an over-treatment with a diuretic, this could lead to severe hypovolemia, causing hypotension, dizziness, and syncope.

What is the most effective diuretic?

Loop diuretics are the most potent diuretics as they increase the elimination of sodium and chloride by primarily preventing reabsorption of sodium and chloride. The high efficacy of loop diuretics is due to the unique site of action involving the loop of Henle (a portion of the renal tubule) in the kidneys.

What are the most common side effects of diuretics?

Usual side effects of diuretics include:Peeing more than usual.Dizziness.Tiredness.Headache.Gout.Difficulty getting an erection.Low potassium (unless you're taking a potassium-sparing type of diuretic).Muscle cramps.More items...•Oct 1, 2021

Can diuretics cause kidney damage?

Diuretics. Doctors use these medicines, also known as water pills, to treat high blood pressure and some kinds of swelling. They help your body get rid of extra fluid. But they can sometimes dehydrate you, which can be bad for your kidneys.Jan 27, 2022

Can diuretics remove fluid from lungs?

Diuretics. Doctors commonly prescribe diuretics, such as furosemide (Lasix), to decrease the pressure caused by excess fluid in your heart and lungs.Nov 17, 2021

Which is better Lasix or hydrochlorothiazide?

Both hydrochlorothiazide and furosemide significantly reduced blood pressure (BP) during three months of therapy. However, the fall in BP was consistently greater with hydrochlorothiazide than with furosemide, although the difference was significant only with respect to systolic BP.Oct 20, 1978

Which is safer chlorthalidone or hydrochlorothiazide?

HCTZ and chlorthalidone are both safe and cheap first-line blood pressure medications, but the evidence is clear—chlorthalidone is better.Jan 11, 2019

Should I drink more water while taking diuretics?

Doctors often recommend drinking less fluid and taking diuretic medications, or water pills, to flush more water and salt out of the body through urine. The goal of treatment is to reduce swelling, which makes it easier to breathe and helps avoid hospitalization.

What percentage of patients with kidney disease die from dialysis?

Estimates suggest that 20-30% of the deaths of patients with chronic kidney disease with indication to undergo dialysis occur after refusal to continue dialysis, discontinuation of dialysis or inability to offer dialysis on account of local conditions. Contributing factors include aging, increased comorbidity associated with chronic kidney disease, and socioeconomic status. In several occasions nephrologists will intervene, but at times general practitioners or family physicians are on their own. Knowledge of the main etiologies of chronic kidney disease and the metabolic alterations and symptoms associated to end-stage renal disease is an important element in providing patients with good palliative care. This review aimed to familiarize members of multidisciplinary care teams with the metabolic alterations and symptoms arising from chronic kidney disease treated clinically without the aid of dialysis.

What is the role of the renal outer medullary potassium channel in the kidney?

The renal outer medullary potassium (ROMK) channel mediates potassium recycling and facilitates sodium reabsorption through the Na (+)/K (+)/2Cl (-) cotransporter in the loop of Henle and potassium secretion at the cortical collecting duct. Evidence from the phenotype of humans and rodents with functional ROMK deficiency supports the contention that selective ROMK inhibitors (ROMKi) will represent a novel diuretic with potential of therapeutic benefit for hypertension. ROMKi have recently been synthesized by Merck & Co, Inc. The present studies were designed to examine the effects of ROMKi B on systemic hemodynamics, renal function and structure, and vascular function in Dahl salt-sensitive rats. Four experimental groups-control, high-salt diet alone; ROMKi B 3 mg·kg (-) (1)·d (-) (1); ROMKi B 10 mg·kg (-) (1)·d (-) (1); and hydrochlorothiazide 25 mg·kg (-) (1)·d (-) (1)-were included in prophylactic (from week 1 to week 9 on high-salt diet) and therapeutic studies (from week 5 to week 9 on high-salt diet), respectively. ROMKi B produced sustained blood pressure reduction and improved renal and vascular function and histological alterations induced by a high-salt diet. ROMKi B was superior to hydrochlorothiazide at reducing blood pressure. Furthermore, ROMKi B provided beneficial effects on both the plasma lipid profile and bone mineral density. Chronic ROMK inhibition not only prevented but also reversed the development of hypertension and end-organ damage in Dahl salt-sensitive rats. Our findings suggest a potential utility of ROMKi B as a novel antihypertensive agent, particularly for the treatment of the salt-sensitive hypertension patient population.

How does polypharmacy affect older adults?

Polypharmacy regimens may increase the susceptibility of older adults to micronutrient inadequacy and deficiency via impairment of nutritional status. We hypothesized that a multi-vitamin-mineral supplement (MVMS) could improve nutritional status in older adults prescribed diuretics, metformin, and/or proton pump inhibitors (PPIs). We conducted a randomized, double-blind, placebo controlled, parallel clinical trial in which eligible subjects were instructed to consume either a MVMS or placebo for 16 wk. Fasting blood was collected at baseline, 8, and 16 wk and the status of selected vitamins and minerals determined. Thirty-five and 19 men and women aged 45–75 yrs in the in MVMS and placebo arms, respectively, completed the trial. The mean total number of medications among the three drug classes taken by participants did not differ between two groups. The status of vitamins B1, B12, C and folate and calcium, copper, magnesium and zinc at baseline were within normal ranges. The MVMS group had a greater change in nutrient status after 16 wk compared to the placebo group for serum folate (7.5 vs. –1.6 ng/mL, p < 0.0001), vitamin B12 (159.2 vs. –33.9 pg/mL, p = 0.007), and plasma vitamin C (0.2 vs. 0.0 mg/dL, p = 0.004). Other measured vitamins and minerals were not significantly changed during the intervention. In conclusion, the status of vitamins B12, C and folate improved with MVMS but remained within normal ranges in older adults taking diuretics, metformin, and/or PPIs.

What is the purpose of furosemide?

Purpose: Red blood cell transfusion is a key element of treatment among patients with transfusion-dependent thalassemia (TDT). Volume overload and HCC syndrome (hypertension, convulsion, and intracranial hemorrhage) are fatal complications related to transfusion. Furosemide has been widely used to prevent hypertension secondary to volume overload with unclear supportive evidence. This study aimed to evaluate the efficacy of furosemide to prevent volume overload among children and young adults diagnosed with TDT. Methods: Patients diagnosed with TDT were enrolled and randomized to receive either furosemide pretransfusion or no furosemide pretransfusion. After 3 weeks to 4 months of wash-out periods, those patients underwent the alternate regimens as per crossover design of the study. Clinical and laboratory parameters including blood pressure and NT-proBNP levels were measured before and after each transfusion. The difference of those parameters between two randomized groups and their potential associated factors were analyzed. Results: In all, 30 patients undergoing 60 red blood cell transfusions were enrolled in the study. All were randomized and crossover was designed as receiving and not receiving furosemide pretransfusion. No transfusion reactions, symptoms of volume overload and HCC syndrome were observed. No statistically significant correlation was found between pretransfusion furosemide and the difference between pre- and posttransfusion systolic blood pressure (2 mmHg systolic blood pressure difference in pretransfusion furosemide and 1.5 mmHg in no pretransfusion furosemide; p-value = 0.721), as well as between pretransfusion furosemide and the difference between pre- and posttransfusion NT-proBNP levels (-3.8 pg/mL NT-proBNP level difference in pretransfusion furosemide and -2.4 pg/mL in no pretransfusion furosemide; p-value = 0.490). No significant correlation was also observed even in selected patients with high NT-proBNP levels (p-value = 0.262). Associated factors affecting the difference between pre- and posttransfusion NT-proBNP levels were analyzed, and none of those were affected concerning the difference in the levels. Conclusion: Furosemide has been included in standard transfusion guidelines in many institutions. Our study provided important evidence of the unnecessary use of the drug in preventing volume overload particularly in pediatric and young adult patients with TDT. Thai clinical trials registry tctr number: TCTR20180209001. Registered 6 February 2018, https://www.clinicaltrials.in.th/.

Does linezolid cause hyponatremia?

Linezolid is an oxazolidinone antibiotic against Gram-positive bacteria. Although thrombocytopenia is a major adverse effect of line zolid, hyponatremia also often develops after linezolid administration. This study examined the frequency of hyponatremia that developed during linezolid treatment and identified its risk factors. In this retrospective, single-center, observational cohort study, 61 hospitalized patients treated with linezolid between January 2013 and January 2015 were analyzed. Hyponatremia was defined as a sodium level of ≤134 mEq/L for the duration of linezolid treatment. Its risk factors were identified via a logistic regression analysis. Hyponatremia occurred in 11 (18.0%) patients, and it was severe in a case (a sodium level of ≤128 mEq/L). Univariate and multiple logistic regression analyses identified the plasma C-reactive protein (CRP) level before the initial administration of linezolid and the concomitant use of a potassium-sparing diuretic as the independent variables associated with the development of hyponatremia. The odds ratios were 1.081 (95% confidence interval [CI]; 1.008-1.158) (p=0.028) and 11.017 (95% CI; 1.869-64.939) (p=0.008), respectively. Before linezolid treatment, the CRP levels of the hyponatremia group were significantly higher than those of the no-hyponatremia group (p<0.001). The frequency of hyponatremia development was significantly higher in the patients who received both the potassium-sparing diuretic and linezolid (p=0.016). These results suggest that the plasma sodium levels of patients with severe inflammation who are treated with linezolid and those of linezolid-treated patients co-administered a potassium-sparing diuretic should be continuously monitored.

Can potassiumwasting diuretics cause hypokalemia?

... For example, potassiumwasting diuretics can cause hypokalemia, whereas renin-angiotensin-aldosterone system inhibitors, b-blockers, and potassium-sparing diuretics can cause hyperkalemia. [7] [8] [9] [10] [11] Few studies have taken into account the role of these medications in the association between serum potassium and adverse outcomes. ...

What is a patiromer?

Patiromer is a sodium-free, nonabsorbed potassium (K)-binding polymer approved by the US Food and Drug Administration for the treatment of hyperkalemia. This post-hoc analysis of OPAL-HK examined the effectiveness and safety of patiromer in reducing serum K in hyperkalemic CKD patients on RAASi, with hypertension, receiving diuretic therapy versus those not on diuretics. Methods: Depending on the degree of hyperkalemia at baseline, CKD patients with serum K from 5.1 to less than 6.5 mmol/l on RAASi (n = 243) were assigned to a patiromer of total dose 8.4 or 16.8 g, divided twice daily. Changes in serum K, and tolerability and safety were assessed over 4 weeks in patients on and not on diuretics. Results: At baseline, 132 patients used diuretics and 111 were not on diuretics, mean age was 64.3 and 64.0 years, respectively, and 63 and 51% were men. Similar reductions in serum K were seen over 4 weeks in both subgroups. At week 4, serum K fell by -0.95 ± 0.04 mmol/l with any diuretic and -1.04 ± 0.05 mmol/l with no diuretic. Patiromer was well tolerated, with mild-to-moderate constipation reported as the most common adverse event (7.6 and 14.4% of patients on any diuretic or no diuretic, respectively). Hypokalemia (s-K <3.5 mEq/l) was reported in 2.3% of patients on any diuretic and in 3.7% not on diuretics. Conclusion: The serum K-lowering efficacy and safety profile of patiromer in hyperkalemia patients with CKD was not compromised by diuretic therapy.