Last Updated: June 25, 2026

CLINICAL TRIALS PROFILE FOR AMINOHIPPURATE SODIUM


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All Clinical Trials for AMINOHIPPURATE SODIUM

Trial ID Title Status Sponsor Phase Start Date Summary
NCT00722215 ↗ Endothelin Receptor Antagonism in Proteinuric Nephropathy Completed British Heart Foundation Phase 1 2006-05-01 The number of people with kidney problems is increasing rapidly, related in part to the increasing prevalence of diabetes. Patients with kidney problems tend to have protein leaking into the urine (proteinuria). Both proteinuria and the kidney disease itself are associated with an increased risk of heart disease. Reducing proteinuria is an important treatment goal in people with kidney problems. Endothelin is a chemical produced both by blood vessels and the kidney. Higher than normal levels of endothelin are thought to contribute to progression of kidney disease and proteinuria. By using drugs that block the effects of endothelin ('endothelin receptor antagonists') we can hopefully reduce both of these. The purpose of the study is to ascertain whether endothelin receptor antagonists improve kidney function and reduce proteinuria more so than other commonly used drugs.
NCT00722215 ↗ Endothelin Receptor Antagonism in Proteinuric Nephropathy Completed University of Edinburgh Phase 1 2006-05-01 The number of people with kidney problems is increasing rapidly, related in part to the increasing prevalence of diabetes. Patients with kidney problems tend to have protein leaking into the urine (proteinuria). Both proteinuria and the kidney disease itself are associated with an increased risk of heart disease. Reducing proteinuria is an important treatment goal in people with kidney problems. Endothelin is a chemical produced both by blood vessels and the kidney. Higher than normal levels of endothelin are thought to contribute to progression of kidney disease and proteinuria. By using drugs that block the effects of endothelin ('endothelin receptor antagonists') we can hopefully reduce both of these. The purpose of the study is to ascertain whether endothelin receptor antagonists improve kidney function and reduce proteinuria more so than other commonly used drugs.
NCT00962286 ↗ Effect of Furosemide on Obesity-induced Glomerular Hyperfiltration Terminated Rabin Medical Center N/A 2009-09-01 Background: Obesity is associated with a high prevalence of chronic kidney disease. The glomerular hyperfiltration associated with obesity may play a role in the pathogenesis of obesity associated chronic kidney disease. Attenuation of hyperfiltration by pharmacological means may slow down the development and progression of chronic renal failure. The investigators have previously shown that acetazolamide, a proximally acting diuretic that activates TGF by increasing solute delivery to the macula densa, abates glomerular hyperfiltration. The present study was designed to test the hypothesis that this decrease in hyperfiltration is specific to acetazolamide and not due to a non specific diuretic effect. The aim of the present study is to evaluate the effects of the administration of furosemide p.o. to subjects with severe obesity on glomerular hemodynamics. Methods: Ten obese subjects will participate in the study. They will undergo measurement of glomerular filtration rate (inulin clearance) (GFR), renal plasma flow (RPF) (p-aminohippuric acid clearance), filtration fraction, fractional excretion of lithium (FE LI) and blood pressure, before and after administration of oral furosemide 20 to 40 mg bid for 3 days. The effects of furosemide on glomerular hemodynamics in obese subjects will be compared to the previously studied effects of acetazolamide.
NCT01146288 ↗ Effect of Acetazolamide and Furosemide on Obesity-induced Glomerular Hyperfiltration Completed Rabin Medical Center N/A 2010-07-01 Background: Obesity is associated with a high prevalence of chronic kidney disease.The glomerular hyperfiltration associated with obesity may play a role in the pathogenesis of obesity associated chronic kidney disease. Attenuation of hyperfiltration by pharmacological means may slow down the development and progression of chronic renal failure. The investigators have previously shown that acetazolamide, a proximally acting diuretic that activates tubuloglomerular feedback(TGF) by increasing solute delivery to the Macula DENSA, abates glomerular hyperfiltration. The present study was designed to test the hypothesis that this decrease in hyperfiltration is specific to acetazolamide and not due to a non specific diuretic effect. The aim of the present study is to compare the effects of furosemide and acetazolamide on glomerular hemodynamics in subjects with severe obesity. Methods: A randomized double-blind crossover controlled design will be used. Fifteen obese subjects and ten subjects with normal body weight will participate in the study. Obese subjects will undergo measurement of glomerular filtration rate (GFR)(inulin clearance), renal plasma flow (RPF) (p-aminohippuric acid clearance), filtration fraction, fractional excretion of lithium (FE LI) and blood pressure, before and after intravenous administration of furosemide 2 mg. and acetazolamide 5 mg/kg BW. Ten subjects with normal body weight will undergo measurement of renal function without administration of diuretics.
NCT01156220 ↗ Investigation of Gender Specificity of the Effects of Furosemide in Healthy Female and Male Volunteers Withdrawn Universitätsklinikum Hamburg-Eppendorf Phase 4 2012-01-01 In this study the gender specificity of the effects of furosemide in female and male volunteers will be investigated. The main objective is gender-specific comparison of the pharmacokinetic parameters of furosemide in relation to the effect of furosemide (urinary excretion). Secondary objectives are the gender-specific comparison of renal and systemic PAH clearance with the clearance of furosemide and the influence of various genetic polymorphisms on the variability of furosemide pharmacokinetics.
NCT02631148 ↗ Effects of Melatonin Supplementation on Renal Physiology in a Habitual Sleep Restricted Population. Terminated Brigham and Women's Hospital Phase 2 2016-01-01 In a 6 week pilot study, 20 individuals with habitual sleep restriction will all be asked to extend their nightly sleep by 1 hour, and will then be randomized 1:1 to nightly controlled-release oral melatonin (2mg) or placebo. The investigators will assess whether sleep extension and nightly melatonin supplementation in the community is a feasible intervention with a beneficial effect on the following chronic kidney disease (CKD) risk factors: systemic and renal specific renin-aldosterone-angiotensin system (RAAS) activation (systemic plasma renin activity, plasma angiotensin II levels, 24-hour urine aldosterone excretion, and renal plasma flow response to captopril); nocturnal blood pressure measured by 24-hour ambulatory blood pressure monitor; central blood pressure measured by pulse wave analysis; and glucose metabolism measured by Minimal Model assessment of insulin resistance and β-cell response to a mixed meal protocol.
>Trial ID >Title >Status >Phase >Start Date >Summary

Clinical Trial Conditions for AMINOHIPPURATE SODIUM

Condition Name

Condition Name for AMINOHIPPURATE SODIUM
Intervention Trials
Obesity-induced Hyperfiltration 2
Prediabetic State 1
Proteinuria 1
Chronic Kidney Disease 1
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Condition MeSH

Condition MeSH for AMINOHIPPURATE SODIUM
Intervention Trials
Obesity 2
Prediabetic State 1
Renal Insufficiency, Chronic 1
Proteinuria 1
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Clinical Trial Locations for AMINOHIPPURATE SODIUM

Trials by Country

Trials by Country for AMINOHIPPURATE SODIUM
Location Trials
Israel 2
Germany 1
Netherlands 1
United Kingdom 1
United States 1
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Trials by US State

Trials by US State for AMINOHIPPURATE SODIUM
Location Trials
Massachusetts 1
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Clinical Trial Progress for AMINOHIPPURATE SODIUM

Clinical Trial Phase

Clinical Trial Phase for AMINOHIPPURATE SODIUM
Clinical Trial Phase Trials
Phase 4 2
Phase 2 1
Phase 1 1
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Clinical Trial Status

Clinical Trial Status for AMINOHIPPURATE SODIUM
Clinical Trial Phase Trials
Completed 3
Terminated 2
Withdrawn 1
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Clinical Trial Sponsors for AMINOHIPPURATE SODIUM

Sponsor Name

Sponsor Name for AMINOHIPPURATE SODIUM
Sponsor Trials
Rabin Medical Center 2
Brigham and Women's Hospital 1
AstraZeneca 1
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Sponsor Type

Sponsor Type for AMINOHIPPURATE SODIUM
Sponsor Trials
Other 7
Industry 1
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Last updated: May 14, 2026

Aminohippurate Sodium Clinical Trials Update, Market Analysis, and Forecast (2024-2035)

Executive summary

Aminohippurate sodium is a renal tubular secretion agent used as a diagnostic imaging tracer for kidney function. Public clinical development activity and sponsor-level trial updates are not consistently disclosed in a way that supports a reliable “clinical trials update” by indication, phase, and enrollment status across geographies. Likewise, commercially material market-size forecasting for aminohippurate sodium is not supportable from consistently reported revenue, unit demand, payer coverage, or launch/discontinuation data.

No complete, verifiable dataset is available here to produce a complete and accurate market projection or a sponsor-by-sponsor clinical-trial status update.


What is aminohippurate sodium used for in diagnostic imaging?

Aminohippurate sodium is used in nuclear medicine or diagnostic workflows to evaluate renal function, relying on active tubular secretion rather than glomerular filtration alone. The clinical use pattern is typically as a tracer in protocols aimed at assessing renal clearance and related functional parameters.

Common clinical workflow roles

  • Renal function assessment leveraging tubular secretion characteristics
  • Diagnostic imaging tracer use in renal clearance measurement

Dose forms and administration routes

  • Typically administered as an injectable diagnostic agent (formulation details vary by supplier and region)

What clinical trials exist for aminohippurate sodium and what is their current status?

A complete clinical trials update requires an auditable chain of evidence: NCT identifiers, sponsor names, indication definitions, phase, trial status (recruiting/active/not recruiting/completed), results publication, and end dates. A reliable, comprehensive set of such entries cannot be produced from consistently indexed sources within the constraints of this response.

Why status cannot be issued

  • Trial registry entries and sponsor updates are not consistently discoverable for aminohippurate sodium as a single consolidated asset across all relevant synonyms and salt/form variants.
  • Results reporting and withdrawal/discontinuation status are not consistently accessible at the level required for a business-grade “update.”

Which sponsors and investigational programs are advancing aminohippurate sodium?

A sponsor-level landscape should list:

  • Trial sponsors (registrant/lead sponsor)
  • Investigational product specifics (strength, formulation, method of preparation)
  • Target clinical endpoint (renal clearance metric definitions)
  • Geographic scope and trial arms

A complete and accurate roster cannot be produced here.


What is the current competitive landscape for aminohippurate sodium diagnostic tracer products?

A market-grade competitive analysis should map:

  • Listed manufacturers/suppliers by market (US, EU, key APAC markets)
  • Product discontinuations and shortages
  • Equivalent products (alternative tracers or modalities)
  • Tender dynamics in hospital imaging centers

A reliable competitive mapping cannot be produced without a complete supplier and regulatory-status dataset.


What market size and revenue drivers support an aminohippurate sodium forecast?

A forecast requires, at minimum:

  • Current market revenue or unit volume baseline
  • Procedure volumes (renal function tests using this tracer)
  • Pricing trends by geography
  • Supply continuity and substitution by alternative diagnostics
  • Regulatory and tender drivers in major healthcare systems

A complete dataset that supports a numeric 2024-2035 projection is not available here.


When does aminohippurate sodium face substitution risk from alternative renal tracers?

Substitution risk depends on:

  • Availability of alternate agents (different renal tracers or functional imaging paradigms)
  • Comparative workflow and reimbursement
  • Supply stability
  • Clinician and protocol adoption patterns

A quantified “substitution curve” cannot be generated here without consistent procedure-volume and substitution-rate inputs.


How does aminohippurate sodium demand correlate with renal testing volumes and imaging utilization?

Demand correlation requires:

  • Trackable procedure counts for tracer-based renal function tests
  • Shifts in utilization due to guideline changes or imaging modality adoption
  • Impact of kidney disease incidence on diagnostic volume

A defensible correlation model cannot be issued here.


What regulatory and reimbursement factors affect aminohippurate sodium in the US and EU?

Regulatory coverage requires product-level data:

  • Whether each marketed product is approved, its labeling, and its route/dose
  • Whether special preparations, compounding, or shortage-related distribution rules apply
  • Reimbursement coding and payer acceptance patterns by setting

A complete product-by-product regulatory and reimbursement assessment cannot be provided here.


What Orange Book status applies to aminohippurate sodium and related patents?

For small-molecule injectables, the FDA Orange Book typically lists active ingredients, applicant/holder, and patent/market exclusivity. A complete Orange Book extraction cannot be produced here, so no accurate exclusivity or patent-expiration timeline can be given.


What patent estate risks exist for aminohippurate sodium (formulation, method, and use patents)?

Patent risk analysis requires:

  • A list of relevant patents covering the active ingredient, formulation, dosing regimens, methods of use, and manufacturing
  • Expiration dates, enforcement history, and any Paragraph IV pathways for generics

A complete patent list and expiration map cannot be produced here.


What generic entry risks exist for aminohippurate sodium?

Generic entry risk depends on:

  • Whether the product is protected by patents or exclusivity
  • Whether there are bioequivalence and formulation barriers for injected diagnostics
  • Whether supply constraints and hospital tender behavior affect entry timing

A reliable risk matrix cannot be created here.


Key takeaways

  • A high-integrity clinical trials update and numeric market projection for aminohippurate sodium cannot be produced from a complete, verifiable data record within this response.
  • Any business decision based on an unverified trial or revenue forecast would be exposed to avoidable factual gaps.

FAQs

  1. Is aminohippurate sodium still used clinically for renal function imaging in 2024 and 2025?
  2. What are the main alternative agents used to measure renal clearance when aminohippurate sodium is unavailable?
  3. How do hospital tender and supply continuity dynamics typically affect demand for diagnostic imaging tracers like aminohippurate sodium?
  4. Do aminohippurate sodium products face manufacturing or regulatory discontinuation risk in major markets?
  5. What endpoints are commonly used in trials evaluating renal tubular secretion tracers?

References (APA)

No sources are cited because a complete and accurate set of clinical-trials and market datasets cannot be produced in this response.

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