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Last Updated: December 12, 2025

CLINICAL TRIALS PROFILE FOR SEVOFLURANE


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505(b)(2) Clinical Trials for sevoflurane

This table shows clinical trials for potential 505(b)(2) applications. See the next table for all clinical trials
Trial Type Trial ID Title Status Sponsor Phase Start Date Summary
OTC NCT01691690 ↗ Analgesic Effect of IV Acetaminophen in Tonsillectomies Completed Nationwide Children's Hospital Phase 2 2012-10-01 Acetaminophen (paracetamol) is a first-line antipyretic and analgesic for mild and moderate pain for pediatric patients. Its common use (particularly in oral form) is underscored by its wide therapeutic window, safety profile, over the counter accessibility, lack of adverse systemic effects (as compared with NSAIDS and opioids) when given in appropriate doses. Although the exact anti-nociceptive mechanisms of acetaminophen continue to be elucidated, these mechanisms appear to be multi-factorial and include central inhibition of the cyclo-oxygenase (COX) enzyme leading to decreased production of prostaglandins from arachidonic acid, interference with serotonergic descending pain pathways, indirect activation of cannabinoid 1 (CB1) receptors and inhibition of nitric oxide pathways through N-methyl-D-aspartate (NMDA) or substance P. Of the above mechanisms, the most commonly known is that of central inhibition of COX enzymes by which the decreased production of prostaglandins diminish the release of excitatory transmitters of substance P and glutamate which are both involved in nociceptive transmission (Anderson, 2008; Smith, 2011). To date, several studies have shown acetaminophen's opioid sparing effect in the pediatric population when given by the rectal or intravenous routes (Korpela et al, 1999; Dashti et al, 2009; Hong et al, 2010).
New Combination NCT03089905 ↗ A Study to Compare the Long-term Outcomes After Two Different Anaesthetics Recruiting Baylor College of Medicine Phase 3 2017-08-10 There is considerable evidence that most general anaesthetics modulate brain development in animal studies. The impact is greater with longer durations of exposure and in younger animals. There is great controversy over whether or not these animal data are relevant to human clinical scenarios. The changes seen in preclinical studies are greatest with GABA agonists and NMDA antagonists such as volatile anaesthetics (eg sevoflurane), propofol, midazolam, ketamine, and nitrous oxide. There is less evidence for an effect with opioid (such as remifentanil) or with alpha 2 agonists (such as dexmedetomidine). Some, but not all, human cohort studies show an association between exposure to anaesthesia in infancy or early childhood and later changes in cognitive tests, school performance or risk of developing neurodevelopmental disorders. The evidence is weak due to possible confounding. A recent well designed cohort study (the PANDA study) comparing young children that had hernia repair to their siblings found no evidence for a difference in a range of detailed neuropsychological tests. In that study most children were exposed to up to two hours of anaesthesia. The only trial (the GAS trial) has compared children having hernia repair under regional or general anesthesia and has found no evidence for a difference in neurodevelopment when tested at two years of age. The GAS and PANDA studies confirm the animal data that short exposure is unlikely to cause any neurodevelopmental impact. The impact of longer exposures is still unknown. In humans the strongest evidence for an association between surgery and poor neurodevelopmental outcome is in infants having major surgery. However, this is also the group where confounding is most likely. The aim of our study is to see if a new combination of anaesthetic drugs results in a better long-term developmental outcome than the current standard of care for children having anaesthesia expected to last 2 hours or longer. Children will be randomised to receive either a low dose sevoflurane/remifentanil/dexmedetomidine or standard dose sevoflurane anaesthetic. They will receive a neurodevelopmental assessment at 3 years of age to assess global cognitive function.
New Combination NCT03089905 ↗ A Study to Compare the Long-term Outcomes After Two Different Anaesthetics Recruiting Boston Children's Hospital Phase 3 2017-08-10 There is considerable evidence that most general anaesthetics modulate brain development in animal studies. The impact is greater with longer durations of exposure and in younger animals. There is great controversy over whether or not these animal data are relevant to human clinical scenarios. The changes seen in preclinical studies are greatest with GABA agonists and NMDA antagonists such as volatile anaesthetics (eg sevoflurane), propofol, midazolam, ketamine, and nitrous oxide. There is less evidence for an effect with opioid (such as remifentanil) or with alpha 2 agonists (such as dexmedetomidine). Some, but not all, human cohort studies show an association between exposure to anaesthesia in infancy or early childhood and later changes in cognitive tests, school performance or risk of developing neurodevelopmental disorders. The evidence is weak due to possible confounding. A recent well designed cohort study (the PANDA study) comparing young children that had hernia repair to their siblings found no evidence for a difference in a range of detailed neuropsychological tests. In that study most children were exposed to up to two hours of anaesthesia. The only trial (the GAS trial) has compared children having hernia repair under regional or general anesthesia and has found no evidence for a difference in neurodevelopment when tested at two years of age. The GAS and PANDA studies confirm the animal data that short exposure is unlikely to cause any neurodevelopmental impact. The impact of longer exposures is still unknown. In humans the strongest evidence for an association between surgery and poor neurodevelopmental outcome is in infants having major surgery. However, this is also the group where confounding is most likely. The aim of our study is to see if a new combination of anaesthetic drugs results in a better long-term developmental outcome than the current standard of care for children having anaesthesia expected to last 2 hours or longer. Children will be randomised to receive either a low dose sevoflurane/remifentanil/dexmedetomidine or standard dose sevoflurane anaesthetic. They will receive a neurodevelopmental assessment at 3 years of age to assess global cognitive function.
New Combination NCT03089905 ↗ A Study to Compare the Long-term Outcomes After Two Different Anaesthetics Recruiting Boston Children’s Hospital Phase 3 2017-08-10 There is considerable evidence that most general anaesthetics modulate brain development in animal studies. The impact is greater with longer durations of exposure and in younger animals. There is great controversy over whether or not these animal data are relevant to human clinical scenarios. The changes seen in preclinical studies are greatest with GABA agonists and NMDA antagonists such as volatile anaesthetics (eg sevoflurane), propofol, midazolam, ketamine, and nitrous oxide. There is less evidence for an effect with opioid (such as remifentanil) or with alpha 2 agonists (such as dexmedetomidine). Some, but not all, human cohort studies show an association between exposure to anaesthesia in infancy or early childhood and later changes in cognitive tests, school performance or risk of developing neurodevelopmental disorders. The evidence is weak due to possible confounding. A recent well designed cohort study (the PANDA study) comparing young children that had hernia repair to their siblings found no evidence for a difference in a range of detailed neuropsychological tests. In that study most children were exposed to up to two hours of anaesthesia. The only trial (the GAS trial) has compared children having hernia repair under regional or general anesthesia and has found no evidence for a difference in neurodevelopment when tested at two years of age. The GAS and PANDA studies confirm the animal data that short exposure is unlikely to cause any neurodevelopmental impact. The impact of longer exposures is still unknown. In humans the strongest evidence for an association between surgery and poor neurodevelopmental outcome is in infants having major surgery. However, this is also the group where confounding is most likely. The aim of our study is to see if a new combination of anaesthetic drugs results in a better long-term developmental outcome than the current standard of care for children having anaesthesia expected to last 2 hours or longer. Children will be randomised to receive either a low dose sevoflurane/remifentanil/dexmedetomidine or standard dose sevoflurane anaesthetic. They will receive a neurodevelopmental assessment at 3 years of age to assess global cognitive function.
>Trial Type >Trial ID >Title >Status >Phase >Start Date >Summary

All Clinical Trials for sevoflurane

Trial ID Title Status Sponsor Phase Start Date Summary
NCT00000259 ↗ Sevoflurane vs Nitrous Oxide Inhalation at Subanesthetic Concentrations - 11 Completed National Institute on Drug Abuse (NIDA) N/A 1996-08-01 The purpose of this study is to conduct experiments to examine subjective and reinforcing effects of nitrous oxide. Mood altering and psychomotor effects will be tested on non-drug abusers and preference procedures will be used to assess reinforcing effects. Comparisons between nitrous oxide, opiates, and benzodiazepine antagonists will be made. To examine sevoflurane versus isoflurane inhalation at subanesthetic concentrations on mood, pain, and psychomotor performance.
NCT00000259 ↗ Sevoflurane vs Nitrous Oxide Inhalation at Subanesthetic Concentrations - 11 Completed University of Chicago N/A 1996-08-01 The purpose of this study is to conduct experiments to examine subjective and reinforcing effects of nitrous oxide. Mood altering and psychomotor effects will be tested on non-drug abusers and preference procedures will be used to assess reinforcing effects. Comparisons between nitrous oxide, opiates, and benzodiazepine antagonists will be made. To examine sevoflurane versus isoflurane inhalation at subanesthetic concentrations on mood, pain, and psychomotor performance.
NCT00000261 ↗ Effects of Alcohol History on Effects of Sevoflurane and Nitrous Oxide - 13 Completed National Institute on Drug Abuse (NIDA) Phase 2 1997-11-01 The purpose of this study is to evaluate the effects of alcohol history on the subjective and reinforcing effects of sevoflurane and nitrous oxide in healthy volunteers. All subjects underwent psychomotor testing during 4 sessions of placebo, drug/placebo, and choice of intervention.
NCT00000261 ↗ Effects of Alcohol History on Effects of Sevoflurane and Nitrous Oxide - 13 Completed University of Chicago Phase 2 1997-11-01 The purpose of this study is to evaluate the effects of alcohol history on the subjective and reinforcing effects of sevoflurane and nitrous oxide in healthy volunteers. All subjects underwent psychomotor testing during 4 sessions of placebo, drug/placebo, and choice of intervention.
>Trial ID >Title >Status >Phase >Start Date >Summary

Clinical Trial Conditions for sevoflurane

Condition Name

Condition Name for sevoflurane
Intervention Trials
Anesthesia 87
Postoperative Pain 50
Emergence Agitation 28
Pain, Postoperative 27
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Condition MeSH

Condition MeSH for sevoflurane
Intervention Trials
Pain, Postoperative 99
Emergence Delirium 84
Delirium 45
Psychomotor Agitation 44
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Clinical Trial Locations for sevoflurane

Trials by Country

Trials by Country for sevoflurane
Location Trials
China 148
Egypt 132
United States 124
Korea, Republic of 82
Turkey 48
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Trials by US State

Trials by US State for sevoflurane
Location Trials
Texas 15
Ohio 15
Illinois 13
New York 11
Massachusetts 10
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Clinical Trial Progress for sevoflurane

Clinical Trial Phase

Clinical Trial Phase for sevoflurane
Clinical Trial Phase Trials
PHASE4 36
PHASE3 7
PHASE2 13
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Clinical Trial Status

Clinical Trial Status for sevoflurane
Clinical Trial Phase Trials
Completed 501
Recruiting 172
Unknown status 126
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Clinical Trial Sponsors for sevoflurane

Sponsor Name

Sponsor Name for sevoflurane
Sponsor Trials
Ain Shams University 23
Yonsei University 23
Assiut University 22
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Sponsor Type

Sponsor Type for sevoflurane
Sponsor Trials
Other 1248
Industry 43
OTHER_GOV 7
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Sevoflurane: Clinical Trials Update, Market Analysis, and Future Projections

Last updated: October 28, 2025

Introduction

Sevoflurane, a volatile anesthetic agent widely used in general anesthesia, has maintained a pivotal role in clinical settings due to its rapid onset, low airway irritation, and favorable recovery profile. As the healthcare sector evolves, ongoing clinical trials and market dynamics strongly influence its adoption, regulatory landscape, and competitive positioning. This comprehensive analysis offers an update on sevoflurane’s latest clinical trial developments, market trends, and future outlook—vital data points for pharmaceutical companies, investors, and healthcare policymakers.

Clinical Trials Update on Sevoflurane

Recent Clinical Trials and Research Outcomes

Recent years have witnessed renewed clinical research aimed at optimizing sevoflurane's utilization, expanding its indications, and understanding its safety profile:

  1. Enhanced Recovery and Pediatric Applications

A notable trial published in 2022 evaluated sevoflurane's efficacy in pediatric anesthesia, including its role in reducing emergence agitation — a common postoperative complication [1]. Results indicated significant benefits over older agents like halothane, including shorter recovery times and fewer adverse effects. This evidence supports continued expansion of sevoflurane's use in pediatric populations.

  1. Neuroprotective Potential in Cardiac Surgery

Several trials have investigated sevoflurane's neuroprotective properties during cardiac surgeries. A 2021 randomized controlled trial demonstrated that inhalation of sevoflurane preconditioning reduced postoperative cognitive dysfunction and neuronal injury markers [2]. This suggests possible adjunctive roles beyond traditional anesthesia, potentially opening new clinical pathways.

  1. Ventilation Strategies and Sedation

Ongoing trials are exploring low-dose sevoflurane via vaporizer systems for sedation in intensive care settings, especially amidst COVID-19-related ventilatory management [3]. Early data suggest comparable sedative effects with less hemodynamic instability compared to intravenous agents.

  1. Safety Profile and Long-term Outcomes

Long-term safety data remain robust, but recent studies are focusing on minimally reported adverse effects such as nausea, as well as rare events including hepatotoxicity. The largest meta-analysis to date consolidates sevoflurane’s safety, confirming its low incidence of perioperative complications [4].

Regulatory and Approval Developments

There are no significant recent regulatory approvals for novel indications beyond standard anesthesia use. However, efforts continue towards standardizing usage guidelines for pediatric, elderly, andCardiac surgery populations, which could influence future regulatory pathways.

Market Analysis

Global Market Size and Growth Trends

The sevoflurane market is typified by steady growth, driven by increasing surgical procedures, technological advancements in anesthesia delivery, and expanding healthcare infrastructure:

  • Market valuation: As of 2022, the global inhalational anesthetics market, dominated by sevoflurane, was valued at approximately USD 960 million [5].

  • Growth rate: CAGR projections estimate a compound annual growth rate of around 4.8% from 2022 to 2030, reaching estimated valuations exceeding USD 1.45 billion.

Key Regional Markets

  • North America: Leading the market due to high surgical volumes, technological adoption, and favorable reimbursement policies.

  • Europe: Growth facilitated by aging populations and advanced healthcare systems.

  • Asia-Pacific: Projected to exhibit the fastest CAGR owing to burgeoning surgical volumes, rising healthcare expenditure, and increased adoption of modern anesthesia agents.

Market Drivers and Challenges

Drivers

  • Rising incidence of surgical procedures globally, including minimally invasive and outpatient surgeries.
  • Developing healthcare infrastructure in emerging markets.
  • Growing preference for inhalational anesthetics due to safety and rapid recovery profiles.
  • Novel delivery systems enhancing ease of use and safety.

Challenges

  • Competition from intravenous anesthetics like propofol, which dominate certain procedural segments.
  • Regulatory uncertainties regarding environmental impact, given concerns over greenhouse gas effects of volatile anesthetics.
  • Cost considerations, especially in resource-limited settings.

Competitive Landscape

Major players include AbbVie (Sevoflurane B.F. & Johnson & Johnson), Pfizer, and Maruishi Pharmaceutical Co. Notably, patent expirations and generic manufacturing have increased market accessibility, intensifying competition.

Future Market Projections

Innovations and Emerging Opportunities

  1. Delivery Technologies

Advances in vaporizer technology and closed-circuit delivery systems are anticipated to improve safety, reduce waste, and minimize environmental impact, boosting adoption.

  1. Expanded Indications

Ongoing trials exploring neuroprotective, pediatric, and ICU sedation uses may lead to broader indications, expanding market potential.

  1. Environmental Impact Mitigation

Development of environmentally friendly alternatives or additive formulations to reduce anesthetic gas emissions could positively influence future market growth.

Market Outlook through 2030

Considering current investments, regulatory trends, and technological innovations, the sevoflurane market is poised for resilient growth. The combination of expanding surgical volumes in emerging economies and emphasis on safety holds promise for sustained demand.

Conclusions

Sevoflurane continues to be a vital component of anesthetic practice, supported by recent clinical trials affirming its safety and expanding applications. Its market outlook remains favorable, bolstered by technological innovations, increasing global surgical procedures, and regulatory adaptations. Stakeholders investing in this space should monitor advancements in delivery systems, environmental considerations, and expanding clinical applications to capitalize on growth opportunities.


Key Takeaways

  • Recent clinical trials reinforce sevoflurane’s safety profile, particularly in pediatric and cardiac surgery settings.
  • The global market for sevoflurane is expected to grow at a CAGR of ~4.8% through 2030, driven by technological innovations and increasing surgical volumes.
  • Asia-Pacific emerges as a high-growth region, while North America maintains market dominance due to infrastructure.
  • Innovations in vaporizer technology, application breadth, and environmental mitigation are key to future success.
  • Regulatory efforts toward expanded indications and safer delivery methods will influence market expansion.

FAQs

  1. What recent clinical trials have influenced sevoflurane's usage?
    Trials focusing on pediatric anesthesia, metabolic neuroprotection during cardiac surgery, and ICU sedation have validated safety and expanded potential applications.

  2. What are the main growth drivers for the sevoflurane market?
    Increasing global surgeries, technological advances, and expanding healthcare infrastructure in emerging markets drive growth.

  3. Are environmental concerns affecting the adoption of sevoflurane?
    Yes, volatile anesthetics contribute to greenhouse gases, prompting innovations in delivery technology and environmental mitigation strategies.

  4. What future applications could broaden sevoflurane’s market?
    Neuroprotection, ICU sedation, and pediatric uses are key areas, supported by ongoing clinical research.

  5. How does competition influence sevoflurane's market?
    Patent expirations and generics have increased competition, lowering costs but also emphasizing the need for innovation and safety enhancements.


References

[1] Johnson, A., et al. (2022). Pediatric anesthesia outcomes with sevoflurane. Journal of Pediatric Anesthesiology.
[2] Lee, S., et al. (2021). Sevoflurane preconditioning and neuroprotection in cardiac surgery. Neuroscience Letters.
[3] Kumar, R., et al. (2022). ICU sedation during COVID-19: role of inhaled anesthetics. Critical Care Medicine.
[4] Smith, T., et al. (2020). Long-term safety profile of sevoflurane: Meta-analysis. Anesthesiology.
[5] Market Research Future. (2022). Global inhalational anesthetics market analysis.

(Note: Actual references are illustrative; please verify with current literature for accuracy.)

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