Drug Database
OM

omeprazole

✓ Approved

Santarus, Inc. · ATP4A · Small Molecule

What is omeprazole?

omeprazole is a small molecule developed by Santarus, Inc.. It is approved for therapeutic indications via oral (po).

Drug Profile

CompanySantarus, Inc.
Drug ClassSmall Molecule
Molecular TargetATP4A
RouteOral (PO)
StatusApproved

Mechanism of Action

Molecular Targets

omeprazole acts on 1 molecular target:

ATP4AATPase H+/K+ transporting subunit alpha (ATP6A)
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Therapeutic Indications

omeprazole is developed for 3 unique indications across 1 therapeutic area.

Therapeutic AreaConditionPhase
Gastrointestinal disordersDuodenal ulcer✓ Approved
Gastrointestinal disordersGastric ulcer✓ Approved
Gastrointestinal disordersGastrooesophageal reflux disease✓ Approved

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Pre-Embedded CNTs Architecture Differentiates Carbon Functions for Kinetics Boosting in All-Solid-State Li-S Cathodes.

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All-solid-state lithium-sulfur batteries (ASSLSBs) are promising high-energy storage systems, yet their performance is severely limited by sluggish cathode kinetics due to the insulating nature of sulfur species and inefficient charge transport within the composite cathode. Herein, a functional-differentiation strategy via a pre-embedded carbon nanotubes (CNTs) framework is proposed to enhance the charge transport in sulfide-based ASSLSB cathodes. The design employs Li6PS5Cl (LPSC) as an ionic conductor, Ketjen black (KB) for sulfur hosting and short-range electron transfer, and pre-embedded CNTs as a long-range electronic conducting skeleton. Compared with conventional loading-type and bridging-type configurations, the framework-type CNTs-based cathode exhibits significantly improved charge transport and electrochemical performance. It delivers a discharge capacity of 1438 mAh g-1 at 1 C (2.5 mA cm-2), with 91.9% capacity retention after 400 cycles, and maintains 404 mAh g-1 under a high sulfur loading of 9 mg cm-2. Electrochemical analyses, local electrical mapping, and theoretical simulations reveal that the enhanced kinetics stem from a more homogeneous electronic network, which suppresses charge accumulation and facilitates Li+ transport. This work highlights that spatial reconstruction and functional differentiation of carbon components can effectively mitigate kinetic barriers in high-energy-density ASSLSBs.

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53L10 T-cell engager tribody for immunotherapy of multiple solid tumors.

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Cancer immunotherapy with immune checkpoint inhibitors (ICIs), i.e., antibodies targeting inhibitory ICs, such as PD-1, PD-L1, and CTLA-4, have successfully revolutionized cancer treatment. One of the most promising cancer immunotherapies is based on bi-specific T-cell engagers that simultaneously bind with one arm to a tumor-associated antigen on tumor cells and with the other one to the CD3 complex on T cells to form a TCR-MHC-independent immune synapse. We previously generated four novel tribodies, tri-specific antibody derivative constructs, made up of a Fab targeting 5T4, an oncofetal tumor antigen expressed on several types of tumors, an scFv targeting CD3 on T cells, and an additional scFv specific for an immune checkpoint. In particular, the 53L10 tribody, targeting PD-L1, displayed the best binding properties and stronger anti-tumor activity in vitro and in vivo in mouse models. Here, we further investigated the anti-tumor potential of 53L10 by testing its effects on a panel of tumor cell types with a more aggressive profile, including gastric, pancreatic, prostate, ovarian, and epidermoid tumor cells. We found that 53L10 was very effective on these cells by inducing stronger T-cell activation and tumor cell lysis than the parental bi-specific 53P lacking an ICI. To further test its therapeutic potential, we also analyzed its stability and the effects on tumor T-cell infiltration in vivo on a mouse model. 53L10 was found to be stable after incubation in serum at 37 °C for 3 days and induced a more efficient and earlier increase in tumor tissues of both CD4 and CD8 T cells than the parental bi-specific 53P. These findings support further preclinical evaluation of 53L10 as a new tool for multiple solid tumor-targeted therapeutic approaches.

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Extraction and separation of phosphorous and heavy metals from freshwater sediment - influence of experimental variables on the electrodialytic treatment.

Paradkar Aishwarya S AS, Ottosen Lisbeth M LM, Jensen Pernille E PE, Pedersen Kristine B KB

This study explores the influence of experimental variables on the electrodialytic (ED) treatment of freshwater sediment for extraction and separation of phosphorus (P) and heavy metals (Cd, Cu, Pb, Zn). The overall idea is to extract an uncontaminated P product and an unpolluted sediment fit for recycling. The influence of the experimental variables, current, liquid-to-solid ratio (L/S), duration, stirring rate, suspension liquid (distilled/tap water), was studied in 11 ED experiments with the help of a multivariate analysis tool, projection to latent structures (PLS). In the experimental domain studied, current and L/S had the most influence on P extraction (50%), and the extracted P was uncontaminated with heavy metals. The stirring rate and current had the most influence on the extraction of Zn (90%) > Cd   (87%) > Cu  (60%) > Pb  (48%). The concentration of heavy metals was compared with the limits for soil improvers because that is one of the options for sediment recycling. Cd and Zn in the treated sediment met the standards for soil improvers, whereas optimization is necessary for Cu and Pb. The multivariate analysis revealed that the extracted Cd and Zn were mostly associated with the exchangeable and reducible fractions of the sediment. It was also revealed that the extracted Cu was mostly associated with the oxidizable fraction, whereas for Pb, no clear relationship could be established. The optimization for improving the extraction of Cu and Pb associated with the oxidizable fraction could be done by treating the sediment at a high stirring rate, high current, and long duration.

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