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formoterol + fluticasone propionate (Abriff / Formoterol Combi / KRP108)

✓ Approved

Zambon · ADRB2 · Small Molecule

What is formoterol + fluticasone propionate?

formoterol + fluticasone propionate is a small molecule developed by Zambon. It is approved for therapeutic indications via inhaled.

Drug Profile

Brand NamesAbriff, Formoterol Combi, KRP108
CompanyZambon
Drug ClassSmall Molecule
Molecular TargetADRB2, NR3C1
RouteInhaled
StatusApproved

Mechanism of Action

Molecular Targets

formoterol + fluticasone propionate acts on 2 molecular targets:

ADRB2adrenoceptor beta 2 (B2AR, ARB2)
NR3C1nuclear receptor subfamily 3 group C member 1 (GR, GCCR)
Want deeper analysis?Noah AI can explain complex mechanisms and compare to similar drugs.

Therapeutic Indications

formoterol + fluticasone propionate is developed for 2 unique indications across 1 therapeutic area.

Therapeutic AreaConditionPhase
Respiratory, thoracic and mediastinal disordersAsthma✓ Approved
Respiratory, thoracic and mediastinal disordersChronic obstructive pulmonary diseasePhase III

Related Research Articles

PubMedMolecular therapy. Oncology2026-08-30

StagX1, an isoquinolinone compound, selectively targets CES1-positive Ewing sarcoma cells as a potential therapeutic agent.

Zhang Nenggang N, Gilbertson Scott R SR, Li Feng F, Pati Debananda D

StagX1 {ethyl 2-[[2-[2-[(2,3-dihydro-1,4-benzodioxin-6-yl)amino]-2-oxoethyl]-1,2-dihydro-1-oxo-5-isoquinolinyl]oxy]propanoate} is a derivative of isoquinolinone, possessing an ethyl propionate. StagX1 exhibits growth-inhibitory activity in multiple Ewing sarcoma cell lines. To advance StagX1 as a potential lead, we conducted experiments to examine its metabolism and stability in tissue culture media, plasma, liver microsomes, cells and mice. Our studies demonstrate that StagX1 is metabolically unstable and undergoes rapid hydrolysis to its corresponding acid metabolite (StagX1-acid) through cleavage of the ethyl ester group. We identified carboxylesterase 1 (CES1) as the primary enzyme responsible for this conversion. Notably, cells expressing CES1 are sensitive to StagX1, whereas CES1-deficient cells show minimal response, indicating that metabolic activation is required for its activity. In contrast, StagX1-acid is metabolically stable. These findings suggest that StagX1 functions as a prodrug that is enzymatically converted to its active metabolite, StagX1-acid, within cells. This metabolic conversion likely underlies its mechanism of action and contributes to its selective anticancer activity in Ewing sarcoma. Our findings provide insight into the metabolism of StagX1 and the role of CES1 in mediating its effects and demonstrate that StagX1 is a promising compound with growth inhibitory effects in CES1 positive Ewing sarcoma cells.

PubMedMicrobiome2026-08-30

Baseline gut microbiome and metabolome profiles predict weight loss after a structured lifestyle intervention.

Seethaler Benjamin B, Basrai Maryam M, Delzenne Nathalie M NM, Walter Jens J et al.

Obesity remains a global health challenge, and responses to lifestyle-based weight-loss interventions are heterogeneous. Here, we evaluate a one-year structured lifestyle program in 50 adults with obesity (mean BMI 42 ± 7.0 kg/m2), integrating clinical, microbiome, and metabolomic profiling, to identify predictors of weight-loss success and metabolic improvement (ClinicalTrials.gov: NCT01344525). The intervention included a 3-month very low-calorie formula diet (approximately 850 kcal/day), a 3-month transition phase from a formula diet to a balanced diet (approximately 1000 kcal/day), and a 6-month maintenance period in which the participants followed a balanced diet (gradually increasing to a maximum of 2000 kcal/day). Following the intervention, the participants exhibited marked reductions in body weight, body fat percentage, C-reactive protein, and glycated hemoglobin. Longitudinal analyses revealed that shifts in the gut microbiota composition were associated with changes in clinical and anthropometric data, as well as gut barrier function. An increased abundance of Lachnospiraceae was associated with improved gut barrier function; the relationship was mediated by fecal butyrate and propionate. Multivariate analyses revealed that serum baseline levels of diacylphosphatidylcholine C40:1 predicted postintervention BMI, indicating that this metabolite could serve as a biomarker of weight loss success. A random forest model incorporating baseline microbial and clinical features was used to predict weight loss and clinical improvements with high accuracy. Our findings elucidate the interplay between the gut microbiota and host metabolism during weight loss and highlight the potential utility of baseline profiling to achieve a high success rate in personalized obesity treatment. Video Abstract.

PubMedJournal of asthma and allergy2026-08-29

Gene Polymorphisms Associated with Treatment Response of Asthma in Chinese Children.

Zhu Lili L, Jiang Xinyi X, Li Changchang C, Zhu Tingting T et al.

To investigate the potential associations between therapeutically relevant single nucleotide polymorphisms (SNPs) with clinical characteristics and medication response of asthma in Chinese children. This prospective observational study was conducted at the Second Affiliated Hospital and Yuying Children's Hospital of Wenzhou Medical University from August 2021 to July 2022. Patients diagnosed with asthma and age-matched healthy individuals were recruited. Genotyping of 55 SNPs was performed using the Sequenom Mass Array platform. Both the association of 55 SNPs with clinical characteristics of asthma and the efficacy of budesonide/formoterol were analyzed. A total of 412 asthma patients and 262 age-matched healthy were recruited. The Minor Allele Frequency of SNPs differs markedly from that observed in European, American, and African populations but closely in the Asian populations. Comparing genotype and allele frequencies revealed that ORMDL3-rs2872507 (AA) and ZNF432-rs3752120 (TT) were significantly more frequent in the asthma group than in the control group. ZNF432-rs3752120 and ORMDL3-rs2872507 were further analyzed, stratified by clinical features and laboratory indicators. Atopy was significantly more common in ZNF432-rs3752120 TT genotype carriers compared to CC and CT genotypes. Additionally, the demand for inhalation device use was higher in CT carriers compared to those with CC and TT genotypes. However, no significant differences in asthma clinical characteristics were observed among ORMDL3-rs2872507 genotypes. Besides, eight SNPs were confirmed to be associated with the response of inhaling Budesonide/Formoterol dry powder 80/4.5. This study revealed that the ORMDL3-rs2872507 AA genotype and the ZNF432-rs3752120 TT genotype might be susceptible genotypes in Chinese children with asthma. rs1042713, rs2305089, rs2540487, rs2712807, rs28364072, rs320995, rs4980524, and rs730012 were identified as potentially associated with the efficacy of Budesonide/Formoterol (80/4.5) inhalation therapy in a cohort of children with asthma from southern Zhejiang, China.

PubMedBioresource technology2026-08-28

Proton transfer reinforced by rare earth oxides enables highly efficient methanogenesis during biochar-mediated direct interspecies electron transfer.

Qiu Yu-Hong YH, Chen Zhi-Biao ZB, Chen Zu-Liang ZL, Yang Zhi-Man ZM

Efficient electron/proton transfer between syntrophic microbes is essential for the stable operation of anaerobic digestion (AD) systems. Although biochar can accelerate methanogenesis by promoting direct interspecies electron transfer (DIET), its limited proton-transfer capacity often constrains overall efficiency. Here, a composite material with La/Nd-modified CeO2 (labeled as LNC) decorated on biochar (labeled as LNC@BC) was employed to investigate the association between methanogenesis and electron/proton transfer. Compared with the corresponding control groups in the acidogenic stage and the complete AD process, LNC@BC increased volatile fatty acid production by 240% and methane yield by 250%, respectively. In promoting methanogenesis, mechanistic analyses of electron transport activities, electron/proton transfer components, and methanogenic pathways demonstrated that LNC@BC can promote the conversion of propionate and butyrate to methane via DIET/proton-coupled electron transfer (PCET) and the conversion of acetate to methane via decarboxylation. Complementary assessments of electron transfer capacity, c-type cytochrome C, and the kinetic isotope effect further indicated that biochar in LNC@BC can function as an electron conduit to facilitate DIET, while LNC can primarily promote PCET. Thus, LNC@BC exhibits great potential to simultaneously facilitate electron and proton transfer during AD. These findings provide a reference for the rational design of novel conductive materials.

PubMedThe Science of the total environment2026-08-28

Hydrogen flux and microbial interactions governing methane formation in the rumen: Implications for mitigation.

Nair Prasanth M PM, Alex Rani R, Mondal Goutam G

Enteric methane production in ruminants is the dominant metabolic consequence of microbial hydrogen (H₂) disposal during anaerobic fermentation under typical rumen conditions, yet controlling it without disrupting rumen function remains a critical challenge in sustainable livestock production. Methanogenesis is not an isolated metabolic pathway but an emergent property of syntrophic microbial interactions that govern H₂ flux within the rumen ecosystem. During ruminal fermentation, fibrolytic bacteria, anaerobic fungi, and ciliate protozoa generate H₂ through coordinated carbohydrate degradation, which is continuously transferred to hydrogenotrophic microorganisms, primarily methanogenic archaea, through interspecies H₂ transfer mechanisms that are essential for maintaining redox balance and fermentation efficiency. Molecular hydrogen (H₂), serves as the primary vehicle for reductant transfer between microbial partners, and its dissolved concentration in rumen fluid governs the thermodynamic feasibility of all major fermentation pathways. This review uniquely frames enteric methane mitigation as a network-level H₂ flux control problem, integrating microbial ecology, thermodynamics, hydrogenase biology, and multi-omics evidence within a unified mechanistic framework. Methanogenesis is more comprehensively understood as a system-level outcome of H₂ partitioning within a complex microbial network rather than the activity of methanogens alone. H₂ is distributed among competing metabolic sinks, including propionate formation, reductive acetogenesis, nitrate reduction, and sulfate reduction, with methanogenesis dominating due to thermodynamic and ecological advantages under standard rumen conditions. Mitigation strategies are evaluated through their effect on H₂ flux: approaches that suppress H₂ production, redirect H₂ toward alternative sinks, or disrupt interspecies transfer are each constrained by microbial functional redundancy and adaptive compensation. Composite strategies simultaneously targeting multiple nodes within the H₂ network achieve more consistent and sustained methane reductions. Reconceptualizing methane mitigation as coordinated control of microbial H₂ flow provides a mechanistic, systems-level framework for designing interventions that reduce emissions without compromising rumen microbial stability or host productivity.

PubMedAnimals : an open access journal from MDPI2026-08-27

Lactobacillus casei TH14 and Hydrolysable Tannin as Corn Silage Additives Modify In Vitro Rumen Fermentation and Reduce Methane Production.

Prachumchai Rittikeard R, Cherdthong Anusorn A

This study evaluated L. casei TH14 (TH14) and two levels of hydrolysable tannin (HT; sweet chestnut, Castanea sativa) as corn ensiling additives, hypothesising that their combination would improve fermentation quality and reduce in vitro CH4. Whole-plant corn was ensiled for 21 days in a completely randomised design (seven treatments, four replicates) combining Molasses, TH14, and HT at 20 or 40 g/kg DM. Silage pH was significantly affected by treatment (p < 0.01), with T4 reaching the lowest final pH (3.83), whereas the primary nutrients (DM, OM, CP, and NDF) were unchanged (p > 0.05). Hydrolysable tannin reduced ruminal NH3-N at 24 h (11.12 vs. 13.06 mg/dL; p < 0.05) and, at 40 g/kg DM, lowered CH4 by 50.0% at 24 h (2.45 vs. 4.90 mL/g DM; p < 0.01) in a dose-dependent manner, accompanied by a higher propionate proportion and a lower acetate-to-propionate ratio (p < 0.01). Independent of tannin, TH14 reduced CH4 by 12.7% (p < 0.05). Digestibility was transiently reduced at 24 h but unaffected at 48 h (p > 0.05). Corn silage with HT at 40 g/kg DM, alone or combined with TH14, is a promising strategy to mitigate CH4 without impairing nutrient digestibility.

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