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insulin Aspart (NovoMix 30 Penfill / NovoMix 30 FlexPen / NovoRapid 30 Mix)

✓ Approved

Novo Nordisk A/S · INSR · 重组蛋白

什么是 insulin Aspart?

insulin Aspart 是一种重组蛋白,由Novo Nordisk A/S研发。该药已获批,用于治疗相关适应症,给药途径:Injectable (Others)、Subcutaneous Injection。

药物档案

商品名NovoMix 30 Penfill, NovoMix 30 FlexPen, NovoRapid 30 Mix
公司Novo Nordisk A/S
药物类别重组蛋白
分子靶点INSR
给药途径Injectable (Others), Subcutaneous Injection
状态Approved

作用机制

分子靶点

insulin Aspart 作用于 1 个分子靶点:

INSRinsulin receptor (CD220, HHF5)
需要更深入的分析?Noah AI 可解释复杂机制并与同类药物比较。

治疗适应症

insulin Aspart 针对 2 个适应症,涉及 1 个治疗领域。

治疗领域疾病/病症分期
Metabolism and nutrition disordersType 2 diabetes mellitus✓ Approved
Metabolism and nutrition disordersType 1 diabetes mellitusPhase I

相关研究文献

PubMedMetabolites2026-07-27

Effects of Fluoride and 8:2 FTOH on β-Cell Calcium Signaling and Insulin Homeostasis: An Exploratory Study.

Trevizol Juliana Sanches JS, Okamoto Motoki M, Yamashita Shohei S, Kuriki Nanako N et al.

Background/Objectives: Fluoride (F) is widely used in public water fluoridation to prevent dental caries, and an optimal level of F has been linked to improved glucose metabolism in animal models. Per- and polyfluoroalkyl substances (PFAS), including fluorotelomer alcohols (FTOHs), are persistent environmental contaminants with potential effects on pancreatic function. Methods: This in vitro and in vivo study investigated the effects of 8:2 FTOH and F (NaF) on pancreatic β-cells, focusing on Ca2+ homeostasis, insulin secretion, and the GPR40 pathway. Results: Results showed that 8:2 FTOH alters Ca2+ influx in a dose-dependent, biphasic manner, enhancing it at low doses and inhibiting it at high doses, while F increased Ca2+ signaling at high doses. High-dose 8:2 FTOH also downregulated GPR40 protein in βTC-6 pancreatic cells and modulated pathways related to lipid metabolism, endoplasmic reticulum stress, and insulin regulation in the mouse pancreas by proteomic analyses (in vivo). Conclusions: These findings exploratory indicate that both PFAS and F can impact β-cell function through complex mechanisms, potentially affecting Ca2+ homeostasis. This work highlights the hormesis effect of F and provides novel insights into the pancreatic effects of environmentally relevant PFAS exposures, emphasizing the need for further mechanistic studies at low, human-relevant doses.

PMID 42506423
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PubMedDiabetologia2026-07-27

Effects of time-restricted eating on markers of glucose metabolism and regulation in individuals with prediabetes or type 2 diabetes: a systematic review and meta-analysis of randomised controlled trials.

Viple Frida F, Pedersen Sofie S SS, Andersen Tue H TH, Raben Anne A et al.

This systematic review and meta-analysis aimed to investigate the effects of time-restricted eating (TRE) on glucose metabolism and regulation in individuals with prediabetes (fasting blood glucose of 5.6-6.9 mmol/l or HbA1c of 39-47 mmol/mol [5.7-6.4%]) or type 2 diabetes (fasting blood glucose ≥7 mmol/l or HbA1c ≥48 mmol/mol [6.5%]). A literature search was performed in MEDLINE, Embase and CENTRAL from inception to 5 August 2025. Moreover, forward and backward citation searches were performed. Eligible studies were RCTs in adults with prediabetes or type 2 diabetes, lasting ≥2 weeks, reporting markers of glucose metabolism and regulation, comparing TRE (≤12 h eating window) with a non-time-restricted control diet. Studies involving pregnancy, other fasting regimens, or non-peer-reviewed publications were excluded. Data were pooled as weighted mean differences with 95% CIs using random-effects generic inverse variance models in Cochrane Review Manager Web, and results are presented as forest plots. The certainty of evidence was defined using Grading of Recommendations, Assessment, Development and Evaluations methodology, and risk of bias was estimated by using the Revised Cochrane risk-of-bias tool for randomised trials (RoB 2). Out of 2043 records identified through the database search, as well as 1249 from forward and backward citation searches, ten RCTs including 599 participants were included. The mean length of the studies was 4 months, and the eating windows ranged from 4 to 10 h per day. The pooled meta-analysis showed no overall effect of TRE on HbA1c (-3.33 mmol/mol; 95% CI -6.87, 0.20 (-0.30% points; -0.63, 0.02); p=0.06, moderate certainty). Nevertheless, following stratification by subgroups, TRE resulted in a reduction in HbA1c of 0.93 mmol/mol (-1.70, -0.17 [-0.09% points; -0.16, -0.02]; p=0.02) in individuals with prediabetes but not in individuals with type 2 diabetes (-4.68 mmol/mol; -10.08, 0.72 (-0.43% points; -0.92, 0.07); p=0.09). TRE reduced fasting blood glucose in the pooled analysis (-0.30 mmol/l; -0.53, -0.07; p<0.01, moderate certainty) as well as in the subgroup analyses in individuals with prediabetes (-0.14 mmol/l; -0.27, -0.01; p=0.03) and with type 2 diabetes (-0.48 mmol/l; -0.78, -0.17; p<0.01). Moreover, TRE lowered body weight by 1.6 kg (-2.2, -1.0; p<0.001) in the pooled analysis. The evidence was limited by imprecision arising from wide confidence intervals in some of the included studies, which may be due to small sample sizes. Lastly, the effects of TRE on markers of insulin sensitivity, beta cell function and continuous glucose monitoring measurements were inconclusive. Moderate-certainty evidence indicates that TRE reduces fasting blood glucose but not HbA1c. The subgroup analyses revealed that TRE improved HbA1c and fasting glucose in individuals with prediabetes and improved fasting glucose in individuals with type 2 diabetes. Future large-scale studies should investigate long-term effects of TRE in prevention and treatment of type 2 diabetes. PROSPERO CRD42024523591 FUNDING: This research received no specific grant from any funding agency in the public, commercial or not-for-profit sectors. Three authors (JS, A-DT, THA) are employed at Steno Diabetes Center Copenhagen, a public hospital and research institution under the Capital Region of Denmark, partly funded by a grant from the Novo Nordisk Foundation.

PMID 42507108
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PubMedAdvanced materials (Deerfield Beach, Fla.)2026-07-27

Biphasic High-Entropy Heterojunctions Enabled by Perovskite Transformation.

Xu Xinsong X, Xiong Xuhui X, Wang Xinglong X, Rao Longjun L et al.

High-entropy materials (HEMs) provide an ideal platform for tailoring functional properties. However, the controlled synthesis of biphasic high-entropy heterostructures with synergistic multifunctionality remains a significant challenge. We propose an in-situ chemical reduction strategy driven by dynamic transformations, enabling the conversion of perovskite precursors into a series of anchored high-entropy heterojunctions. Under reducing conditions, the entropy-stabilized perovskite lattice acts simultaneously as both a structural scaffold and a compositional reservoir. Selectively, B-site transition metal cations exsolve to form uniformly dispersed high-entropy alloy (HEA) nanoparticles, whereas A-site rare-earth cations remain within the parent framework and transform into a high-entropy oxide (HEO) support. This unique biphasic high-entropy heterointerface effectively modulates the interfacial electronic structure and magnetic configuration, which not only enhances polarization loss via abundant heterogeneous interfaces and crystal defects, but also amplifies magnetic loss. The resultant HEA-HEO exhibits an impressive electromagnetic response, with its optimal effective absorption bandwidth showing a 176% and 242% enhancement over low-entropy materials (La2O3-Co) and single-phase high-entropy materials (La2O3-HEA), respectively. In flexible composite films, the heterojunction promotes efficient conversion of electromagnetic energy into heat while enhancing thermal conductivity, thereby broadening pathways towards multifunctional high-entropy heterojunction materials.

PMID 42504488
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PubMedGels (Basel, Switzerland)2026-07-27

Formulation Feasibility of a Mechanically Compliant Stearate Organogel-Methylcellulose/Gelatin Bigel for Localized Neurotherapeutic Delivery.

Moswatsi Botle Matha BM, Mahumane Gillian Dumsile GD, Kumar Pradeep P, Choonara Yahya Essop YE

Traumatic brain injury (TBI) presents a mechanically sensitive and pharmacologically complex environment in which therapeutic delivery remains challenging. Bigels may offer a formulation strategy for incorporating therapeutics with differing physicochemical properties while providing soft, viscoelastic matrices with properties that may be relevant to neural delivery applications. This study evaluated the in vitro formulation feasibility of a biphasic stearate organogel-methylcellulose/gelatin bigel as a mechanically compliant biphasic vehicle for localized delivery of neurotherapeutic agents. Bigels were fabricated by hot emulsification and genipin crosslinking to generate hydrogel-dominant dual-phase systems. Hydrogel:organogel formulations of 95:5 (BG1) and 85:15 (BG2) showed storage moduli of approximately 250 Pa and 200 Pa, respectively, and compressive Young's moduli of 0.39 and 0.70 kPa, within reported ranges for soft brain tissue. Stress relaxation confirmed viscoelastic behaviour, while minimal oil leakage (<0.2%) indicated phase stability. BG1 showed 52% porosity, pore sizes of 1.8-22 µm, and approximately 14% weight gain. Drug release followed Weibull kinetics (R2 = 0.99-0.999), with nicotinamide showing faster release and N-acetylcysteine and TPGS showing more sustained release. Both unloaded and drug-loaded bigels maintained >70% PC12 cell viability. These findings support the formulation feasibility of biphasic bigels as mechanically compliant vehicles capable of accommodating therapeutics with differing physicochemical properties and exhibiting differential release behaviour. Further studies are required to evaluate degradation, tissue interactions, retention, and therapeutic performance in advanced in vitro and in vivo models.

PMID 42505258
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PubMedMetabolites2026-07-27

Insulin Clearance Along the Liver-Kidney Axis: Implications for Insulin Action.

Perdomo Germán G, Cózar-Castellano Irene I, Najjar Sonia M SM

The pleiotropic actions of insulin are mediated by cascades of signaling pathways and are regulated by circulating insulin levels. Under physiologic conditions, insulin levels reflect the balance between pancreatic beta-cell secretion and insulin clearance, which occurs primarily in liver hepatocytes and, to a lesser extent, in kidney proximal tubule cells. Therefore, coordination between insulin secretion and clearance is essential for systemic insulin sensitivity. Whereas insulin secretion is widely investigated, exploring the role of insulin clearance in regulating insulin sensitivity remains limited. This review summarizes the main mechanisms underlying insulin clearance along the liver-kidney axis and discusses how they contribute to metabolic regulation in health and disease.

PMID 42506393
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PubMedJournal of agricultural and food chemistry2026-07-27

Selective Fractionation of Larch into Oligosaccharides and Less-Condensed Lignin in a Novel Molten Salt/n-Butanol System.

Huang Yuetong Y, Zhang Xinyan X, Liu Qiyu Q, Ma Qiaozhi Q et al.

Efficient fractionation of lignocellulosic components is a prerequisite for full-component utilization. Conventional methods rely on harsh conditions, causing severe degradation of cellulose and hemicellulose and lignin condensation, while milder conditions compromise fractionation efficiency. To balance native structure preservation and fractionation efficiency, a biphasic system composed of lithium bromide molten salt hydrate (MSH) and n-butanol was developed. At 110 °C for 1 h, cellulose and hemicellulose were selectively hydrolyzed into oligosaccharides in the MSH phase with yields of 81.4% and 88.1%, respectively. The isolated lignin retained 96.1% of β-O-4 ether bonds (38.5/100 C9 units), and its catalytic hydrogenolysis delivered a monophenol yield of 82.1% to the theoretical value. The light-colored lignin (ΔE = 31.28) achieved SPF 28.2 as a sole sunscreen active ingredient, demonstrating commercial potential. This biphasic system enables highly selective fractionation of lignocellulosic components with limited condensation, yielding key feedstocks for bioenergy and biorefinery, including oligosaccharides and native structure-preserved lignin.

PMID 42504519
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