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PDE IV-IN-1 Sale

目录号 : GC30657

PDEIV-IN-1是一种有效的phosphodiesteraseIV抑制剂,可用于哮喘,慢性阻塞性肺病和其他炎症性疾病的研究。

PDE IV-IN-1 Chemical Structure

Cas No.:225100-12-9

规格 价格 库存 购买数量
1mg
¥11,424.00
现货
5mg
¥22,848.00
现货
10mg
¥38,824.00
现货
20mg
¥68,544.00
现货

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Sample solution is provided at 25 µL, 10mM.

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产品描述

PDE IV-IN-1 is an inhibitor of phosphodiesterase IV, used for the research of asthma, COPD or other inflammatory diseases.

[1]. Purine derivative dihydrate, drugs containing the same as the active ingredient and intermediate in the production thereof. US 6919455 B2

Chemical Properties

Cas No. 225100-12-9 SDF
Canonical SMILES CC1=NC2=C(C)N=C(Cl)N=C2N1CC3=CC=C(OC)C(OC4CCCC4)=C3
分子式 C20H23ClN4O2 分子量 386.88
溶解度 Soluble in DMSO 储存条件 Store at -20°C
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溶解性数据

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1 mg 5 mg 10 mg
1 mM 2.5848 mL 12.9239 mL 25.8478 mL
5 mM 0.517 mL 2.5848 mL 5.1696 mL
10 mM 0.2585 mL 1.2924 mL 2.5848 mL
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Research Update

Phosphodiesterase-4 Inhibition in Psoriasis

Psoriasis is a chronic immune-mediated inflammatory disorder. Phosphodiesterase-4 (PDE-4) is an enzyme that mediates inflammatory responses and plays a role in psoriasis pathogenesis. PDE-4 degrades its substrate cyclic adenosine monophosphate (cAMP) to adenosine monophosphate (AMP), which subsequently leads to the production of pro-inflammatory mediators. Inhibitors of PDE-4 work by blocking the degradation of cAMP, which leads to a reduction in inflammation. Apremilast is the only approved oral PDE-4 inhibitor for the treatment of psoriasis. While it is effective for some patients, it may be limited by adverse effects in others. A topical PDE-4 inhibitor, roflumilast, is being investigated in psoriasis and showing promising results. Crisaborole, a topical PDE-4 inhibitor approved for use in atopic dermatitis, has also been investigated in psoriasis. This is an updated comprehensive review to summarize the currently available evidence for the PDE-4 inhibitors apremilast, roflumilast and crisaborole in the treatment of psoriasis, with a focus on data from randomized clinical trials.

Small-molecule inhibitors of PDE-IV and -VII in the treatment of respiratory diseases and chronic inflammation

Targeting phosphodiesterase IV (PDE-IV) with small-molecule inhibitors as a therapeutic for chronic inflammatory disorders has been an active area of research interest for many years. The major drawback, however, has been to develop pharmacophores that would differentiate between targeting isoforms of PDE-IV associated with inflammation, as opposed to those that cause emesis, a major side effect associated with PDE-IV inhibition. Several different approaches have been employed, including designing subtype selective PDE-IV inhibitors. A recent approach has been to develop chemotypes that target PDE-VII, a cAMP-specific PDE, expressed widely in immune and pro-inflammatory cells. It is hypothesized that dual inhibitors, which function to inhibit both PDE-IV and VII, may achieve a higher therapeutic index and thereby exhibit a lower propensity to cause adverse side effects that are characteristic when targeting PDE-IV alone. This review focuses on the major classes of compounds that are presently being studied for their potential to inhibit PDE-VII and discusses the available data in the development of dual PDE-IV and -VII inhibitors, their biologic activity and their scope as a therapeutic choice in chronic inflammatory diseases.

The Effects of PDE Inhibitors on Multiple Sclerosis: a Review of in vitro and in vivo Models

Background: Multiple sclerosis (MS) is a chronic inflammatory and immune-mediated disease, whose current therapeutic means are mostly effective in the relapsing-remitting form of MS, where inflammation is still prominent, but fall short of preventing long term impairment. However, apart from inflammationmediated demyelination, autoimmune mechanisms play a major role in MS pathophysiology, constituting a promising pharmacological target. Phosphodiesterase (PDE) inhibitors have been approved for clinical use in psoriasis and have undergone trials suggesting their neuroprotective effects, rendering them eligible as an option for accessory MS therapy.
Objective: In this review, we discuss the potential role of PDE inhibitors as a complementary MS therapy.
Methods: We conducted a literature search through which we screened and comparatively assessed papers on the effects of PDE inhibitor use, both in vitro and in animal models of MS, taking into account a number of inclusion and exclusion criteria.
Results: In vitro studies indicated that PDE inhibitors promote remyelination and axonal sustenance, while curbing inflammatory cell infiltration, hindering oligodendrocyte and neuronal loss and suppressing cytokine production. In vivo studies underlined that these agents alleviate symptoms and reduce disease scores in MS animal models.
Conclusion: PDE inhibitors proved to be effective in addressing various aspects of MS pathogenesis both in vitro and in vivo models. Given the latest clinical trials proving that the PDE4 inhibitor Ibudilast exerts neuroprotective effects in patients with progressive MS, research on this field should be intensified and selective PDE4 inhibitors with enhanced safety features should be seriously considered as prospective complementary MS therapy.

PDE inhibitors currently in early clinical trials for the treatment of asthma

Introduction: PDE inhibitors could be useful in the treatment of asthma because of their bronchodilator and/or anti-inflammatory activities. Recently, some selective PDE3, PDE4 and PDE3/4 inhibitors have been shown to have beneficial effects in patients with asthma suggesting that such drugs may offer novel therapeutic options for the treatment of this disease.
Areas covered: The authors describe the main PDE families that could be involved in asthma as well as the PDE inhibitors that have been evaluated for the treatment of asthma.
Expert opinion: Although the potential therapeutic utility of PDE inhibitors has been demonstrated in various animal models of asthma, their clinical efficacy have been restricted by the dose-limiting side effects; no PDE inhibitor has yet been approved for the treatment of patients with asthma. Although new PDE inhibitors have been synthesised, most data are from cellular and tissue-level studies with human trials still on the horizon. Apparently, only CHF 6001, an inhaled PDE4 inhibitor, and RPL554, a dual PDE3/4 inhibitor, are still under clinical development. Further data from these new drugs are eagerly anticipated to better understand where these drugs might stand in the future treatment of asthma.

Inhibitors of phosphodiesterase IV (PDE IV) increase acid secretion in rabbit isolated gastric glands: correlation between function and interaction with a high-affinity rolipram binding site

In this report, we describe the ability of selective inhibitors of phosphodiesterase (PDE) isozymes to increase aminopyrine accumulation in rabbit isolated gastric glands. Aminopyrine accumulation in the presence of histamine was increased by the nonselective PDE inhibitor isobutylmethylxanthine (EC50 = 4.8 microM) and by two selective PDE IV inhibitors, rolipram and Ro 20-1724 (EC50 = 0.013 and 0.07 microM, respectively) but not by selective PDE III inhibitors (siguazodan and SK&F 94120) or by a selective PDE V inhibitor (zaprinast). These results suggest that PDE IV is an important regulator of acid secretion in response to histamine. One of the more fascinating properties of PDE IV is the expression of a high-affinity binding site for [3H]-rolipram in addition to cAMP catalytic activity. Although agents that inhibit PDE IV catalytic activity also appear to bind to the high-affinity rolipram-binding site, the rank-order potencies of compounds for these two effects are poorly correlated. Also, certain pharmacological actions of PDE IV inhibitors appear to be related to an interaction with this binding site. In this study, we observed that the ability of PDE IV inhibitors to enhance acid secretion was not associated with their ability to inhibit PDE IV catalytic activity but did show a strong correlation with their ability to compete for [3H]-rolipram binding. Furthermore, we were able to detect [3H]-rolipram binding sites in gastric glands that had characteristics similar to those of the [3H]-rolipram binding sites in rat brain microsomes and human recombinant PDE IV.