購物車 
-
埃卡瑞丁
- names：
Picaridin
- CAS號：
119515-38-7
MDL Number： MFCD01756488 - MF(分子式)： C12H23NO3 MW(分子量)： 229.32
- EINECS:423-210-8 Reaxys Number:
- Pubchem ID:125098 Brand:BIOFOUNT
?？ㄈ鸲?119515-38-7,Picaridin)，也稱為Icaridin，INCI名稱為羥乙基異丁基哌啶羧酸鹽，商品名為Bayrepel和Saltidin，是一種驅蟲劑，對多種節(jié)肢動物（包括蚊子和壁虱）有效。
| 貨品編碼 | 規(guī)格 | 純度 | 價格 (￥) | 現(xiàn)價(￥) | 特價(￥) | 庫存描述 | 數量 | 總計 (￥) |
|---|---|---|---|---|---|---|---|---|
| YZM000816-1g | 1g | 99% | ￥ 810.00 | ￥ 810.00 | 2-3天 | ￥ 0.00 | ||
| YZM000816-500mg | 500mg | 99% | ￥ 488.00 | ￥ 488.00 | 2-3天 | ￥ 0.00 |
| 中文別名 | 埃卡瑞丁(119515-38-7,Picaridin);羥乙基哌啶羧酸異丁酯(?？ㄈ鸲?;派卡瑞丁;羥乙基哌啶;羥乙基哌啶羧酸異丁酯 |
| 英文別名 | Picaridin(119515-38-7);Icaridin;Bayrepel;Icaridine |
| CAS號 | 119515-38-7 |
| Inchi | InChI=1S/C12H23NO3/c1-3-10(2)16-12(15)13-8-5-4-6-11(13)7-9-14/h10-11,14H,3-9H2,1-2H3 |
| InchiKey | QLHULAHOXSSASE-UHFFFAOYSA-N |
| 分子式 Formula | C12H23NO3 |
| 分子量 Molecular Weight | 229.32 |
| 溶解度Solubility | 生物體外In Vitro:DMSO溶解度250 mg/mL(1090.18 mM;Need ultrasonic) |
| 性狀 | 無色至淺黃色液體 |
| 儲藏條件 Storage conditions | 4°C, protect from light * In solvent : -80°C, 6 months月; -20°C, 1 month月 (protect from light) |
?？ㄈ鸲?119515-38-7,Picaridin)實驗注意事項：
1.實驗前需戴好防護眼鏡，穿戴防護服和口罩，佩戴手套，避免與皮膚接觸。
2.實驗過程中如遇到有毒或者刺激性物質及有害物質產生，必要時實驗操作需要手套箱內完成以免對實驗人員造成傷害
3.實驗后產生的廢棄物需分類存儲，并交于專業(yè)生物廢氣物處理公司處理，以免造成環(huán)境污染
Picaridin(119515-38-7) Experimental considerations:
1. Wear protective glasses, protective clothing and masks, gloves, and avoid contact with the skin during the experiment.
2. The waste generated after the experiment needs to be stored separately, and handed over to a professional biological waste gas treatment company to avoid environmental pollution.
Tag:?？ㄈ鸲?119515-38-7,Picaridin),?？ㄈ鸲≡噭??？ㄈ鸲◎屜x劑,埃卡瑞丁的作用,?？ㄈ鸲〉募兌??？ㄈ鸲〉暮铣?埃卡瑞丁的外觀,?？ㄈ鸲〉暮??？ㄈ鸲〉膹S家,埃卡瑞丁的MSDS,?？ㄈ鸲〉膬r格,?？ㄈ鸲〉娜芙舛?/strong>
| 產品說明 | ?？ㄈ鸲?119515-38-7,Picaridin)是一種驅蟲劑，對多種節(jié)肢動物（包括蚊子和壁虱）有效。 |
| Introduction | Picaridin (119515-38-7,?？ㄈ鸲? is an insect repellent that is effective against a variety of arthropods (including mosquitoes and ticks). |
| Application1 | |
| Application2 | |
| Application3 |
Icaridin, also known as Picaridin or hydroxy-ethyl isobutyl piperidine carboxylate, is a cyclic amine and a member of the piperidine chemical family. Piperidines are structural components of [piperine], which is a plant extract from the genus Piper , or pepper. Icaridin has been commonly used as a topically-applied insect repellent in various countries but was officially licensed for use in the United States in 2001 and Canada in 2012. Icaridin was synthesized by Bayer in the 1980s based on molecular modeling. It is considered to be the first choice of repellent by the Public Health Agency of Canada’s Canadian Advisory Committee on Tropical Medicine and Travel for travelers six months to 12 years of age. Icaridin is reported to be less irritating than [Diethyltoluamide], another common insect repellant, and products containing up to 20% of icaridin are considered safe for long-term use in adults.
| 警示圖 | |
| 危險性 | warning |
| 危險性警示 | Not available |
| 安全聲明 | H303吞入可能有害+H313皮膚接觸可能有害+H2413吸入可能對身體有害 |
| 安全防護 | P264處理后徹底清洗+P280戴防護手套/穿防護服/戴防護眼罩/戴防護面具+P305如果進入眼睛+P351用水小心沖洗幾分鐘+P338取出隱形眼鏡（如果有）并且易于操作,繼續(xù)沖洗+P337如果眼睛刺激持續(xù)+P2393獲得醫(yī)療建議/護理 |
| 備注 | 實驗過程中防止吸入、食入，做好安全防護 |
| 象形圖 |  |
|---|---|
| 信號警告 | Warning |
| GHS危險說明 |
Aggregated GHS information provided by 46 companies from 2 notifications to the ECHA C&L Inventory. H319 (100%): Causes serious eye irritation [Warning Serious eye damage/eye irritation] Information may vary between notifications depending on impurities, additives, and other factors. The percentage value in parenthesis indicates the notified classification ratio from companies that provide hazard codes. Only hazard codes with percentage values above 10% are shown. |
| 防范說明代碼 |
P264, P280, P305+P351+P338, and P337+P313 (The corresponding statement to each P-code can be found at the GHS Classification page.) |
| Length of tick repellency depends on formulation of the repellent compound (icaridin = Saltidin?): tests on Ixodes persulcatus and Ixodes ricinus placed on hands and clothes |
| No effect of insect repellents on the behaviour of Lymnaea stagnalis at environmentally relevant concentrations(Environmental Science and Pollution Research,2017) |
| Comparison of the tick repellent efficacy of chemical and biological products originating from Europe and the USA(Parasitology Research,2010) |
| Evaluation of biological and chemical insect repellents and their potential adverse effects(Parasitology Research,2013) |
| Efficacy assessment of biocides or repellents for the control of Sarcoptes scabiei in the environment(Parasites & Vectors,2015) |
1.Gustatory receptor neuron responds to DEET and other insect repellents in the yellow-fever mosquito, Aedes aegypti
Jillian L. Sanford & Vonnie D. C. Shields & Joseph C. Dickens. Naturwissenschaften (2013) 100:269–273
Behavioral and electrophysiological studies have demonstrated interactions between insect olfactory systems and repellents. DEET, SS220, IR3535, and picaridin have been shown to cause repellency from a distance, indicating their interaction with olfactory sensilla (Klun et al. 2006; Licciardi et al. 2006). Electrophysiological responses of antennal olfactory receptor neurons (ORNs) to DEET, picaridin, and citronellal have been reported in the mosquitoes Culex quinquefasciatus and A. aegypti, and the vinegar fly Drosophila melanogaster (Boeckh et al. 1996; Ditzen et al. 2008; Syed and Leal 2008; Kwon et al. 2010; Stanczyk et al. 2010; Pellegrino et al. 2011). More recently, molecular studies in combination with electrophysiological studies have shown that repellents can interact with odorant receptors (ORs) expressed in ORNs (Ditzen et al. 2008; Bohbot and Dickens 2010, 2011; Grant and Dickens 2011). Repellents can inhibit the response of the OR to its cognate agonist or activate the OR in the absence of its agonist (Ditzen et al. 2008; Bohbot and Dickens 2010, 2011).
2.Bitter-sensitive gustatory receptor neuron responds to chemically diverse insect repellents in the common malaria mosquito Anopheles quadrimaculatus
Jackson T. Sparks & Joseph C. Dickens. Sci Nat (2016) 103: 39
Chemically diverse synthetic and plant-related chemicals repel mosquitoes and deter feeding on animal hosts (Curtis et al. 1991; Maia and Moore 2011; Debboun et al. 2014). Synthetic repellents picaridin (Klun et al. 2006) and IR3535 (Marchio 1996; Licciardi et al. 2006) may be as effective as DEET at preventing landing and biting. Klun et al. 2006 showed that mosquitoes would feed on picaridin- or DEETtreated skin as long as an untreated cloth covered the treated area. Contact repellency, therefore, may be context dependent, varying by species and depending on the type of contact. Naturally occurring chemicals from plants such as 2-undecanone (Barton 2003; Roe 2004; Witting-Bissinger et al. 2008; Ali et al. 2013), p-menthane-3,8-diol (PMD) (Trigg 1996; Barasa et al. 2002), geraniol (Weldon et al. 2011), and trans-2-hexen-1-ol (Guha et al. 2014) also disrupt host seeking and/or blood feeding. 2-undecanone repelled female mosquitoes in arm-in-cage assays and deterred biting for both Ae. aegypti and An. quadrimaculatus (Ali et al. 2013). PMD-based repellents, which are significantly less volatile than most other repellents, were as effective as DEET in both arm-in-cage assays and field trials (Carroll and Loye 2006). The exact physiological mechanisms by which these structurally diverse chemicals exert their effects are difficult to define, as each may affect unique or overlapping chemosensory and/or neurotoxic pathways in a species-specific manner.
3.Evaluation of biological and chemical insect repellents and their potential adverse effects
Margit Semmler & Fathy Abdel-Ghaffar & Jürgen Schmidt & Heinz Mehlhorn. Parasitol Res (2014) 113:185–188
However, low dosages below 1 %, e.g., in the case of geraniol, apparently do not produce strong allergic reactions (Hagvall et al. 2013); otherwise, they would not have done their tests starting with 4 % and higher concentrations. Since also notified synthetic products such as DEET may introduce unwanted effects such as contact urticaria, as was shown by Shutty et al. 2013 in a comparative test with picaridin (which remained negative), each user of repellents must test his personal potential for allergic reactions. But in any case, EU-notified repellents (lavender, geraniol, and paramenthan diol) do not function at low concentrations of 0.25 and 1 % as effective repellents and thus have to be considered as fragrances adding better scent to products containing definitively active compounds in repellency.
4.Determination of antimicrobial properties of Picaridin and DEET against a broad range of microorganisms
Sadk Kalayc • Selami Demirci • Fikrettin Sahin. World J Microbiol Biotechnol (2014) 30:407–411
Due to health concerns, resistance problem, insufficient efficacy and plasticizing properties of DEET, scientists are still searching for new alternative repellent molecules (Bohbot et al. 2011). Another important repellent, Picaridin [2-(2-Hydroxyethyl)-1-piperidinecarboxylic acid 1-methylpropyl ester], also known as Saltidin or Icaridin, was developed by Bayern in 1980s and first used in US in 2005 (Debboun et al. 2007). Today, it is widely used in Europe and Australia. Picaridin is almost colorless and odorless substance that has no irritation to skin. It is used against various arthropods in different forms including spray, aerosol, and wet wipes (Katz et al. 2008). Various concentrations of Picaridin products (7–20 %) are now available in US. Similar to DEET, the mechanism of action on insects is not clearly known yet. According to WHO evaluations, Picaridin was reported to have no toxic, carcinogenic, and mutagenic effect on mammalian system but manufacturers do not recommend the usage of Picaridin for children younger than 2 years of age (Frances et al. 2007; Katz et al. 2008).
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