原料词典检索/amaranthus-caudatus-seed-extract/AMARANTHUS CAUDATUS SEED EXTRACT
Tier 1 Monograph · SSOT 15 FieldsRaw .md (GEO) ↗
植物提取 (Plant)

AMARANTHUS CAUDATUS SEED EXTRACT

中国 NMPA《已使用化妆品原料目录 (IECIC)》标准中文名: 尾穗苋(AMARANTHUS CAUDATUS)籽提取物 (序号 #6791)
皮肤调理剂
[EU CosIng Official Definition] Amaranthus Caudatus Seed Extract is an extract of the seeds of Amaranthus caudatus L., Amaranthaceae
核心法规与安全结论 (Executive Fact Box)AEO / GEO CITATION ANCHOR

化妆品中 尾穗苋(AMARANTHUS CAUDATUS)籽提取物 (AMARANTHUS CAUDATUS SEED EXTRACT) 的全球法规限值与配方应用标准是什么?

尾穗苋(AMARANTHUS CAUDATUS)籽提取物(标准 INCI: AMARANTHUS CAUDATUS SEED EXTRACT,CAS 号: 223747-79-3)是化妆品配方中主要用作皮肤调理剂的核心成分。受中国 NMPA(已使用/准用)、韩国 MFDS(未列管)及欧盟 CosIng(未列管)等 6 大法域法定标准监管,常规建议添加量为 0.8–4.5%(最佳稳定窗口 pH 4–8)。

全球 7 轨官方全成分标签名称对照表

严格采用各国政府官方目录原名 · 严禁机器翻译
7-Track Official Statutory Label Names for AMARANTHUS CAUDATUS SEED EXTRACT
法域与监管轨道官方公告全成分标准名称一键复制
① 韩国 (MFDS 化妆品标准名称)AMARANTHUS CAUDATUS SEED EXTRACT (KR MFDS Registered)
② 韩国旧名称历史 (301 重定向)——
③ 欧盟 (EU CosIng EC 1223/2009)AMARANTHUS CAUDATUS SEED EXTRACT
④ 美国普通化妆品 (US PCPC / MoCRA INCI)AMARANTHUS CAUDATUS SEED EXTRACT
⑤ 美国 OTC 防晒/祛痘专论活性物名称 (FDA OTC)— (非美国 OTC 专论活性成分 / 普通化妆品原料)—
⑥ 中国 (NMPA《已使用化妆品原料目录 IECIC》标准中文名)尾穗苋(AMARANTHUS CAUDATUS)籽提取物
⑦ 日本普通化妆品 / 医药部外品 (JCIA / MHLW)AMARANTHUS CAUDATUS SEED EXTRACT (标准 INCI 参照)

Layer 1 — 全球 6 大法域法定限值与监管状态

Layer 1 Statutory Regulatory Limits Across 6 Regions for AMARANTHUS CAUDATUS SEED EXTRACT
法域监管状态法定限值适用条件与法定依据来源
韩国 (MFDS)未列管GMP已列入官方化妆品原料目录 (按 GMP 规范使用)
欧盟 (EU)未列管GMP已列入官方化妆品原料目录 (按 GMP 规范使用)
美国 (FDA)未列管GMP已列入官方化妆品原料目录 (按 GMP 规范使用)
中国 (NMPA)已使用/准用GMPIECIC Entry #6791
日本 (MHLW)未列管GMP已列入官方化妆品原料目录 (按 GMP 规范使用)
东盟 (ACD)未列管GMP已列入官方化妆品原料目录 (按 GMP 规范使用)
⚠️ 仅供参考 (免责声明): 本词典中的原料名称、法规限值与配比指南仅供研发参考。鉴于法规修订时差或潜在数据误差,实际配方设计、标签印制及备案前请务必核实主管部门最新官方公告原文;因使用本词典信息产生的任何问题,运营方概不承担法律责任。
Interactive Quartile Box-Plot (Min–Q1–Median–Q3–Max)

Layer 3 Formulation Concentration Box-Plot vs. Statutory Limit

Emulsion / Creamn=8
Min 0.8% · Q1 1.7% · Median 2% · Q3 2.5% · Max 4.5%
Emulsion / Cream — Emulsion cream & lotion structural / conditioning agent
Verified Source: Global Starter Formulation Library Statistical Distribution (n=8, EVONIK 8) (cir_safety) · EVONIK 8
Typical Median: 2%

Layer 3 — 剂型常规配比指南与理化配伍性

Layer 3 Formulation Concentration Quartiles by Product Category for AMARANTHUS CAUDATUS SEED EXTRACT
剂型分类Min – Q1 – Median – Q3 – Max (%)配方作用与机理Source ID
剂型组 B — 乳液 / 面霜 (O/W · W/O)0.8% · 1.7% · 2% · 2.5% · 4.5%Emulsion cream & lotion structural / conditioning agentGlobal Starter Formulation Library Statistical Distribution (n=8, EVONIK 8)
Cutaneous Permeation Science (500 Dalton Rule)MW: Macro/Complex · LogP: N/A

Stratum Corneum Penetration Depth & Bio-Spicule Transdermal Delivery

Stratum Corneum (Brick & Mortar Barrier · 10–20 µm)500 Da Molecular Weight Cutoff BarrierViable Epidermis (Keratinocytes & Melanocytes · 50–100 µm)Target for Brightening (Tyrosinase/Melanosome) & Barrier LipidsPapillary Dermis (Fibroblasts & ECM Collagen · 150–300 µm)Target for Collagen I/III Synthesis, Peptides, PDRN & ExosomesEpidermal Passive Permeation (<500 Da)
Molecular Weight & LogP Permeation Diagnosis
Low Molecular Weight (320 Da ≤ 500 Da) — Passive Permeation Feasible

Under passive topical application, molecules diffuse tortuously through intercellular lipids. Hydrophilic compounds >500 Da remain primarily on the outer stratum corneum.

Estimated Target Depth
40–90 µm
Optimal Delivery System
Polyol Enhancer / Serum
Colloid Interface, pH Spectrum & Thermal Stability

pH Stability Window (0–14), Thermal Limit & HLB Colloidal Phase Behavior

Water or glycol phase soluble/dispersible
Optimal Formulation pH Stability Window (0–14)pH 4.0 – 8.0
0245.5791114

Outside pH 4–8, risk of hydrolysis, viscosity loss, or ionic dissociation increases.

Maximum Thermal Processing Limit (°C)≤ 50°C
25°C45°C60°C75°C85°C100°C

Thermally stable up to 50°C during standard emulsification.

HLB Scale (0–20) & Colloidal Micelle / Lamellar Phase Simulator
O/W Oil-in-Water Micelle Emulsion (Lotion / Cream)
HLB 11.5
W/O (3–6)Lamellar (8–10.5)O/W Emulsion (11–15)Solubilizer (15–19)O/W Droplet
Biochemical Signaling & Mechanism Pathway

Cellular & Molecular Target Mechanism Flow

1. Epidermal Interaction→ Upregulation / Activation
Intercellular Lipid & Hydration Matrix
→
TEWL Reduction & Barrier Conditioning
2. Homeostasis Modulation⊣ Inhibition / Blockade
Oxidative Stress (ROS) & Irritant Cascade
⊣
Cutaneous Soothing & Homeostasis
Formulation Ontology Radial Graph

Interactive Synergy Pairings (Solid) & Incompatibility Warnings (Dashed)

+ GLYCERIN+ CAPRYLIC/CAPRIC TR…+ TOCOPHEROL✕ Verify phase compati…AMARANTHUS CAUDATU…
Interactive Node Guide

Click any green synergy node to jump directly to its monograph, or click a red dashed node to inspect the chemical incompatibility mechanism.

代表性商品名参考 (商标法第90条第1款第2项说明性标示)
AMARANTHUS CAUDATUS SEED EXTRACT

商品名仅供配方师识别原料规格参考,商标权归各原厂商所有。

学术与毒理综合摘要

Tier 1 Synthesis

本综述严格基于与该原料关联的 NIH PubMed 同行评审文献摘要及官方毒理学评估档案编写。

■ [1. Chemical Identity & International Labeling Nomenclature] - INCI Name: AMARANTHUS CAUDATUS SEED EXTRACT | CAS No.: 223747-79-3 | EC No.: N/A - Origin: PLANT | Functions: Skin Conditioning - Physicochemical Profile: Formula | MW /(Polymer/Complex) | / | Ionic Nature: non-ionic | CosIng/MFDS - Official Regional Label Names: US [AMARANTHUS CAUDATUS SEED EXTRACT] · EU [AMARANTHUS CAUDATUS SEED EXTRACT] · CN [尾穗苋(AMARANTHUS CAUDATUS)籽提取物] · JP [-] · JP Quasi-Drug [-] ■ [2. Dermatological Mechanism of Action & Functional Role] - Amaranthus Caudatus Seed Extract is an extract of the seeds of Amaranthus caudatus L., Amaranthaceae Classified under origin 'plant', it acts within the cosmetic vehicle or stratum corneum to deliver performance and structural formulation stability. ■ [3. Global 6-Jurisdiction Regulatory Status & Safety Limits (Layer 1 & Layer 2)] - Regional Summary: KR: NONE | EU: NONE | US: NONE | CN: ALLOWED | JP: NONE | ASEAN: NONE (CN IECIC (2025) Entry No. 6791 (尾穗苋(AMARANTHUS CAUDATUS)籽提取物)) - No specific Annex prohibition or numeric restriction across the 6 major jurisdictions (Permitted under general GMP safety assessment). - Official Safety & Historical Use Concentration (Layer 2): Quantum satis (QS) within standard cosmetic safety margins ■ [4. Formulation Dosage Guide by Product Category (Layer 3-A)] - [emulsion_cream] Typical range: 0.8 ~ 4.5% (Median 2.0%, Ref: Global Starter Formulation Library Statistical Distribution (n=8, EVONIK 8)) — Emulsion cream & lotion structural / conditioning agent ■ [5. Formulation Engineering, Stability & Incompatibility Matrix (Layer 3-B)] - Addition Phase: Water Phase or Cool-down Phase (< 45°C) - Optimal pH Range: pH 4.0 ~ 8.0 | Max Process Temp: Max 50°C | Electrolyte Tolerance: MEDIUM - Incompatibility / Caution: Verify phase compatibility under extreme pH or high electrolyte loads - Synergy Pairings: GLYCERIN, CAPRYLIC/CAPRIC TRIGLYCERIDE, TOCOPHEROL | Reference Trade Names: AMARANTHUS CAUDATUS SEED EXTRACT ■ [6. Peer-Reviewed Literature & Official Compendia Evidence] - PMID 41601868 (2025, Front Nutr): Preliminary evaluation of an extract of Amaranthus caudatus as a novel nutraceutical: effects on cholesterol and glucose - PMID 41519619 (2026, Nutr Metab Cardiovasc Dis): Improved HDL, LDL and total cholesterol levels following a 3-month administration of Mentha spicata leaf extract and Ama - PMID 39456755 (2024, Int J Mol Sci): Effect of Sprouting, Fermentation and Cooking on Antioxidant Content and Total Antioxidant Activity in Quinoa and Amaran

关联同行评审文献 (NIH PubMed) (10)

Preliminary evaluation of an extract of Amaranthus caudatus as a novel nutraceutical: effects on cholesterol and glucose absorption [PMID: 41601868 · 2025]
Mattiello A, Barbaglio G, Magnone M, Scarf&#xec; S, Vernazza S, Mirata S, Markus J, Letasiova S, Riva D, Premoli R · Front Nutr (2025)

The increasing prevalence of metabolic syndrome has prompted the development of nutraceuticals to support the management of glucose intolerance and dyslipidemia. Amaranthus caudatus is a potential source of bioactive compounds with metabolic relevance. A novel ingredient derived from Amaranthus caudatus seeds was characterized by untargeted metabolomic analysis and bioinformatic processing. Its effects were evaluated through in vitro enzyme inhibition and intestinal absorption assays, as well as preliminary observations in subjects with glucose intolerance over 3 months. The extract significantly inhibited key enzymes involved in carbohydrate metabolism and reduced glucose and cholesterol absorption in a three-dimensional intestinal model, while showing antioxidant activity. Preliminary human observations indicated improvements in HbA1c, post-prandial glucose, BMI, and a trend toward reduced total and LDL cholesterol. These results suggest that Amaranthus caudatus seed extract may represent a promising nutraceutical for supporting glycemic control and lipid metabolism.

Improved HDL, LDL and total cholesterol levels following a 3-month administration of Mentha spicata leaf extract and Amaranthus caudatus seed flour extracts, flavonoids and B vitamins. A placebo-controlled, double-blind, randomized clinical trial [PMID: 41519619 · 2026]
Di Minno A, Morone MV, Cordara M, Buccato DG, De Lellis LF, Ullah H, Piccinocchi R, Larsen DS, Baldi A, Piccinocchi G, Xiao X, Sacchi R, Daglia M · Nutr Metab Cardiovasc Dis (2026)

We have evaluated the efficacy and tolerability of two food supplements (FS) containing flavonoids (naringin and hesperidin); same doses of B3, B6, B9 and B12 vitamins, and two different doses of a blend of Mentha spicata leaf extract and Amaranthus caudatus seed flour, in subjects with borderline high total (TC) and low-density lipoprotein cholesterol (LDL-C) levels. 114 Participants (18-70 years) with TC levels 200-239&#xa0;mg/dL, (5.18-6.19&#xa0;mmol/L) and LDL-C (&lt;159&#xa0;mg/dL) were randomised into three groups to receive for 90 days the lowest (n&#xa0;=&#xa0;38, Treatment A), the highest dose of the FS (n&#xa0;=&#xa0;38 - Treatment B), or placebo (n&#xa0;=&#xa0;38). Treatment B was associated with a significant reduction in LDL-C (&#x223c;31.5&#xa0;mg/dL;-22%) and TC (&#x223c;19.5&#xa0;mg/dL; -9%), along with an increase in high-density lipoprotein cholesterol (HDL-C). The greater efficacy of Treatment B containing the highest dose of vegetable extracts is likely attributable to its higher M. spicata extract content, as judged by high-resolution mass spectrometry analysis of the preparation. The combination of different FS ingredients with different mechanisms of action can be a valuable strategy for improving lipid profiles in subjects with borderline high TC and LDL-C levels.

Effect of Sprouting, Fermentation and Cooking on Antioxidant Content and Total Antioxidant Activity in Quinoa and Amaranth [PMID: 39456755 · 2024]
Vento M, Della Croce CM, Bellani L, Tassi EL, Echeverria MC, Giorgetti L · Int J Mol Sci (2024)

The study of different processing techniques, such as sprouting, cooking and fermentation, can help to develop new products for human health. In this work, raw, cooked and fermented seeds and germinated seeds of Chenopodium quinoa Willd. var. Tunkahuan and Amaranthus caudatus L. var. Alegr&#xec;a were compared for the content of antioxidant molecules, total antioxidant capacity and mineral elements. Fermentation was induced spontaneously, with the yeast Saccharomyces cerevisiae , with the bacterium Lactobacillus plantarum and with both microorganisms, for 24 and 48 h. The increase in antioxidant molecules and antioxidant activity was induced by germination, by 24 h of spontaneous fermentation (polyphenols and flavonoids) and by 24 h of L. plantarum fermentation (total antioxidant activity) for both species. Germinated seeds of the two plants showed higher values in respect to seeds of macroelements and microelements. No genotoxic but rather protective effects were determined for seed and germinated seed extracts using the D7 strain of S. cerevisiae , a good tool for the evaluation of protection from oxidative damage induced by radical oxygen species (ROS) in cells and tissues. Therefore, the two varieties could be very suitable for their use in human diet and in supplements, especially as germinated seeds or as fermented foods.

Obtaining biologically active substances from Amaranthus caudatus L. seeds in one technological cycle [PMID: 35466427 · 2022]
Korabel IM, Panchak LV, Zyn AR, Antonyuk VO · Biomed Chromatogr (2022)

Nowadays, amaranth is a valuable multipurpose crop and a source of a number of very important biologically active substances. The aim of this study was to develop a comprehensive scheme for obtaining fatty oil, triterpenoids and lectin from the seeds of Amaranthus caudatus L. in one technological cycle. Two variants of the lectin and triterpene compound purification method from amaranth seeds were tested. It was determined that the extraction of triterpene compounds should be carried out after purification of the lectin from degreased seeds. The rationality of this sequence of technological operations is explained by the lability of the lectin and the insolubility in water of triterpene compounds from amaranth seeds. The study also presents a scheme for obtaining squalene from amaranth oil by chromatography on silica gel and proposes a more effective affinity sorbent for purification of the lectin. The use of such a sorbent also opens up the possibility of preserving other water-soluble substances from amaranth seeds. The physicochemical characteristics and carbohydrate specificity of the lectin are described and new data on the results of the interaction of lectin with human and animal erythrocytes are given. The obtained results are discussed in the light of the complex use of raw materials.

Antioxidative activities and phenolic compounds of pumpkin (Cucurbita pepo) seeds and amaranth (Amaranthus caudatus) grain extracts [PMID: 28114838 · 2017]
Peiretti PG, Meineri G, Gai F, Longato E, Amarowicz R · Nat Prod Res (2017)

Phenolic compounds were extracted from pumpkin (Cucurbita pepo) seed and amaranth (Amaranthus caudatus) grain into 80% (v/v) methanol. The extracts obtained were characterised by the contents of total phenolic compounds (TPC), trolox equivalent antioxidant capacity (TEAC), ferric-reducing antioxidant power (FRAP) and antiradical activity against 2,2-diphenyl-1-picrylhydrazyl (DPPH &#xb7; ) radical. The content of individual phenolic compounds was determined by HPLC-DAD method. Pumpkin seeds showed the higher content of TPC than that from amaranth. The TEAC values of both extracts were similar each other. The lower value of FRAP was observed for pumpkin seed. Phenolic compound present in amaranth grain exhibited strongest antiradical properties against DPPH radical. Several peaks were present on the HPLC chromatograms of two extracts. The UV-DAD spectra confirmed the presence of vanillic acid derivatives in the amaranth grain. The three main phenolic compound present in pumpkin seed were characterised by UV-DAD spectra with maximum at 258, 266 and 278&#xa0;nm.

Radical Scavenging Activities of Tannin Extracted from Amaranth (Amaranthus caudatus L.) [PMID: 25639718 · 2015]
Jo HJ, Chung KH, Yoon JA, Lee KJ, Song BC, An JH · J Microbiol Biotechnol (2015)

This study investigates the bioactivity of tannin from amaranth (Amaranthus caudatus L.) extracts. The antioxidant activities of the extracts from amaranth leaves, flowers, and seeds were evaluated. Tannin from leaves of amaranth has been evaluated for superoxide scavenging activity by using DPPH and ABTS(+) analysis, reducing power, protective effect against H2O2-induced oxidative damage in L-132 and BNL-CL2 cells, and inhibition of superoxide radical effects on HL-60 cells. At a concentration of 100 &#x3bc;g/ml, tannin showed protective effects and restored cell survival to 69.2% and 41.8% for L-132 and BNL-CL2 cells, respectively. Furthermore, at the same concentration, tannin inhibited 41% of the activity of the superoxide radical on HL-60 cells and 43.4% of the increase in nitric oxide levels in RAW 264.7 cells. The expression levels of the antioxidant-associated protein SOD-1 were significantly increased in a concentration-dependent manner in RAW 264.7 cells treated with tannin from amaranth leaves. These results suggest that tannin from the leaves of Amaranthus caudatus L. is a promising source of antioxidant component that can be used as a food preservative or nutraceutical.

In Vitro antioxidant effect and inhibition of alpha-amylase of two varieties of Amaranthus caudatus seeds [PMID: 15930754 · 2005]
Conforti F, Statti G, Loizzo MR, Sacchetti G, Poli F, Menichini F · Biol Pharm Bull (2005)

This study reports on the biological properties, antioxidant and antidiabetic, of two varieties of Amaranthus caudatus seeds, Oscar blanco and Victor red. Oil, squalene and phenolic contents were also determined. Seeds of both investigated varieties were found to possess very different levels of squalene (2.2% in Oscar blanco variety and 7.5% in Victor red variety). Although the antioxidant activity of A. caudatus var. Oscar blanco and A. caudatus var. Victor red statistically did not differ significantly from each other (IC50 values of ethyl acetate extracts were 0.50 mg/ml and 0.62 mg/ml, respectively), significant differences were noticed in relation to antidiabetic activity (inhibition of alpha-amylase, EC 3.2.1.1) of methanolic extracts that showed 50.5% for A. caudatus var. Oscar blanco and 28% for A. caudatus var. Victor red at concentration of 25 microg/ml.

Rapid techniques for the extraction of vitamin E isomers from Amaranthus caudatus seeds: ultrasonic and supercritical fluid extraction [PMID: 12918869 · 2002]
Bruni R, Guerrini A, Scalia S, Romagnoli C, Sacchetti G · Phytochem Anal (2002)

Supercritical fluid extraction (SFE) of seeds of Amaranthus caudatus (Amaranthaceae) and the use of ultrasound as a co-adjuvant in the extraction process were compared with methods traditionally used in the extraction of tocopherols and fatty acids. The use of readily available ultrasound equipment as an adjunct to the classical methods employed for the extraction of tocols provided qualitatively acceptable results more rapidly and more economically. SFE gave quantitatively better yields in shorter times, with solvent-free extracts obtained under conditions that minimised the degradation of thermolabile components. No significant variations were observed in the profile of the fatty acids extracted from amaranth oil by SFE or other methods, thus confirming the qualitative comparability of the faster supercritical extraction with the more time-consuming classical techniques even when processed with the aid of ultrasound.

Antioxidant activity of ethanolic extracts of amaranth seeds [PMID: 12108218 · 2002]
Klimczak I, Ma&#x142;ecka M, Pacho&#x142;ek B · Nahrung (2002)

Antioxidant activity of ethanolic extracts obtained from two amaranth species was evaluated in a beta-carotene-linoleic acid model system. The addition of amaranth extracts in the range of 0.01-0.1% inhibited degradation of a beta-carotene in a model emulsion during incubation at 60 degrees C; 0.05% addition of amaranth seeds extract was proposed as practically applicable. The total content of phenolic compounds was estimated by the Folin-Ciocalteu method and ranged from 39.17 mg/100 g of Amaranthus caudatus to 56.22 mg/100 g of A. paniculatus seeds. Free phenolic acids contained in ethanolic extracts of amaranth seeds were purified and isolated by solid-phase extraction (SPE) and identified by reversed-phase high-performance liquid chromatography (RP-HPLC). The technique involved gave a good separation of the free phenolic acids in the amaranth seeds. Significant differences in phenolic acids profiles of both amaranth species were observed.

Wild Amaranthus caudatus seed oil, a nutraceutical resource from Ecuadorian flora [PMID: 11714343 · 2001]
Bruni R, Medici A, Guerrini A, Scalia S, Poli F, Muzzoli M, Sacchetti G · J Agric Food Chem (2001)

Seed oil of wild Amaranthus caudatus from Ecuador was analyzed for determining the tocopherol, fatty acid, and sterol contents. The data obtained were compared with the analogous chemical profile of seed oil of Italian A. caudatus with the objective of evaluating the nutraceutical and alimentary potential of the Ecuadorian matrix. Supercritical fluid and ultrasound-enhanced extractions were performed on both matrices. Qualitative and quantitative determinations of tocopherols were performed by HPLC, whereas GC and GC-MS were used to determine the fatty acid composition and sterols, respectively. Supercritical fluid extraction at 400 atm was the most efficient extraction method in terms of both total yield extract and tocopherol yield. Seeds of Ecuadorian of A. caudatus contained higher levels of tocopherols than Italian samples, whereas the fatty acid composition and sterol content were similar. From the obtained results it can be suggested that seed oil of wild Ecuadorian A. caudatus can prove to be an effective nutraceutical and alimentary resource and a valid alternative to the European varieties.

常见问题解答 (FAQ)

Q1. 尾穗苋(AMARANTHUS CAUDATUS)籽提取物 (AMARANTHUS CAUDATUS SEED EXTRACT) 在全球 7 大法域的官方全成分标签名称是什么?
中国 NMPA《已使用化妆品原料目录 (IECIC)》标准中文名为 '尾穗苋(AMARANTHUS CAUDATUS)籽提取物',美国 PCPC 与欧盟 CosIng 标准 INCI 为 'AMARANTHUS CAUDATUS SEED EXTRACT',日本 JCIA 表示名称为 'AMARANTHUS CAUDATUS SEED EXTRACT'。
Q2. 尾穗苋(AMARANTHUS CAUDATUS)籽提取物 (AMARANTHUS CAUDATUS SEED EXTRACT) 在中、韩、欧、美、日、东盟的法定监管状态 (Layer 1) 如何?
6 大法域监管汇总 — 中国(CN): allowed,韩国(KR): none,欧盟(EU): none,美国(US): none,日本(JP): none,东盟(ASEAN): none。
Q3. 尾穗苋(AMARANTHUS CAUDATUS)籽提取物 (AMARANTHUS CAUDATUS SEED EXTRACT) 的常规配方添加量 (Layer 3) 与最佳稳定 pH 窗口是多少?
在代表性剂型 (emulsion_cream) 中常规添加量为 0.8%–4.5%(中位数 2%),最佳稳定 pH 范围为 4–8。
Q4. 尾穗苋(AMARANTHUS CAUDATUS)籽提取物 (AMARANTHUS CAUDATUS SEED EXTRACT) 有哪些配伍禁忌 (Incompatibilities) 与协同增效组合?
推荐协同组合包括 GLYCERIN, CAPRYLIC/CAPRIC TRIGLYCERIDE, TOCOPHEROL;配伍禁忌注意:Verify phase compatibility under extreme pH or high electrolyte loads。