地址:武汉市洪山区光谷大道35号光谷总部国际时代 二期1栋1301
电话:18771149750
传真:18372041646
邮箱:sales@amyjet.com

Cayman Chemical向全球科学工作者提供多研究领域的生化、免疫试剂和分析试剂盒,其产品被广泛应用于肿瘤、氧化氮、神经学、凋亡、氧化性损伤、内分泌学等不同研究领域。Cayman Chemical可提供用于检测的特色试剂盒,如:类花生酸类物质、游离的生物标志、环核苷、激素及氧化氮等;也提供多种高质量试剂,包括:类花生酸类物质、氧化氮试剂及许多相关脂质、脂肪酸、酶和抗体。"
Cayman Chemical Company is an American biotechnology company founded in 1980, headquartered in Ann Arbor, MI. The company provides chemicals that are used primarily by universities and pharmaceutical companies for research and the development of medicines. The company is also known as a provider of reference standards to state and federal crime labs for use in the detection of rapidly evolving designer drugs. Small quantities of these known reference standards are analyzed using mass spectrometry and gas chromatography techniques to match against forensic evidence, usually confiscated by law enforcement, or forensic toxicological evidence collected in the form of biological samples such as urine, blood, or tissue.
Cayman chemical的主要产品包括:
Chemical Analysis
Chemical Synthesis
Bioanalysis
Medicinal Chemistry
Prostaglandin APIs
R&D Services
Manufacturing
Biochemicals
Assay Kits
Antibodies
Proteins
Analytical Standards
Certified Reference Materials
" data-original="http://pharna.51antibodies.com/template/company/xys_lvse/skin/image/lazyLoad.jpg" alt="Cayman Chemical"> Cayman Chemical
艾美捷科技代理DCN Dx品牌全系列产品
DCN Dx是一家专注于体外诊断(IVD)领域内快速即时诊断(POC)检测试剂的开发和制造的公司。快速免疫检测试剂的合约开发是DCN Dx所有业务的核心。Dcndx公司专注于侧向层析法(lateral flow)、穿流法(flow through)和微流控(microfluidic)技术平台,具有高灵敏度、定量检测、多重检测以及读数仪集成的高质量要求。DCNDx还提供多种产品和服务,以协助客户在开发的任何阶段:
● 定制的、私有的侧向层析技术教育培训课程: 在此课程中,将教授如何开发和制造快速检测试剂的细节;
● 咨询服务: 协助解决快速检测试剂开发、生产、法规注册和商业化过程中的任何问题;
● 定制化的蛋白-蛋白、蛋白-颗粒、小分子-蛋白和小分子-颗粒结合物;
● 侧向层析材料入门套件、结合物试剂盒、试剂、测试卡盒和材料: 用于快速检测试剂的开发过程。
▍DCN Dx产品列表
| 品名 | Weight | Dimensions | 产品描述 |
| Blood Collection/Separation Materials Kit | 5.5 LBS | 10 × 14 × 3.5 IN | 集血液采集与红细胞分离功能于一体的套装设备 |
| Nucleic Acid Lateral Flow Kit | 2 LBS | 14 × 12 × 4 IN | 兼容 DTT 的试剂盒检测标记的 DNA 扩增产物 |
| Basic Lateral Flow Training | - | - | 侧向层析技术能力提升 |
| MICA-200C LFA Cassettes | 1.5 LBS | 12.25 × 11 × 1.5 IN | 高性能侧向层析 (LFA)卡盒 |
| Lateral Flow Materials Kits | 16 LBS | 16 × 16 × 16 IN | 侧向层析材料套件 |
| Colloidal Gold | 2.5 LBS | 8.5 × 3.5 × 3.5 IN | DCNovations胶体金,提供大宗采购优惠价 |
| Cellulose NanoBeads | - | - | 采用 NanoAct™纤维素纳米珠,增强侧向层析检测性能 |
| CNB Conjugation Kit | 8 LBS | 16 × 16 × 16 IN | 为NanoAct™纤维素纳米珠提供可靠的偶联解决方案 |
| Colloidal Gold Conjugation Kit | 9 LBS | 16 × 16 × 16 IN | 胶体金偶联试剂盒,优化蛋白-金标记物偶联物 |
" data-original="http://pharna.51antibodies.com/template/company/xys_lvse/skin/image/lazyLoad.jpg" alt="艾美捷科技代理DCN Dx品牌全系列产品"> 艾美捷科技代理DCN Dx品牌全系列产品
<艾美捷科技代理GenTegra品牌全系列产品
GenTegra 凭借专业的研发团队和深厚的技术积累,GenTegra 在生物样本保护领域处于领先地位,其产品广泛应用于科研、医疗、法医等多个领域。GenTegra 开发的产品包括适用于多种应用场景的样本采集装置,例如:用于基因组学和转录组学分析的 RNASeq 样本采集;对犯罪现场法医样本进行 DNA 分析的样本采集;来自患者自采样设备的全血样本采集。GenTegra公司的产品包括GenTegra RNA、GenTegra DNA。

▍GenTegra公司的产品
● GenTegra RNA 相关产品
①GenTegra RNA Advantage:使用 RIN 值作为 RNA 质量的衡量标准,能为组织中的 RNA 提供更好保护。相比 RNAlater 等产品,它始终产生 RIN 分数更好(≥1)的 RNA,且使用时 RIN 值等于或高于所需的 RIN 值≥7,确保出色的 RNAseq 结果,可替代 RNAlater 而无需更改当前方案。
②GenTegra RNA:是在实验室工作或运输 RNA 时为 RNA 提供的最佳保护产品。作为水溶性活性化学保护剂,添加到 RNA 中会形成保护基质,在干燥状态和液态下都能保存和保护 RNA。在 -80°C 至 +72°C 的极端温度下保护近乎完美,是唯一一种在干燥前立即提供 RNase 活性保护的干式储存产品,允许使用所有标准缓冲系统。在室温下储存保质期超过 3 年,有多种包装形式,如 100/0.5ml 螺旋盖管、96 孔微孔板或 96 管架格式、足够数量的散装基质,还提供三管评估套件。
③GenTegra RNAssure™:为 RNA 纯化和 RNAseq 的人员提供新水平的保护。其专有的活性化学保护™ ACP 配方可在洗脱纯化柱时立即保护 RNA,提供更彻底的保护,能保护样品完整性,可无缝融入每个标准 RNA 纯化试剂盒中,在室温(RT)下保护 RNA 至少 3 天,在 4°C 下保护 RNA 2 周,还可以保护 RNA 在 37°C 的较高温度下进行 DNase 处理期间免受损伤,能灭活纯化过程或环境污染遗留的所有残留 RNase 活性,保护 DNase 免受氧化损伤等。
● GenTegra - DNA 相关产品
①GenTegra - DNA:在运输和储存过程中的极端温度(-80°C 至 +72°C)下都能对 DNA 进行保护,基于加速研究在环境温度下保护 DNA 超过 20 年,无需特殊环境控制即可保护 DNA,经过多次干燥和补水循环。
②GenTegraDNA dry BULK:是法医实验室的首选产品,干散货是自动化系统的理想选择,支持直接用于 STR、qPCR 等,在需要时支持 DNA 样品浓缩,干燥的 DNA 样品可以在环境温度下安全运输,在室温下储存的保质期超过 3 年,提供三管评估套件。
● GenSolve DNA 提取和纯化试剂盒
①GenSolve Complete提取和纯化试剂盒:经过优化的提取和纯化方法,可提供最高质量的干血斑结果,能从任何可用的DNA采集卡中提取和纯化DNA,基于柱的纯化过程可有效将DNA与细胞碎片和外来化学成分分离。
②GenSolve DNA 提取试剂盒:可灵活地利用GenTegra 行业领先的DNA 提取技术来检测干血斑,并提供任何可用的DNA纯化试剂盒。来自任何采集卡的干血斑的 DNA 数量无与伦比,与GenTegra GenSaver卡或GenPlates结合使用时,产量为 95%,可与所需的任何DNA纯化方法配对。
▍GenTegra产品列表
| 产品名称 | 产品描述 |
| GenTegra RNAdvantage™ | 为新鲜组织样本中的 RNA 提供更优保护。 |
| GenTegra RNAssure™ | 对直接来源于 RNA 纯化试剂盒的 RNA 提供即时且完全的保护。 |
| GentegraRNA | 为运输用于 RNA 测序 (RNAseq) 的 RNA 提供即时且完全的保护。 |
| GenTegraDNA | 为生命科学和法医实验室应用提供卓越的 DNA 保护 |
| GenSolve COMPLETE 提取与纯化试剂盒 | 能够从干血斑中提取出最高质量、长度 >35 kb且高产量的 DNA。 |
| GenSolve 经典提取试剂盒 | 干血斑(DBS)DNA 提取技术可与任何 DNA 纯化试剂盒结合使用。 |
| GenTegra 快速干燥仪 | 可用于将生物样品施加到 GenTegra-RNA、GenTegra-DNA 或 GenPlate 之后进行干燥处理。 |
| enSaver DNA 卡 | 有 1 点、2 点和 4 点格式可供选择。变色格式适用于收集唾液等透明样本。 |
| GenSaver 2.0 法医 DNA 卡 | 该卡有 1 点、2 点和 4 点格式可供选择,其中变色格式适用于收集唾液等透明样本。 |

艾美捷科技代理NanoLight Technology品牌。
NanoLight Technology公司致力于开发天然发光海洋蛋白(海洋生物发光)的应用。NanoLight® 技术的生命科学应用包括:高通量药物发现、功能基因组学、肿瘤成像、放射性同位素替代、光遗传学、分子诊断等。自2012年以来,NanoLight Technology公司主要提供无毒、水溶性的生物发光底物,用于体内成像领域,以监测小鼠模型中的肿瘤生长。另一个非常新的应用是光遗传学领域,它为神经科学家提供了使用生物发光控制神经元的惊人能力。NanoLight Technology公司研究团队不断扩大产品组合。Prolume Purple(美国专利 9,624,425),是一种新型底物,其性能优于广泛用于研究蛋白质-蛋白质相互作用的 DeepBlueC™。除了基本的生物发光化合物外,NanoLight 还将这些底物整合到复杂的缓冲系统中,适用于具有不同动力学特性的各种荧光素酶,为研究人员提供便利,并为制药公司的自动化高通量筛选提供可靠的批次控制试剂。NanoLight 也是开发分子靶标传感工具的领导者。NanoLight 提供迄今为止已知的两种最亮荧光素酶——高斯荧光素酶(GLuc-SA)和 Oplophorous 荧光素酶(NLuc-SA)的链霉亲和素偶联物,便于检测生物素化分子(如 DNA、RNA、肽、蛋白质)。

艾美捷科技代理nanoComposix品牌纳米材料。
nanoComposix公司提供单分散和未集聚的金属和金属氧化物纳米材料。nanoComposix拥有数百种不同的材料、尺寸、形状和表面的纳米材料产品库存。
此外,nanoComposix公司已经定制生产了2000余种核心/外壳、生物功能化、荧光和磁性纳米复合材料,以满足客户需求。nanoComposix公司公司的产品包括:
(1)金纳米颗粒:金纳米颗粒结合了强大的等离子体光学特性和多功能的表面功能化能力;这些纳米颗粒可用于免疫诊断、生物传感器、传感、光学效应、纳米医学等广泛应用。
(2)银纳米颗粒:银纳米颗粒结合了强大的等离子体光学特性和抗菌能力;这些纳米颗粒可用于广泛的应用,包括导电复合材料、生物传感器、传感、光伏等。
(3)二氧化硅纳米颗粒:二氧化硅纳米颗粒结合了生物相容性、独特的光学特性和多功能的表面功能化能力;这些纳米颗粒可用于纳米医学、靶向药物递送、紫外线散射、催化、DNA/RNA
提取、粒径参考等广泛应用。
(4)磁性纳米颗粒:磁铁矿(氧化铁)纳米颗粒在环境温度下具有超顺磁性,具有高表面积与体积比;这些纳米颗粒可用于纳米医学、成像造影剂、药物递送、生物传感器等广泛应用。
(5)铂纳米颗粒:铂纳米颗粒结合了独特的等离子体光学特性和生物相容性;这些纳米颗粒可用于燃料电池技术、疗法、催化等广泛应用。
(6)铝纳米颗粒:铝(Al)纳米颗粒具有独特的光学、物理和化学特性,使其成为各种应用的候选者,从纳米光子学和催化到高能复合材料的制备。
(7)散装纳米颗粒制造:nanoComposix为全球研究人员和行业领导者提供超过20年的高质量金属和金属氧化物纳米材料制造经验。
(8)定制纳米颗粒和用于诊断的试剂。
< " data-original="http://pharna.51antibodies.com/template/company/xys_lvse/skin/image/lazyLoad.jpg" alt="艾美捷科技代理nanoComposix品牌纳米材料"> 艾美捷科技代理nanoComposix品牌纳米材料
<艾美捷科技代理Nanomed3D品牌全系列产品
Nanomed3D是一家专注于纳米生物技术的公司,致力于设计和生产用于研究、医疗器械和未来疗法的专有功能化自组装肽。公司拥有一支多学科团队,在神经再生、组织工程、纳米医学和材料科学等领域拥有二十多年的专业知识,涵盖纳米材料、干细胞收获和移植、GMP生产、分子建模、静电纺丝、药物释放、肽合成、新型生物辅体的体外和体内测试等多个方面。

▍Nanomed3D产品线
● ASSAP水凝胶:
ASSAP水凝胶即抗扩散自组装肽水凝胶,是一种合成基质,由标准合成氨基酸(1% w/v)和99%水的明确混合物组成。核心成分为抗扩散自组装肽(ASSAP)。在生理条件下,肽组分自组装成3D水凝胶,呈现出纳米级纤维结构。作用机制与优势主要包括以下几个方面:
①抑制细胞扩散:其纳米结构亲水水凝胶能够有效抑制细胞粘附和扩散,同时提供纳米结构合成微环境。这种特性使得它可以根据特定细胞类型进行调整,从而培养出“难以培养”的细胞,如肺、乳腺和结肠干细胞。
②模仿生理生态位:作为第一个可供分发的Nanomed3D SAP,ASSAP提供了细胞外基质的典型纳米结构形貌,模仿了组织中发现的干细胞的生理生态位。它最大限度地减少细胞扩散,而不阻止细胞低附着,促进了细胞的增殖并保留了细胞的干性。
| Name | Size | Solvent | Regulatory Status | Storage |
| ASSAP Hydrogel | 5 mL | dH2O | RUO | +2 – +6° C |
| ASSAP Hydrogel | 10 mL | dH2O | RUO | +2 – +6° C |
● PASAP水凝胶:
PASAP 水凝胶是一种合成基质,用于为多种细胞培养实验创建特定的三维(3D)微环境。PASAP 纳米结构亲水性水凝胶具有多种功能化特性,能够促进多种细胞(如神经干细胞、间充质干细胞、内皮细胞和成纤维细胞)的附着、分化和存活。PASAP 具有细胞外基质特有的纳米结构形貌,从而模拟活组织中细胞周围的生理微环境。
| Name | Size | Solvent | Regulatory Status | Storage |
| PASAP Hydrogel | 5 mL | dH2O | RUO | +2 – +6° C |
| PASAP Hydrogel | 10 mL | dH2O | RUO | +2 – +6° C |
● 定制水凝胶:
定制范围涵盖纳米结构支架的化学连接、生物力学调节、仿生模拟以及孔隙率设计。根据需求,还可通过静电纺丝制成固态、具有柔韧性且形状各异的框架。

● Nanomed3D 纳米保湿剂:
这种水凝胶具备卓越的保湿性能,同时还能促进皮肤中胶原蛋白与弹性蛋白的生成,采用纯合成成分,不含有害物质。

艾美捷科技代理Rel Assay Diagnostics品牌全系列产品
Rel Assay Diagnostics(MEGA TIP 集团旗下公司)是一家总部位于加济安泰普(土耳其)的公司,成立于1993年。该公司提供用于氧化应激检测的诊断试剂盒。例如:对氧磷酶检测试剂盒、芳基酯酶检测试剂盒、PON1 192Q/R 表型分型试剂盒、第三代总抗氧化状态 (TAS) 检测试剂盒、总氧化状态 (TOS) 检测试剂盒、氧化应激指数检测试剂盒以及总硫醇检测试剂盒,这些试剂盒可用于检测血清、血浆、细胞裂解液和组织匀浆等样本。

▍Rel Assay Diagnostics产品列表
| 品名 | Volumes | 货号 |
| Total Antioxidant Status Assay Kit | R1:30ml R2:8ml Std:4ml QC L1: 4ml QC L2: 4ml | RL0017 |
| Total Oxidant Status Assay Kit | R1:30ml R2:8ml Std:4ml QC L1: 4ml QC L2: 4ml | RL0024 |
| Paraoxonase assay Kit | R1:30ml R2:6ml | RL0031 |
| Arylesterase Assay Kit | Buffered Diluent:30ml R2:8ml R3:15ml | RL0055 |
| Total Thiol Assay Kit | R1A:0.2ml R1B:15ml R2:30ml R3:6ml | RL0178 |
| Native Thiol Assay Kit | R1:30ml R2:6ml | RL0185 |
| Zinc assay Kit | R1:50ml R2:10ml Std:4ml QC L1: 4ml QC L2: 4ml | RL1116 |
| Zinc assay Kit | 2xR1:50ml 2xR2:10ml Std:4ml QC L1: 4ml QC L2: 4ml | RL2116 |
| Zinc assay Kit | 3xR1:50ml 3xR2:10ml Std:4ml QC L1: 4ml QC L2: 4ml | RL3116 |
| Copper assay Kit | R1:50ml R2:10ml Std:4ml QC L1: 4ml QC L2: 4ml | RL0123 |
| Nadp-IDH Isocitrate Dehydrogenase Assay Kit | R1:30ml QC L1: 3ml QC L2: 3ml | RL0315 |
| Phosphorus (Inorganic) | R1:30ml R2:30ml Std:4ml QC L1: 4ml QC L2: 4ml | RL0247 |
| Glutamate Dehydrogenase | R1:30ml QC L1: 3ml QC L2: 3ml | RL0401 |
| Malate Dehydrogenase | R1:30ml R2:6ml | RL0405 |
| G6PD Glucose 6 Phpsphate Dehydrogenase | R1:30ml R2:8ml QC L1: 4ml QC L2: 4ml | RL0745 |
| G6PD Glucose 6 Phpsphate Dehydrogenase | R1:30 ml R2:8 ml | RL0745 |
| G6PD Glucose 6 Phpsphate Dehydrogenase | QC L1:1ml, QC L2:1ml | RL0745 |

艾美捷科技代理Molecular Dimensions品牌。
Molecular Dimensions 是一家专注于为X射线晶体学和结构生物学领域提供高质量试剂、耗材和设备的公司。公司致力于支持科学家在蛋白质晶体学、小分子晶体学和材料科学等领域的研究,提供从晶体生长到数据收集的全流程解决方案。Molecular Dimensions 以其创新的产品、严格的质量控制和卓越的客户服务而闻名,已成为全球晶体学研究领域的重要供应商之一。Molecular Dimensions核心业务领域:
(1)晶体生长试剂:Molecular Dimensions 提供多种用于蛋白质和小分子晶体生长的试剂,包括结晶筛选试剂盒、缓冲液、沉淀剂和添加剂。
(2)结晶筛选试剂盒:提供多种结晶筛选试剂盒,如 JCSG+、Morpheus 和 PACT,适用于不同类型的晶体生长实验。
(3)晶体学耗材:提供用于晶体学研究的耗材,如结晶板、密封膜、样品支架和低温冷冻工具。
(4)自动化晶体成像系统:Molecular Dimensions 提供自动化晶体成像系统(如 Rock Imager),用于实时监测晶体生长过程,帮助科学家优化晶体生长条件。
(5)蛋白质纯化和结晶工具:公司提供用于蛋白质纯化和结晶的工具,如蛋白质浓缩器、透析设备和结晶板。
(6)软件和数据分析工具:Molecular Dimensions 提供用于晶体学数据分析和结构解析的软件工具,如 AceDRG 和 xia2。

艾美捷科技有限公司代理SIRIUS FINE CHEMICALS SICHEM GMBH公司产品。
SIRIUS FINE CHEMICALS SICHEM GMBH公司,主要提供:
点击化学工具(Si-CLICK (Click Chemistry))
PEG试剂(Si-PEGs)
脂质及其衍生物(Si-LIPs (Lipids & Derivatives))
磷酸肌醇试剂(Inositol Phosphates & Phosphoinositides)
核酸及其衍生物(Nucleotides & Derivatives)
API标准品及代谢底物(API Standards & Metabolites)
稳定的同位素(Stable Isotopes)
磷酸化及亚磷酸化试剂(Phosphorylation / Phosphitylation)
精细化学试剂(Fine Chemicals)
更多详情请联系
艾美捷科技有限公司
全国服务热线:400-6800-868
邮箱:sales@amyjet.com
网站:www.amyjet.com
产品列表
| 产品名称 | 产品编号 | 分子式 |
| Click Amino Acid / trans-Cyclooct-4-en – L - Lysine (TCO4/EQ) / EQUATORIAL isomer | SC-8060 | C15H26N2O4 |
| bifunctional Cross-Linking-Amino-Acid / PrDiAzK | SC-8028 | C13H20N4O5 |
| Click Amino Acid / exo-BCN – Fmoc – L - Lysine (BCN) | SC-8038 | C32H36N2O6 |
| Cross-Linking-Amino-Acid / DiAzK | SC-8034 | C11H20N4O4 |
| Click-Amino-Acid / N3-Lys | SC-8027 | C9H17N5O4 |
| Click Amino Acid / cyclopropene – L - Lysine (CP) | SC-8017 | C12H20N2O4 |
| Click Amino Acid / endo-BCN – Fmoc – L - Lysine (BCN) | SC-8015 | C32H36N2O6 |
| Click Amino Acid / trans-Cyclooct-2-en – L - Lysine (TCO*A) | SC-8008 | C15H26N2O4 |
| Click Amino Acid / exo BCN - L - Lysine | SC-8016 | C17H26N2O4 |
| Click Amino Acid / Norbonene-CH2 – L - Lysine (NBO) | SC-8006 | C15 H24 N2 O4 * HCl |
| Click Amino Acid / rac BCN - L - Lysine | SC-8003 | C17H26N2O4 |
| Click Amino Acid / trans-Cyclooct-4-en – L - Lysine (TCO4) / AXIAL isomer | SC-8004 | C15H26N2O4 |
| Click Amino Acid / endo BCN - L - Lysine | SC-8014 | C17H26N2O4 |
| Click-Amino-Acid / PrK - HCl-salt | SC-8002 | C10H16N2O4 * HCl |
| Click Amino Acid (99%) / SCO - L - Lysine - HCO2H-salt | SC-8001 | C15H24N2O4* HCO2H |
| Click Amino Acid (95%) / SCO - L - Lysine - HCO2H-salt | SC-8000 | C15H24N2O4 * HCO2H |
| SCO-NHS carbonate | SC-8076 | C13H15NO5 |
| exo-BCN-NHS carbonate | SC-8075 | C15H17NO5 |
| endo-BCN-NHS carbonate | SC-8074 | C15H17NO5 |
| SCO-PEG7-Maleimide | SC-8305 | C32H51N3O12 |
| SCO-PEG3-Maleimide | SC-8304 | C24H35N3O8 |
| SCO-PEG2-Maleimide | SC-8303 | C22H31N3O7 |
| BCN-exo-PEG7-Maleimide | SC-8205 | C34H53N3O12 |
| BCN-exo-PEG3-Maleimide | SC-8204 | C24H33N3O7 |
| BCN-exo-PEG2-Maleimide | SC-8203 | C24H33N3O7 |
| BCN-endo-PEG7-Maleimide | SC-8105 | C34H53N3O12 |
| BCN-endo-PEG3-Maleimide | SC-8104 | C24H33N3O7 |
| BCN-endo-PEG2-Maleimide | SC-8103 | C24H33N3O7 |
| BCN-exo-PEG8-COOH | SC-8211 | C30H51NO12 |
| BCN-exo-PEG4-COOH | SC-8210 | C22H35NO8 |
| BCN-exo-PEG3-COOH | SC-8209 | C20H31NO7 |
| BCN-exo-PEG8-NHS | SC-8208 | C34H54N2O14 |
| BCN-exo-PEG4-NHS | SC-8207 | C26H38N2O10 |
| BCN-exo-PEG3-NHS | SC-8206 | C24H34N2O9 |
| BCN-endo-PEG3-NHS | SC-8106 | C24H34N2O9 |
| BCN-endo-PEG4-NHS | SC-8107 | C26H38N2O10 |
| BCN-endo-PEG8-NHS | SC-8108 | C34H54N2O14 |
| BCN-endo-PEG8-COOH | SC-8111 | C30H51NO12 |
| BCN-endo-PEG4-COOH | SC-8110 | C22H35NO8 |
| BCN-endo-PEG3-COOH | SC-8109 | C20H31NO7 |
| SCO-PEG3-COOH | SC-8309 | C18H29NO7 |
| SCO-PEG4-COOH | SC-8310 | C20H33NO8 |
| SCO-PEG8-COOH | SC-8311 | C28H49NO12 |
| SCO-PEG8-NHS | SC-8308 | C32H52N2O14 |
| SCO-PEG4-NHS | SC-8307 | C24H36N2O10 |
| SCO-PEG3-NHS | SC-8306 | C22H32N2O9 |
| SCO-PEG7-NH2 | SC-8302 | C25H46N2O9 |
| SCO-PEG3-NH2 | SC-8301 | C17H30N2O5 |
| SCO-PEG2-NH2 | SC-8300 | C15H26N2O4 |
| BCN-exo-PEG2-NH2 | SC-8200 | C17H28N2O4 |
| BCN-exo-PEG3-NH2 | SC-8201 | C19H32N2O5 |
| BCN-exo-PEG7-NH2 | SC-8202 | C27H48N2O9 |
| BCN-endo-PEG7-NH2 | SC-8102 | C27H48N2O9 |
| BCN-endo-PEG3-NH2 | SC-8101 | C19H32N2O5 |
| BCN-endo-PEG2-NH2 | SC-8100 | C17H28N2O4 |
| exo BCN - OH | SC-8033 | C10 H14 O |
| SCO - active ester (p-NPE) | SC-8032 | C15H15NO5 |
| SCO - OH | SC-8030 | C8H12O |
| endo BCN - OH | SC-8029 | C10 H14 O |
| exo BCN - active ester (p-NPE) | SC-8010 | C17H17NO5 |
| TCO4 - NHS carbonate / EQUATORIAL isomer | SC-8073 | C13H17NO5 |
| TCO4 - NHS carbonate / AXIAL isomer | SC-8072 | C13H17NO5 |
| (E)-cyclooct-4-enol / axial - TCO4 / A | SC-8018 | C8H14O |
| TCO4-PEG8-COOH | SC-8411 | C28H51NO12 |
| TCO*-PEG8-COOH | SC-8511 | C28H51NO12 |
| TCO*-PEG4-COOH | SC-8510 | C20H35NO8 |
| TCO4-PEG4-COOH | SC-8410 | C20H35NO8 |
| TCO4-PEG3-COOH | SC-8409 | C18H31NO7 |
| TCO*-PEG3-COOH | SC-8509 | C20H31NO7 |
| TCO*-PEG8-NHS | SC-8508 | C32H54N2O14 |
| TCO4-PEG8-NHS | SC-8408 | C32H54N2O14 |
| TCO4-PEG4-NHS | SC-8407 | C24H38N2O10 |
| TCO*-PEG4-NHS | SC-8507 | C24H38N2O10 |
| TCO*-PEG3-NHS | SC-8506 | C22H34N2O9 |
| TCO4-PEG3-NHS | SC-8406 | C22H34N2O9 |
| TCO*-PEG7-Maleimide | SC-8505 | C32H53N3O12 |
| TCO*-PEG3-Maleimide | SC-8504 | C24H37N3O8 |
| TCO*-PEG2-Maleimide | SC-8503 | C22H33N3O7 |
| TCO4-PEG7-Maleimide | SC-8405 | C32H53N3O12 |
| TCO4-PEG3-Maleimide | SC-8404 | C24H37N3O8 |
| TCO4-PEG2-Maleimide | SC-8403 | C22H33N3O7 |
| TCO*-PEG2-NH2 | SC-8500 | C15H28N2O4 |
| TCO*-PEG3-NH2 | SC-8501 | C17H32N2O5 |
| TCO*-PEG7-NH2 | SC-8502 | C25H48N2O9 |
| TCO4-PEG7-NH2 | SC-8402 | C25H48N2O9 |
| TCO4-PEG3-NH2 | SC-8401 | C17H32N2O5 |
| TCO4-PEG2-NH2 | SC-8400 | C15H28N2O4 |
| (E)-cyclooct-4-en active ester / TCO/E- active ester (p-NPE) / equatorial | SC-8024 | C15H17NO5 |
| (E)-cyclooct-4-en active ester / TCO4 / A- active ester (p-NPE) / axial | SC-8019 | C15H17NO5 |
| TCO*A - active ester (p-NPE) | SC-8007 | C15H17NO5 |
| Fluorescent-PEG8-Me-Tet | SC-8817 | C54H68N8O13 |
| Fluorescent-PEG4-Me-Tet | SC-8816 | C46H52N8O9 |
| Fluorescent-PEG3-Me-Tet | SC-8815 | C44H48N8O8 |
| Me-Tet-PEG8-NHBoc | SC-8820 | C34H56N6O11 |
| Me-Tet-PEG4-NHBoc | SC-8819 | C26H40N6O7 |
| Me-Tet-PEG3-NHBoc | SC-8818 | C24H36N6O6 |
| Biotin-PEG8-Me-Tet | SC-8814 | C39H62N8O11S |
| Biotin-PEG4-Me-Tet | SC-8813 | C31H46N8O7S |
| Biotin-PEG3-Me-Tet | SC-8812 | C29H42N8O6S |
| Me-Tet-PEG9-COOH | SC-8811 | C32H51N5O12 |
| Me-Tet-PEG5-COOH | SC-8810 | C24H35N5O8 |
| Me-Tet-PEG4-COOH | SC-8809 | C22H31N5O7 |
| Me-Tet-PEG9-NHS | SC-8808 | C36H54N6O14 |
| Me-Tet-PEG5-NHS | SC-8807 | C28H38N6O10 |
| Me-Tet-PEG4-NHS | SC-8806 | C26H34N6O9 |
| Me-Tet-PEG8-Maleimide | SC-8805 | C36H53N7O12 |
| Me-Tet-PEG4-Maleimide | SC-8804 | C28H37N7O8 |
| Me-Tet-PEG3-Maleimide | SC-8803 | C26H33N7O7 |
| Me-Tet-PEG8-NH2 - HCl salt | SC-8802 | C29H48N6O9 + HCl |
| Me-Tet-PEG4-NH2 | SC-8801 | C21H32N6O5 |
| Me-Tet-PEG3-NH2 | SC-8800 | C19H28N6O4 |
| Aminopentyl - Tetrazine - HCl-salt | SC-1193 | C18H20N8O * HCl |
| Tetrazine active ester (Tetrazine-NHS) | SC-1194 | C17H11N7O4 |
| Aminopropyl - Tetrazine - HCl-salt | SC-1192 | C16H16N8O * HCl |
| Methyl-Tetrazine - Amine- HCO2H-salt | SC-1191 | C10H11N5* HCO2H |
| Tetrazine - Amine - HCO2H-salt | SC-1190 | C9H9N5 * HCO2H |
| N3-PEG8-t-butyl ester | SC-8923 | C23H45N3O10 |
| N3-PEG5-t-butyl ester | SC-8922 | C17H33N3O7 |
| N3-PEG4-t-butyl ester | SC-8921 | C15H29N3O6 |
| N3-PEG3-t-butyl ester | SC-8920 | C13H25N3O5 |
| Boc-N-Amido-PEG7-N3 | SC-8912 | C21H42N4O9 |
| Boc-N-Amido-PEG3-N3 | SC-8911 | C13H26N4O5 |
| Boc-N-Amido-PEG2-N3 | SC-8910 | C11H22N4O4 |
| Boc-N-Amido-PEG4-Alkyne | SC-8900 | C16H29NO6 |
| Boc-N-Amido-PEG3-Alkyne | SC-8039 | C14H25NO5 |
| TAMRA-PEG8-Alkyne | SC-8717 | C44H57N3O12 |
| TAMRA-PEG4-Alkyne | SC-8716 | C36H41N3O8 |
| TAMRA-PEG3-Alkyne | SC-8715 | C34H37N3O7 |
| TAMRA-PEG7-N3 | SC-8714 | C41H54N6O11 |
| TAMRA-PEG3-N3 | SC-8713 | C33H38N6O7 |
| TAMRA-PEG2-N3 | SC-8712 | C31H34N6O6 |
| Biotin-PEG8-Alkyne | SC-8617 | C29H51N3O10S |
| Biotin-PEG4-Alkyne | SC-8616 | C21H35N3O6S |
| Biotin-PEG3-Alkyne | SC-8615 | C19H31N3O5S |
| Biotin-PEG7-N3 | SC-8614 | C26H48N6O9S |
| Biotin-PEG3-N3 | SC-8613 | C18H32N6O5S |
| Biotin-PEG2-N3 | SC-8612 | C16H28N6O4S |
| Click-Amino-Acid / PrK - HCl-salt | SC-8002 | C10H16N2O4 * HCl |
| Alkyne - PEG2 | SC-0063 | C7H12O3 |
| Azido - PEG1 | SC-0062 | C4H9N3O2 |
| Biotin-PEG8-Alkyne | SC-8617 | C29H51N3O10S |
| Biotin-PEG4-Alkyne | SC-8616 | C21H35N3O6S |
| Biotin-PEG3-Alkyne | SC-8615 | C19H31N3O5S |
| Alkyne - PEG2 - TCA | SC-0067 | C9H12Cl3NO3 |
| Alkyne - PEG2 - CM | SC-0065 | C8H13ClO3 |
| Alkyne - PEG2 | SC-0063 | C7H12O3 |
| TAMRA-PEG7-N3 | SC-8714 | C41H54N6O11 |
| TAMRA-PEG3-N3 | SC-8713 | C33H38N6O7 |
| TAMRA-PEG2-N3 | SC-8712 | C31H34N6O6 |
| Biotin-PEG7-N3 | SC-8614 | C26H48N6O9S |
| Biotin-PEG3-N3 | SC-8613 | C18H32N6O5S |
| Biotin-PEG3-CoenzymeA | SC-8618 | C46H75N12O24P3S2+3NH3 |
| Bis-Cyano-PEG9 | SC-8932 | C22H40N2O9 |
| Bis-Cyano-PEG5 | SC-8931 | C14H24N2O5 |
| Bis-Cyano-PEG4 | SC-8930 | C12H20N2O4 |
| N3-PEG8-t-butyl ester | SC-8923 | C23H45N3O10 |
| N3-PEG5-t-butyl ester | SC-8922 | C17H33N3O7 |
| N3-PEG4-t-butyl ester | SC-8921 | C15H29N3O6 |
| N3-PEG3-t-butyl ester | SC-8920 | C13H25N3O5 |
| Boc-N-Amido-PEG7-N3 | SC-8912 | C21H42N4O9 |
| Boc-N-Amido-PEG3-N3 | SC-8911 | C13H26N4O5 |
| Boc-N-Amido-PEG2-N3 | SC-8910 | C11H22N4O4 |
| Boc-N-Amido-PEG4-Alkyne | SC-8900 | C16H29NO6 |
| Boc-N-Amido-PEG3-Alkyne | SC-8039 | C14H25NO5 |
| Fluorescent-PEG8-Me-Tet | SC-8817 | C54H68N8O13 |
| Fluorescent-PEG4-Me-Tet | SC-8816 | C46H52N8O9 |
| Fluorescent-PEG3-Me-Tet | SC-8815 | C44H48N8O8 |
| TAMRA-PEG8-Alkyne | SC-8717 | C44H57N3O12 |
| TAMRA-PEG4-Alkyne | SC-8716 | C36H41N3O8 |
| TAMRA-PEG3-Alkyne | SC-8715 | C34H37N3O7 |
| TAMRA-PEG7-N3 | SC-8714 | C41H54N6O11 |
| TAMRA-PEG3-N3 | SC-8713 | C33H38N6O7 |
| TAMRA-PEG2-N3 | SC-8712 | C31H34N6O6 |
| TAMRA-PEG8-COOH | SC-8711 | C44H59N3O14 |
| TAMRA-PEG4-COOH | SC-8710 | C36H43N3O10 |
| TAMRA-PEG3-COOH | SC-8709 | C34H39N3O9 |
| TAMRA-PEG8-NHS | SC-8708 | C48H62N4O16 |
| TAMRA-PEG4-NHS | SC-8707 | C40H46N4O12 |
| TAMRA-PEG3-NHS | SC-8706 | C38H42N4O11 |
| TAMRA-PEG7-Maleimide | SC-8705 | C48H61N5O14 |
| TAMRA-PEG3-Maleimide | SC-8704 | C40H45N5O10 |
| TAMRA-PEG2-Maleimide | SC-8703 | C38H41N5O9 |
| TAMRA-PEG7-NH2 | SC-8702 | C41H56N4O11 |
| TAMRA-PEG3-NH2 | SC-8701 | C33H40N4O7 |
| TAMRA-PEG2-NH2 | SC-8700 | C31H36N4O6 |
| Me-Tet-PEG8-NHBoc | SC-8820 | C34H56N6O11 |
| Me-Tet-PEG4-NHBoc | SC-8819 | C26H40N6O7 |
| Me-Tet-PEG3-NHBoc | SC-8818 | C24H36N6O6 |
| Biotin-PEG8-Me-Tet | SC-8814 | C39H62N8O11S |
| Biotin-PEG4-Me-Tet | SC-8813 | C31H46N8O7S |
| Biotin-PEG3-Me-Tet | SC-8812 | C29H42N8O6S |
| Me-Tet-PEG9-COOH | SC-8811 | C32H51N5O12 |
| Me-Tet-PEG5-COOH | SC-8810 | C24H35N5O8 |
| Me-Tet-PEG4-COOH | SC-8809 | C22H31N5O7 |
| Me-Tet-PEG9-NHS | SC-8808 | C36H54N6O14 |
| Me-Tet-PEG5-NHS | SC-8807 | C28H38N6O10 |
| Me-Tet-PEG4-NHS | SC-8806 | C26H34N6O9 |
| Me-Tet-PEG8-Maleimide | SC-8805 | C36H53N7O12 |
| Me-Tet-PEG4-Maleimide | SC-8804 | C28H37N7O8 |
| Me-Tet-PEG3-Maleimide | SC-8803 | C26H33N7O7 |
| Me-Tet-PEG8-NH2 - HCl salt | SC-8802 | C29H48N6O9 + HCl |
| Me-Tet-PEG4-NH2 | SC-8801 | C21H32N6O5 |
| Me-Tet-PEG3-NH2 | SC-8800 | C19H28N6O4 |
| Biotin-PEG8-Alkyne | SC-8617 | C29H51N3O10S |
| Biotin-PEG4-Alkyne | SC-8616 | C21H35N3O6S |
| Biotin-PEG3-Alkyne | SC-8615 | C19H31N3O5S |
| Biotin-PEG7-N3 | SC-8614 | C26H48N6O9S |
| Biotin-PEG3-N3 | SC-8613 | C18H32N6O5S |
| Biotin-PEG2-N3 | SC-8612 | C16H28N6O4S |
| Biotin-PEG8-COOH | SC-8611 | C29H53N3O12S |
| Biotin-PEG4-COOH | SC-8610 | C19H33N3O7S |
| Biotin-PEG3-COOH | SC-8609 | C19H33N3O7S |
| Biotin-PEG8-NHS | SC-8608 | C33H56N4O14S |
| Biotin-PEG4-NHS | SC-8607 | C25H40N4O10S |
| Biotin-PEG3-NHS | SC-8606 | C23H36N4O9S |
| Biotin-PEG7-Maleimide | SC-8605 | C33H55N5O12S |
| Biotin-PEG3-Maleimide | SC-8604 | C25H39N5O8S |
| Biotin-PEG2-Maleimide | SC-8603 | C23H35N5O7S |
| Biotin-PEG7-NH2 | SC-8602 | C26H50N4O9S |
| Biotin-PEG3-NH2 | SC-8601 | C18H34N4O5S |
| Biotin-PEG2-NH2 | SC-8600 | C16H30N4O4S |
| TCO4-PEG8-COOH | SC-8411 | C28H51NO12 |
| TCO*-PEG8-COOH | SC-8511 | C28H51NO12 |
| TCO*-PEG4-COOH | SC-8510 | C20H35NO8 |
| TCO4-PEG4-COOH | SC-8410 | C20H35NO8 |
| TCO4-PEG3-COOH | SC-8409 | C18H31NO7 |
| TCO*-PEG3-COOH | SC-8509 | C20H31NO7 |
| TCO*-PEG8-NHS | SC-8508 | C32H54N2O14 |
| TCO4-PEG8-NHS | SC-8408 | C32H54N2O14 |
| TCO4-PEG4-NHS | SC-8407 | C24H38N2O10 |
| TCO*-PEG4-NHS | SC-8507 | C24H38N2O10 |
| TCO*-PEG3-NHS | SC-8506 | C22H34N2O9 |
| TCO4-PEG3-NHS | SC-8406 | C22H34N2O9 |
| TCO*-PEG7-Maleimide | SC-8505 | C32H53N3O12 |
| TCO*-PEG3-Maleimide | SC-8504 | C24H37N3O8 |
| TCO*-PEG2-Maleimide | SC-8503 | C22H33N3O7 |
| TCO4-PEG7-Maleimide | SC-8405 | C32H53N3O12 |
| TCO4-PEG3-Maleimide | SC-8404 | C24H37N3O8 |
| TCO4-PEG2-Maleimide | SC-8403 | C22H33N3O7 |
| TCO*-PEG2-NH2 | SC-8500 | C15H28N2O4 |
| TCO*-PEG3-NH2 | SC-8501 | C17H32N2O5 |
| TCO*-PEG7-NH2 | SC-8502 | C25H48N2O9 |
| TCO4-PEG7-NH2 | SC-8402 | C25H48N2O9 |
| TCO4-PEG3-NH2 | SC-8401 | C17H32N2O5 |
| TCO4-PEG2-NH2 | SC-8400 | C15H28N2O4 |
| SCO-PEG7-Maleimide | SC-8305 | C32H51N3O12 |
| SCO-PEG3-Maleimide | SC-8304 | C24H35N3O8 |
| SCO-PEG2-Maleimide | SC-8303 | C22H31N3O7 |
| BCN-exo-PEG7-Maleimide | SC-8205 | C34H53N3O12 |
| BCN-exo-PEG3-Maleimide | SC-8204 | C24H33N3O7 |
| BCN-exo-PEG2-Maleimide | SC-8203 | C24H33N3O7 |
| BCN-endo-PEG7-Maleimide | SC-8105 | C34H53N3O12 |
| BCN-endo-PEG3-Maleimide | SC-8104 | C24H33N3O7 |
| BCN-endo-PEG2-Maleimide | SC-8103 | C24H33N3O7 |
| BCN-exo-PEG8-COOH | SC-8211 | C30H51NO12 |
| BCN-exo-PEG4-COOH | SC-8210 | C22H35NO8 |
| BCN-exo-PEG3-COOH | SC-8209 | C20H31NO7 |
| BCN-exo-PEG8-NHS | SC-8208 | C34H54N2O14 |
| BCN-exo-PEG4-NHS | SC-8207 | C26H38N2O10 |
| BCN-exo-PEG3-NHS | SC-8206 | C24H34N2O9 |
| BCN-endo-PEG3-NHS | SC-8106 | C24H34N2O9 |
| BCN-endo-PEG4-NHS | SC-8107 | C26H38N2O10 |
| BCN-endo-PEG8-NHS | SC-8108 | C34H54N2O14 |
| BCN-endo-PEG8-COOH | SC-8111 | C30H51NO12 |
| BCN-endo-PEG4-COOH | SC-8110 | C22H35NO8 |
| BCN-endo-PEG3-COOH | SC-8109 | C20H31NO7 |
| SCO-PEG3-COOH | SC-8309 | C18H29NO7 |
| SCO-PEG4-COOH | SC-8310 | C20H33NO8 |
| SCO-PEG8-COOH | SC-8311 | C28H49NO12 |
| SCO-PEG8-NHS | SC-8308 | C32H52N2O14 |
| SCO-PEG4-NHS | SC-8307 | C24H36N2O10 |
| SCO-PEG3-NHS | SC-8306 | C22H32N2O9 |
| SCO-PEG7-NH2 | SC-8302 | C25H46N2O9 |
| SCO-PEG3-NH2 | SC-8301 | C17H30N2O5 |
| SCO-PEG2-NH2 | SC-8300 | C15H26N2O4 |
| BCN-exo-PEG2-NH2 | SC-8200 | C17H28N2O4 |
| BCN-exo-PEG3-NH2 | SC-8201 | C19H32N2O5 |
| BCN-exo-PEG7-NH2 | SC-8202 | C27H48N2O9 |
| BCN-endo-PEG7-NH2 | SC-8102 | C27H48N2O9 |
| BCN-endo-PEG3-NH2 | SC-8101 | C19H32N2O5 |
| BCN-endo-PEG2-NH2 | SC-8100 | C17H28N2O4 |
| PEG-12 | SC-1512 | C24H50O13 |
| PEG-11 | SC-1511 | C22H46O12 |
| PEG-10 | SC-1510 | C20H42O11 |
| PEG-9 | SC-1509 | C18H38O10 |
| PEG-8 | SC-1508 | C16H34O9 |
| Alkyne - PEG2 - TCA | SC-0067 | C9H12Cl3NO3 |
| Azido - PEG2 - TCA | SC-0066 | C6H9Cl3N4O2 |
| Alkyne - PEG2 - CM | SC-0065 | C8H13ClO3 |
| Azido - PEG2 - CM | SC-0064 | C5H10ClN3O |
| Alkyne - PEG2 | SC-0063 | C7H12O3 |
| Azido - PEG1 | SC-0062 | C4H9N3O2 |
| 2-Methyl-Glycerol | SC-0006 | C4H10O3 |
| 2-Stearoyl glycerol | SC-1171 | C21H42O4 |
| 2-Palmitoyl glycerol | SC-1170 | C19H38O4 |
| 2-Myristoyl glycerol | SC-1169 | C17H34O4 |
| 2-Lauroyl glycerol | SC-1168 | C15H30O4 |
| 2-Linoleoyl glycerol | SC-1167 | C21H38O4 |
| 2-Oleoyl-glycerol | SC-1162 | C21H40O4 |
| SH-6 | SC-0045 | C28H57O9P |
| SH-5 | SC-0044 | C29H59O10P |
| Ins(345)P3*3Na | 3-0-345-Na | C6H12Na3O15P3 |
| Ins(1)P*2K | 1-0-1-2K | C6H11K2O9P |
| myo-Inositol – trispyrophosphate | Pyro-Ins-Na | C6H8Na4O21P6 |
| Ins(123456)P6 | 6-0-123456-Na | C6H18O24P6 * xNa*yH2O |
| Ins(23456)P5*10Na | 5-0-23456-Na | C6H7Na10O21P5 |
| Ins(13456)P5*10Na | 5-0-13456-Na | C6H7Na10O21P5 |
| Ins(12456)P5*10Na | 5-0-12456-Na | C6H7Na10O21P5 |
| Ins(12356)P5*10Na | 5-0-12356-Na | C6H7Na10O21P5 |
| Ins(12345)P5*10Na | 5-0-12345-Na | C6H7Na10O21P5 |
| Ins(1345)P4*8Na | 4-0-1345-Na | C6H8Na8O18P4 |
| Ins(136)P3*6Na | 3-0-136-Na | C6H9Na6O15P3 |
| Ins(134)P3*6K | 3-0-134-K | C6H9K6O15P3 |
| Ins(345)P3*3K | 3-0-345-K | C6H12K3O15P3 |
| Ins(145)P3*6K | 3-0-145-K | C6H9K6O15P3 |
| Ins(145)P3*3Li | 3-0-145-Li | C6H12Li3O15P3 |
| Ins(145)P3*6Na | 3-0-145-Na | C6H9Na6O15P3 |
| Ins(135)P3*6Na | 3-0-135-6Na | C6H9Na6O15P3 |
| Ins(1245)P4*8Na | 4-0-1245-Na | C6H8Na8O18P4 |
| INO-4995 | INO-4995 | C50H86O35P4 |
| Bt3-Ins(356)P3 / PM | 3-2-356 | C42H69O30P3 |
| Bt3-Ins(346)P3 / PM | 3-2-346 | C42H69O30P3 |
| Bt3-Ins(146)P3 / PM | 3-2-146 | C42H69O30P3 |
| Bt3-Ins(135)P3 / PM | 3-2-135 | C42H69O30P3 |
| caged-Ins(145)P3 / PM | cag-iso-2-145-10 | C42H64NO31P3 |
| caged-Ins(145)P3 / PM | cag-iso-2-145-100 | C42H64NO31P3 |
| Bt2-Ins(3456)P4 / PM | 4-2-3456 | C46H76O36P4 |
| Bt2-Ins(1456)P4 / PM | 4-2-1456 | C46H76O36P4 |
| Bt2-Ins(1345)P4 / PM | 4-2-1345 | C46H76O36P4 |
| Bt2-Ins(1356)P4 / AM | 4-1-1356 | C38H60O36P4 |
| Bt3-Ins(356)P3 / AM | 3-1-356 | C36H57O30P3 |
| Bt3-Ins(346)P3 / AM | 3-1-346 | C36H57O30P3 |
| Bt3-Ins(146)P3 / AM | 3-1-146 | C36H57O30P3 |
| Bt3-Ins(134)P3 / AM | 3-1-134 | C36H57O30P3 |
| Bt3-Ins(136)P3 / AM | 3-1-136 | C36H57O30P3 |
| Bt3-Ins(135)P3 / AM | 3-1-135 | C36H57O30P3 |
| Bt3-Ins(145)P3 / AM | 3-1-145 | C36H57O30P3 |
| caged-Ins(145)P3 / PM | cag-iso-2-145-10 | C42H64NO31P3 |
| caged-Ins(145)P3 / PM | cag-iso-2-145-100 | C42H64NO31P3 |
| caged-Ins(145)P3O6 | cag-6-145 | C15H18NO19P3Na6 |
| caged-Ins(145)P3 P4 | cag-0-145 | C14H19NO17P3Na3 |
| PtdIns(345)P3 | Ptd-0-345-16 | C41H82O22P4 |
| PtdIns(45)P2 | Ptd-0-45-16 | C41H81O19P3 |
| PtdIns(34)P2 | Ptd-0-34-16 | C41H81O19P3 |
| PtdIns(5)P | Ptd-0-5-16 | C41H80O16P2 |
| PtdIns(4)P | Ptd-0-4-16 | C41H80O16P2 |
| PtdIns(3)P | Ptd-0-3-16 | C41H80O16P2 |
| PtdIns(1)P | Ptd-0-1-16 | C41H79O13P |
| D-myo-Inositol-1,2-O-cyclohexylidene | SC-0088 | C12H20O6 |
| 23:45- diisopropylidene-myo-Inositol | SC-0079 | C12H20O6 |
| 12:56- diisopropylidene-myo-Inositol | SC-0078 | C12H20O6 |
| D-myo-Inositol-2,3-O-cyclohexylidene | SC-0077 | C12H20O6 |
| 1,4-Di-butyryl-23:56-diisopropylidene-myo-Inositol | SC-0076 | C20H32O8 |
| 3,6-Di-butyryl-12:45-diisopropylidene-myo-Inositol | SC-0075 | C20H32O8 |
| 2,3:4,5-Di-O-Iso-1,6-Di-O-Benzyl-Ins | IOB-Ins-2345 | C26H32O6 |
| 1,2:5,6-Di-O-Iso-3,4-Di-O-Benzyl-Ins | IOB-Ins-1256 | C26H32O6 |
| 3,4,5,6-Tetra-O-Benzyl-Ins | TOB-Ins-3456 | C34H36O6 |
| 1,4,5,6-Tetra-O-Benzyl-Ins | TOB-Ins-1456 | C34H36O6 |
| DEAC-dUTP | SC-9002 | C26H31N4O17P3 |
| 35-PAPS-TEA | SC-9000-TEA | C10H15N5O13P2S x 4 C6 H15 N |
| ACPPS-TEA | SC-0068 | C10H13N5O12P2S + C6H5N |
| 25-PAPS-Li | SC-9001-Li | C10H11Li4N5O13P2S |
| 35-PAPS-Li (CAS: 102029-54-9) | SC-9000-Li | C10H11Li4N5O13P2S |
| EdU | SC-0040 | C11H12N2O5 |
| EdUTP-TEA | SC-0039 | C11H15N2O14P3 * 4(C6H15N) |
| EdUTP | SC-0038 | C11H15N2O14P3 |
| 2'-PAP | SC-0037 | C10H17N5O10P2 |
| 2'-PAP-Na | SC-0036 | C10H15N5Na2O10P2 |
| 3'-PAP-Na | SC-0034 | C10H15N5Na2O10P2 |
| 3'-PAP | SC-0035 | C10H17N5O10P2 |
| Vancomycin hexapeptide | SC-1606 | C59H62Cl2N8O23 |
| Didechloro Vancomycin | SC-1605 | C66H77N9O24 |
| Vancomycin Impurity A | SC-1601 | C65H73Cl2N9O24 |
| Vancomycin Impurity D | SC-1604 | C59H62Cl2N8O22 |
| Vancomycin Impurity C | SC-1603 | C53H52Cl2N8O17 |
| Vancomycin Impurity B | SC-1602 | C66H74Cl2N8O25 |
| INO-4995 | INO-4995 | C50H86O35P4 |
| Fidaxomicin - d7 | SC-1157 | C52H67D7Cl2O18 |
| Podophyllotoxin Derivate | SC-0025 | C21H20O8 |
| Podophyllotoxin Derivate | SC-0026 | C21H21NO7 |
| Clopidogrel Impurity 4 | SC-0099 | C16H16ClNO2S * H2SO4 |
| Gestodene Impurity E | SC-0028 | C21H24O3 |
| Fidaxomicin Metabolite OP-1118 | SC-1158 | C48H68Cl2O17 |
| Prasugrel metabolite M6-d3 (stabilzed) | SC-0093 | C27H25D3FNO5S * HCl |
| Prasugrel metabolite M6 | SC-0092 | C19H22FNO3S |
| Clopidogrel Impurity C | SC-0087 | C16H18ClNO2S |
| Clopidogrel Impurity 3 | SC-0086 | C15H17Cl2NO2S |
| Prasugrel active metabolite M3-d3 (stabilzed) | SC-0033 | C27H25D3FNO5S * HCl |
| Prasugrel active metabolite M3 HCl (stabilized) | SC-0029 | C27H28FNO5S * HCl |
| Fidaxomicin - d7 | SC-1157 | C52H67D7Cl2O18 |
| Methyl 4-(2-hydroxyethyl)benzoate-13C6,2D (Ring-13C6,Ethyl-1,2-D2) | SC-0080 | C4 13C6 H10 D2 O3 |
| Anthracene 13C6 | SC-0074 | 13C6C8H8 |
| Phenanthrene 13C6 | SC-0073 | 13C6C8H8 |
| Naphthalene 13C10 | SC-0072 | 13C10H8 |
| Naphthalene 13C6 | SC-0071 | 13C6C4H8 |
| Prasugrel active metabolite M3-d3 (stabilzed) | SC-0033 | C27H25D3FNO5S * HCl |
| 2-Cyanoethyl N,N-diisopropylchlorophosphoramidite | SC-0091 | C9H18ClN2OP |
| Phosphoramidous acid. N.N-bis(1-methylethyl)-. bis(2-cyanoethyl) ester | SC-0061 | C12H22N3O2P |
| Phosphoramidous acid, N,N-bis(1-methylethyl)-, bis(phenylmethyl) ester | SC-1165 | C20 H28 N O2 P |
| Phosphorodiamidous acid. N.N.N'.N'-tetrakis(1-methylethyl)-. phenylmethyl ester | SC-0060 | C19 H35 N2 O P |
| Phosphoramidous acid. N.N-bis(1-methylethyl)-. 2-cyanoethyl [1-(2-nitrophenyl)ethyl] ester) | SC-0059 | C17 H26 N3 O4 P |
| Dichloro N,N-Diisopropylphosphoramidite | SC-0058 | C6 H14 Cl2 N P |
| Phosphoramidous acid. N.N-bis(1-methylethyl)-. bis(9H-fluoren-9-ylmethyl) ester | SC-0057 | C34 H36 N O2 P |
| Di-tert-butyl chloromethyl phosphate | SC-0011 | C9H20ClO4P |
| Di-benzyl chloromethyl phosphate | SC-0010 | C15H16ClO4P |
| TMe-OHB-DAZA | SC-0300 | C29H37N3O6 |
| TEt-OHB-DAZA | SC-0301 | C32H43N3O6 |
| NEmo2E | SC-0201 | C96H138KN18O30S |
| NEmo1 | SC-0200 | C96H138KN18O30S |
| D-Serine-O-phosphate | SC-1810 | C3H8NO6P |
| Ph-CCA-NH2 | SC-1400 | C16H12N2O |
| Menaquinone 8 / MK 8:8 | SC-1230 | C51H72O2 |
| Allyl-Maleimide | SC-1121 | C7H7NO2 |
| Nor-cisapride Derivative | SC-1161 | C17H25Cl2N3O3 |
| AlK - L - Lysine - HCl-salt | SC-8012 | C10H18N2O4* HCl |
| 4-methyl-2,2-bis(trifluoromethyl)oxazolidin-5-one | SC-0098 | C6H5F6NO2 |
| 3-(5-oxo-2,2-bis(trifluoromethyl)oxazolidin-4-yl)propanoic acid | SC-0097 | C8H7F6NO4 |
| 7-(diethylamino)-4-(hydroxymethyl)-coumarin / DEACM | SC-0096 | C14H17NO3 |
| 3-bromo-4-methyl-7-(diethylamino)-coumarin | SC-0095 | C14H16BrNO2 |
| Xanthohumol | SC-0094 | C21H22O5 |
| IEPOX 4 | SC-0090 | C5H10O3 |
| IEPOX 3 | SC-0089 | C5H10O3 |
| 2-C-Methyl-L-Threitol | SC-0085 | C5H12O4 |
| 2-C-Methyl-D-Threitol | SC-0084 | C5H12O4 |
| 2-C-Methyl-L-Erythritol | SC-0083 | C5H12O4 |
| 2-C-Methyl-D-Erythritol | SC-0082 | C5H12O4 |
| 3-Amino-7-(diethylamino)-coumarine | SC-0081 | C13 H16 N2 O2 |
| Chloromethylpropionate | SC-1164 | C4H7ClO2 |
| 2-(2-fluoro-2-methylpropoxy)-2-methylpropan-1-ol | SC-1163 | C8H17FO2 |
| 1,4-Di-butyryl-23:56-diisopropylidene-myo-Inositol | SC-0076 | C20H32O8 |
| 3,6-Di-butyryl-12:45-diisopropylidene-myo-Inositol | SC-0075 | C20H32O8 |
| Y-27632 | SC-0048 | C14H21N3O *2HCl |
| H-1152 | SC-0053 | C16H21N3O2S*2HCl |
| 3,4,5,6-Tetra-O-Benzyl-Ins | TOB-Ins-3456 | C34H36O6 |
| 1,4,5,6-Tetra-O-Benzyl-Ins | TOB-Ins-1456 | C34H36O6 |
| Biotin-PEG3-CoenzymeA | SC-8618 | C46H75N12O24P3S2+3NH3 |
| TMe-OHB-DAZA | SC-0300 | C29H37N3O6 |
| TEt-OHB-DAZA | SC-0301 | C32H43N3O6 |
| SCO-NHS carbonate | SC-8076 | C13H15NO5 |
| endo-BCN-NHS carbonate | SC-8074 | C15H17NO5 |
| TCO4 - NHS carbonate / EQUATORIAL isomer | SC-8073 | C13H17NO5 |
| TCO4 - NHS carbonate / AXIAL isomer | SC-8072 | C13H17NO5 |
| TCO* - NHS carbonate / EQUATORIAL isomer | SC-8071 | C13H17NO5 |
| TCO* - NHS carbonate / AXIAL isomer | SC-8070 | C13H17NO5 |
| NEmo2E | SC-0201 | C96H138KN18O30S |
| NEmo1 | SC-0200 | C96H138KN18O30S |
| bifunctional Cross-Linking-Amino-Acid / PrDiAzK | SC-8028 | C13H20N4O5 |
| Vancomycin hexapeptide | SC-1606 | C59H62Cl2N8O23 |
| Ph-CCA-NH2 | SC-1400 | C16H12N2O |
| Cross-Linking-Amino-Acid / DiAzK | SC-8034 | C11H20N4O4 |
| PEG-9 | SC-1509 | C18H38O10 |
| PEG-8 | SC-1508 | C16H34O9 |
| Click Amino Acid / cyclopropene – L - Lysine (CP) | SC-8017 | C12H20N2O4 |
<艾美捷科技代理Gelomics品牌全系列产品
Gelomics专注于实现体外人体组织模型的生长,核心在于创新的3D细胞培养解决方案。这种技术模拟了人体组织的真实生长环境,相较于传统的细胞培养方式更为先进和贴近人体实际情况。团队由经验丰富的专业人士组成,他们具备深厚的专业知识和多年的行业经验,致力于推动公司通过3D细胞培养技术实现改变药物发现的愿景,为公司的技术研发和战略发展提供有力支持。所研究的高纯度、可调谐的 GelMA 提供了生物活性和机械控制的最佳平衡,使其成为生物医学研究和再生医学的绝佳选择。甲基丙烯酰明胶 (GelMA) – 冷水鱼皮,具有以下特征:
● 高度可调:能够精确控制刚度、孔隙率和退化等关键参数。GelMA可以根据不同的研究或应用需求进行定制化调整,满足多样化的实验和生产要求。
● 支持细胞活力和功能:为细胞的附着、增殖和分化提供了符合生物学要求的微环境。这对于细胞的生长和功能表达至关重要,有助于模拟体内真实的细胞生长环境,提高细胞培养的效果和质量。
● 与3D生物打印兼容:既可以单独使用,也能与其他生物材料一起使用,用于创建定制的细胞外基质(ECM),应用于生物制造和组织工程领域。

▍Gelomics产品列表
| 分类 | 品名 | 货号 |
| Gelatin Methacryloyl (GelMA) | Gelatin Methacryloyl (GelMA) – Bovine Bone | SKU0013 |
| Gelatin Methacryloyl (GelMA) | Gelatin Methacryloyl (GelMA) – Bovine Skin | SKU0024 |
| Gelatin Methacryloyl (GelMA) | Gelatin Methacryloyl (GelMA) – Bovine Bone | SKU0013 |
| Gelatin Methacryloyl (GelMA) | Gelatin Methacryloyl (GelMA) – Porcine Skin | SKU0010 |
| LAP - Photoinitiator Powder | Visible Light Photoinitiator | SKU0021 |
| LunaCrosslinker™ | LunaCrosslinker™ – Visible Light Crosslinking | - |
| LunaGel™ - Cell Recovery Kit | LunaGel™ - Cell Recovery Kit | SKU0015 |
| LunaGel™ System | LunaCrosslinker™ – Visible Light Crosslinking | - |
| LunaGel™ System | LunaGel™ Ultrapure GelMA – Photocrosslinkable Extracellular Matrix | SKU0018 |
| LunaGel™ System | LunaGel™ Bovine Bone – Photocrosslinkable Extracellular Matrix | SKU0009 |
| LunaGel™ System | LunaGel™ Bovine Skin – Photocrosslinkable Extracellular Matrix | SKU0020 |
| LunaGel™ System | LunaGel™ Cold Water Fish Skin – Photocrosslinkable Extracellular Matrix | SKU0011 |
| LunaGel™ System | LunaGel™ Porcine Skin – Photocrosslinkable Extracellular Matrix | SKU0012 |
地址:武汉市洪山区光谷大道35号光谷总部国际时代 二期1栋1301
电话:18372041646
传真:13212737804
邮箱:sales@amyjet.com
0.1508