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
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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 |

艾美捷科技特约代理ScienCell品牌。
ScienCell公司为研究界提供各种高质量的正常人类和动物细胞、细胞培养基和试剂、基因分析工具、细胞衍生的分子生物学产品、基于细胞的检测试剂盒和干细胞产品。
ScienCell公司产品线包括:
(1)原代细胞:采用ScienCell独有的方法从健康的人和动物组织中分离出来,在早期传代时进行冷冻保存,具有出色的细胞活力。
(2)细胞培养基:ScienCell的各种细胞培养基均为液体形式,包括特殊、经典和补充品种。每种产品均专为原代细胞的最佳营养和生长而设计。
(3)干细胞:干细胞是独特的细胞,具有在体内发育成各种特殊细胞类型的卓越能力,它们的特点是具有自我更新和分化成不同细胞谱系的能力。
(4)遗传学与基因组学:提供定制引物设计和试剂盒服务。
(5)分子生物学:产品:cDNA、基因组DNA、总RNA、MicroRNA、细胞裂解物和细胞沉淀。
(6)基于细胞的检测:ScienCell开发了多种基于细胞的检测检测试剂盒,包括新陈代谢、氧化应激和干细胞等许多领域,并提供酶活性、代谢物水平和细胞生长状态的定量结果。
(7)生长因子和蛋白质:ScienCell提供高质量生长因子、细胞因子和重组蛋白。
< " data-original="http://fluorochrome.51antibodies.com/template/company/xys_lvse/skin/image/lazyLoad.jpg" alt="艾美捷科技特约代理ScienCell品牌"> 艾美捷科技特约代理ScienCell品牌
<艾美捷科技代理Vectorbiolabs品牌全系列产品
Vector Biolabs是一家专注于提供高质量AAV(腺相关病毒)和腺病毒产品的生物科技公司,总部位于宾夕法尼亚州费城。Vector Biolabs公司提供包括定制病毒载体生产、载体设计、克隆、扩增、包装、纯化和滴度测定在内的服务,并且拥有一个包含超过90,000种针对人类、小鼠和大鼠基因组定制的AAV产品目录,服务于包括生物制药公司和研究机构在内的全球客户。此外,Vector Biolabs 为研究界提供与基因表达、基因编辑和基因沉默相关的服务。

▍Vectorbiolabs公司的产品与服务
● AAV定制生产:根据客户需求,定制生产AAV载体,以满足特定的研究或治疗需求。
● AAV控制产品:提供一系列用于AAV基因治疗的控制产品,确保实验的准确性和可靠性。
● 腺病毒建设与扩增:提供腺病毒的构建和扩增服务,支持客户的病毒载体研究。
● shRNA筛选/验证与产品目录:提供shRNA筛选和验证服务,以及相关的产品目录,帮助客户进行基因沉默研究。
使用AAV进行基因治疗的好处:
①低免疫反应:AAV载体引发免疫反应的可能性较低,适合敏感应用。
②稳定的基因递送:提供非整合基因递送,降低诱变风险。
③可扩展的生产:确保从小规模到大规模的研究和临床试验的可靠供应。
④广泛的治疗应用:多功能性使其成为靶向大脑、肝脏和视网膜等器官的理想选择。
| 特性 | AAV | 腺病毒 (Adenovirus) |
| 基因表达 | 长期、稳定表达 | 快速、瞬时表达 |
| 免疫原性 | 低 | 高 |
| 装载容量 | ~4.7 kb | ~8 kb - 38 kb (大得多) |
| 趋向性/靶向能力 | 高 - 可通过不同衣壳定制 | 广泛,可靶向多种组织 |
| 最佳应用场景 | 体内研究,长期表达 | 体外 & 体内研究,癌症 & 疫苗研究 |
▍Vectorbiolabs部分产品列表
| 品名 | 货号 | AAV Serotype | AAV ITR | Promoter | Reporter | Storage Buffer | Titer | Viral Backbone | Volume (µL) |
| AAV1-LacZ | 7001 | AAV1 | AAV2 | CMV (ubiquitous) | LacZ | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV1-GFP | 7002 | AAV1 | AAV2 | CMV (ubiquitous) | eGFP | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV2-LacZ | 7003 | AAV2 | AAV2 | CMV (ubiquitous) | LacZ | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV2-GFP | 7004 | AAV2 | AAV2 | CMV (ubiquitous) | eGFP | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV5-LacZ | 7005 | AAV5 | AAV2 | CMV (ubiquitous) | LacZ | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV5-GFP | 7006 | AAV5 | AAV2 | CMV (ubiquitous) | eGFP | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV9-GFP | 7007 | AAV9 | AAV2 | CMV (ubiquitous) | eGFP | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV6-GFP | 7008 | AAV6 | AAV2 | CMV (ubiquitous) | eGFP | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV1-Cre | 7010 | AAV1 | AAV2 | CMV (ubiquitous) | - | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV2-Cre | 7011 | AAV2 | AAV2 | CMV (ubiquitous) | - | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV5-Cre | 7012 | AAV5 | AAV2 | CMV (ubiquitous) | - | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |
| AAV6-Cre | 7013 | AAV6 | AAV2 | CMV (ubiquitous) | - | PBS/5% Glycerol | 1x10^13 GC/ml | Recombinant AAV | 20 |

艾美捷科技代理StressMarq品牌。
StressMarq公司为生命科学和药物发现/生物制药市场生产高质量、尖端的研究产品。StressMarq公司产品包括:用于神经退行性疾病研究的原纤维、寡聚体和单体蛋白质制剂,包括α突触
核蛋白、tau蛋白、β淀粉样蛋白、SOD1蛋白和TTR蛋白等。StressMarq的战略重点是协助研究人员研究阿尔茨海默氏症、帕金森氏症和其他神经退行性疾病。除了专注于神经退行性疾病研
究的蛋白质外,StressMarq公司多样化的产品组合抗体、试剂盒、小分子和其他蛋白质,也广泛应用于神经科学、癌症研究和细胞信号传导等一系列生命科学领域。产品包括:
(1)抗体:提供数百种经过高度验证的单克隆和多克隆抗体.
(2)抗体偶联物:从一系列荧光团、蛋白质或酶偶联物中进行选择。
(3)检测试剂盒:浏览我们精选的细胞信号传导、细胞和氧化应激研究试剂盒。
(4)蛋白质:专门研究α突触核蛋白、tau和淀粉样蛋白β的纤维形式、寡聚形式和单体。
(5)小分子:抑制剂、拮抗剂、激动剂、激活剂和配体。
< " data-original="http://fluorochrome.51antibodies.com/template/company/xys_lvse/skin/image/lazyLoad.jpg" alt="艾美捷科技代理StressMarq品牌"> 艾美捷科技代理StressMarq品牌
艾美捷科技特约代理Athens Research & Technology产品。
Athens Research & Technology公司位于美国乔治亚州雅典市,从1986年以来一直致力于纯化高纯度,高活性的人类蛋白质和开发这些蛋白的多克隆抗血清。常规产品包括丝氨酸蛋白酶、蛋白酶抑制剂、中性粒细胞酶、载脂蛋白、脂蛋白,血小板蛋白、转铁蛋白、免疫球蛋白等。
Athens Research & Technology Inc. has been purifying human proteins and developing polyclonal antisera to those proteins since 1986. We specialize in highly pure, highly active human proteins. We routinely purify serine proteases, protease inhibitors, neutrophil enzymes, apolipoproteins, lipoproteins, platelet proteins, transferrins, immunoglobulins, and more. Researchers around the world have been purchasing these research reagents from us for more than twenty-five years. You'll see our products referenced in major scientific publications in studies of inflammation, coronary disease, autoimmune disease, cancer, Alzheimer's Disease, and so on.
Athens Research & Technology公司的主要产品包括:
Coagulation Factors
Enzymes & Inhibitors
Immunoglobulins
Lipoproteins & Apolipoproteins
Low Endotoxin Level Proteins
Milk & Platelet Proteins
Neutrophil Proteins
Transferrins & Apotransferrins
Transport/Other Proteins
All Human Proteins
All Animal Proteins
Antibodies
Assay Kits
" data-original="http://fluorochrome.51antibodies.com/template/company/xys_lvse/skin/image/lazyLoad.jpg" alt="Athens Research & Technology"> Athens Research & Technology
<艾美捷科技代理A/F Protein品牌全系列产品
A/F Protein Inc成立于1994年,专注于从天然来源纯化防冻蛋白,并销售给研发界。防冻蛋白的研究始于1950年代,当时科学家发现一些鱼类能够在极低温度下生存而不被冻结,因为它们血液中含有一种能够降低冰点的化合物,即防冻蛋白。A/F Protein在防冻蛋白领域取得了显著成就,拥有多项控制AFP(防冻蛋白)重要用途的专利。这些专利涵盖了防冻蛋白在哺乳动物细胞、组织和器官低温保存中的应用,以及使用防冻蛋白冷冻消融人类肿瘤细胞等领域。A/F Protein公司的产品包括I型和III型防冻蛋白以及防冻糖蛋白。这些蛋白质都是从天然来源纯化的冷海洋硬骨鱼中提取的,以干燥形式出售。

▍A/F Protein应用前景
A/F Protein的防冻蛋白和糖蛋白具有广泛的应用前景:
● 长效低温血小板保存液:含抗冻蛋白溶液,用于延长血小板在低温条件下的储存时间
● 肿瘤冷冻消融增效剂:提升冷冻手术治疗人体肿瘤效果的蛋白溶液
● 器官移植保存液:用于心脏/肾脏等移植器官的 低温-超低温保存技术
● 辅助生殖细胞保存液:试管婴儿所需的卵子与精子 超低温保存解决方案
● 动物生殖细胞保存技术:兽医学用动物卵母细胞及胚胎冷冻保存液
● 抗冻蛋白护肤产品:针对寒冷环境的 蛋白基护肤配方,增强皮肤防护力
● 食品加工保鲜技术:基于抗冻蛋白的食品质构改良与冷冻保鲜工艺
● 科研级纯化抗冻蛋白:高纯度抗冻蛋白试剂,供实验室研发使用

艾美捷科技代理DiscoverX 品牌。
DiscoverX 是一家专注于药物发现和生物分析的公司,提供创新的高通量筛选技术和生物分析工具,支持药物研发、毒理学研究和生物标志物发现。Eurofins DiscoverX® 是值得信赖的药物发现和开发产品解决方案供应商。作为 Eurofins Discovery 的产品部门,以及 Eurofins BioPharma 全球网络的一部分,DiscoverX 在过去二十年里通过为拯救生命的治疗药物的发现和开发做出贡献,这些药物使用了值得信赖和经过验证的细胞基检测产品,用于筛选和验证数十亿个数据点。DiscoverX 产品组合包括适合目的的解决方案,从即用型均质检测试剂盒、稳定的工程细胞系、膜准备、重组蛋白质/酶和合格试剂。
DiscoverX 主要产品和服务包括:
(1)高通量筛选平台:提供基于细胞和酶的高通量筛选平台,用于药物发现和毒性测试。
(2)生物分析工具:提供多种生物分析工具,如报告基因检测、细胞活性检测和蛋白质相互作用分析。
(3)定制服务:根据客户需求,提供定制化的高通量筛选和生物分析服务。
(4)技术咨询与支持:提供药物发现和生物分析相关的咨询和技术支持服务。
<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 |
<艾美捷科技代理Trialtusbioscience品牌全系列产品
TriAltus Bioscience是一个致力于为推动人类健康前沿的科学家服务的品牌。当今的创新者在推进基因疗法、工程诊断、早期疾病检测以及药物发现等领域,都需要高纯度、高性能且随时可以扩展的酶,TriAltus正是为此而存在。TriAltus的核心是其专有的CLiM™(CL7/Im7)纯化平台,是一种基于亲和标签的突破性系统,能在单个色谱步骤中提供具有卓越纯度、活性和一致性的酶,重新定义了重组蛋白纯化的可能性。 使用CLiM™生产的每种酶都以严格的质量控制、批次间一致性和详细的分析证书(COA)为后盾,旨在满足监管机构要求的质量和文档标准,支持从发现到扩大规模的更平稳过渡。TriAltus Bioscience公司的产品包括:基因组酶、蛋白酶和其他酶。

▍Trialtusbioscience产品线
● 基因组酶:TriAltus的重组基因组酶不含标签,并使用专有的CLiM™亲和标签系统进行纯化,提供目录酶的定制缩放和配方,以满足特定研究需求,无论需要更高的浓度、独特的缓冲条件还是批量生产,都可以根据具体规格定制酶。
| 货号 | 品名 | 规格 | 产品描述 |
| 40-1212 | AapCas12b Protein | 20 μg | expressed in E. coli and features two C-terminal nuclear localization signals,enables the inactive nuclease to be guided to the specific double stranded DNA site. |
| 40-1220 | AapCas12b Protein | 100 μg | |
| 40-1225 | AapCas12b Protein | 500 μg | |
| 40-1320 | CRISPR-Cas9 Protein | 100 μg | used for genome editing with CRISPR technology. Recombinant Streptococcus pyogenes Cas9 ,expressed in Escherichia coli and features two nuclear localization signals |
| 40-1325 | CRISPR-Cas9 Protein | 500 μg | |
| 40-2414 | Phi29 DNA Polymerase | 3,000 Units | a highly processive, isothermal enzyme from Bacillus subtilis phage phi29 ,with a robust 3'→5' proofreading exonuclease function. |
| 40-2420 | Phi29 DNA Polymerase | 10,000 Units | |
| 40-2125 | TAT-CRE Recombinase | 500 μg | used for site-specific DNA recombination in mammalian cells,a fusion protein combining a nuclear localization sequence, HIV-TAT cell permeabilization peptide, and Cre recombinase. |
| 40-2130 | TAT-CRE Recombinase | 1 mg | |
| 40-2135 | TAT-CRE Recombinase | 5 mg |
● 蛋白酶和其他酶:例如为冷冻电镜生成蛋白质的实验室提供SUMO蛋白酶,去除相关标签后蛋白质可进行分析,反应高效、稳健,无需优化,客户对酶的性能和优质客户服务感到满意。
| 货号 | 品名 | 规格 | 产品描述 |
| 30-2130 | PreScission Protease | 1 mg | recognizes and cleaves the sequence LEVLFQ/GP to release the target protein from the Im7-bound CL7 tag |
| 30-2135 | PreScission Protease | 5 mg | |
| 30-2140 | PreScission Protease | 10 mg | |
| 30-2146 | PreScission Protease | 50 mg | |
| 30-2150 | PreScission Protease | 100 mg | |
| 30-1130 | SUMO Protease | 1 mg | releases target proteins from TriAltus’s Im7 resin,recognizes SUMO tertiary structure – not a specific amino acid sequence – to cleave and release the target protein from the Im7-bound CL7 tag. |
| 30-1135 | SUMO Protease | 5 mg | |
| 30-1140 | SUMO Protease | 10 mg | |
| 30-1146 | SUMO Protease | 50 mg | |
| 30-1150 | SUMO Protease | 100 mg |

艾美捷科技代理深圳鼎升(AcroGenic)全系列产品。
深圳鼎升生物科技有限公司成立于2022年7月29日,坐落在深圳光明区。公司专注于新一代合成生物材料研发及其在新兴生物医药领域中的应用,依托拥有中美自主专利的新型3D可调控高分
子合成生物材料 AccuraMatrix ®技术,实现产品化及市场化。
AcroGenic主营业务基于细胞三维培养和体内外模型平台建立及试剂耗材的生产,治疗性细胞的体外规模化生产及体内植入技术研究及市场化,合成生物平台的建立及合成产品的生产销售。
目前公司已设立北京、深圳和美国的研发及生产中心。
产品范围包括:
(1)AccuraMatrix®细胞外基质

人工合成的有机共聚大分子生物3D架构,能有效模拟细胞生长所需的稳定微环境。
拥有中美自主专利技术,可对架构的孔径大小、结构刚性等理化指标进行调节。
AccuraMatrix可根据培养细胞、细胞球、类器官及组织颗粒的培养需要,通过各类生物材料的不断开发和优化以达到在体外最大限度地模仿体内微环境从而实现多种人类干细胞及原代细胞的体外三维高密度大规模培养、扩增及体内外模型建立。AccuraMatrix细胞外基质产品有普适性强,生物安全性高,可植入性,低成本,高重复性和稳定批次质量。可用于干细胞生产,骨和软骨修复,人造腺体,细胞体内植入。
<<
(2)CTC体外培养试剂盒

肺癌循环肿瘤细胞培养试剂盒
肝癌循环肿瘤细胞培养试剂盒
肾癌循环肿瘤细胞培养试剂盒
胆管癌循环肿瘤细胞培养试剂盒
胰腺癌循环肿瘤细胞培养试剂盒
卵巢癌循环肿瘤细胞培养试剂盒
在AccuraMatrix系统可从外周血中体外培养、增殖,获得足够的数量的CTC,进行全面的分子与功能研究,如对肿瘤细胞与正常细胞物理特性差异的研究;对原发性肿瘤、CTC和转移灶进行基因表达谱的比较;对CTC不同表面标志物表达的研究;对CTC进行药物敏感度实验和建立动物转移模型等。有利于肿瘤患者早期诊断、辅助临床进行精确治疗、术后肿瘤复发与转移及预后评估等。

应用场景

AccuraMatrixCTC培养可用于肿瘤无创早诊、复发监测、用药指导。细胞外生物材料技术涵盖肿瘤早、中、晚全阶段,早期高危和高度怀疑患者的诊断(液体活检,基因诊断无法确诊),
CTC可以通过对肿瘤细胞的病历诊断做到无创确诊;支持低成本长期培养,可以帮助患者建立起抗药肿瘤模型,并提前筛选出药效药物,指导肿瘤复发治疗,利用CTC培养对治疗效果进
行评估,监测肿瘤复发;晚期病人获得肿瘤样品难, 通过CTC为病人寻找有效药物和药物组合。
另外,AccuraMatrix体外培养扩增后的CTC细胞团可用于动物模型构建,支持肿瘤新药研发、监测肿瘤复发、疗效评估和用药指导。
循环肿瘤细胞体外培养 的基质材料优化及其相关临床应用产品的研发,实现了高成功率循环肿瘤细胞体外培养,建立了世界唯一的循环肿瘤细胞动物体内种植方法,成功地利用循环肿
瘤细胞动物模型进行了体内抗癌药物评估。
目前,AccuraMatrix已完成部分癌种CTC扩增培养和蛋白鉴定。
(3)类器官培养试剂盒

依托生物基质材料在体外最大限度地模拟体内微环境,实现多种类器官快速构建,并支持类器官与免疫细胞长时间共培养。为抗癌新药研发和患者治疗方案的筛选提供高效、准确、高性价比的服务,为癌症基础研究提供不可或缺的体外 3D 肿瘤模型及动物模型。
<肺癌类器官培养试剂盒
肝癌类器官培养试剂盒
肾癌类器官培养试剂盒
胆管癌类器官培养试剂盒
胰腺癌类器官培养试剂盒
结直肠癌类器官培养试剂盒
尿道上皮癌类器官培养试剂盒
胃癌类器官培养试剂盒
卵巢癌类器官培养试剂盒
乳腺癌类器官培养试剂盒
恶性体腔积液类器官培养试剂盒
肝癌组织类器官培养试剂盒


(4)利用3D培养技术体外生产治疗性蛋白
针对生物合成中存在的某些问题,通过在细胞培养中应用不同的生物材料实现了对细胞培养微环境的调控,改变了细胞状态,实现了多种细胞的共同培养,更换表达细胞种类,从而解决了一定的技术瓶颈


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