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:18995651644
传真:18771997407
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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 |
<艾美捷科技代理Boneslices品牌全系列产品
Boneslices是一家来自丹麦的公司,专注于生产牛皮质骨片。Boneslices公司提供用于200um, 400um厚度破骨细胞骨吸收功能检测Boneslice骨切片,适用于96孔板检测。

▍Boneslices产品介绍
在开始陷窝实验前,需用培养基对骨切片进行复水处理。由外周血单核细胞(PBMC)或共培养体系生成的成熟/未成熟破骨细胞,均可接种于骨切片表面。根据破骨细胞的成熟状态及存在因子的差异,吸收陷窝将在3-14天内形成。通过抗酒石酸酸性磷酸酶(TRAcP)活性检测可观察破骨细胞数量,而甲苯胺蓝染色则可显现吸收陷窝与吸收沟的形成(见图2)。

▍产品参数
产品描述:本品为用于破骨细胞骨吸收实验的皮质骨切片。
规格参数:直径:6mm(适配96孔板)
厚度:0.2mm(最适用免疫荧光、共聚焦显微镜及延时记录);0.4mm(最适用下游分析)
运输条件:骨切片在室温环境下运输。
用途说明:牛皮质骨切片专为96孔板中的破骨细胞陷窝/骨吸收实验设计。
| 产品名称 | 型号 | 规格 |
| Bone Slices | 0.4 mm | 50 pcs;100 pcs;300 pcs;500 pcs |
| Bone Slices | 0.2 mm | 50 pcs;100 pcs;300 pcs;500 pcs |
<艾美捷科技代理Amid Biosciences品牌全系列产品
Amid Biosciences是一家专注于生命科学研究和相关产品开发与制造的品牌,在蛋白质工程和酶开发、蛋白质表达和纯化等领域具备核心优势,尤其擅长利用细菌(如大肠杆菌、枯草芽孢杆菌)、酵母系统以及克隆试剂,为学术、工业和政府实体提供蛋白质表达工具。Amid Biosciences公司致力于帮助生物医学研究人员节省时间和成本,以实现研究目标,并以具有竞争力的价格提供高质量产品。公司产品线包括:生物素化工具和链霉亲和素、RAS 蛋白、鞘脂激活蛋白、噬菌体展示感受态细胞、感受态大肠杆菌细胞、炎症反应蛋白、磁性纳米颗粒、改性琼脂糖树脂、核酸染料和蛋白质可视化、质粒、聚合酶和PCR、蛋白酶、蛋白质表达载体、重组蛋白、RNA合成与修饰。

▍Amid Biosciences产品线
● 生物素化工具和链霉亲和素:提供高质量的重组BirA生物素连接酶、链霉亲和素和链霉亲和素荧光偶联物,以及用于蛋白质表达和体内生物素化的BL21 (λDE3) pBirA菌株。
● RAS蛋白:Amid Biosciences提供广泛的重组生物素化和非生物素化KRAS蛋白,以及参与KRAS调节的关键生物分子,支持药物发现和医学研究。
● 感受态大肠杆菌细胞:用于分子克隆、DNA文库构建、噬菌体展示、重组蛋白表达和诱变的必要工具。Amid Biosciences提供多种用于体内生物素化的菌株,以及高效化学感受态和电感受态大肠杆菌细胞。
● 噬菌体展示感受态细胞:用于高通量文库筛选的噬菌体展示技术,适用于克隆、亚克隆和蛋白质表达。Amid Biosciences提供化学和电化学两种形式的高效噬菌体展示大肠杆菌细胞。
● 鞘脂激活蛋白/皂苷:皂苷或鞘脂激活蛋白(SAP)是存在于溶酶体中的小非酶糖蛋白,具有多种应用,包括脂质代谢研究、药物输送系统、癌症治疗等。
● 炎症反应蛋白:炎症反应涉及复杂的细胞和介质网络,包括细胞因子和可溶性受体。了解炎症反应途径和分子机制对预防和治疗炎症性疾病非常重要。
● 磁性纳米颗粒:用于捕获、分离或纯化细胞、蛋白质、抗体和核酸等靶标。Amid Biosciences提供多种功能化磁性颗粒和配体。
● 改性琼脂糖树脂:用于酶和抗体的亲和纯化,Amid Biosciences提供高容量醛琼脂糖珠和链霉亲和素琼脂糖珠。
● 核酸染料和蛋白质可视化:提供ZicherGreen和ZicherRed核酸安全凝胶染色剂,作为致突变溴化乙锭的替代品。这些染色剂是高灵敏度且环保的荧光核酸染料,用于检测琼脂糖和聚丙烯酰胺凝胶中的DNA和RNA。
● 质粒:提供一系列常见质粒,用于克隆实验和应用,例如蛋白质表达和基因表达。pUC18和pUC19质粒提供了克隆限制性内切酶产生的DNA片段的选项,由于体积小,能够成功克隆大DNA片段。
● 蛋白酶:提供重组TEV、HRV 3C、SenP2蛋白酶,用于在蛋白质纯化过程中去除亲和标签和融合伙伴。
● 蛋白质表达载体:细菌表达载体允许在大肠杆菌中快速表达和随后大规模、经济高效地生产重组蛋白。拥有许多专有的表达载体,用于有效的高水平重组蛋白表达。
● 重组蛋白:使用专有的表达和纯化技术来生产高纯度的高产量重组蛋白和酶。蛋白质集合包括链霉亲和素、BirA生物素连接酶、Lambda蛋白磷酸酶、HRV 3C蛋白酶、TEV蛋白酶等。
● RNA合成与修饰:提供一系列用于RNA研究的产品,包括用于合成和修饰的试剂。产品包括T7 RNA聚合酶、大肠杆菌聚(A)聚合酶、T4 RNA连接酶1和2、鼠RNA酶抑制剂。
▍Amid Biosciences部分产品列表
| 品名 | 规格 | 货号 |
| BL21(λDE3)pBirA Chemically Competent E.coli Cells for in vivo Biotinylation | 10x0.1 ml (20 reactions) | BLB-201 |
| BirA Biotin Protein Ligase, Recombinant | 100 ug | BBL-301 |
| High Capacity Streptavidin Agarose Beads | 1 mL | SA-101-1 |
| BirA Biotin Ligase, MBP-tag, Recombinant | 0.1 mg | MBBL-301 |
| BirA Biotin Ligase, GST-tag | 0.1 mg | BBL-G-301 |
| G12C KRAS(1-166), Biotinylated at the C-terminus | 0.1 mg | KRAS12C-B-C-301 |
| G12D KRAS (1-166), Biotinylated at the C-terminus | 0.1 mg | KRAS12D-B-C-301 |
| G12V KRAS(1-166), Biotinylated at the C-terminus | 0.1 mg | KRAS12V-B-C-301 |
| KRAS G12C Protein, Human, Recombinant, AviTag | 0.1 mg | KRAS12C-301 |
| KRAS G12D Protein, Human, Recombinant, AviTag | 0.1 mg | KRAS12D-301 |
| KRAS G12R Protein, Human, Recombinant, AviTag | 0.1 mg | KRAS12R-301 |
| KRAS G12R Protein, Human, Recombinant, Biotinylated | 0.1 mg | KRAS12R-B-301 |
| KRAS G12V Protein, Human, Biotinylated, Without a His-tag | 0.1 mg | KRAS12V-B-302 |
| KRAS G12V Protein, Human, Recombinant, AviTag | 0.1 mg | KRAS12V-301 |
| KRAS G13D Protein, Human, Recombinant, AviTag | 0.1 mg | KRAS13D-301 |
| KRAS Y96D Protein, Human, Recombinant, AviTag | 0.1 mg | KRAS96D-301 |
| KRAS Y96D Protein, Human, Recombinant, Biotinylated | 0.1 mg | KRAS96D-B-301 |
| MEK1 Protein, Human, Recombinant, Biotinylated | 0.05 mg | MEK1-B-301 |
| MEK2 Protein, Human, Recombinant, Biotinylated | 0.05 mg | MEK2-B-301 |
| Neurofibromin (NF1), Human, Recombinant | 0.05 mg | NF1-301 |
| PI3Kα-RBD Protein, Human, Biotinylated | 0.05 mg | PIK3A-B-301 |
| Raf1 RBD Protein, Human, Recombinant, Biotinylated | 0.1 mg | RAF1-B-301 |
| RalA Protein, Human, Recombinant, Biotinylated | 0.1 mg | RALA-B-301 |
| RalB Protein, Human, Recombinant, Biotinylated | 0.1 mg | RALB-B-301 |
| Rheb Protein, Human, Recombinant, Biotinylated | 0.1 mg | RHEB-B-301 |
| Wild Type KRAS (1-166) Protein, Biotinylated at the C-terminus | 0.1 mg | KRAS-B-C-301 |
| Wild Type KRAS Protein, Human, Biotinylated, Without a His-tag | 0.1 mg | KRAS-B-302 |
| Wild Type KRAS Protein, Human, Recombinant, AviTag | 0.1 mg | KRAS-301-1 |
| Saposin D, Human, Recombinant | 0.1 mg | SAPD-301-1 |
| Saposin C, Human, Recombinant | 0.1 mg | SAPC-302-1 |
| Phage Display SS320 Chemically Competent E. coli Cells | 10 X 0.1 ml (20 reactions) | SS320-201 |
| Phage Display ER2738 Chemically Competent E. coli Cells | 10 X 0.1 ml (20 reactions) | EREC-201 |
| Phage Display TG1 Chemically Competent E. coli Cells | 10 X 0.1 ml (20 reactions) | TG1-201 |
| Phage Display ER2738 Electrocompetent E. coli Cells | 10 X 0.05 ml (20 reactions) | EREC-201 |
| Phage Display TG1 Electrocompetent E. coli Cells | 10 X 0.05 ml (20 reactions) | ETG1-201 |
| Phage Display SS320 Electrocompetent E. coli Cells | 10 X 0.05 ml (20 reactions) | SS320EC-201 |

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



艾美捷科技代理Norgen Biotek品牌。
Norgen Biotek由Yousef Haj-Ahmad博士于1998年创立。Norgen是一家获得ISO 9001、ISO 13485和ISO 15189认证的全面集成生物技术公司,为科学界提供全面的研究服务,如下
一代测序、核酸提取。
Norgen Biotek公司的产品范围包括:RNA、DNA、外切体和蛋白质提取的样品采集,保存,提取和检测相关产品。
(1)样本采集和保存:用于采集和保存各种样本(包括血液、血浆、尿液、粪便、唾液)的设备等等。
(2)纯化和分离:使用 Norgen 易于使用的试剂盒分离和纯化高质量的 RNA、DNA、蛋白质、外泌体等。
(3)NGS 文库制备试剂盒:简单快速的工作流程,用于准备您的下一个小型文库RNA-seq、RNA-seq 和宏基因组学。
(4)分子诊断:使用 Norgen 的 PCR 和 RT-PCR Taqman 检测试剂盒针对多种病原体。还提供其他引物和探针。
(5)实验室组件:酶、缓冲液、试剂、无核酸酶水、塑料和过滤设备。
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艾美捷科技代理Pfanstiehl品牌高纯度赋形剂、氨基酸、缓冲液组分。。
Meridian Bioscience是一家生命科学公司,开发、制造、销售各种创新的生命科学产品。提供用于人类、动物、植物和环境应用的免疫学和分子检测的关键生命科学原材料。Meridian Bioscience的生命科学部门,提供高质量分子试剂及抗原抗体。
Pfanstiehl公司生产符合cGMP标准的高纯度、低内毒素、低金属残留的注射级辅料和生物制药成分,用于生物加工、配方和特殊领域的各种应用。Pfanstiehl公司提供的赋形剂包括:蔗糖、海藻糖二水合物、D-半乳糖、麦芽糖一水合物、D-甘露糖、D-甘露醇、葡萄糖(葡萄糖);Pfanstiehl公司提供的氨基酸包括:精氨酸、精氨酸盐酸盐、组氨酸、盐酸组氨酸、L-蛋氨酸、甘氨酸、谷氨酰胺;Pfanstiehl公司提供的缓冲液成分:Tris Base、氨基甲烷盐酸盐、琥珀酸钠六水合物、琥珀酸。Pfanstiehl公司致力于各个多种应用场景的产品开发,包括:疫苗和生物稳定、蛋白质聚集减少、粘度降低、高浓度配方、高纯度低内毒素低金属注射级赋形剂、聚山梨酯降解缓解等。
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艾美捷科技代理Worthington品牌。
Worthington Biochemical公司是开发和生产用于生命科学研究、诊断和生物技术应用的高质量纯化酶、蛋白质、核酸和细胞分离试剂盒的行业领导者。Worthington纯化的主要生化物质是
从胰腺、植物和发酵来源等材料中获得的蛋白质以及其他天然非动物和动物源物质。Worthington一直是世界上高纯度酶的主要来源。
从技术上讲,Worthington实际上并不生产酶:Worthington从各种动物和非动物来源、植物组织和各种微生物来源(例如细菌、真菌和霉菌)中提取和纯化酶。Worthington每种产品最重
要的特点是 -- 保持了跟体内一样的活性。蛋白质分子的大小和复杂性使得这一点变得困难,Worthington在自然条件下持续纯化酶和其他蛋白质的能力是该公司产品持续成功的关键。
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艾美捷科技代理Tatua大拓品牌。
▌公司介绍
大拓位于新西兰畜牧中心地带,是新西兰历史最悠久的乳制品公司,创立于1914年。大拓研发生产专业蛋白胨,用于诊断培养基、发酵培养基、益生菌、生物制药和细胞培养行业,其蛋白胨都符合清真和犹太洁食标准。

更多详情请咨询→

全国免费热线:400-6800-868
直拨专线:+86-027-59626688;18771997407
客服QQ一:17754422825;
客服QQ二:18771149750
▌产品系列
大拓能够提供多样化的蛋白胨组合,以适应全球发酵和益生菌培养基细分市场的一系列应用需求。我司代理的产品类别包括乳糖蛋白胨及植物蛋白胨。
| 乳糖蛋白胨 |
大拓 (Tatua) 提供一系列源自新西兰、无BSE/TSE风险的纯净奶源的乳蛋白胨产品。
● 酪蛋白胨(清真胰蛋白胨):其化学组成、成分和物理特性均经过精心设计,以匹配更传统的胰蛋白酶消化酪蛋白(胰蛋白胨)产品的规格。
● 乳清蛋白胨(乳白蛋白酶解物):能够支持苛养菌的生长,常用于需要特定氨基酸谱的益生菌应用领域。
大拓 (Tatua) 的乳蛋白胨产品组合涵盖广泛的优势,包括:
● 过滤级产品:提供澄清度与热稳定性
● 非过滤级产品:更具成本效益
● 清真 (Halal) 与洁食 (Kosher) 认证
● 多种游离氨基酸谱 (FAA profiles):以支持最佳生长性能
| Product | Protein Source | Filtered | pH | Total Nitrogen | Amino Nitrogen | AN/TN | Ash | Features / Benefits |
| EHCK | Casein | No | 6.6 | 13.80% | 5.50% | 39.90% | 3.50% | ● Cost effective nitrogen source |
| HCP275 | Casein | Yes | 6.9 | 13.60% | 4.30% | 31.80% | 5.50% | ● Halal alternative to tryptone ● Meets pancreatic digest of casein USP criteria |
| HCP321 | Casein | Yes | 6.8 | 13.60% | 5.80% | 42.50% | 4.50% | ● Halal alternative to tryptone ● Good source of free amino acids |
| HCP512 | Casein | Yes | 6.8 | 14.30% | 2.60% | 18.20% | 4.00% | ● Specially designed for use in biopharma fermentations |
| Tatua 2400 | Casein | Yes | 6.9 | 13.40% | 4.40% | 32.90% | 5.80% | ● Supports growth of fastidious bacteria ● Halal alternative to tryptone |
| Tatua 2016 | Whey | Yes | 6.4 | 12.20% | 4.90% | 40.40% | 4.50% | ● Supports growth of fastidious bacteria |
| 植物蛋白胨 |
大拓 (Tatua)将酶解技术和下游加工技术应用于非乳制品蛋白原料,提供无动物成分和/或无过敏原特性的蛋白胨解决方案,作为传统(动物源)蛋白胨的替代品。
● Tatua大豆蛋白胨:是某些诊断培养基配方(如 TSA 和 TSB)的重要组成部分,并且在益生菌发酵应用中表现成熟可靠。
● Tatua豌豆蛋白胨:旨在解决大豆蛋白胨可能引起的大豆过敏原问题而开发,适用于益生菌应用。
<| Product | Protein Source | Filtered | pH | Total Nitrogen | Amino Nitrogen | AN/TN | Ash | Features / Benefits |
| HSP320 | Soy | Yes | 6.9 | 9.20% | 2.50% | 26.90% | 7.10% | ● Good source of free amino acids |
| HSP348 | Soy | No | 7 | 9.10% | 1.70% | 18.60% | 7.80% | ● Cost effective nitrogen and carbohydrate source |
| HSP349 | Soy | Yes | 7 | 9.60% | 1.80% | 19.00% | 7.40% | ● Meets papaic digest of soy USP criteria |
| HSP429 | Soy | Yes | 7.1 | 9.80% | 2.70% | 27.00% | 8.80% | ● Supports growth of fastidious bacteria ● Stable in buffered solutions |
| Tatua 5260 | Pea | Yes | 6.4 | 13.60% | 4.40% | 32.30% | 4.80% | ● Good source of free amino acids ● Dairy-free ● Soy-free |
▌产品优势
大拓微生物营养解决方案具有以下优势:
● 大拓用于生产蛋白胨的乳蛋白原料(酪蛋白和乳清蛋白)都是直接来源于新西兰自有农场的奶源,是唯一一家能够全方位供应乳蛋白原料的蛋白胨生产商
● 新西兰来源的乳蛋白原料符合无BSE/TSE要求
● 植物蛋白为非转基因来源
● 大批量生产(高达8MT)降低单位成本
● FSSC 22000-Q 认证确保满足最高水平的质量要求
● 专业的研发团队能够根据不同培养基的需求提供定制化解决方案
● 出厂保质期为60个月
▌大拓蛋白胨的促生长性能




immunoGlobe GmbH成立于1997年,主要业务包括:1)生产研究用蛋白(特别关注信号转导及细胞骨架);2)对学术机构提供的优良抗体进行商业化;3)提供定制的多克隆抗体生产和纯化。
Our Mission is to supply the Scientific Community with affordable high quality research antibodies and reagents. Towards this goal we are pursuing three major fields, since 1997:
Manufacturing of novel research antibodies (with a focus on signal transduction and the cytoskeleton). More than 50% of the still limited but constantly expanding product portfolio are unique research antibodies available from no other commercial source.
Commercialization of well characterized and established antibodies developed and licensed by our university partners. immunoGlobe® takes over packing, documentation, marketing, and distribution of the products. The company especially benefits also from the marketing activities of its world-wide distributors.
Production & affinity purification of polyclonal custom antibodies (antibody services). imunoGlobe has been one of the first service providers to offer fractional affinity purification with multiple columns! Based on sophisticated purification strategies, our special focus is on the generation of antibodies directed against modifications.
<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
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<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
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