服(fu)務熱線
產品(pin)展(zhan)示PRODUCTS
| 品(pin)牌 | 其(qi)他(ta)品(pin)牌 | 價(jia)格區(qu)間 | 面議 |
|---|---|---|---|
| 產地(di)類別(bie) | 進口 | 儀器(qi)種(zhong)類 | 實驗室型(xing) |
| 應(ying)用(yong)領(ling)域(yu) | 環(huan)保(bao),化工,生物產業,農林牧漁(yu),能(neng)源 | 多(duo)通(tong)道(dao)培(pei)養 | 8 |
| LED光源 | 標(biao)配(pei)冷(leng)白(bai)光LED,8個(ge)通(tong)道(dao)光源可(ke)定(ding)制(zhi) | 光密(mi)度在(zai)線監(jian)測 | OD680/OD720 |
| 溫(wen)度控制(zhi) | 15℃~60℃ |
MC1000 8通(tong)道(dao)藻(zao)類在(zai)線監(jian)測系統(tong)由(you)8個(ge)100ml藻(zao)類培(pei)養試管、水(shui)浴(yu)控溫(wen)系統(tong)、LEDs光源控制(zhi)系統(tong)及(ji)光密(mi)度和(he)溶解氧(yang)(選配)在線監(jian)測系統(tong)等組成,可用(yong)於藻(zao)類培(pei)養與(yu)控制(zhi)實驗、梯度對比實驗等,適於水(shui)體(ti)生(sheng)態毒(du)理學(xue)研究(jiu)檢(jian)測(ce)、藻(zao)類生(sheng)理(li)生(sheng)態研究(jiu)、水(shui)生態研究(jiu)等,MC1000 8通(tong)道(dao)藻(zao)類在(zai)線監(jian)測系統(tong)主(zhu)要功能(neng)特點(dian)如下:
8通(tong)道(dao)藻(zao)類培(pei)養,每個(ge)藻(zao)類培(pei)養試管可(ke)培養85ml藻(zao)液
LEDs光源,可(ke)對每個(ge)培(pei)養試管獨(du)立(li)調節(jie)控制(zhi)和(he)設置(zhi)光強度和(he)時間,如晝(zhou)夜(ye)變化等
光密(mi)度在(zai)線監(jian)測,包括OD680、OD720,監(jian)測數(shu)據自(zi)動存(cun)儲(chu)
溶解氧(yang)在線監(jian)測(備選)以測量(liang)分(fen)析藻(zao)類光合(he)作用(yong)等
溫(wen)度、光照控制(zhi)可(ke)用(yong)戶(hu)設(she)置(zhi)不(bu)同的(de)程序(xu)模(mo)式
氣泡(pao)混(hun)勻:可通過調節(jie)閥(fa)手(shou)動調(tiao)節(jie)氣流量(liang)以(yi)對培養試管內(nei)的(de)藻(zao)類進行混(hun)勻
可(ke)選配O2/CO2監(jian)測系統(tong),在(zai)線監(jian)測藻(zao)類光合(he)放氧(yang)和CO2吸(xi)收
可(ke)選配藻(zao)類熒(ying)光測量(liang)模(mo)塊

應(ying)用(yong)領(ling)域(yu):
l 多(duo)通(tong)道(dao)同步藻(zao)類培(pei)養
l 同步梯度脅迫實驗
l 培(pei)養條(tiao)件(jian)優化
l 控制(zhi)培(pei)養條(tiao)件(jian)與藻(zao)類生(sheng)長(chang)動力(li)學(xue)監(jian)測
儀器(qi)型(xing)號(hao):
MC 1000-OD: 8個(ge)通(tong)道(dao)光源顏色相同,標(biao)配冷(leng)白(bai)光LED
MC 1000-OD-WW:8個(ge)通(tong)道(dao)光源顏色相同,標(biao)配暖(nuan)白(bai)光LED
MC 1000-OD-MULTI: 8個(ge)通(tong)道(dao)光源顏色不(bu)同,分(fen)別為(wei)1)紫(zi)光405nm,2)藍紫光450nm,3)藍光470nm或冷(leng)白(bai)光,4)暖白(bai)光,5)綠光540nm,6)黃橙(cheng)光590nm,7)紅(hong)光640nm,8)遠紅(hong)光730nm。
MC 1000-OD-MIX:每個(ge)通(tong)道(dao)可配(pei)備多(duo)8種(zhong)不(bu)同顏色的LED光源,光源顏色可由(you)用(yong)戶(hu)定(ding)制(zhi),可(ke)選顏色為(wei)1)紫(zi)光405nm,2)藍紫光450nm,3)藍光470nm或冷(leng)白(bai)光,4)暖白(bai)光,5)綠光540nm,6)黃橙(cheng)光590nm,7)紅(hong)光640nm,8)遠紅(hong)光730nm。
技(ji)術(shu)指標:
藻(zao)類同步培養通(tong)道(dao):8個(ge)
培(pei)養管容(rong)量(liang):100ml,建議大(da)培(pei)養容(rong)量(liang)85ml
在(zai)線即(ji)時監(jian)測參數(shu):分別(bie)監(jian)測每個(ge)培(pei)養管的(de)OD680和OD720,數(shu)據自(zi)動保(bao)存到主機(ji)內(nei)存(cun)中,PIN光電二(er)極(ji)管檢(jian)測(ce)器(qi),665-750nm帶(dai)通濾波(bo)器(qi)
精(jing)確(que)控溫(wen)範圍:標(biao)準配(pei)置(zhi)高(gao)於環(huan)境溫(wen)度5-10℃(與(yu)光強有關)~60℃,可(ke)選配15℃-60℃(環境溫(wen)度20℃,需(xu)加(jia)配制(zhi)冷(leng)單元(yuan))
加(jia)熱系統(tong):150W筒(tong)形(xing)加(jia)熱器(qi)
水(shui)浴(yu)體(ti)積:5L
水(shui)浴(yu)自(zi)動補(bu)水(shui)模塊(kuai)(選配):水(shui)浴(yu)水(shui)位(wei)因蒸發降(jiang)低(di)後可自(zi)動補(bu)水(shui)
光源系統(tong):全(quan)LED光源,可(ke)在(zai)0-100%範圍內(nei)調(tiao)控,每個(ge)通(tong)道(dao)的光強可分別(bie)獨(du)立(li)調控
MC 1000-OD:標(biao)配(pei)冷(leng)白(bai)光LED,可選配暖白(bai)光、紅(hong)光(635nm)或藍光(470nm)LED;光強0-1000μmol/m2/s可(ke)調(tiao), 可(ke)升(sheng)級(ji)至(zhi)0-2500μmol/m2/s
MC 1000-OD-WW:標(biao)配(pei)暖(nuan)白光LED,光強0-1000μmol/m2/s可(ke)調(tiao),更高(gao)光強可定制(zhi)
MC 1000-OD-MULTI:8個(ge)通(tong)道(dao)光源顏色不(bu)同,分(fen)別為(wei)紫(zi)光405nm,藍紫光450nm,藍光470nm或冷(leng)白(bai)光,暖白(bai)光,綠光540nm,黃橙(cheng)光590nm,紅(hong)光640nm,遠紅(hong)光730nm;光強0-1000μmol/m2/s可(ke)調(tiao)
MC 1000-OD-MIX:每個(ge)通(tong)道(dao)可配(pei)備多(duo)8種(zhong)不(bu)同顏色的LED光源,光源顏色可由(you)用(yong)戶(hu)定(ding)制(zhi),大(da)光強可達(da)2500μmol/m2/s
控光模式:可靜(jing)態或動態設置(zhi)光照程序(xu),如正弦(xian)、晝(zhou)夜(ye)節(jie)律(lv)、脈(mai)沖(chong)等
控制(zhi)單元(yuan)顯(xian)示屏(ping):可調(tiao)控培養程序(xu)和(he)顯示數(shu)據
氣流調(tiao)控:通過多(duo)管調(tiao)節(jie)閥(fa)對8個(ge)培(pei)養管手(shou)動獨(du)立(li)調控氣體(ti)流量(liang)
OD測(ce)量(liang)程序(xu):將(jiang)主機(ji)內(nei)存(cun)中的OD數(shu)據下(xia)載到電腦(nao)中並以圖(tu)表(biao)形(xing)式顯示,數(shu)據可(ke)導(dao)出為(wei)TXT或(huo)Excel文件(jian)

MC實時在線監(jian)測分(fen)析模塊(kuai)(含工作站(zhan)和(he)軟(ruan)件(jian)基(ji)礎(chu)版或(huo)高(gao)級(ji)版,選配)
同時控制(zhi)2臺MC1000(基(ji)礎(chu)版)或(huo)無(wu)限(xian)臺MC1000(高(gao)級(ji)版)
通(tong)過(guo)PBR軟(ruan)件(jian)動態調控光照和(he)溫(wen)度模(mo)式
通(tong)過(guo)光密(mi)度(OD680、OD720)變化實時監(jian)測藻(zao)類生(sheng)物(wu)量(liang)
對生長速率進行實時回(hui)歸(gui)分析
多(duo)數(shu)據管理(li)功能(neng)(過濾(lv)、查找、多(duo)重(zhong)導(dao)出)
可(ke)將(jiang)測(ce)量數(shu)據、培(pei)養程序(xu)和(he)其他(ta)信(xin)息(xi)保(bao)存到數(shu)據庫(ku)中(zhong)
通(tong)過(guo)GUI圖(tu)形(xing)用(yong)戶(hu)界(jie)面設置(zhi)培(pei)養程序(xu)並在線顯(xian)示測(ce)量(liang)數(shu)據圖(tu)
數(shu)據可(ke)導(dao)出為(wei)CSV、Excel或(huo)XML文件(jian)
支(zhi)持(chi)GMS高(gao)精(jing)度氣體(ti)混(hun)合(he)系統(tong)(僅(jin)限(xian)高(gao)級(ji)版)
用(yong)戶(hu)自(zi)編程培(pei)養程序(xu)(僅(jin)限(xian)高(gao)級(ji)版)
設(she)定(ding)實驗起(qi)始時間(僅限(xian)高(gao)級(ji)版)
電子(zi)郵件(jian)通知(僅限(xian)高(gao)級(ji)版)
GMS150高(gao)精(jing)度氣體(ti)混(hun)合(he)系統(tong)(選配):可控制(zhi)氣體(ti)流速和成分,標配為(wei)控制(zhi)氮(dan)氣/空(kong)氣和二(er)氧(yang)化碳,氣源需(xu)用(yong)戶(hu)自(zi)備
恒(heng)濁(zhuo)控制(zhi)模(mo)塊(選配):帶有(you)8個(ge)控制(zhi)閥(fa),可(ke)獨(du)立(li)控制(zhi)8個(ge)培(pei)養管的(de)濁度,由(you)軟(ruan)件(jian)自(zi)動控制(zhi)
O2/CO2監(jian)測系統(tong)(選配):8通道(dao)續(xu)批式監(jian)測藻(zao)類CO2吸(xi)收或光合(he)放氧(yang)通量(liang):
氧(yang)氣分析測量(liang):氧(yang)氣測量(liang)範圍0-100%,分(fen)辨率0.0001%,精(jing)確(que)度優(you)於0.1%,溫(wen)度、壓力(li)補(bu)償,數(shu)碼過(guo)濾(lv)(噪(zao)音)0-50秒可(ke)調(tiao),具(ju)兩(liang)行文字(zi)數(shu)字(zi)LCD背光顯示屏(ping),可同時顯示氧(yang)氣含量和(he)氣壓
二(er)氧(yang)化碳分析測量(liang):雙波(bo)長非色散(san)紅(hong)外(wai)技(ji)術,測量範圍0-5%或(huo)0-15%兩(liang)級(ji)選擇(雙程),分(fen)辨率優於0.0001%或(huo)1ppm(可達(da)0.1ppm),精(jing)確(que)度1%,通(tong)過(guo)軟(ruan)件(jian)溫(wen)度補(bu)償,具(ju)兩(liang)行文字(zi)數(shu)字(zi)LCD背光顯示屏(ping),可同時顯示CO2含量和(he)氣壓,具(ju)數(shu)碼過(guo)濾(lv)(噪(zao)音)功能(neng)
氣體(ti)抽(chou)樣與氣路(lu)切(qie)換(huan):具(ju)備隔(ge)膜(mo)泵(beng)、氣流控制(zhi)針(zhen)閥(fa)和(he)精(jing)密(mi)流量(liang)計(ji),氣路(lu)自(zi)動定(ding)時切(qie)換(huan)功能(neng)
藻(zao)類熒(ying)光測量(liang)模(mo)塊(選配):用(yong)於測(ce)量藻(zao)類熒(ying)光參數(shu)以反映藻(zao)類生(sheng)理(li)狀態及濃(nong)度,熒(ying)光測量(liang)程序(xu)包括Ft,QY,OJIP-test,NPQ、光響應(ying)曲線等,可(ke)選配探頭式測量(liang)或(huo)試管式測量(liang):
探頭式測量(liang):具(ju)備光纖測量(liang)探頭,可插(cha)入培(pei)養液中(zhong)原位(wei)測量(liang)藻(zao)類熒(ying)光參數(shu)
試管式測量(liang):具(ju)備測(ce)量杯,可(ke)取樣精(jing)確(que)測量藻(zao)類熒(ying)光參數(shu)及光密(mi)度值(zhi)
通(tong)訊(xun)方(fang)式:USB
尺寸:71×33×21 cm
重(zhong)量(liang):13kg
供(gong)電:110-240V

應(ying)用(yong)案(an)例:
不(bu)同CO2濃(nong)度下(xia)衣藻(zao)Chlamydomonas的(de)生(sheng)長(chang)曲線(Zhang,2014)
聚球(qiu)藻(zao)Synechococcus野(ye)生(sheng)型(xing)和△nblA的(de)生(sheng)長(chang)曲線(Yu,2015)
產地(di):捷(jie)克(ke)
參考(kao)文獻:
1. Barera S, et al. 2021. Effect of lhcsr gene dosage on oxidative stress and light use efficiency by Chlamydomonas reinhardtii cultures. Journal of Biotechnology 328: 0168-1656.
2. Pivato M, et al. 2021. Heterologous expression of cyanobacterial Orange Carotenoid Protein (OCP2) as a soluble carrier of ketocarotenoids in Chlamydomonas reinhardtii. Algal Research 55(16):102255.
3. Gachelin M, et al. 2021. Enhancing PUFA-rich polar lipids in Tisochrysis lutea using adaptive laboratory evolution (ALE) with oscillating thermal stress. Applied Microbiology and Biotechnology 105: 301-312.
4. Chen H, et al. 2021. A Novel Mode of Photoprotection Mediated by a Cysteine Residue in the Chlorophyll Protein IsiA. mBio 12(1).
5. Cecchin M, et al. 2021. CO2 supply modulates lipid remodelling, photosynthetic and respiratory activities in Chlorella species 18(2): 431842.
6. Dixit RB, et al. 2021. Secretomics: A Possible Biochemical Foot Printing Tool in Developing Microalgal C*tion Strategies. doi: 10.21203/rs.3.rs-163118/v1
7. Kareya MS, et al. 2020. Photosynthetic Carbon Partitioning and Metabolic Regulation in Response to Very-Low and High CO2 in Microchloropsis gaditana NIES 2587. Frontiers in Plant Science 11: 981.
8. Billey E, et al. 2021. Characterization of the Bubblegum acyl-CoA synthetase of Microchloropsis gaditana. Plant Physiology 185(3): 815-835.
9. Vonshak A, et al. 2020. Photosynthetic characterization of two Nannochloropsis species and its relevance to outdoor c*tion. Journal of Applied Phycology 32(2):909-922.
10. Dienst D, et al. (2020). High density c*tion for efficient sesquiterpenoid biosynthesis in Synechocystis sp. PCC 6803. Scientific Reports 10(1): 5932.
11. Weiner I, et al. 2020. CSO -A sequence optimization software for engineering chloroplast expression in Chlamydomonas reinhardtii. Algal Research 46: 101788.
12. Akma C, et al. 2020. Two-phase method of c*ting Coelastrella species for increased production of lipids and carotenoids. Bioresource Technology Reports 9: 100366.
13. Cecchin M, et al. 2020. Improved lipid productivity in Nannochloropsis gaditana in nitrogen-replete conditions by selection of pale green mutants. Biotechnology for Biofuels 13(1): 78.
14. Alvarenga D, et al. 2020. AcnSP – A Novel Small Protein Regulator of Aconitase Activity in the Cyanobacterium Synechocystis sp. PCC 6803. Frontiers in Microbiology 11: 1445.
15. Zhang B, et al. 2020. The carbonate concentration mechanism of Pyropia yezoensis (Rhodophyta): evidence from transcriptomics and biochemical data. BMC Plant Biology 20(1): 424.
16. Nzayisenga, JC, et al. 2020. Effects of light intensity on growth and lipid production in microalgae grown in wastewater. Biotechnology for Biofuels 13(284): 1179-1184.
17. Cecchin M, et al. 2020. Improved lipid productivity in Nannochloropsis gaditana in nitrogen-replete conditions by selection of pale green mutants. Biotechnology for Biofuels 13(6): 312.
18. Flamholz AI, et al. 2020. Functional reconstitution of a bacterial CO2 concentrating mechanism in Escherichia coli. eLife 9: e59882.
19. Gupta JK, et al. 2020. Overexpression of bicarbonate transporters in the marine cyanobacterium Synechococcus sp. PCC 7002 increases growth rate and glycogen accumulation. Biotechnology for Biofuels 13: 17.
20. Valev D, et al. 2020. Testing the Potential of Regulatory Sigma Factor Mutants for Wastewater Purification or Bioreactor Run in High Light. Current Microbiology 77(8) : 1590-1599.
21. Yao L, et al.. 2020. Pooled CRISPRi screening of the cyanobacterium Synechocystis sp PCC 6803 for enhanced industrial phenotypes. Nature Communications 11(1): 1666.
22. Shrameeta S, et al. 2020. Glycogen Metabolism Supports Photosynthesis Start through the Oxidative Pentose Phosphate Pathway in Cyanobacteria1. Plant Physiology 182(1):507-517.
23. Alessandra B, et al. 2020. Photosynthesis Regulation in Response to Fluctuating Light in the Secondary Endosymbiont Alga Nannochloropsis gaditana. Plant & Cell Physiology 61(1): 41-52..






