Multi-channels Peristaltic Pump 24 Channels BT100-1L

This multi-channel Peristaltic Pump (BT100-1L) can generate adjustable flow rates in the range of 2 µL/min - 500 mL/min, and the high output torque can drive up to 24 channels. The graphic LCD displays running parameters including the status and flow rates. The flow rate can be calibrated with high accuracy. The pump can be controlled through the control panel, an external control interface or a RS485 interface, and the running parameters can be saved automatically.

Key Features

Display can switch between flow rates and rpm
Calibration capability for more accurate flow rates
DG series pump heads options: 6 rollers or 10 rollers
Graphic LCD together with rotary encoded switch makes it user-friendly and easy to use
Higher torque to accept multiple pump heads and channels
RS485 communication interface available: Offering communication protocol and customizing programs according to application requirements

Typical Applications

Precision liquid handling or delivery
3D cell culture
Stem cells assays
Perfusion System
Live cell imaging
Bio-lab applications, microfluidics
Suitable for laboratory and industrial application

Model Number	BT100-1L
Rotational Rate	0.1 - 100 rpm, CW/CCW
Rotational Rate Precision	0.1 rpm
Control Mode	Control panel, external signal control and communication control are available
Rate Control Method	Rotary coded switch coupled with membrane keypad
Display	128 × 32 graphic LCD for current running state
External Control Interface	Start/stop, direction and speed control ( 0 - 5V, 0 - 10V, and 4 - 20mA, external control module optional)
Communication Interface	RS485
Power Supply	220 VAC ± 10% 50/60 Hz (standard) or 110 VAC ± 10% 50/60 Hz (optional)
Power Consumption	<50 W
Operation Temperature	Temperature 0 - 40 °C
Humidity	<80%
Dimensions (L × W × H)	202 × 160 × 239 (mm)
Pump Weight	5.3 kg
IP Rating	IP 31

Pump Head Selection

Pump Head	Tubing	Max Flow Rate (mL/min)	Weight (kg)
DG15-24	16# 25# 17#	300	6.1
DG15-28	13# 14#, ID<3.17mm & Wall thickness 0.8-1.0 mm	75	5.9
DG15-48	13# 14#, ID<3.17mm & Wall thickness 0.8-1.0 mm	75	5.9
DG series 6 rollers	ID< 3.17 mm & Wall thickness 0.8-1.0 mm	48	5.7-8.6
DG series 10 rollers	ID <3.17mm & Wall thickness 0.8 -1.0 mm	32	5.7-8.6
YZ1515x	13# 14# 19# 16# 25# 17# 18#	380	5.7-6.9
YZII15	13 # 14# 19# 16# 25# 17# 16#	380	5.7-6.9
YZ2515x	15# 24#	270	5.7-6.9
YZII25	15# 24# 35# 36#	500	5.7-6.1
DMD15-13-B/D	15# 24# 35# 36#	500	5.7-6.1

The Pump Model Used in Recent Literature

[1] Huong, Tran, and Sokhee Jung. "Electrochemistry and influence of flowrate to a reverse electro-dialysis stack in microbial reverse electrodialysis cell." Proceedings of the Annual Conference of Japan Society of Material Cycles and Waste Management The 31st Annual Conference of Japan Society of Material Cycles and Waste Management. Japan Society of Material Cycles and Waste Management, 2020.

[2] Zhang, Shuai, et al. "A system composed of a biofilm electrode reactor and a microbial fuel cell-constructed wetland exhibited efficient sulfamethoxazole removal but induced sul genes." Bioresource technology 256 (2018): 224-231

[3] Wang, Yifei, Haiou Huang, and Xiuming Wei. "Influence of wastewater precoagulation on adsorptive filtration of pharmaceutical and personal care products by carbon nanotube membranes." Chemical Engineering Journal 333 (2018): 66-75.

[4] Liao, Kailingli, et al. "Use of convertible flow cells to simulate the impacts of anthropogenic activities on river biofilm bacterial communities." Science of The Total Environment 653 (2019): 148-156.

[5] Chen, Xiaoyu, et al. "High efficient bio-denitrification of nitrate contaminated water with low ammonium and sulfate production by a sulfur/pyrite-based bioreactor." Bioresource Technology (2022): 126669.

[6] Yu, Jinlan, et al. "Spectroscopic sensing of membrane fouling potential in a long-term running anaerobic membrane bioreactor." Chemical Engineering Journal 426 (2021): 130799.

[7] Zhong, Nianbing, et al. "Intimately coupling photocatalysis with phenolics biodegradation and photosynthesis." Chemical Engineering Journal 425 (2021): 130666.

[8] Chu, Na, et al. "Indicators of water biotoxicity obtained from turn-off microbial electrochemical sensors." Chemosphere 286 (2022): 131725.

[9] Moallaei, Hossein, et al. "Application of Fusarium sp. immobilized on multi-walled carbon nanotubes for solid-phase extraction and trace analysis of heavy metal cations." Food Chemistry 322 (2020): 126757.

[10] Nechaykina, O. V., et al. "Effect of Unsymmetrical Dimethylhydrazine on Isolated Heart and Lymphatic Vessels." Bulletin of Experimental Biology and Medicine (2022): 1-4.

[11] Chu, Youqun, Haixia Zhou, and Huimin Zhao. "Bismuth trioxide modified carbon nanotubes as negative electrode catalysts for all vanadium redox flow batteries." Int. J. Electrochem. Sci 15 (2020): 7733-43.

[12] Azhdarpoor, Abooalfazl, Leila Abbasi, and Mohammad Reza Samaei. "Investigation of a new double-stage aerobic-anoxic continuous-flow cyclic baffled bioreactor efficiency for wastewater nutrient removal." Journal of environmental management 211 (2018): 1-8

Thumb	File information
	Longer BT100-1L Peristaltic Pump Specification Sheet.pdf File Size 1.76MB
	Longer-BT100-1L Operating Manual Aurora Pro Scientific.pdf File Size 216.5KB