Remote Infusion Only PHD ULTRA™ Syringe Pumps
The PHD ULTRA™ is the solution for your most demanding fluidics applications. This remote infusion only syringe pump represents the latest technology in syringe pumps and was developed utilizing the feedback of the world's largest populations of syringe pump users.
The PHD ULTRA™ will change the way you think about syringe pumps. There are three major areas which make the PHD ULTRA™ the new standard for syringe pumps:
- Mechanical drive mechanism and syringe holding mechanics to achieve the highest performance of any syringe pump
- EZ PRO Software and user interface allow easy syringe set up
- LCD, high resolution color touch screen for powerful functionality, yet easy to use - Connectivity: RS 232 and USB for PC; RS 485 for daisy chain
The PHD ULTRA™ is the solution for your most demanding fluidics applications. This remote infusion only syringe pump represents the latest technology in syringe pumps and was developed utilizing the feedback of the world's largest populations of syringe pump users.
The PHD ULTRA™ Syringe Pump series is a family of high-accuracy, microliter- and milliliter-compatible pumps designed for versatile technical use including mass spectroscopy, calibration, drug and nutritional infusions, microdialysis, dispensing, chromatography and LC/HPLC.
The PHD ULTRA™ will change the way you think about syringe pumps. There are three major areas which make the PHD ULTRA™ the new standard for syringe pumps:
- Mechanical drive mechanism and syringe holding mechanics to achieve the highest performance of any syringe pump
- EZ PRO Software and user interface allow easy syringe set up
- LCD, high resolution color touch screen for powerful functionality, yet easy to use - Connectivity—RS 232 and USB for PC; RS 485 for daisy chain
Features
- Advanced drive mechanism for unmatched smooth flow, accuracy and precision
- From picoliter to 216 ml/min flow rates
- Quick start infusion method
- Alpha/numeric keyboard without a PC
- Real and relative time clocks
- Icon operation
- New color LCD touch screen
- Up-front control knobs for ease of operation
- Vertical or horizontal orientation
- Adjustable linear force to 75 lb across the entire flow range
- Daisy chain
- CE, ETL(UL, CSA), WEEE, EU RoHS + CB Scheme
- 2-year warranty
Applications
- Nanofluidics
- Drug/Nutritional infusions
- Electro-spinning
- Reaction chamber addition
- Mass Spec calibration
- Feeding cells
- Low pressure chromatography
- Continuous flow
- Flow programming
- Gradients
- % composition step changes
- Large flow deliveries
- I/O interactive experiments
Highest Accuracy and Precision
The PHD ULTRA™ syringe pump family has a fluidics drive mechanism which assures ease of use and high performance, for smoother, more accurate flow rates than any other syringe pump. Flow rates are accurate within 0.25% and reproducibility within 0.05%. A microprocessor-controlled, small step angle stepping motor drives a lead screw and pusher block. Advanced micro-stepping techniques are employed to further reduce the step angle to eliminate flow pulsation.
Widest Flow Rate Range
This pump is engineered to provide flow accuracy within 0.25% and reproducibility within 0.05%. Single or multi syringes from 0.5 µl to 140 ml pump at a range of 0.0001 µl/hr to 216 ml/min.
Maximum Experimental Versatility
The PHD ULTRA™ features true Multi-Pump Operation. The pump can be oriented vertically or horizontally for optimum experimental connectivity. This pump comes standard to hold 2 syringes, but can be purchase with 3 other syringe racks: 6 to 10 syringe rack, 4 x 140 ml syringe rack and 4 x microliter syringe rack.
Easy-to-Use Interface
The PHD ULTRA™ color LCD touch screen graphic interface is divided into three basic areas: Operations Display, Message Area, and Navigation. This configuration allows you to easily move through all menu selections and data entry by gently touching the onscreen buttons with a finger or the tip of a soft, non-sharp object such as a pencil eraser.
The Quick Start screen is the primary home for the applications. From those screens you access all the commands needed to operate the PHD ULTRA™, as well as the main system settings.
The Message Area of the touch screen is used to display helpful instructions for the currently displayed screen. It is also used to display error or warning messages to indicate problem conditions in a Method or error conditions during pump operation.
You can control operations directly with the touch screen or remotely from an independent computer or device via the external I/O interface.
Description of Typical Applications
- Animal Infusions—the PHD ULTRA™ will control the delivery of varying % of nutrients or drugs infused into animals, flush lines using catheters, needles, cannulae or microdialysis.
- Proportioning and Delivering of Mixtures—mixing gradients or proportions with independent control of two liquids.
- Aerosol for Coating—the pump at high pressure can create an aerosol for the delivery of coating materials such as pharmaceutical tablets and aerosol studies.
- Delivery to Mass Spectroscopy—the delivery of fluids to the MS for calibration, matrix addition or ESI sample.
- Compensating Flows—the continuous infusion and simultaneous withdrawal of liquids for cell cultures or perfusion chambers.
- Dispensers/Injectors—Adhesives, Cell injection, MRI Dyes, Activators/Enzymes, Flow injection, Microreaction vessels, or Stereotaxic delivery.
Advanced GLP Documentation Features
- Experiment parameter download information to PC
- Alpha/numeric capability
Pump Models
This version of the PHD ULTRA™ Syringe Pump is available in infuse only (other models available).
Syringe Racks
The PHD ULTRA™ is offered with a variety of syringe racks to meet your specific application.
Upgrade
We offer pumps that can be upgraded. If you buy an infuse/withdraw pump and later decide you want programmability you can upgrade it. You pay a lot less than buying a whole new pump. (pump must be returned to the factory for all upgrades)
Accessories
A full range of accessories are compatible with the PHD ULTRA™ including syringe heaters, in-line heaters and coolers, nanofluidic circuits, connectors, tubing, syringes and more.
Specifications | 70-3305 |
---|---|
Accuracy | ±0.25% |
Classification | Class I |
Dimensions, Control Box, L x D x H | 12 x 8.5 x 4.25 in (30.48 x 21.59 x 10.80 cm) |
Dimensions, Remote Box L x D x H | 11.0 x 5.3 x 6.5 in (27.94 x 13.46 x 16.51 cm) |
Display | 4.3" WQVGA TFT Color Display with Touchpad |
Drive Motor | 0.9° Stepper Motor |
Environmental Humidity | 20% to 80% RH, non condensing |
Environmental Operating Temperature | 40°F to 104°F (4°C to 40°C) |
Environmental Storage Temperature | 14°F to 158°F (-10°C to 70°C) |
Flow Rate Maximum | 216 ml/min using 140 ml syringe |
Flow Rate Minimum | 1.5 pl/min using 0.5 µl syringe |
I/O & TTL Connectors | 15 pin D-Sub Connector |
Input Power | 50 W, 0.5 A fuse |
Installation Category | II |
Max Linear Force | 75 lb @ 100% Force Selection |
Mode of Operation | Continuous |
Motor Drive Control | Microprocessor with 1/16 microstepping |
Net Weight | 13.4 lb (6.1 kg) |
No of Syringes | 2 |
Non Volatile Memory | Storage of all settings |
Number of Microsteps per one rev of Lead Screw | 12,800 |
Pollution Degree | 1 |
Pump Configuration | Remote |
Pump Function | Infusion Only |
Pusher Travel Rate Maximum | 190.8 mm/min |
Pusher Travel Rate Minimum | 0.18 µm/min |
RS-232 Connector | 9 pin D-Sub Connector |
Regulatory Certifications | CE, UL, CSA, CB Scheme, EU RoHS |
Step Rate Maximum | 26 µsec/µstep |
Step Rate Minimum | 27.5 sec/µstep |
Syringe Rack Type | Standard Rack |
Syringe Size Maximum | 140 ml |
Syringe Size Minimum | 0.5 µl |
USB Connectors | Type B |
Voltage Range | 100-240 VAC, 50/60 Hz |
Xizhong Cui, PhD; Yvonne Fitz, BS; Yan Li, MD; Ping Qiu, Ph.D; Steve Solomon, Ph D; Mariam Al-Hamad, BS & Peter Q. Eichacker, MD (2013 ) Pilot Investigation Of A Multi-Channel Automated Drug Delivery System For Blood Pressure Regulated Vasopressor Administration In A Rat Model ATS Journals
Amber L. Alhadeff , Matthew R. Hayes , Harvey J. Grill (2014 ) Leptin receptor signaling in the lateral parabrachial nucleus contributes to the control of food intake American Journal of Physiology
Vivek Sharma, Simon J. Haward, James Serdy, Bavand Keshavarz, Asa Soderlund, Phil Threlfall-Holmes & Gareth H. McKinley (2015 ) The rheology of aqueous solutions of ethyl hydroxy-ethyl cellulose (EHEC) and its hydrophobically modified analogue (hmEHEC): extensional flow response in capillary break-up, jetting (ROJER) and in a cross-slot extensional rheometer Royal Society of Chemistry
Amber L. Alhadeff, Laura E. Rupprecht, and Matthew R. Hayes (2011 ) GLP-1 Neurons in the Nucleus of the Solitary Tract Project Directly to the Ventral Tegmental Area and Nucleus Accumbens to Control for Food Intake Endocrine Society
Ryan W. Mutharda & Scott L. Diamond (2013 ) Side view thrombosis microfluidic device with controllable wall shear rate and transthrombus pressure gradient Lab On A Chip
G. L. Scaglione, S. Lancellotti1, M. Papi1, M. De Spirito, A. Maiorana, L. Baronciani, M. T. Pagliari, A. Arcovito, E. Di Stasio, F. Peyvandi, R. De Cristofaro (2013 ) The type 2B p.R1306W natural mutation of von Willebrand factor dramatically enhances the multimer sensitivity to shear stress The Journal of Thrombosis and Haemostasis
Youri Gendelb, Oana Davidb & Matthias Wesslinga (2013 ) Microtubes made of carbon nanotubes Science Direct
Jidong Wang, Wenwen Chen, Jiashu Sun, Chao Liu, Qifang Yin, Lu Zhang, Yunlei Xianyu, Xinghua Shi, Guoqing Hu & Xingyu Jiang (2014 ) A microfluidic tubing method and its application for controlled synthesis of polymeric nanoparticles Lab On A Chip
J. D. Welsh, T. V. Colace, R. W. Muthard, T. J. Stalker, L. F. Brass & S. L. Diamond (2012 ) Platelet-targeting sensor reveals thrombin gradients within blood clots forming in microfluidic assays and in mouse The Journal of Thrombosis and Haemostasis
Dominika Ogończyk, Mateusz Gocyla, Marcin Opallo (2014 ) Electrochemical response of catalytic nanoparticles in Flow Injection Analysis system Science Direct
James O. Hardin, Thomas J. Ober, Alexander D. Valentine & Jennifer A. Lewis (2015 ) Microfluidic Printheads for Multimaterial 3D Printing of Viscoelastic Inks Advanced Materials
Nan Li, Miguel F. Diaz, Pamela L. Wenzel Ph.D. (2014 ) Application of Fluid Mechanical Force to Embryonic Sources of Hemogenic Endothelium and Hematopoietic Stem Cells Methods in Molecular Biology
Wahyudionoa, Kanako Murakamia, Siti Machmudahb, Mitsuru Sasakia & Motonobu Gotob (2011 ) Production of nanofibers by electrospinning under pressurized CO2 High Pressure Research: An International Journal
Iulia - Rodica Damian, Nicoleta Octavia Tănase, Ștefan - Mugur Simionescu, Mona Mihăilescu (2015 ) Vortex Rings - Experiments and Numerical Simulations Mathematical Modelling in Civil Engineering
C. Liua, J.D. Yeagera & K.J. Ramosa (2015 ) Bonding energy of Sylgard on fused quartz: an experimental investigation Philosophical Magazine
Stephen G. Newman , Kyoungmi Lee , Jianghuai Cai , Lu Yang , William H. Green , and Klavs F. Jensen (2014 ) Continuous Thermal Oxidation of Alkenes with Nitrous Oxide in a Packed Bed Reactor Industrial & Engineering Chemisrty Research
Jinyoung Baekm Dr. Peter M. Allen, Prof. Moungi G. Bawendi & Prof. Klavs F. Jensen (2010 ) Investigation of Indium Phosphide Nanocrystal Synthesis Using a High-Temperature and High-Pressure Continuous Flow Microreactor Angwandte Chemie
I. R. G. Ogilvie, V. J. Siebe, M. C. Mowlem, and H. Morgan (2011 ) Temporal Optimization of Microfluidic Colorimetric Sensors by Use of Multiplexed Stop-Flow Architecture Analytical Chemistry
Isabella Pallotta, Ph.D., Michael Lovett, Ph.D., David L. Kaplan, Ph.D. & Alessandra Balduini, M.D. (2011 ) Three-Dimensional System for the In Vitro Study of Megakaryocytes and Functional Platelet Production Using Silk-Based Vascular Tubes Tissue Engineering
Laurent Pellegatti and Stephen L. Buchwald (2012 ) Continuous-Flow Preparation and Use of β-Chloro Enals Using the Vilsmeier Reagent Organic Process Research & Development