100% TA INSTRUMENTS NANO ITC 2g MODEL 5300 CALORIMETER FREESHIP
100% TA INSTRUMENTS NANO ITC 2g MODEL 5300 CALORIMETER FREESHIP
This listing is for a 100% 90-day-Warranty: TA INSTRUMENTS NANO ITC 2g MODEL 5300 CALORIMETER as can be seen in the pictures.
IMPORTANT: This TA INSTRUMENTS NANO ITC 5300 needs the accessory computer and hardware which should include the Instrumental Control Software, this unit does not need nor include the software and will work perfectly so long as the accessory hardware user has or should have does include the Software installed in it!
Model: TA Instruments Nano ITC 2g Model 5300 Calorimeter
Manufacturer: TA Instruments
Type: Calorimeter
Condition: This fully tested TA Instruments Nano ITC 2g Model 5300 Calorimeter IS GUARANTEED to perform at factory specifications and that's why we offer a 90-DAY-WARRANTY on this unit!!!
These TA Instruments Nano ITC 2g Model 5300 Calorimeter cost a pretty penny and this one is in Great Condition!
Picture is actual item buyer will receive.
TECHNICAL INFORMATION IN ITALICS BLUE BELOW WAS TAKEN FROM THE WEB:
tainstruments.com/nano-itc/
DESCRIPTION
The Nano ITC Standard Volume and Nano ITC Low Volume isothermal titration calorimeters are designed to provide maximum sensitivity and flexibility for the study of biomolecular binding. Both instruments use solid state thermoelectric heating and cooling systems to precisely control temperature, and have the same flexible injection syringe assemblies for efficient and accurate delivery of titrant. The true isothermal power compensation design of the Nano ITC instruments provides the highest sensitivity and flexibility for an ultrasensitive ITC analyzing biological samples in-solution.
Cell Geometry Fixed Cylindrical Fixed Cylindrical
Cell Composition 24K / Hastelloy 24K
Active Cell Volume 1.0 mL 190 µL
Operating Temperature Range 2 °C to 80 °C 2 °C to 80 °C
Minimum Detectable Heat 0.1 µJ 0.05 µJ
Maximum Measureable Heat 5,000 µJ 5,000 µJ
Low Noise Level 0.0025 µW 0.0014 µW
Baseline Stability 0.02 µW/hr 0.02 µW/hr
Response Time 13 sec / 18 sec 11 sec
Injection Syringe Volume 100 µL and 250 µL 50 µL
Minimum Injection Volume 0.12 µL / 0.26 µL 0.06 µL
Stirring Speed Range 0 to 400 rpm 0 to 400 rpm
The NANO ITC features many of the high performance
technologies found in the Affinity ITC. It is a versatile, highsensitivity, cost-effective isothermal titration calorimeter that
can easily outperform competitive systems in a wide range
of applications.
Features and Benefits:
• Choice of Standard Volume (1.0 mL) or Low Volume (190 µL) cells
• Solid-state active heating and cooling for true isothermal temperature control
• High precision injection buret for accurate titrant delivery
• Unique removable injection syringe for fast, reliable loading and cleaning
• Powerful ITCRun and NanoAnalyze for the most comprehensive suite of tools for
method optimization, model fitting, batch analysis, graphing and data export
More Technical information on the TA INSTRUMENTS NANO can be found online at:
tainstruments.com/pdf/brochure/BROCH-MICRO-EN.pdf
The Nano ITC cell is optimized in shape, material, and volume
to provide the greatest measurement accuracy over the
widest range of sample chemistries.
Choice of Cell Volumes:
The Nano ITC features two fixed-in-place calorimetric cells: a sample cell where injections
take place and a matching reference cell. Two cell volumes are available: 1.0 mL
(Standard Volume) and 190 µL (Low Volume).
Selection of cell volume depends on the range of binding constants to be measured
(Kd: mM to low nM) and the availability of sample. TA Instruments’ experienced application
teams can recommend the best instrument configuration for your specific measurement
requirements.
Cylindrical Cell Geometry:
The cylindrical cell geometry maximizes stirring efficiency, eliminates dead zones and
entrapped air bubbles, which are common in competitive designs.
Cell Composition:
To maximize measurement accuracy and response, the Nano ITC Standard Volume
configuration has cells constructed of either 24 k 99.999% Gold (Au0) or Hastelloy. The
Low volume configuration is only available with the Gold (Au0) cells. The inert chemical
properties of Gold, its high thermal conductivity and its ability to be cleaned with strong
acids and bases make it the preferred choice for ultrasensitive ITC instruments.
Applications:
Low and Standard Volume Comparison
The sensitivity of the Nano ITC Low Volume ensures that with less sample the instrument will generate
accurate and reproducible results in a shorter overall titration time. The Standard Volume and Low
Volume Nano ITC instruments provide the flexibility and sensitivity for performing a wide variety of ITC
experiments.
Characterizing Binding Interactions by ITC
All binding events are accompanied by the evolution or absorption of heat (a change
in enthalpy, ΔH). In a single ITC experiment a full thermodynamic characterization of
the binding reactions can be obtained. With the appropriate experimental design,
fundamental information about the molecular interactions driving the process, as well
as the stoichiometry of binding (n) and the binding constant (Kd) is generated. The first
figure shows a typical incremental titration (20, 5 μL injections) of an inhibitor, 2’-CMP,
titrated into RNase A; n 0.99, Kd 5.92x10-7 M, and ΔH -64.4 kJ mol-1. The second figure
shows the same experiment, plotting the individual integrated peak areas vs the ratio
of the two binding molecules. As the binding sites become saturated, the amount of
heat produced with individual injections decreases. The resulting titration curve reveals
valuable information on the enthalpy (ΔH), entropy (ΔS) and overall Gibbs free energy
(ΔG0) of the reaction taking place in the calorimeter. ITC is a powerful analytical tool and
considered the most sensitive assay technique for characterizing the fundamental driving
forces of molecular binding reactions.
Protein Interactions
When two proteins interact and bind, conformational changes in the proteins, and
rearrangement of the solvent in the vicinity of the binding site, result in the absorption
or generation of heat. Quantification of this reaction heat by ITC provides a complete
thermodynamic description of the binding interaction, the stoichiometry of binding, and
the association constant. This figure contains the titration data of porcine pancreatic
trypsin into soybean trypsin inhibitor using a Nano ITC. Twenty, 5 µL aliquots of ligand were
titrated into the sample cell while the temperature of the system was maintained at 25 °C.
Top panel: The signal (heat) produced following each addition of protein to the inhibitor.
Bottom panel: Integration of the heats over the time course of the experiment; the µJ in
each peak are plotted against the mole ratio of the titrant to inhibitor.
Characterization of Enzyme Kinetics
Every reaction generates or absorbs heat, so every reaction can in principle be studied
by calorimetry. In practice it has been shown that representative enzymes from every EC
classification can be analyzed kinetically using ITC. In addition, ITC analyses are rapid,
precise, nondestructive, compatible with both physiological and synthetic substrates, and
are as sensitive as spectroscopic techniques but do not require a spectroscopic label
or chemical tag. Importantly, ITC analyses of enzyme kinetics are also straightforward.
The figure shows the hydrolysis of a single 10 µL injection of trypsin into a solution of BAEE
in the absence (blue) and presence (red) of benzamidine, a competitive inhibitor. The
area under both curves (representing the total heat output for complete conversion of
substrate to product) is the same either in the presence or absence of inhibitor, allowing
the KM and kcat of the reaction under both conditions to be calculated, as well as the
inhibition constant.
Continuous Single Injection
Continuous single injection titration is an attractive alternative to the traditional incremental
titration ITC for samples exhibiting very rapid binding reactions. These continuous injection
experiments can be completed in less total time than normally required for a full set of
incremental titrations. This technique provides accurate determinations of stoichiometry
(n) and enthalpy (ΔH) for a wide range of binding constants. Continuous injection and
incremental injection experiments can be performed in both the ITC standard volume
and low volume instruments with no alterations in hardware or software supplied with the
instruments.
The Nano ITC utilizes multiple solid-state thermoelectric elements for active
heating and cooling of the sample and reference cells. A unique removable
buret and injection syringe ensures easy sample loading and accurate
sample delivery.
Accurate Temperature Control with Active Heating and Cooling:
• Faster heating and cooling between temperature set points
• Rapid equilibration at temperature set point
• Active temperature control eliminates drift on long ITC experiments
The absorption or evolution of heat as a result of a binding reaction is detected by the thermoelectric
elements after which heater power is adjusted to maintain the temperature difference between the sample
and reference cell at zero. The combination of power compensation and thermoelectric temperature control
ensures the fastest response and highest resolution for ITC.
Unique Injection Buret and Removable Injection Syringe:
• Accurate control of the titrant volume delivery and user-selectable stir speed is accomplished with a
unique, easily removed buret
• Removable injection syringes allows thorough cleaning and easy sample loading.
• Partial syringe fills for short titrations are user-programmable in the instrument control software.
All of our equipment is fully tested to perform at factory specifications before being shipped.
Used and in excellent working order.
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