Micro Reaction Calorimeter

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C3 Prozess- und Analysentechnik GmbH Produktinformation µrc Micro Reaction Calorimeter Tel. (089) 45 60 06 70 info@c3-analysentechnik.de www.c3-analysentechnik.de

The THT micro reaction calorimeter µrc Titration calorimetry isothermal calorimetry and scanning calorimetry - all in one instrument C H E M I C A L A P P L I C A T I O N S B R O C H U R E

Introduction and reaction kinetics The THT Micro Reaction Calorimeter (µrc ) has a wide range of applications in the chemical, pharmaceutical and related fields. This brochure shows how using a microcalorimeter can help chemists and engineers in everyday tasks. Some of the applications detailed within this brochure include: Reaction Kinetics Process Development Scanning Calorimetry Thermal Stability Heat Capacity Measurement Adhesive Curing Reactions Waste Management End Point Determination Hazard Analysis µrc has the capability to measure both kinetic and thermodynamic parameters in both rapid and slow reactions and in solids, liquids or gases. Measurements made by calorimetry are non-destructive and non-invasive making it valuable for initial analyses and for systems where other techniques fail. With the µrc there is minimal sample preparation and no limitation on the physical state of the material. Systems can be studied under ambient or modified environmental conditions. All chemical, physical and biological reactions are accompanied by heat change. These reactions, though sometimes subtle, can be measured using calorimetry. This powerful analysis method works without modification of the sample or process. The THT Micro Reaction Calorimeter is based on power compensation technology making it faster in both signal response and temperature variation. Designed for maximum flexibility, the Kinetics Determination Kinetic analysis can be tedious and time consuming. The use of micro calorimetry to obtain kinetic parameters has been recognized internationally and is an essential tool in kinetics research. Since reaction rate is directly proportional to heat-flow, it is possible to utilise the data from a µrc calorimeter to calculate reaction conversion at any point. From here, every data point within the experiment can be used for an initial-rate type determination. Fitting of models to the calorimetric data can also be used to elucidate detailed kinetic mechanism. A kinetics fitting and modelling package (µrc-pro) is available as an option with the Micro Reaction Calorimeter. This software is specifically written for use with the THT µrc and contains automatic data importing, advanced data correction, kinetic fitting and modelling. Complex models may be used to provide fitting to consecutive, non-integral, parallel and auto-catalytic kinetics with highly efficient data optimisation routines. Heat flow vs time at different temperatures hydrolysis of methyl paraben* Dotted line represents the temperature steps k = 3.07 10-4 s -1 H = 52.1 kj mol -1 Ea = 60.8 kj mol -1 For slower reactions the Micro Reaction Calorimeter can be used as an isothermal (or step-isothermal) calorimeter giving rapid access to traditional kinetic methods. Arrhenius plot from micro reaction calorimeter data* * reference: M. A. A. O Neill et al : Journal of Thermal Analysis and Calorimetry, Vol. 84 (2006) 2, 301 306

Process development & hazard analysis Heat Capacity Measurement The µrc can be used to rapidly and accurately measure the heat capacity of solids, liquids and mixtures. Applying small temperature steps to the material in question allows the heat required to be measured. Using these data can significantly improve the data measured using larger reaction calorimeters. Process deviation studies have never been easier. Instead of generating several litres of waste over several hours for each variant considered, the micro calorimeter can generate the same information in a few minutes. This will allow proper consideration of all possible maloperations where before, time, cost and material availability may have limited the application. The more considerations of credible misoperation that are performed the safer a plant and process are. THT aim to re-empower the safety professional by providing new technologies which can considerably improve the way hazard studies are performed. Heat Capacity measurement of Acetone Disposable Glass Vial High Pressure Vials Process Hazard Analysis The Micro Reaction Calorimeter provides hazard analysis with both speed and flexibility. Working with less than 2ml total volume reduces costs, waste and time. The µrc is capable of reducing the time requirement of a reaction calorimetry study on a process from several days to a few hours. Additional options such as a pressure handling option and high pressure cells will allow users to monitor pressure (up to 10 bar) and gas formation either as a function of reaction conversion or, in the case of scanning experiments, as a function of temperature. The system can also function with disposable syringes for use with highly aggressive materials. Process Development The µrc is easy to use which allows any chemist or engineer the ability to rapidly investigate whatever reaction parameters they desire. Combining modern DOE approaches to experimental design of calorimetry tests can provide users with information on reactant conversion, material accumulation, competitive reactions, inhibition and catalysis. Conversion and heat-flow from hydrolysis reaction Power compensation calorimetry measures in units of power meaning that calculation of reaction enthalpy is simply performed by dividing heat-flow integral (automatically produced) by quantity. Using the different modes of injection (single, multiple or timed) allows batch and semi-batch processes to be simulated under safe controlled conditions. Kinetic controlled reaction in RC Automated addition of materials allows unattended, walk-away operation and the options of disposable vials and syringes keeps costs to the minimum when conducting many reactions.

Catalysts, cements & pharmaceuticals Catalyst Screening Although many reactions run better when catalysed it is very difficult to know the best catalyst to use. A recent survey of catalyst manufacturers suggested that in excess of 1000 versions of alumina supported platinum exist. This raises questions. Which is the best system? What are the best conditions? The ability to measure both kinetics and thermodynamics simultaneously allows users to select the parameters which are important to their process and monitor those as the catalyst is changed. High pressure vessels (up to 10bar) now available with the Micro Reaction Calorimeter allow gas phase reactions (e.g. hydrogenation) to be examined. The µrc can be supplied with a high pressure transducer for direct measurement of gas uptake during reaction or gas evolution measurement. Our µrc-pro, dedicated kinetics package gives users the ability to easily import data directly into a specialist kinetics analysis software and then to model the reaction using a wide range of purpose designed systems. µrc-pro is compatible with the CISP software products which allows full-scale models of reactions to be implemented for reactor modelling, runaway prediction and other useful parameters. Excipient Compatibility Screening The three temperature modes of the µrc make it a very useful and flexible tool for excipient compatibility assessment. Using the device in an isothermal mode allows auto-catalytic and slow reactions to be monitored. Adhesive Curing Materials studies including adhesive curing, cement hydration and other such processes can be easily studied using the micro reaction calorimeter. The disposable vials make the system an ideal tool for chemistries where materials harden, set or gel. Being able to study these processes as a function of temperature is an ideal way of gaining valuable thermokinetic data which is otherwise unavailable. Simultaneous Titration & Pressure Measurement addition and utilises a fixed needle reusable syringe. The syringes tower is now available that incorporates a second 22 gauge needle, this needle is fixed in place next to the standard titration syringe and connects via a 1/16 Swagelok connector to the pressure transducer. This arrangement is ideally suited to users requiring simultaneous titration and pressure measurement. Pressure Line Needle Titration Line Needle Syringe tower with pressure needle Standard crimp top sample vials with natural rubber PTFE faced septa lid hold pressure up to 5bar. Comparison of the thermal response between Aspirin and two standard excipients, Talc and Magnesium Sterate Step-isothermal calorimetry will provide an accelerated method by which thermal stability assessments can be reduced from weeks to hours. Temperature scanning can also be used to detect reaction onset. Working as a macro-scale DSC, the µrc can provide onset information where lack of material consistency requires the use of larger volumes of material. Pressure and heat data from a titration experiment consisting of three, NaHCO3 + HNO3 -----> NaNO3 + H2O + CO2

Titration, scanning, solid addition and dissolution End Point Determination The ability of the µrc to measure small heats of reaction means that it can be used to detect subtle changes in heat output (and therefore reaction) where other indicators may prove unavailable or unreliable. The titration function of the microcalorimeter can be used to determine the stoichiometric quantities of reactants required to achieve full conversion. Plunger Sample Dissolution Experiments Binding exotherms as equivalence is reached As well as binding exotherms, titrations can be conducted with traditional acid-base type experiments to determine acidic concentration and other parameters where traditional colorimetric determination is not possible (in highly coloured or turbid solutions). The enthalpy of solution is an important parameter in both chemistry and pharmaceutics. Using the Solid Addition System, heats of solution can be measured reliably and repeatedly without error. The solid is loaded into the addition system and the base of the system sealed using a Teflon disk. The plunger is then lowered at the appropriate time in order to introduce a wellequilibrated material into the solution. Scanning Calorimetry The power compensation system used in the µrc means that temperature scanning may be used as a means of determining many process variables. From reaction onset to melting and crystallisation points the µrc has the ability to detect chemical and physical processes as a function of temperature. Enthalpy of solution experiment for KCl KCl Mass (mg) Heat (J) Enthalpy of Solution (J/g) Endothermic result from temperature scan at 1 C/min Solid Additions Although the liquid titration system supplied with the micro reaction calorimeter is very efficient to use and very useful, sometimes it can be necessary to add solids into a liquid. THT has developed a specialised system for the addition of solids to the µrc during an experiment. The schematic illustrates the operation of the system. 34.3-7.58 221.0 21.4-4.85 226.6 27.3-6.28 230.0 43.0-9.69 225.3 Average (J/g) Literature Value (J/g) % Error (w.r.t Literature) Enthalpy of solution results for KCl 225.7 231.0 2.3%

Biology, education and specification Biological Applications The µrc can be used for a wide range of bio-chemical applications including binding studies (of proteins, lipids and enzymes) cell growth, organism metabolism and denaturation. Several features of the µrc make it unique for study of these classes of materials including the incremental titration, temperature scanning, and stirring which, with the removable cells of the micro reaction calorimeter mean that if your experiment precipitates or forms a gel you can simply dispose of the vial and start the next experiment with a clean one. Specification Baseline Noise From 5µW Dynamic Range 5µW to 600mW Temperature Range -5 C to 170 C Standard Modes of Operation Optional Modes Isothermal Titration Scanning Pressure - pressurise cell up to 10bar Growth curve showing bacterial activity in Milk Educational Applications Scanning Rate Isothermal Stability Cell Volume Up to 2 C/min +/- 0.0001 C over extended time period 1.5 ml The Micro Reaction Calorimeter, as can be seen in this brochure, has a very wide range of applications. This versatility makes the µrc the ideal instrument for an academic environment as a range of varied users can perform different experiments on it. In the teaching laboratory the µrc provides an elegant method of performing kinetics experiments without polystyrene cup calorimeters and watching iodine clock experiments in a water bath. As a research tool the µrc gives a rapid, accurate and unique way of studying a range of parameters which may not be measured by other methods. New applications are being discovered all the time - don t hesitate to enquire. The µrc benefits from a small footprint, lack of external service requirements (no water bath or chiller) and a simple PC connection (only a USB connection to a PC). The µrc is designed to operate in any chemical or biochemical laboratory and conforms to modern safety standards. Cell Type Injection Volume 1 to 250 µl Temperature Control Stirring Speed Measurement Principle Connection to PC Footprint (width x depth x height) Options Removable glass vial Peltier based (no external cooling) 0-400 rpm Power compensation via USB cable 19 x 31 x 35 cm Certain other specifications may be possible by discussion. Contact us with your exact requirements. The µrc has a range of options. Pressure options include pressure measurement, pressure relief and gas flow. Solid dosing and disposable syringe options are also available. 1 North House Bond Avenue Bletchley MK1 1SW England T: +44 1908 646800 F: +44 1908 645209 E: info@thtuk.com W: www.thtuk.com PO Box 25 Whitestown Indiana 46075 USA T: +1 317 222 1904 F: +1 317 660 2092 E: info@thtusa.com W: www.thtusa.com Suite 1416 No 1101 Pu Dong Road (S) Shanghai 200 120 China T: +86 21 5836 2582 F: +86 21 5836 2581 E: info@thtchina.com W www.thtchina.com 808, Eighth Floor Tower - I Pearls Omaxe NetaJi Subhash Place PitamPura Delhi - 110034 India T: +91 11 4701 775 F: T: +91 11 4701 779 E: info@thtindia.com W www.thtindia.com

C3 PROZESS- UND ANALYSENTECHNIK GmbH C3 Prozess- und Analysentechnik GmbH Peter-Henlein-Straße 20 D-85540 Haar b. München Telefon (089) 45 60 06 70 Telefax (089) 45 60 06 80 info@c3-analysentechnik.de www.c3-analysentechnik.de