Upcoming Events

SRC will be exhibiting here

Microscopical Society of Canada

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Welcome to the website for the MSC 43rd Annual Meeting. The annual meeting will take place in Edmonton on June 7-10, 2016, at theUniversity of Alberta.

The information needed to register for the 43rd Annual Meeting, on how to prepare and submit manuscripts for oral or poster presentation along with the scientific program will be posted soon.

The official flyer of the 2016 meeting is now available. Please feel free to post it in your University, Institute or Enterprise.

Until then, please feel free to contact us if you have any questions.

French flyer

WITec will be exhibiting here

Upcoming Conferences

APRIL 7, 2016
CIC/SCI Canada Seminar and Awards Dinner
Toronto, ON, CA

 SRC will be exhibiting here

Research Day

The Departments of Chemical Engineering at Ecole Polytechnique de Montreal and McGill University invite you to our annual Winter Research Day!

Chemical Engineering Research Day
Tuesday, March 15th, 2016, 8:30AM – 6PM
McGill University
New Residence Hall, 3625 Av du Parc, Montréal, QC H2X 3P8
Prince Arthur Ballroom (Level C)

Keynote Speaker
  • Prof. Peter Englezos (UBC)
  • Dr. Jocelyn Doucet (Pyrowave)

Program

Research Day Program [.pdf]

Registration and Abstract Submission (CLICK HERE):

Sponsors

We gratefully acknowledge contributions from our industry partners and collaborators, without whom this event would not be possible.

 

McGill AFM Summer School – Sponsored by Spectra Research and Asylum Research – May 12-13.

 Until then, please feel free to  Contact Us! if you have any questions.

 CANADA’S PREMIER SOURCE FOR SCIENTIFIC INSTRUMENTS

Spectra Research Corporation (SRC), the foremost Canadian supplier of scientific instruments to governments, universities and commercial facilities.

Save time searching for the scientific equipment you need from leading international brands—it’s all here, under one roof.

Wireless Test Solution

Next Generation Solutions for Wireless Communication Systems

ATE Industry’s First Fully Integrated Single Module with 4-unique RF Vector Signal Generators and Analyzers (WLS32-A Module)

  • High-Performance VSG and VSA Instrumentations Supporting Complex Modulation Densities up to 80MHz Bandwidth
  • Fast Test Times Achieved with Fast Settling Synthesizer Switching
  • Highest Industry RF Port Density (32 per module and scaleable to 128) for Today’s and Tomorrow’s Multi-DUT MIMO and Transceiver Applications (WLS32-A)
  • For Low Cost small system, Half RF Port Density (WLS16-A)
  • High-Speed & High Carrier to Noise Ratio Synthesizer Modes to Address Production and Characterization Solutions
  • Integrated Low-Noise, Low-Jitter Programmable Reference Signal Generator for Crystal (TCXO) Reference
  • Internal Highly Linear 2-tone Combiner to Produce > +28dBm (@2.2GHz, -12dBm) Output IP3 to Device
  • Lowest COT Achieved with Quad-DUT Native Capability (Parallel Source and Measure)
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CMOS Image Sensor Test Solution

The T2000 CMOS Image Sensor Test Solution is a single solution for evaluation and production testing of advanced CMOS image sensors with high-speed interfaces up to 3 Gbps. This highly parallel system uses concurrent hardware operation, a fast IP engine, a high-speed bus and reduced shot counts to provide users with one of the industry’s lowest cost of test.

Flexible support for multifunction image sensors

CMOS image sensors are now incorporating functions such as AD/DA and other SoC circuits. With its modular architecture, the T2000 can achieve the optimal configuration to test these complex devices while delivering low cost of test.
The system’s high-speed image-capture interface supports a variety of CMOS image sensors including mobile, DSC, DSLR, CAM and industrial CIS. In addition, the large dual-bank memory module enables simultaneous storage and transfer of data to the image-processing engine, minimizing test times.

 

The system is available in two versions:

1.2-Gbps CMOS Image Capture (1.2GICAP) Module

  • Image Capture input:
    Serial data: 1.2 Gbps, 4 lanes x 4 channels
    ・1.2 Gbps for MIPI D-PHY and sync code mode (Custom S-LVDS)
    Parallel data: 200 M pixels/s, 16 bits x 4 channels
  • Capture memory: 128 M pixels x 2 banks
    Maximum frame averaging number up to 256 frames (hardware averaging)

3-Gbps CMOS Image Capture (3GICAP) Module

  • Image Capture input:
    Serial data: 1.2 Gbps, 4 lanes x 4 channels
    ? 1.2 Gbps for MIPI D-PHY and sync code mode ?Custom S-LVDS?
    Parallel data: 200 M pixels/s, 16 bits x 4 channels
  • Capture memory: 128 M pixels x 2 banks
    Maximum frame averaging number up to 256 frames (hardware averaging)

Faster Processing for Higher Throughput

With its high-speed quad processors for image-capture data analysis, Advantest’s new image processor engine (IPE2) significantly reduces test times, especially for higher pixel CMOS image sensors.

Light Source and Large User Area Delivers Higher Parallelism
at a Low Cost of Test

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The module’s ultra-high-volume, simultaneous measurement capability enables uniquely high productivity and a significant cost savings for image-sensor testing. Most importantly, the optimized, uniform light source and large user area enable highly parallel testing of ultra-high-density and high-performance devices.

  • 440 mm probe card and 2048-channel frog unit (pogo interface)

THE USE OF ASYLUM TECHNOLOGY

Topological structures in multiferroic materials have recently received considerable attention because of their potential use as nanoscale functional elements. Their reduced size in conjunction with exotic arrangement of the ferroic order parameter and potential order parameter coupling allows for emergent and unexplored phenomena in condensed matter and functional materials systems. This will lead to exciting new fundamental discoveries as well as application concepts that exploit their response to external stimuli such as mechanical strain, electric and magnetic fields. In this review we capture the current development of this rapidly moving field with specific emphasis on key achievements that have cast light on how such topological structures in multiferroic materials systems can be exploited for use in complex oxide nanoelectronics and spintronics.

  1. Introduction

Topological defects play important roles in nature. They are found in fields as diverse as cosmology, [ 1] particle physics, superfluidity, liquid crystals, and metallurgy, manifesting themselves as e.g. screw/edge-dislocations in liquid crystals, [ 2] magnetic flux tubes in superconductors, [ 3] and vortices in superfl uids [ 4] etc. The theory of topological defects, as applicable to condensed matter physics, dates back to the seminal work of Mermin in 1979. [ 5] In a non-uniform ordered medium (i.e., media that can be described by a function f( r ) which assigns an order parameter to every point in that space), topological defects are those regions including points, lines and surfaces where the order parameter ceases to vary continuously, forming regions of lower dimensionality.

At the same time, the possible values that the order parameter can take constitute the order parameter space. For example, the order parameter space for planar spins can be taken as a unit vector that can point in any direction in a plane, i.e., the space is a circle. This allows for mapping of a closed contour of the order …….. Read More from PDFpdf

MC MATTERS – NEW EXTRUSION AND COMPOUNDING EQUIPMENT

Welcome to the latest issue of MC MATTERS, with news on Thermo Scientific™ extrusion and compounding systems, rheometry and viscometry, as well as information on seminars, expert tips and much more!

Request Quote

Laboratory Products

Discover Unlimited Capabilities with the
Modular HAAKE MARS Rheology Platform

Whether you are interested in a robust and reliable rheometer for standard applications in quality control, or in an open rheometer platform for a maximum of flexibility, the Thermo Scientific™ HAAKE™ MARS™ rheometer system is the instrument of choice. The HAAKE MARS rheometer is easily configured for the individual needs of both beginners and experts:

  • Nano torque capabilities for everyday use such as interfacial rheology
  • Extended normal force capabilities for applications such as texture analysis
  • Combined techniques to investigate rheological properties on a molecular level using FTIR, Raman, Microscopy

Learn more about the next generation of HAAKE MARS rheometers through our new video, and see how they can help automate your workflow.

Watch the Thermo Scientific HAAKE MARS Systems video.
New HAAKE Viscotester iQ Rheometer for
High Pressure Measurement Applications

After a successful launch in 2014, the Thermo Scientific™ HAAKE™ Viscotester™ iQ rheometer has received two design awards in 2015. In industries such as food, cosmetics, paints, inks, and polymers, it has become established as THE quality control rheometer. The unique oscillation-mode measurement capabilities of the HAAKE Viscotester iQ rheometer also makes it an ideal teaching tool for understanding key principles of rheology.

In the next chapter of this success story, we are excited to present a new portable HAAKE Viscotester iQ rheometer design for measuring materials under pressure of up to 600 bar. This pressure range is ideal for determining the rheological behavior of crude oil, drilling fluids, and fracturing fluids.

If you are interested in a live demonstration of the HAAKE Viscotester iQ rheometer please email us at paulg@aca.ca.

Learn more about the new portable HAAKE Viscotester iQ by downloading our product information guide.

Download HAAKE Viscotester iQ Portable Rheometer product information.

Pharma Products

The Influence of Additives on the Extrusion Process, and Rheological Properties of Pharma Polymers

Within the pharmaceutical formulation process, hot melt extrusion (HME) has become an important technique to overcome bioavailability challenges. Recent tests have shown that the addition of additives to pharmaceutical polymers can help optimize extrusion process conditions such as melt temperature and flow behavior, and also influence a material’s rheological properties. Download the Thermo Scientific application note to read the results of these investigations in more detail.

Download Application Note.

The Thermo Scientific™ Pharma 11 Twin-screw extruder is designed specifically for pharmaceutical applications to minimize material costs, be easier to use and optimize laboratory space.

Process Products

Compounding Nanoclay Blends Using Twin Screw Extruders

The application of nanomaterials in consumer markets is growing rapidly. Used to develop new polymer compounds, they help improve material characteristics in the fields of flame resistance, barrier properties or toughness. The automotive industry is frequently searching for alternatives to bulky materials, and drives considerable research in this field.

Using a Thermo Scientific™ HAAKE™ PolyLab OS mixer and extruder system, our application report analyzes how PA and PP polymers can be compounded with commercially available nanoclay master batches to provide the basis for successful nanocomposite formulation and development.

Download Application Note.

Webinars

Watch recorded material characterization webinars at any time via our online MC Learning Center.
 

 

Request Quote

High Viscosity Conductive Inks

A complete rheological study on the shear and extensional viscosity of thick conductive inks Viscosity is a key parameter affecting quality and performance of printed electronics and display systems. In this application note, we present a complete rheological study (shear viscosity, temperature dependence and extensional viscosity) of a carbon-water based high viscosity ink or paint.

VROC® technology offers a number of advantages over conventional viscometers and rheometers including:

  • Wide Dynamic Range:
    • Shear Viscosity: 0.2 – 200,000 [mPa-s]
    • Shear Rate: 0.5 – 1,400,000 [1/s]
    • Extensional Viscosity: 0.04 – 100 [Pa-s]
    • Extensional Rate: 1 – 10,000 [1/s]
  • Temperature Control: 4 – 125ºC
  • Superior Accuracy (2% of Reading) and Repeatability (0.5% of Reading)
  • Lowest Sample Volume Required
  • No Air-Liquid Interface (No Evaporation or Contamination)
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2016 Society for Laboratory Automation and Screenings (SLAS) Conference

RheoSense is will be exhibiting at the 2016 Society for Laboratory Automation and Screening (SLAS) Conference from January 23rd to the January 27th. Visit us at Booth #601 to meet our specialists and see the new automatic, high throughput viscometer, VROC® initium! 

Read more

Webinar: Methods of Viscosity Measurements

 Visco❄holiday: Viscometer GiftRh

► Webinar: Methods of Viscosity Measurements 

 

VISCO❄HOLIDAY

As a sign of customer appreciation and for the end of 2015, RheoSense presents a viscometer give-away and other prizes for all those completing our end-of-year survey. The following prizes will be awarded:

  • One Grand Prize: A microVISC viscometer* + 50$ Amazon Gift Card
  • Five Second Prizes: 50$ Amazon Gift Cards
  • All participants providing a referral to a friend or college will receive a 10% discount* in all RheoSense products and services

View Ink Application Notes

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Webinar: Methods of Viscosity Measurements

December 16, 2015 | 11:00 am PST

‘How to measure viscosity?’
In this webinar, we examine how great engineering minds have tackled this question over the years.

We trace the historical development of viscosity and viscometers; starting with the fundamental principles established by Sir Isaac Newton and leading up to modern-day viscometry methods.

Sign up to attend the webinar and get an extra drawing for our promotion! Interested in learning more? Click the button below!

Attend

*Please note, all webinar sign ups will be given an extra entry on our Holiday Viscometer Giveaway!

download

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Upcoming Conference

Booth

Enter to win ! VISCO HOLIDAY

VISCO ❄ HOLIDAY

visco

As a sign of customer appreciation and for the end of 2015, RheoSense presents a viscometer give-away and other prizes for all those completing our end-of-year survey. The following prizes will be awarded:

One Grand Prize: A microVISC viscometer* + 50$ Amazon Gift Card

  • Five Second Prizes: 50$ Amazon Gift Cards
  • All participants providing a referral to a friend or college will receive a 10% discount* in all RheoSense products and services?

http://www.rheosense.com/events/viscoholiday2015?utm_content=9c21546c5eee2cf80932f71a48fc2f10&utm_campaign=Visco%E2%9D%84Holiday%202015&utm_source=Robly.com&utm_medium=email

New automatic viscometer

Stop_Watch

Automated High Throughput Viscosity Measurements 

High Throughput Automatic Viscometer initium Specifications

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Please check out a product preview video here!

Viscometers

We have developed the most advanced viscometers on the market to meet increasing demands for more-accurate, faster, and easier-to use small sample viscometers.

Small-sample viscometer, m-VROC

m-VROC™ Viscometer

The ideal viscometer for demanding R&D applications, m-VROC™ provides flexibility — measuring a wide dynamic range of shear rates with samples as small as 20 microliters. It is the leading viscometer in protein viscosity measurements and many other applications.


High-temperature Viscometer, hts-VROC


hts
-VROC™ Viscometer

The most advanced viscometer for the development of lubricating oils, hts-VROC™ measures oil viscosity from 4 ºC to 125 ºC at shear rates ranging from 100 to 1,000,000 1/s. By providing a complete viscosity curve, it allows you to fully assess your lubricant’s quality.


Portable, small-sample viscometer, microVISCmicroVISC™ Viscometer

A portable, small footprint viscometer that performs rapid, routine viscosity measurements. microVISC™ is the fastest and easiest-to use viscometer for most applications, and is idea for quality control and small-scale R&D.


Portable, small-sample viscometer, microVISC-m

microVISC- m™ Viscometer


microVISC-m™ viscometer quickly checks the health of your oil. It measures oil viscosity at room temperature and extrapolates estimates of kinematic and dynamic viscosities at 40, 50, and 100 ºC. The device requires a simple one-step operation. Using disposable pipettes, it does not need to be cleaned between tests.

Join the upcoming MRS OnDemand Webinar

Mesoscale Materials, Phenomena and Functionality
Presented by MRS Bulletin
November 18 | 12:00 – 1:30pm ET
Host: John Sarrao, Los Alamos National Laboratory
Attendance for this and all MRS OnDemand Webinars if FREE, but advance registration is required.
REGISTER NOW

The mesoscale domain where atomic granularity, quantization of energy, and simplicity of structure and function give way to continuous matter and energy, complex structures, and composite functionalities, represents a new scientific frontier. The November 2015 issue of MRS Bulletin explores some of the hallmarks of mesoscale materials science and highlights current and new research directions. This webinar will expand on some of the areas of mesoscale science explored in the articles in this issue of MRS Bulletin.

Speakers:
Integration of Computation and Experiment for Discovery and Design of Nanoparticle Self-Assembly
– Sharon Glotzer, University of Michigan
– Nicholas Kotov, University of Michigan

Instrumentation for In-Situ Mechanical Characterization: Nano to Meso
– Douglas Stauffer, Hysitron, Inc.

Bonus Talk:
Understanding and Manipulating Mesoscale Ferroic Domain Patterns
– Long-Qing Chen, The Pennsylvania State University

Capillary Break-up Rheometry Webinar: Register Today! Webinar invitation

If you are having trouble reading this email, read the online version.

 

Thermo Scientific

Join us for our webinar: Extensional Rheology of Fluids – Understanding Extensional Flow Behaviour from Solutions to Dispersions

Register

Date:
2015 Nov 12Times:
Session 1:
8:00am EDT / 12:00 GMT Session 2:
11:00am EDT / 15:00 GMT Webinar Duration:
45 minutes with additional
15 minutes for QAPresenter:
Klaus Oldörp

Register today!

This webinar focuses on the extensional flow behavior of complex fluids ranging from polymer solutions to dispersions. The method of capillary break-up rheometry (CaBER) and its combination with a high-speed camera will be presented.

Join us for this webinar and learn more about:

  • Extensional Rheology
  • High Speed Imaging and Contour Analysis
  • Complex Fluids
Register

Know you’re already busy this day? Register anyway, we’ll send the recording and slides after the webinar to watch on your time!

 

Technology—Viscometer/Rheometer-on-a-Chip

Viscometer-Rheometer-on-a-Chip (VROC®) combines microfluidic and MEMS (Micro-Electro-Mechanical Systems) technologies.

The Superior Viscometer

Compared to conventional viscometers and rheometers, microfluidic devices offer several advantages. They:

  • Require small sample volumes of liquid
  • Impose high shear rates without encountering flow stability
  • Maintain complete enclosure of fluid to prevent evaporation
  • Can be used as simple flow-through device

More Accurate Viscosity Measurements

Products built on our technology platform completely characterize flow, helping you achieve cost-effective flow and material characterization. Complete viscosity characterization is essential in the production of complex liquids with non-Newtonian viscosity characteristics.

Our technology quantifies true flow properties, whereas many existing products only qualitatively approximate apparent properties.

Why MEMS and Microfluidics for Viscosity?

Microfluidics deals with the behavior, precise control, and manipulation of small (microliter and nanoliter) volumes of liquids. Microfluidics enables high throughput analysis.

MEMS chips integrate mechanical elements, sensors, actuators, and electronics on a common silicon substrate, using microfabrication technology.

Through its hybrid microfluidics/MEMS technology, RheoSense has developed smaller, smarter, and faster micro-scale-sample viscometers, which can measure fluids’ viscosity in all types of environments.

Principle of RheoSense Viscometers

VROC® sensors read viscosity by measuring the pressure drop as a test liquid flows through its flow channel. This is a well-known application of rheometry principles (K. Walters, Rheometry, Chapman and Hall, London, 1975) and also listed in US Pharmacopeia.

Slit Viscometer/Rheometer

As the test liquid is forced to flow through the sensor’s flow channel, the rheometer measures pressure at positions increasingly far from the inlet.

In this resulting (example) plot of measured pressure versus sensor position, the slope of the straight line is proportional to the viscosity.

Slope of pressure/position graph indicates viscosity

Our Viscometer Implementation

To create a dynamic micro-sample viscometer, RheoSense took this principle and added microfludics, while reducing the device’s size. Our resulting VROC® technology offers capabilities well beyond the limits of conventional viscometers.
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VROC® is capable of making measurements not possible with other instruments…the ability of the RheoSense viscometer to measure very small sample quantities is also useful. We have found the instrument to be accurate and reliable
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— A corporate R&D Customer