BioMicroCenter:News

From OpenWetWare
Jump to navigationJump to search

HOME -- SEQUENCING -- LIBRARY PREP -- HIGH-THROUGHPUT -- COMPUTING -- OTHER TECHNOLOGY


Aug 9, 2010

Dear Users,
There have been a number of significant changes in the BioMicro Center in the past few months and there will be more to come. To keep you up to date, I will again be sending out a newsletter every month or two with highlights of what is going on. Unlike previous newsletters, these will only be sent to those who have used the facility within the past year or so, so be sure to spread the word if you see items that might be of interest to others in your lab!

New equipment

A number of pieces of new equipment have been added to the BioMicro Center, particularly in the area of high throughput screening. First, through an equipment grant sponsored by Wendy Gilbert, we have added a second robotic fluidics machine that is specifically geared for screening 96 and 384 well plates. Unlike the older robot, this Tecan has a plate manipulating arm that allows it to handle much larger experiments. We also have added the Fluidigm Biomark which has been relocated from E17 and we are also in the evaluation phase for the Nanostring nCounter. Both of these machines allow you to look at a large number of genes / SNPs across a large number of samples. The Biomark is a nanofluidic RT-PCR machine that creates large matrices (either 48x48 or 96x96) of samples and primers, allowing you to do close to 10,000 RT-PCR reactions on a plate. The nCounter uses a “code set” of up to 800 genes to hybridize to dozens or hundreds of samples, then visualizes the single molecule interactions. The nCounter is particularly interesting in that it does not require conversion of the sample to cDNA, or even purification of the RNA. Information about all of these instruments can be found on our website.

New services

We are happy to announce the beginning of sample preparation services for Illumina sequencing. We are introducing this service starting with double stranded DNA fragments (>100bp) such as de novo genomic sequencing, resequencing, ChIP-seq and RNA-seq that has been converted to cDNA. The service includes QC, end-repair, adaptor ligation, size selection and enrichment. Once samples are prepared, they are validated and added directly to the Illumina sequencing queue. Right now, this service is limited, but we are hoping to introduce multiplexing and RNA samples in the near future.

Upcoming Events

With so many changes both in new equipment and upgrades to current equipment we wanted to create an opportunity for you to learn more about the assays available in the facility. To help with this, we will be sponsoring a “Technology Seminar Series” this fall. The weekly seminars will be at noon on Mondays (lunch will be provided). Each week we will showcase a different technology in the facility and bring you up to date on the latest advances and future directions of the technology. We have asked the companies we have invited to bring their scientists to speak (not the sales team) so you have a chance to interact with them directly. I hope you are having a great summer!
-Stuart

May 13, 2010

In order to increase the space available for equipment in the BioMicro Center, we are doing a little more remodeling. Please note the following changes:

  • The freezers have been relocated to the 304 hallway
  • The RT-PCR machines will be moving to the 316 entry.

We hope this change will make accessing the RT-PCR machines easier and will also create room for the new Tecan EVO 150, scheduled to arrive in early June. Keep an eye on this page for future updates!

April 19, 2010

Starting next month, the Koch Institute and the MIT BioMicro Center will be hosting a Nanostring nCounter system on a trial basis. The nCounter system is a single molecule visualizer that quantitatively detects RNA and other nucleic acids using a hybridization system in a highly multiplex manner. The system uses color-coded molecular barcodes to digitally count nucleic acid molecules in solution. The system does not use enzymes for detecting the nucleic acids, allowing direct measurements of mRNA from a variety of input materials including degraded RNA or crude cell lysates.

The instruments will be located in the BioMicro Center and will be available to all members of the MIT community. We will be using this time to gauge the level of interest in the nCounter and whether it would be a viable system to purchase.

If you are interested in learning more, we will be hosting a seminar with Nanostring representatives on April 30th. The seminar will be at 11am in 68-181. Nanostring representatives will be available after the talk to discuss the instruments and specific applications. More information is in the ABSTRACT for the talk.

April 1, 2010

Thanks to the generosity of a grant from the Moore Foundation to Dr. Penny Chisholm and ARRA funding to Dr. Chris Burge the BioMicro Center will be significantly expanding our sequencing capacity over the next 4-6 months. The first step of this expansion begins today with the addition of a new GAIIx and cBot from Illumina. We are working hard to get "Ryland" and "Agustus Gloop" up and running and we hope to be able to shorten our queue times very soon!

March 2010

Due to an increase in the cost of Illumina reagents, increase in data file size, and the complexity of sample preps, we have had to increase, slightly, the cost of Illumina sequencing. These new rates will be effective on samples submitted after April 1, 2010. Samples already in the queue will use the current rates.

ILLUMINA SEQUENCING MIT - current MIT - April 1, 2010 unit Notes
Single End (36nt) $805 $860 per lane inlcudes quality control (RT-PCR or BioAnalyzer), sequencing, genome alignment and data storage of Firecrest files for 2 yrs.
Paired End (36+36nt) $1,385 $1,450 per lane
Add'l 36nt $295 $300 per lane
Sample Multiplexing $0 $50 per 10 samples combined Combined over the whole order. Only applies to samples combined by BCM technicians.
Repriming $200 $300 per flow cell Uses 6nt. Cost is divided by number of lanes requiring repriming. Repriming is required for standard Illumina multiplexing.


Non-MIT rates are 30% higher for academic institutions and 50% highers for non-academic institutions. Priority is given to samples from CORE facilities.


RECENT & UPCOMING CHANGES

Illumina/Solexa Sequencing -- *New*
New Affymetrix labeling -- *New*
Notes from the ABRF
Tecan EVO high-throughput -- Training Feb 12, 2009
BioMicro Center Renovation -- Coming Feb '09


PREVIOUS NEWSLETTERS

2009
May
January / February
2008
December
November


RECENT CHANGES TO THE WEBSITE <\BIG><\B>

List of abbreviations:
N
This edit created a new page (also see list of new pages)
m
This is a minor edit
b
This edit was performed by a bot
(±123)
The page size changed by this number of bytes

15 April 2024

     23:43  User:Yanbin Huang‎‎ 2 changes history +170 [Yanbin Huang‎ (2×)]
     
23:43 (cur | prev) 0 Yanbin Huang talk contribs (→‎Granted Patents)
     
23:43 (cur | prev) +170 Yanbin Huang talk contribs (→‎Granted Patents)
     22:11  The paper that launched microfluidics - Xi Ning‎‎ 14 changes history +9,705 [Xning098‎ (14×)]
     
22:11 (cur | prev) −6 Xning098 talk contribs (→‎Summary)
     
22:07 (cur | prev) −12 Xning098 talk contribs (→‎Synthesis)
     
22:06 (cur | prev) 0 Xning098 talk contribs
     
22:06 (cur | prev) +1 Xning098 talk contribs
     
22:05 (cur | prev) 0 Xning098 talk contribs
     
22:03 (cur | prev) +630 Xning098 talk contribs
     
22:01 (cur | prev) +3,189 Xning098 talk contribs
     
21:44 (cur | prev) +688 Xning098 talk contribs (→‎Separation and quantification)
     
21:33 (cur | prev) +306 Xning098 talk contribs
     
21:29 (cur | prev) −2 Xning098 talk contribs (→‎Electrokinetic effect)
     
21:28 (cur | prev) −1 Xning098 talk contribs (→‎Separation and quantification)
     
21:27 (cur | prev) +398 Xning098 talk contribs (→‎Separation and quantification)
     
21:24 (cur | prev) +2,812 Xning098 talk contribs
     
21:06 (cur | prev) +1,702 Xning098 talk contribs
     21:45  (Upload log) [Xning098‎ (4×)]
     
21:45 Xning098 talk contribs uploaded File:Figure 4 Tdesign.png
     
21:30 Xning098 talk contribs uploaded File:Figure 3 Set-up3.png
     
21:24 Xning098 talk contribs uploaded File:Figure 2 Set-up1.png
     
21:09 Xning098 talk contribs uploaded File:Figure 1 electroosmotic flow.png
N    18:16  Multilayer Paper Microfluidics - Madyson Redder‎‎ 21 changes history +6,228 [Mredder‎ (21×)]
     
18:16 (cur | prev) +540 Mredder talk contribs (→‎Fabrication Methods)
     
18:07 (cur | prev) +822 Mredder talk contribs (→‎Fabrication Methods)
     
17:58 (cur | prev) +1,223 Mredder talk contribs (→‎Fabrication Methods)
     
17:47 (cur | prev) −47 Mredder talk contribs (→‎Motivation for Multilayer Paperfluidics)
     
17:46 (cur | prev) +2 Mredder talk contribs (→‎Advantages)
     
17:46 (cur | prev) +1,094 Mredder talk contribs (→‎Advantages)
     
17:37 (cur | prev) +24 Mredder talk contribs (→‎Materials)
     
17:37 (cur | prev) +619 Mredder talk contribs (→‎Materials)
     
17:19 (cur | prev) +18 Mredder talk contribs (→‎Uses)
     
17:19 (cur | prev) +7 Mredder talk contribs (→‎Uses)
     
17:18 (cur | prev) −19 Mredder talk contribs (→‎Developing Countries and Travel)
     
17:18 (cur | prev) +15 Mredder talk contribs (→‎Uses)
     
17:16 (cur | prev) 0 Mredder talk contribs (→‎Uses)
     
17:16 (cur | prev) +1,103 Mredder talk contribs (→‎Uses)
     
17:14 (cur | prev) −453 Mredder talk contribs (→‎Motivation for Multilayer Paperfluidics)
     
17:13 (cur | prev) +1 Mredder talk contribs (→‎Overview)
     
17:12 (cur | prev) +273 Mredder talk contribs (→‎Overview)
     
17:08 (cur | prev) −699 Mredder talk contribs (→‎Overview)
     
17:06 (cur | prev) +95 Mredder talk contribs
     
17:04 (cur | prev) +12 Mredder talk contribs
N    
17:03 (cur | prev) +1,598 Mredder talk contribs (Created page with "{{Template:CHEM-ENG590E}} Overview 3D polymeric or glass microfluidic devices were created to run tests on small amounts of liquid and receive results in a timely manner. However, these devices are costly and time consuming to produce. A solution to this problem was single-layer paper microfluidic devices. The most common known examples of single-layer paper microfluidic devices are pregnancy tests, COVID-19 antigen tests, and glucose test strips. While these devices a...")
     17:02  CHEM-ENG590E:Wiki Textbook diffhist +54 Mredder talk contribs (→‎Chapter 7 - Fiber-based Microfluidics)
 m   07:22  Paper Microfluidic Device for Archiving Breast Epithelial Cells diffhist +6 Sarah L. Perry talk contribs
     06:39  Hu diffhist +66 Hugangqing talk contribs

14 April 2024