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IU football: Grad transfer Jovan Swann expects a lot of himself

Former Center Grove High School standout attended Stanford but will play for the Hoosiers in his remaining season.

       




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Fortville restaurant owner transforms into 'Tiger King's' Joe Exotic to help workers

The owner of FoxGardin in Fortville transformed himself into Joe Exotic to help his workers.

       




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Former Purdue center Matt Haarms transferring to Brigham Young

Matt Haarms will join the Cougars as a graduate transfer with one season of eligibility remaining.

       




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Butler exploring transfer market but cautious about the right fit

LaVall Jordan on transfers: 'We'd rather have nobody than the wrong guy.'

      




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Butler casting wide net in pursuit of transfers

Butler Bulldogs is a finalist for some prominent college basketball transfers after missing out on a guard.

       




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Even after some misses, Butler still taking swings at transfer shooters

The Bulldogs missed out Saturday on a couple of transfers: Louisiana-Monroe's Michael Ertel to UAB and Santa Clara's Trey Wertz to Notre Dame.

       




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Butler lands much-needed shooter with Jair Bolden transfer

Butler has been active in the transfer market this offseason, but had come up empty — until Friday.

       




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What Butler basketball gets in grad transfer Jair Bolden: Grit, shooting and leadership

Bolden averaged 8.5 points in 21 minutes a game for South Carolina, starting 15 of 30 games.

       




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Fortville restaurant owner transforms into 'Tiger King's' Joe Exotic to help workers

The owner of FoxGardin in Fortville transformed himself into Joe Exotic to help his workers.

       




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Transfer rumours: Chilwell, Ballo-Toure, Chiesa, Henderson, Salisu, Pjanic

Chelsea in talks over Chilwell, Blues and Manchester United interested in Chiesa, Red Devils ask about Salisu, plus more.




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Which Premier League squads need work in the transfer window? The bottom 10 clubs

With uncertainty around the next transfer window, what shape are Premier League squads in? We take a look at the clubs in the bottom half.




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IU football: Grad transfer Jovan Swann expects a lot of himself

Former Center Grove High School standout attended Stanford but will play for the Hoosiers in his remaining season.

       




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IndyStar Sports Awards transforms to on-demand broadcast, loaded with star pro athletes

Carmel and IU grad Sage Steele will co-host and star athletes like Drew Brees and Venus Williams will announce winners during the online broadcast.

       




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Goldman Sachs is going through a huge transformation under CEO David Solomon

  • The storied investment bank is seeing leadership shakeups under CEO David Solomon and a slew of partner departures. 
  • Goldman has been moving away from high-risk businesses like trading and is making pushes into more stable areas like consumer lending, wealth management, and transaction banking. 
  • There have been big cultural changes, too. Solomon is looking to create a more transparent workplace, while new tech execs are taking cues from Silicon Valley heavy-hitters. 
  • At Business Insider, we are closely tracking the latest developments at Goldman. You can read all of our Goldman coverage on BI Prime.

Storied Wall Street bank Goldman Sachs is going through some massive changes under CEO David Solomon.

It's taken big steps involving transparency and inclusion to change up its culture. It has seen a slew of partner departures — many in the securities division. And it's making big pushes into businesses like wealth management and transaction banking.  

The latest people moves

Culture and talent

Coronavirus response

Consumer push, transaction banking, wealth management

Technology

Trading

Alternatives

Deals

Investor day 2020

Careers 

 

Join the conversation about this story »

NOW WATCH: A cleaning expert reveals her 3-step method for cleaning your entire home quickly




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PayPal to TransferWise – Cheap International Money Transfer

While we have covered a number of tutorials on PayPal in the past, in this tutorial we will look at a relatively new platform that goes by the name of TransferWise. I will discuss what TransferWise is and how you can use it with your PayPal account. I will also cover why this platform is […]

The post PayPal to TransferWise – Cheap International Money Transfer appeared first on Tips and Tricks HQ.




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How to Send Money Overseas with TransferWise

The days of your family member sending you money in an envelope from overseas are decreasing due to the risk of this money getting lost in transit or removed from your letterbox before you’ve arrived home. While many merchants and everyday people are sending money to family and friends abroad using PayPal, TransferWise is, in […]

The post How to Send Money Overseas with TransferWise appeared first on Tips and Tricks HQ.




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Article: How Artificial Intelligence Can Transform the Digital Out-of-Home Marketplace

Omer Golan, founder and CEO of Outernets, discusses how artificial intelligence can improve the digital out-of-home industry.




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Mechanistic insights explain the transforming potential of the T507K substitution in the protein-tyrosine phosphatase SHP2 [Signal Transduction]

The protein-tyrosine phosphatase SHP2 is an allosteric enzyme critical for cellular events downstream of growth factor receptors. Mutations in the SHP2 gene have been linked to many different types of human diseases, including developmental disorders, leukemia, and solid tumors. Unlike most SHP2-activating mutations, the T507K substitution in SHP2 is unique in that it exhibits oncogenic Ras-like transforming activity. However, the biochemical basis of how the SHP2/T507K variant elicits transformation remains unclear. By combining kinetic and biophysical methods, X-ray crystallography, and molecular modeling, as well as using cell biology approaches, here we uncovered that the T507K substitution alters both SHP2 substrate specificity and its allosteric regulatory mechanism. We found that although SHP2/T507K exists in the closed, autoinhibited conformation similar to the WT enzyme, the interactions between its N-SH2 and protein-tyrosine phosphatase domains are weakened such that SHP2/T507K possesses a higher affinity for the scaffolding protein Grb2-associated binding protein 1 (Gab1). We also discovered that the T507K substitution alters the structure of the SHP2 active site, resulting in a change in SHP2 substrate preference for Sprouty1, a known negative regulator of Ras signaling and a potential tumor suppressor. Our results suggest that SHP2/T507K's shift in substrate specificity coupled with its preferential association of SHP2/T507K with Gab1 enable the mutant SHP2 to more efficiently dephosphorylate Sprouty1 at pTyr-53. This dephosphorylation hyperactivates Ras signaling, which is likely responsible for SHP2/T507K's Ras-like transforming activity.




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Mechanistic insights explain the transforming potential of the T507K substitution in the protein-tyrosine phosphatase SHP2 [Signal Transduction]

The protein-tyrosine phosphatase SHP2 is an allosteric enzyme critical for cellular events downstream of growth factor receptors. Mutations in the SHP2 gene have been linked to many different types of human diseases, including developmental disorders, leukemia, and solid tumors. Unlike most SHP2-activating mutations, the T507K substitution in SHP2 is unique in that it exhibits oncogenic Ras-like transforming activity. However, the biochemical basis of how the SHP2/T507K variant elicits transformation remains unclear. By combining kinetic and biophysical methods, X-ray crystallography, and molecular modeling, as well as using cell biology approaches, here we uncovered that the T507K substitution alters both SHP2 substrate specificity and its allosteric regulatory mechanism. We found that although SHP2/T507K exists in the closed, autoinhibited conformation similar to the WT enzyme, the interactions between its N-SH2 and protein-tyrosine phosphatase domains are weakened such that SHP2/T507K possesses a higher affinity for the scaffolding protein Grb2-associated binding protein 1 (Gab1). We also discovered that the T507K substitution alters the structure of the SHP2 active site, resulting in a change in SHP2 substrate preference for Sprouty1, a known negative regulator of Ras signaling and a potential tumor suppressor. Our results suggest that SHP2/T507K's shift in substrate specificity coupled with its preferential association of SHP2/T507K with Gab1 enable the mutant SHP2 to more efficiently dephosphorylate Sprouty1 at pTyr-53. This dephosphorylation hyperactivates Ras signaling, which is likely responsible for SHP2/T507K's Ras-like transforming activity.




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The heme-regulatory motifs of heme oxygenase-2 contribute to the transfer of heme to the catalytic site for degradation [Protein Structure and Folding]

Heme-regulatory motifs (HRMs) are present in many proteins that are involved in diverse biological functions. The C-terminal tail region of human heme oxygenase-2 (HO2) contains two HRMs whose cysteine residues form a disulfide bond; when reduced, these cysteines are available to bind Fe3+-heme. Heme binding to the HRMs occurs independently of the HO2 catalytic active site in the core of the protein, where heme binds with high affinity and is degraded to biliverdin. Here, we describe the reversible, protein-mediated transfer of heme between the HRMs and the HO2 core. Using hydrogen-deuterium exchange (HDX)-MS to monitor the dynamics of HO2 with and without Fe3+-heme bound to the HRMs and to the core, we detected conformational changes in the catalytic core only in one state of the catalytic cycle—when Fe3+-heme is bound to the HRMs and the core is in the apo state. These conformational changes were consistent with transfer of heme between binding sites. Indeed, we observed that HRM-bound Fe3+-heme is transferred to the apo-core either upon independent expression of the core and of a construct spanning the HRM-containing tail or after a single turnover of heme at the core. Moreover, we observed transfer of heme from the core to the HRMs and equilibration of heme between the core and HRMs. We therefore propose an Fe3+-heme transfer model in which HRM-bound heme is readily transferred to the catalytic site for degradation to facilitate turnover but can also equilibrate between the sites to maintain heme homeostasis.




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The Escherichia coli cellulose synthase subunit G (BcsG) is a Zn2+-dependent phosphoethanolamine transferase [Glycobiology and Extracellular Matrices]

Bacterial biofilms are cellular communities that produce an adherent matrix. Exopolysaccharides are key structural components of this matrix and are required for the assembly and architecture of biofilms produced by a wide variety of microorganisms. The human bacterial pathogens Escherichia coli and Salmonella enterica produce a biofilm matrix composed primarily of the exopolysaccharide phosphoethanolamine (pEtN) cellulose. Once thought to be composed of only underivatized cellulose, the pEtN modification present in these matrices has been implicated in the overall architecture and integrity of the biofilm. However, an understanding of the mechanism underlying pEtN derivatization of the cellulose exopolysaccharide remains elusive. The bacterial cellulose synthase subunit G (BcsG) is a predicted inner membrane–localized metalloenzyme that has been proposed to catalyze the transfer of the pEtN group from membrane phospholipids to cellulose. Here we present evidence that the C-terminal domain of BcsG from E. coli (EcBcsGΔN) functions as a phosphoethanolamine transferase in vitro with substrate preference for cellulosic materials. Structural characterization of EcBcsGΔN revealed that it belongs to the alkaline phosphatase superfamily, contains a Zn2+ ion at its active center, and is structurally similar to characterized enzymes that confer colistin resistance in Gram-negative bacteria. Informed by our structural studies, we present a functional complementation experiment in E. coli AR3110, indicating that the activity of the BcsG C-terminal domain is essential for integrity of the pellicular biofilm. Furthermore, our results established a similar but distinct active-site architecture and catalytic mechanism shared between BcsG and the colistin resistance enzymes.




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Thioredoxin regulates human mercaptopyruvate sulfurtransferase at physiologically-relevant concentrations [Enzymology]

3-Mercaptopyruvate sulfur transferase (MPST) catalyzes the desulfuration of 3-mercaptopyruvate (3-MP) and transfers sulfane sulfur from an enzyme-bound persulfide intermediate to thiophilic acceptors such as thioredoxin and cysteine. Hydrogen sulfide (H2S), a signaling molecule implicated in many physiological processes, can be released from the persulfide product of the MPST reaction. Two splice variants of MPST, differing by 20 amino acids at the N terminus, give rise to the cytosolic MPST1 and mitochondrial MPST2 isoforms. Here, we characterized the poorly-studied MPST1 variant and demonstrated that substitutions in its Ser–His–Asp triad, proposed to serve a general acid–base role, minimally affect catalytic activity. We estimated the 3-MP concentration in murine liver, kidney, and brain tissues, finding that it ranges from 0.4 μmol·kg−1 in brain to 1.4 μmol·kg−1 in kidney. We also show that N-acetylcysteine, a widely-used antioxidant, is a poor substrate for MPST and is unlikely to function as a thiophilic acceptor. Thioredoxin exhibits substrate inhibition, increasing the KM for 3-MP ∼15-fold compared with other sulfur acceptors. Kinetic simulations at physiologically-relevant substrate concentrations predicted that the proportion of sulfur transfer to thioredoxin increases ∼3.5-fold as its concentration decreases from 10 to 1 μm, whereas the total MPST reaction rate increases ∼7-fold. The simulations also predicted that cysteine is a quantitatively-significant sulfane sulfur acceptor, revealing MPST's potential to generate low-molecular-weight persulfides. We conclude that the MPST1 and MPST2 isoforms are kinetically indistinguishable and that thioredoxin modulates the MPST-catalyzed reaction in a physiologically-relevant concentration range.




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The First World War and the transformations of the state

13 March 2014 , Volume 90, Number 2

Pierre Purseigle




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Thematic review series: Lipid Posttranslational Modifications. Protein palmitoylation by a family of DHHC protein S-acyltransferases

David A. Mitchell
Jun 1, 2006; 47:1118-1127
Thematic Reviews




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Microsomal triglyceride transfer protein and its role in apoB-lipoprotein assembly

M. Mahmood Hussain
Jan 1, 2003; 44:22-32
Reviews




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Plasma cholesteryl ester transfer protein

AR Tall
Aug 1, 1993; 34:1255-1274
Reviews




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Bile salt biotransformations by human intestinal bacteria

Jason M. Ridlon
Feb 1, 2006; 47:241-259
Reviews




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The plasma lecithin:cholesterol acyltransferase reaction

John A. Glomset
Mar 1, 1968; 9:155-167
Reviews




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How Nations Can Cope with Digital Transformation




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Preparing for Digital Transformation




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A Transformative Agenda for Greater Sustainability in Trade

Corporate Members Event Nominees Breakfast Briefing Partners and Major Corporates

3 December 2019 - 8:00am to 9:15am

Chatham House | 10 St James's Square | London | SW1Y 4LE

Event participants

Christophe Bellmann, Associate Fellow, Hoffmann Centre for Sustainable Resource Economy, Chatham House

Carolyn Deere Birkbeck, Associate Fellow, Global Economy and Finance Department and Hoffmann Centre for Sustainable Resource Economy, Chatham House

International trade rules and policies are deeply relevant to environmental performance. On the one hand, trade flows, rules and policies can exacerbate environmental challenges as consumers regularly purchase goods produced or disposed of in unsustainable ways in other countries therefore 'exporting' environmental costs. On the other hand, trade rules and flows can be harnessed to support environmental agendas and impact commercial and trade prospects positively.

The speakers will discuss the urgent need for greater political leadership and inclusive policy dialogue on environment and trade to address its development and competitiveness. Which priorities should form the heart of a forward-looking environment and trade 2.0 agenda in the context of the UN’s SDGs? What role can international trade play in helping deliver sustainable food and land use systems? And how can stakeholders promote the scaling-up of the many initiatives underway and serve as a vehicle for transformative change toward a more sustainable economy at the national and international level?

This event is only open to Major Corporate Member and Partner organizations of Chatham House. If you'd like to attend, please RSVP to Linda Bedford.

To enable as open a debate as possible, this event will be held under the Chatham House Rule.

Members Events Team




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Online Forum on Public Awareness, Education and Participation Concerning the Safe Transfer, Handling and Use of Living Modified Organisms (4 - 18 June 2012)




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Report of the Africa Regional Capacity-building Workshop on Public Awareness, Education and Participation concerning the Safe Transfer, Handling and Use of Living Modified Organisms




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Report of the Asia-Pacific regional training workshop on public awareness, education and participation concerning the safe transfer, handling and use of LMOs is now available.




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CBD News: Inspired by discussions on the possibilities of transformational change, a keynote address by Canadian astronaut Roberta Bondar, and a celebration of indigenous culture, more than 1,000 delegates from around the world concluded two critical meet




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CBD News: Fifteen years ago, the Cartagena Protocol on Biosafety to the Convention on Biological Diversity entered into force aiming to ensure the safe handling, transfer and use of living modified organisms (or LMOs) resulting from modern biotechnology.




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CBD News: The world needs transformative change if life on Earth is to be safeguarded and people are to continue to receive the services and benefits that nature provides, according to a new report from an international team of leading researchers.






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Transformations Birationnelles de Petit Degre

Dominique Cerveau, Universite de Rennes 1, and Julie Deserti, Universite Paris 7 - A publication of the Societe Mathematique de France, 2013, 223 pp., Softcover, ISBN-13: 978-2-85629-770-4, List: US$108, All AMS Members: US$86.40, COSP/19

Since the end of the 19th century, we have known that each birational map of the complex projective plane is the product of a finite number of...




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Three NSF RAPID grants to develop quicker test for COVID-19 for Holonyak Lab faculty

(University of Illinois Grainger College of Engineering) Three Nick Holonyak Jr., Micro and Nanotechnology Lab (HMNTL) faculty members received NSF Rapid Response Research (RAPID) program grants, all of which aim to shorten the amount of time it takes to process a COVID-19 test with less false negatives. Current tests can take as long as five days for results to be.




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The heme-regulatory motifs of heme oxygenase-2 contribute to the transfer of heme to the catalytic site for degradation [Protein Structure and Folding]

Heme-regulatory motifs (HRMs) are present in many proteins that are involved in diverse biological functions. The C-terminal tail region of human heme oxygenase-2 (HO2) contains two HRMs whose cysteine residues form a disulfide bond; when reduced, these cysteines are available to bind Fe3+-heme. Heme binding to the HRMs occurs independently of the HO2 catalytic active site in the core of the protein, where heme binds with high affinity and is degraded to biliverdin. Here, we describe the reversible, protein-mediated transfer of heme between the HRMs and the HO2 core. Using hydrogen-deuterium exchange (HDX)-MS to monitor the dynamics of HO2 with and without Fe3+-heme bound to the HRMs and to the core, we detected conformational changes in the catalytic core only in one state of the catalytic cycle—when Fe3+-heme is bound to the HRMs and the core is in the apo state. These conformational changes were consistent with transfer of heme between binding sites. Indeed, we observed that HRM-bound Fe3+-heme is transferred to the apo-core either upon independent expression of the core and of a construct spanning the HRM-containing tail or after a single turnover of heme at the core. Moreover, we observed transfer of heme from the core to the HRMs and equilibration of heme between the core and HRMs. We therefore propose an Fe3+-heme transfer model in which HRM-bound heme is readily transferred to the catalytic site for degradation to facilitate turnover but can also equilibrate between the sites to maintain heme homeostasis.




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Withdrawal: Distinct roles of Ape1 protein, an enzyme involved in DNA repair, in high or low linear energy transfer ionizing radiation-induced cell killing. [Withdrawals/Retractions]

VOLUME 289 (2014) PAGES 30635–30644This article has been withdrawn by Guangnan Chen, Dongkyoo Park, Francis A. Cucinotta, David S. Yu, Xingming Deng, William S. Dynan, Paul W. Doetsch, and Ya Wang. Hongyan Wang, Xiang Wang, Xiangming Zhang, and Xiaobing Tang could not be reached. The last two lanes of the actin immunoblot in Fig. 1A were reused in the last two lanes of the actin immunoblot in Fig. 1C. In Fig. 2A, the γ-H2AX and the merge with DAPI images for no IR treatment do not match. In Fig. 3A, lanes 3 and 4 of the γ-H2AX immunoblot were reused in lanes 7 and 8, and lanes 5 and 6 of the H2A immunoblot were reused in lanes 7 and 8. In Fig. 3B, lanes 5 and 6 of the H2A immunoblot were reused in lanes 7 and 8. In Fig. 3C, lanes 5 and 6 of the γ-H2AX immunoblot were reused in lanes 7 and 8. Additionally, lanes 1 and 2 of the H2A immunoblot were reused in lanes 3 and 4. In Fig. 3D, lanes 1 and 2 of the Mre11 immunoblot from lysates were reused in lanes 4 and 5. In the γ-H2AX immunoblot, lane 3 was reused in lane 7, and lane 4 was reused in lanes 6 and 8. Also in the H2A immunoblot, lanes 1 and 2 were reused in lanes 3 and 4. In Fig. 4B, lanes 2 and 6 of the Mre11 immunoblot from Ogg1−/− cells are the same. In the Ape1...




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The Escherichia coli cellulose synthase subunit G (BcsG) is a Zn2+-dependent phosphoethanolamine transferase [Glycobiology and Extracellular Matrices]

Bacterial biofilms are cellular communities that produce an adherent matrix. Exopolysaccharides are key structural components of this matrix and are required for the assembly and architecture of biofilms produced by a wide variety of microorganisms. The human bacterial pathogens Escherichia coli and Salmonella enterica produce a biofilm matrix composed primarily of the exopolysaccharide phosphoethanolamine (pEtN) cellulose. Once thought to be composed of only underivatized cellulose, the pEtN modification present in these matrices has been implicated in the overall architecture and integrity of the biofilm. However, an understanding of the mechanism underlying pEtN derivatization of the cellulose exopolysaccharide remains elusive. The bacterial cellulose synthase subunit G (BcsG) is a predicted inner membrane–localized metalloenzyme that has been proposed to catalyze the transfer of the pEtN group from membrane phospholipids to cellulose. Here we present evidence that the C-terminal domain of BcsG from E. coli (EcBcsGΔN) functions as a phosphoethanolamine transferase in vitro with substrate preference for cellulosic materials. Structural characterization of EcBcsGΔN revealed that it belongs to the alkaline phosphatase superfamily, contains a Zn2+ ion at its active center, and is structurally similar to characterized enzymes that confer colistin resistance in Gram-negative bacteria. Informed by our structural studies, we present a functional complementation experiment in E. coli AR3110, indicating that the activity of the BcsG C-terminal domain is essential for integrity of the pellicular biofilm. Furthermore, our results established a similar but distinct active-site architecture and catalytic mechanism shared between BcsG and the colistin resistance enzymes.




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Mechanistic insights explain the transforming potential of the T507K substitution in the protein-tyrosine phosphatase SHP2 [Signal Transduction]

The protein-tyrosine phosphatase SHP2 is an allosteric enzyme critical for cellular events downstream of growth factor receptors. Mutations in the SHP2 gene have been linked to many different types of human diseases, including developmental disorders, leukemia, and solid tumors. Unlike most SHP2-activating mutations, the T507K substitution in SHP2 is unique in that it exhibits oncogenic Ras-like transforming activity. However, the biochemical basis of how the SHP2/T507K variant elicits transformation remains unclear. By combining kinetic and biophysical methods, X-ray crystallography, and molecular modeling, as well as using cell biology approaches, here we uncovered that the T507K substitution alters both SHP2 substrate specificity and its allosteric regulatory mechanism. We found that although SHP2/T507K exists in the closed, autoinhibited conformation similar to the WT enzyme, the interactions between its N-SH2 and protein-tyrosine phosphatase domains are weakened such that SHP2/T507K possesses a higher affinity for the scaffolding protein Grb2-associated binding protein 1 (Gab1). We also discovered that the T507K substitution alters the structure of the SHP2 active site, resulting in a change in SHP2 substrate preference for Sprouty1, a known negative regulator of Ras signaling and a potential tumor suppressor. Our results suggest that SHP2/T507K's shift in substrate specificity coupled with its preferential association of SHP2/T507K with Gab1 enable the mutant SHP2 to more efficiently dephosphorylate Sprouty1 at pTyr-53. This dephosphorylation hyperactivates Ras signaling, which is likely responsible for SHP2/T507K's Ras-like transforming activity.




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MtrP, a putative methyltransferase in Corynebacteria, is required for optimal membrane transport of trehalose mycolates [Lipids]

Pathogenic bacteria of the genera Mycobacterium and Corynebacterium cause severe human diseases such as tuberculosis (Mycobacterium tuberculosis) and diphtheria (Corynebacterium diphtheriae). The cells of these species are surrounded by protective cell walls rich in long-chain mycolic acids. These fatty acids are conjugated to the disaccharide trehalose on the cytoplasmic side of the bacterial cell membrane. They are then transported across the membrane to the periplasm where they act as donors for other reactions. We have previously shown that transient acetylation of the glycolipid trehalose monohydroxycorynomycolate (hTMCM) enables its efficient transport to the periplasm in Corynebacterium glutamicum and that acetylation is mediated by the membrane protein TmaT. Here, we show that a putative methyltransferase, encoded at the same genetic locus as TmaT, is also required for optimal hTMCM transport. Deletion of the C. glutamicum gene NCgl2764 (Rv0224c in M. tuberculosis) abolished acetyltrehalose monocorynomycolate (AcTMCM) synthesis, leading to accumulation of hTMCM in the inner membrane and delaying its conversion to trehalose dihydroxycorynomycolate (h2TDCM). Complementation with NCgl2764 normalized turnover of hTMCM to h2TDCM. In contrast, complementation with NCgl2764 derivatives mutated at residues essential for methyltransferase activity failed to rectify the defect, suggesting that NCgl2764/Rv0224c encodes a methyltransferase, designated here as MtrP. Comprehensive analyses of the individual mtrP and tmaT mutants and of a double mutant revealed strikingly similar changes across several lipid classes compared with WT bacteria. These findings indicate that both MtrP and TmaT have nonredundant roles in regulating AcTMCM synthesis, revealing additional complexity in the regulation of trehalose mycolate transport in the Corynebacterineae.




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Refuse transfer subsidy disbursed

The Government today announced that the Environment Bureau has disbursed about $6.5 million in subsidies to 809 private municipal solid waste collectors by cheque.

 

Under the Government's latest round of anti-epidemic measures, the bureau launched the Subsidy Scheme for the Refuse Transfer Station Account Holders for Transporting Municipal Solid Waste to provide a one-off relief subsidy of $8,000 to each eligible private municipal solid waste collector.

 

To provide financial support to the industry as soon as possible, the Environmental Protection Department, following funding approval by the Legislative Council Finance Committee, expedited the subsidy disbursement arrangement by waiving the application procedures.

 

The cheques have been issued and posted to all eligible private collectors.

 

Eligible collectors are refuse transfer station account holders who transported municipal solid waste to refuse transfer stations or landfills in the first quarter of the year.

 

The subsidy will assist them in increasing resources to enhance workers' personal protective equipment and strengthen the disinfection of refuse transport vehicles to curb the risk of virus transmission and maintain environmental hygiene.




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How Laws of Motion Is Transforming Clothing Sizes for Women

Tuesday, September 3, 2019 - 20:45




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Civil engineering Professor Sharon Di wins NSF CAREER Award

(Columbia University School of Engineering and Applied Science) Sharon Di, assistant professor of civil engineering and engineering mechanics, has won a National Science Foundation CAREER Award for her work in the nascent field of autonomous vehicles and shared mobility transportation, areas rapidly being transformed by emerging communications and sensing technologies.




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OU Reproductive Medicine physician receives grant to further study frozen embryo transfers

(University of Oklahoma) OU Medicine recently received a $1.4 million grant from the National Institutes of Health to study one method of embryo transfer involved in IVF: cryopreserved (frozen) embryo transfer.