Industries that Benefit from Digital Twin Applications


Image Credit: Science.org


Computer Modeling Experts Explain the Benefits of Digital Twins

A digital twin is a virtual representation of a real system – a building, the power grid, a city, even a human being – that mimics the characteristics of the system. A digital twin is more than just a computer model, however. It receives data from sensors in the real system to constantly parallel the system’s state.

A digital twin helps people analyze and predict a system’s behavior under different conditions. The systems being twinned are typically very complex and require significant effort to model and track.

Digital twins are useful in a wide variety of domains, including supply chains, health care, buildings, bridges, self-driving cars and retail customer personas to improve efficiency and reliability. For example, a warehouse operator can optimize a warehouse’s performance by exploring the response of its digital twin to various material handling policies and equipment without incurring the cost of making actual changes.

Even a wildfire can be represented by a digital twin. Government agencies can predict the spread of the fire and its impact under different conditions such as wind velocity, humidity and proximity to habitats, and use this information to guide evacuations.

Why Digital Twins Matter

Digital twins are often used to model, understand and analyze complex systems where performance, reliability and security of the system are critical. In such systems it is paramount to test any changes, whether planned or unplanned.

In order to accurately test changes to the state of the actual system and the effects of any possible stimulus, the digital twin must accurately represent the physical system in its current state. This requires the digital twin to receive continuous updates from the physical system via fast and reliable communications channels.

Creating and maintaining digital twins often involves vast amounts of data to represent various features of the real system. Collecting and processing this data requires advanced communication and computing technologies. Communication support typically involves high-speed internet connections and wireless networks such as Wi-Fi and 5G. Computational support is typically in the form of servers, either in the cloud or closer to the physical system.

This article was republished with permission from The Conversation, a news site dedicated to sharing ideas from academic experts. It was written by and represents the research-based opinions of Amlan Ganguly, Associate Professor of Computer Engineering, Rochester Institute of Technology and Nalini Venkatasubramanian, Professor of Computer Science, University of California, Irvine.


We and other faculty members at Rochester Institute of Technology and the University of California, Irvine are starting the Center for Smart Spaces Research, a research center sponsored by the National Science Foundation. One of the primary ongoing projects within this center is building the basic technologies for creating digital twins in a variety of applications.


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The Promise of Reengineered IL-12 to More Safely Kill Cancer Cells


Victor Segura Ibarra and Rita Serda/National Cancer Institute (Flickr)


‘Masked’ Cancer Drug Stealthily Trains Immune System to Kill Tumors While Sparing Healthy Tissues

Many cancer treatments are notoriously savage on the body. Drugs often attack both healthy cells and tumor cells, causing a plethora of side effects. Immunotherapies that help the immune system recognize and attack cancer cells are no different. Though they have prolonged the lives of countless patients, they work in only a subset of patients. One study found that fewer than 30% of breast cancer patients respond to one of the most common forms of immunotherapy.

This article was republished with permission from The Conversation, a news site dedicated to sharing ideas from academic experts. It was written by and represents the research-based opinions of Aslan Mansurov, Postdoctoral Researcher in Molecular Engineering, University of Chicago Pritzker School of Molecular Engineering.

But what if drugs could be engineered to attack only tumor cells and spare the rest of the body? To that end, my colleagues and I at the University of Chicago’s Pritzker School of Molecular Engineering have designed a method to keep one promising cancer drug from wreaking havoc by “masking” it until it reaches a tumor.

The Promise of IL-12

Cytokines are proteins that can modulate how the immune system responds to threats. One way they do this is by activating killer T cells, a type of white blood cells that can attack cancer cells. Because cytokines can train the immune system to kill tumors, this makes them very promising as cancer treatments.

One such cytokine is interleukin-12, or IL-12. Though it was discovered more than 30 years ago, IL-12 still isn’t an FDA-approved therapy for cancer patients because of its severe side effects, such as liver damage. This is in part because IL-12 instructs immune cells to produce a large amount of inflammatory molecules that can damage the body.

Scientists have since been working to reengineer IL-12 to be more tolerable while retaining its powerful cancer-killing effects.

Masking the Killer

To create a safer version of IL-12, my colleagues and I took advantage of one of the main differences between healthy and cancerous tissue: an excess of growth-promoting enzymes in cancers. Because cancer cells proliferate very rapidly, they overproduce certain enzymes that help them invade the nearby healthy tissue and metastasize to other parts of the body. Healthy cells grow at a much slower pace and produce fewer of these enzymes.

With this in mind, we “masked” IL-12 with a cap that covers the part of the molecule that normally binds to immune cells to activate them. The cap is removed only when it comes into contact with enzymes found in the vicinity of tumors. When these enzymes chop off the cap, IL-12 is reactivated and spurs nearby killer T cells to attack the tumor.

When we applied these masked IL-12 molecules to both healthy and tumor tissue donated by melanoma and breast cancer patients, our results confirmed that only the tumor samples were able to remove the cap. This indicated that masked IL-12 could potentially drive a strong immune response against tumors without causing damage to healthy organs.

We then examined how safe masked IL-12 is by measuring liver damage biomarkers in mice. We found that immune-related side effects typically associated with IL-12 were notably absent in mice treated with masked IL-12 over a period of several weeks, indicating improved safety.

In breast cancer models, our masked IL-12 resulted in a 90% cure rate, while treatment with a commonly used immunotherapy called a checkpoint inhibitor resulted in only a 10% cure rate. In a model of colon cancer, masked IL-12 showed a 100% cure rate.

Our next step is to test the modified IL-12 in cancer patients. While it will take time to bring this encouraging development directly to patients, we believe a promising new treatment is on the horizon.


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Baudax Bio (BXRX) – BX2000 Phase I First Cohort Dosed

Thursday, June 02, 2022

Baudax Bio (BXRX)
BX2000 Phase I First Cohort Dosed

Baudax Bio is a pharmaceutical company focused on innovative products for acute care settings. ANJESO is the first and only 24-hour, intravenous (IV) COX-2 preferential non-steroidal anti-inflammatory (NSAID) for the management of moderate to severe pain. In addition to ANJESO, Baudax Bio has a pipeline of other innovative pharmaceutical assets including two novel neuromuscular blocking agents (NMBs) and a proprietary chemical reversal agent specific to these NMBs. For more information, please visit www.baudaxbio.com.

Gregory Aurand, Senior Research Analyst, Healthcare Services & Medical Devices, Noble Capital Markets, Inc.

Refer to the full report for the price target, fundamental analysis, and rating.

Phase I Neuromuscular Blocking Agent (NMB) trial advances.  The BX2000 trial is a double-blind, placebo-controlled dose escalation study with up to 10 dosing cohorts. Each cohort will enroll 8 patients and the Company yesterday announced the first cohort has been dosed.  The study will evaluate safety, pharmacokinetics, and time course of the neuromuscular blocking profile.

Baudax Bio now has two novel NMBs in the clinic. BX1000 is a rapid onset, intermediate acting agent that has completed the dose escalation Phase I and is currently moving toward Phase II. BX2000 is a rapid onset, ultra-short acting agent with Phase I dose escalation enrollment expected to be completed by early 2023.

This Company Sponsored Research is provided by Noble Capital Markets, Inc., a FINRA and S.E.C. registered broker-dealer (B/D).

*Analyst certification and important disclosures included in the full report. NOTE: investment decisions should not be based upon the content of this research summary. Proper due diligence is required before making any investment decision. 

Release – Comtech Strengthens Leadership Team for Its U.S. Based Satellite-Focused Business Line



Comtech Strengthens Leadership Team for Its U.S. Based Satellite-Focused Business Line

Research, News, and Market Data on Comtech Telecommunications


Appointments
of New Divisional Chief Operating Officer and General Manager Lend Deep
Communications & Defense Experience to Comtech

MELVILLE, N.Y.–(BUSINESS WIRE)–Jun. 2, 2022– June 2, 2022– Comtech Telecommunications Corp. (NASDAQ: CMTL), a leading global provider of next-generation 911 emergency systems and secure wireless communications technologies, announced today that it has appointed a new divisional Chief Operating Officer (COO) in Jon Opalski and created a new General Manager of Digital Products position that will be filled by Bob Pescatore. Both individuals bring deep communications and military expertise to Comtech’s satellite business line and will report to Daniel Gizinski who was named President of Comtech’s U.S. based satellite product line in January 2022.

Mr. Opalski will be responsible for driving operational excellence at both Comtech’s existing Santa Clara site and for the new state-of the-art Chandler, Arizona high-volume manufacturing and technology facility. Mr. Pescatore will lead the Satellite Network Technologies Digital Products Team in continuing development of industry leading satellite modems, network products, and cybersecurity support, ensuring flawless program execution and high customer satisfaction.

“Jon and Bob’s record of success and proven leadership skills make them highly qualified and ensure that we will strengthen our ability to serve government and commercial customers who have a need for integrated satellite-based solutions developed and manufactured in-house at facilities based in the United States,” said Michael Porcelain, CEO and President of Comtech.

About Jon
Opalski and Robert (“Bob”) Pescatore

Opalski joins Comtech from Benchmark Electronics, Inc. a multi-billion-dollar, world-class technology, engineering, and manufacturing service company that includes focus on next-generation technology and defense products. He served as General Manager of the Lark RF Technology Group where he oversaw a team of engineering and production personnel focused on RF/Microwave products. Opalski has also held several senior executive roles at REMEC Broadband Wireless Networks, including President and COO, where he managed hundreds of millions of dollars of RF and microwave solutions for the wireless telecom infrastructure market.

Pescatore joins Comtech from Cubic Corporation, a multi-billion-dollar defense company. At Cubic, Pescatore held a variety of executive level positions including Sr. Director of Halo Enterprise, Vice President and General Manager of Ground Training Solutions, Program Director for Air Ranges, and Business Development Director for Airborne Systems and Information Superiority. His earlier career was with the United States Marines Corps where he served 20 years as a Marine F/A 18 pilot.

About Comtech

Comtech Telecommunications Corp. is a leading global provider of next-generation 911 emergency systems and secure wireless communications technologies to commercial and government customers around the world. Headquartered in Melville, New York and with a passion for customer success, Comtech designs, produces and markets advanced and secure wireless solutions. For more information, please visit www.comtechtel.com (and preview its new website at www.comtech.com).

Certain information in this press release contains statements that are forward-looking in nature and involve certain significant risks and uncertainties. Actual results could differ materially from such forward-looking information. The Company’s Securities and Exchange Commission filings identify many such risks and uncertainties. Any forward-looking information in this press release is qualified in its entirety by the risks and uncertainties described in such Securities and Exchange Commission filings.

PCMTL

View source version on 
businesswire.comhttps://www.businesswire.com/news/home/20220601006312/en/

Contacts
Investor
 Relations
Robert Samuels
631-962-7102

robert.samuels@comtech.com

Source: Comtech Telecommunications Corp.