Ginger Fingers

Home » Posts tagged 'GingerFingers'

Tag Archives: GingerFingers

Burrowing Nematode in Spice and Fruit Crops and Their Management by Novel Biocontrol Strategies

Credit: Djiwanti, S.R.

The burrowing nematode, Radopholus similis is one of the tropics’ ten most important plant parasitic nematodes, limiting the productivity of banana and black pepper plantations. Nematode-related losses are estimated to range between 20 to 80%. Chemical nematode control is unfavorable and detrimental to both human health and environmental health. Biological nematode control is one of the most effective alternatives to chemical nematicide. The fundamental tenet of R. similis biocontrol is the utilization of nematode-antagonistic fungi and bacteria as active bionematicides for its management, including mycorrhizal fungi from the Glomus and Trichoderma genera, Fusarium oxysporum endophytes, Purpureocilium lilacinum, and bacteria from the fluorescent pseudomonads, Bacillus spp., Corynebacterium paurometabolum, and Serratia marcescens. This group has been expanded to include Blattisocius dolichus (Acari: Blattisociidae) as a potential biocontrol agent for the nematode due to its predation ability on R. similis. Some biocontrol agents are available as commercial formulations such as wettable powder (WP), water dispersible granular (WG), talc-based products, vermiculite flakes, and dry root powder. This chapter highlights the parasitism of the burrowing nematode, the beneficial microorganisms’ antagonistic bioactivity, as well as its benefits and drawbacks in the biocontrol of the burrowing nematode. The strategic affective applications of the biocontrol agents against the nematode were also discussed in this chapter number 18 of the book titled “Novel Biological and Biotechnological Applications in Plant Nematode Management” edited by M.R. Khan and published by Springer, Singapore.

Reference:

Djiwanti, S.R., Wiratno, Kaushik, S. (2023). Burrowing Nematode in Spice and Fruit Crops and Their Management by Novel Biocontrol Strategies. In: Khan, M.R. (eds) Novel Biological and Biotechnological Applications in Plant Nematode Management. Springer, Singapore. https://doi.org/10.1007/978-981-99-2893-4_18

Biosensor for Detection of Disease at an Early Stage

A research team led by Dr. Larysa Baraban at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) develops intelligent, miniaturized biosensor devices and systems using nanomaterials to determine biomolecules and cells as well as biochemical reactions or processes as disease markers.The ability to detect diseases at an early stage or even predict their onset would be of tremendous benefit to doctors and patients alike. These biosensors can be designed to specifically detect different biomolecules. Different pathogens cause different electrical potentials and therefore different currents. For example, cancer cells cause different currents than a flu virus.

The team’s current publication in Biosensors and Bioelectronics describes the development of a portable, palm-sized test system that can simultaneously carry out up to 32 analyses of one sample.

Various possibilities and mechanisms exist for detecting pathogens in body fluids. One option that Baraban investigates at the HZDR-Institute of Radiopharmaceutical Cancer Research is the detection using field-effect transistors (FETs) from the realm of electronics.

The operating principle is simple: a defined electrical current flows from A to B. This current can be regulated by the electrical potential on the surface of a gate, which functions like a precise, continuous valve.

Disease-relevant biomolecules bind to the gate surface and thereby change the electrical potential and therefore the current as well. If there is no significant change in the current, no biomolecules have bound to the sensor surface. On the other hand, a change in the current means that disease-related molecules can be detected on the sensor surface.

For more details please see the following research article…

A new approach for fast and cost-effective pathogen detection https://phys.org/news/2024-02-approach-fast-effective-pathogen.html

https://phys.org/news/2024-02-approach-fast-effective-pathogen.amp

Organic Farming

Organic farming which relies on ecological principles to ensure a healthy harvest is being honored today for its innovative approach to food production. Organic farming is an all-encompassing practice that improves the health of the soil, safeguards biodiversity, and benefits both people and the planet because it works in tandem with nature.

Basic Foundations and Advantages.

The use of chemical inputs like fertilizers, pesticides, and GMOs is forbidden in organic agriculture.
Instead, composting, crop rotation, and other forms of natural pest control are emphasized to increase soil fertility. By eschewing synthetic chemicals, organic farmers can lessen their environmental impact, decrease water pollution, and protect plant and animal species from extinction. It promotes a healthy environment home to numerous species of birds, insects, and microorganisms. The health and happiness of those involved in organic farming is also a top priority. It ensures that people have access to food that is both healthy and free of potentially dangerous chemical residues.
In addition, it strengthens regional economies and helps farmers secure long-term financial stability. Organic farming has effects beyond the farm gate that help slow global warming. Reduced greenhouse gas emissions and increased future sustainability and resilience are achieved through carbon sequestration in soil and decreased use of fossil fuel-based inputs. The organic farmers who toil away in harmony with nature bring us delicious food. We can build a more robust and resilient food system by opting for organic products and encouraging farmers to adopt sustainable practices.

Source: Amotoe-Bondzie Anthony from a LinkedIn post

MicroRNA

Working of miRNA

MicroRNA (miRNA) consist of a family of molecules that helps cells to control the kinds and amount of proteins. In other words cells use these molecules to help in controlling gene expression of a particular gene in making too much or too little or the normal amount of protein at a particular time. Protein expression helping to know how cells use gene’s DNA to make protein. Mature micro RNA are a class of naturally occurring, small non-coding, RNA molecules about 21-25 nucleotide in length. These molecules are complementary to one or more m RNA molecules and their main function is to downregulate gene expression in a variety of manners including translation repression, m RNA cleavage, and deadenylation. They were they were first described in 1993 by Lee and his colleagues, and the term was coined in 2002. Thousands of miRNA have been identified in various organisms through random cloning and sequencing or computational prediction. The miRBase hosted by Sanger Institute provides miRNA nomenclature, sequence data, annotation and target prediction information.

MicroRNA have applications in research areas such as cancer, infectious disease, immunological disorder, cardiovascular disease, neurological disease.

For more information, please see the following video:

Basics of MicroRNA
Gene Silencing
Gene Silencing
Biogenesis

Nanosensors technology for smart intelligent agriculture

Sensing and actuation

Agriculture requires technical solutions for increasing production while lessening environmental impact by reducing the application of agrochemicals and increasing the use of environmentally friendly management practices. Both biotic and abiotic stresses lead to a massive loss in crop yield, leading to a decrease in agricultural production worldwide. The loss of agricultural products can be minimized by adopting modern technology such as smartphones with nanosensors to detect crop stress at an early stage. Smart and precision agriculture are emerging areas where nanosensors and electronic devices can play an important role in improving crop productivity by monitoring crop health status in real-time. Various types of nanosensors have been reported for the detection and monitoring of plant signal molecules and metabolic contents related to biotic and abiotic stresses. Nanobiosensors are customized using various properties of nanomaterials to combat various challenges of contemporary techniques. Nanobiosensors have unprecedented levels of performance for sensing the ultra-trace amount of various analytes for in vivo measurement. These nanosensors communicate with and actuate electronic devices for agricultural automation. Thus, both biotic and abiotic plant stresses and nutritional deficiency are monitored in real-time to report crop health status for precise and efficient use of resources. This chapter discusses the recent advances in nanosensors technology and their applications for smart intelligent agriculture.

Chapter number 14

Nanosensor Technology for Smart Intelligent Agriculture
By Suresh Kaushik

Book
Agricultural Biotechnology
Edition 1st Edition
First Published 2022
Imprint CRC Press
Pages 33
eBook ISBN 9781003268468

https://doi.org/10.1201/9781003268468

https://lnkd.in/dryNXShC

Volatile Organic Compounds and E-Nose

How to Protect Your Online Information?

In recent times there are several cyberattacks in the world. On January 19, 2023, the information related to mobile phone numbers, names, and birth date of 37 million customers was stolen in a cyberattack. This information could be used for phishing scams or social engineering. To keep your digital identity safe, CMIT Solutions suggested a few quick tips to protect your online digital information.

Here are the tips provided by CMIT Solutions:

CMIT Solutions

Safe Online Shopping Tips during Festival and Holiday Season

Photo by Andri on Pexels.com

People will flood retail stores and e-commerce sites over the next few weeks in search of gifts because the holiday shopping season is approaching soon. As the ease of online shopping has increased, that convenience has become a double-edged sword. It allows consumers to shop when and where they want—but it also gives cybercriminals a chance to take advantage of unsuspecting shoppers. Hackers are after home addresses, login credentials, credit card numbers, and other personal information. Online transactions can unfold in several ways. Some bad actors build illicit websites that look like standard e-commerce portals and then try to lure users in with the promise of big savings. Some hackers send phishing messages with fake shipping notifications to capitalize on our desire to track incoming packages. And some hackers will try to intercept unsecured credit card transactions to steal account information. Luckily, many scams are easy to spot—and easy to avoid. Consider adopting the same habits online that you do in person: keeping track of your valuables, stashing credit cards after you complete a purchase, and remaining alert to unusual behavior around you. CMIT Solutions has compiled the tips (please see the attached pdf file) to stay safe this holiday season, blending common-sense advice with savvier strategies for online shopping.
Source: https://www.cmitsolutions.com/edison-piscataway

Artificial Intelligence in Smart Futuristic Agriculture

AI-powered Technologies in Futuristic Smart Farming

Artificial Intelligence-driven Technologies in Agriculture

Artificial Intelligence in agriculture is the creation and study of computers and software’s capable of intelligent behavior which helps in creating ‘Self Learning Algorithms & Capabilities’, leading to automation on-ground agriculture practices. Farm activities such as field sowing, ploughing, fertilizer application, insecticide spray, harvesting, weeding and post-harvest land-replenishing can be carried out by the applications and processes developed around AI. AI comes as a great boon to the agricultural sector which is slowly but surely making its presence in agricultural sector.

Agriculture is a dynamic domain where solutions cannot be generalized to suggest a common solution. AI techniques have enabled us to capture the intricate details of each situation and provide a solution that is best fit for that particular problem. AI can be employed for agricultural product monitoring and storage control. Storage, drying and grading of the harvested crops are important aspects of agriculture. Hence, AI can be employed in addressing various food monitoring and quality control mechanisms. The crop yield prediction is very beneficial for marketing strategies and crop cost estimation.

Listen to this article on YouTube and Speechify.

AI in Agriculture

https://speechify.page.link/wjj4ibPQgdzX51KH8

GEAC Approves GM Mustard for Environmental Release

India’s apex Biotech regulator, Genetic Engineering Appraisal Committee (GEAC), has recommended indigenously developed India’s first-ever transgenic food crop genetically modified mustard containing two alien genes isolated from non-pathogenic soil bacterium called Bacillus amyloliquefaciens. The transgenic mustard variety DMH – 11 was developed by Dr. Deepak Pental, and his colleagues from the Centre for Genetic Manipulation of Crop Plants at the University of Delhi, South Campus.
GM mustard DMH – 11 was created through transgenic technology involving the Bar, Barnase and Barstar gene system. The Barnase gene confers male sterility, while the Barstar gene restores DMH – 11’s ability to produce fertile seeds. The insertion of the third gene Bar enables DMH – 11 to produce phosphinothricin-N- acetyl-transferase, the enzyme responsible for Glufosinate resistance. Glufosinate resistance is due to an enzyme expressed by the Bar (Bialaphos resistance) gene. The cloned Bar gene (derived from Streptomyces hygroscopicus) encodes for the synthesis of phosphinothricin-N- acetyl-transferase (PAT). PAT enzymes produced by the Bar gene, deactivate Bialaphos (the tripeptide precursor to phosphinothricin) through acetylation to form an inactive, non-toxic product. This enzyme is responsible for detoxifying the active ingredient in the herbicide Glufosinate-phosphinothricin. Phosphinothricin’s mechanism of action involves the inhibition of Glutamine synthetase, which prevents the detoxification of ammonia and subsequently causes toxic buildup within plant cells. Inhibition of glutamine synthetase also leads to an overall reduction in Glutamine levels. In plants, Glutamine acts as a signaling molecule, and as a major amino acid donor for nucleotide synthesis. Hence, this GM mustard DMH – 11 is Glufosinate tolerant, and therefore it is thought to encourage farmers to liberally spray the herbicide upon commercialization.


So far, India has not approved any commercial cultivation of transgenic food crops. It will be the first GM food to be approved by Govt of India for commercial cultivation. This approval for GM mustard was a long wait but better late than never. Transgenic Bt-cotton was allowed for cultivation by the Government of India in the year 2002. The decision comes on the backdrop of soaring edible oil prices in the past few years. India meets 70 percent of its domestic cooking oil demand by importing a variety of oils such as sunflower, soybean, and palm. Still, we are continuing to import larger volumes of GM soybean oil from USA, Brazil, and Argentina. India has imported 4.1 million tonnes of GM soybean oil in 2021-22. The decision by GEAC was taken during its 147th meeting held on October 18, 2022. The regulator recommended the “environmental release of mustard hybrid DMH-11 for its seed production and testing as per existing ICAR guidelines and other rules/regulations before proper commercial release. GM mustard was found not to pose any food allergy risks and has demonstrated increased yields over existing mustard varieties. Conflicting details and results regarding the field trials and safety evaluations conducted on GM mustard have delayed its approval for commercial cropping.


In 2017, GEAC has recommended the commercial release of GM mustard but due to objections from Swadeshi Jagran Manch, an affiliate of RSS, the Govt. of India has put it on hold. Similarly, transgenic brinjal was put on indefinite moratorium in 2010 by then environment minister Jairam Ramesh. GM mustard technology will now accelerate mustard breeding programmes for bringing a new revolution in mustard farming by enhancing edible oil production in the country. The project to develop DMH – 11 received funding from the National Dairy Development Board of India and the Department of Biotechnology (DBT).

To view GEAC report, please click the following link:

An article by Dr. Renu Swarup, former Secretary, DBT on Gene- based technology for enhancing Food Security

Futuristic Crop Farming

Drone capturing image of the field

The technological revolution in farming led by advances in robotics and sensing technologies looks set to disrupt modern practice. Although some of these technologies are already available, most are at the research stage in labs. Farmers have adopted more technology in their pursuit of greater yields. But advances in robotics and sensing technologies are threatening to disrupt today’s agribusiness model. There is the potential for intelligent robots to change the economic model of farming so that it becomes feasible to be a small producer. Twenty-first-century robotics and sensing technologies have the potential to solve problems. Modern technology that can autonomously eliminate pests and target agrichemicals better will reduce collateral damage to wildlife, lower resistance and cut costs. The Food and Agriculture Organization of the United Nations estimates that 20–40% of global crop yields are lost each year to pests and diseases. Work is underway to improve monitoring and maintenance of soil quality, and to eliminate pests and disease without resorting to indiscriminate use of agrichemicals. Intelligent devices, such as robots and drones, could allow farmers to slash agrichemical use by spotting crop enemies earlier to allow the precise chemical application or pest removal. Drones with precision sprayers apply agrochemicals only where they are needed. Drones are also being used for smarter applications of nitrogen fertilizer. Overuse of agrichemicals such as nitrogen fertilizer is causing harm to the environment and human health.
For more information, please see an article by ANTHONY KING

Basics of ICP-MS

A video explaining the basics and working of ICP-MS using NexION 5000 model of PerkinElmer

Cones


NexION 5000

NexION 5000 Multi-Quadrupole ICP Mass Spectrometer
YouTube

https://www.linkedin.com/posts/drdavidprice_icpms-innovation-activity-6834395870759272448-houS

ICP-MS video

Flexible Electronics:New Technology

Ultrathin Flexible Circuit with wearable Sensor

New technique for producing ultrathin flexible electronics is described here. Please click the following link

Wearable Sensor Technology
Wearable Sensor for monitoring health status parameters

https://www.linkedin.com/posts/printed-electronics-world_new-manufacturing-technique-for-flexible-activity-6815600862090657792-Edlv

Five countries with Clean Coastal Water

Here is the list of countries with the most clean coastal water as described by World Economic Forum.

Austria
Cyprus

Croatia
Greece
Malta

How should tackle the water pollution?

https://www.linkedin.com/posts/world-economic-forum_170-million-people-a-year-fall-ill-after-activity-6808815119179530240-VFcw

Nature -Understanding Our Mother

Look deep into Nature, and then you will understand everything better
-Albert Einstein

Albert Einstein - Wikipedia

https://www.linkedin.com/posts/dhananjayedakhe_nature-worldenvironmentday2021-activity-6807183270934044672-LtBs

Hinduism- Some Amazing Facts

Five ways to work smarter for enhancing efficiency and more productivity

Five ways to work smarter for enhancing efficiency and more productivity as suggested by CMIT Solutions.


Please click the following link to watch the video describing 5 smart strategies for increasing efficiency of work

https://www.linkedin.com/posts/ravibadgecmitsolutionsmanageditservices_video-5-ways-to-work-smarter-this-week-activity-6805564927563169792–6XH

Soil Health: Assessment by Soil Carbon Status

Soil health assessment is generally measured by soil carbon status in various forms such as soil organic matter (SOM), total soil carbon, soil inorganic carbon, soil organic carbon using different analytical methods.

Please click the following link to explore further details for assessing soil health using soil carbon status by different methods.

https://doi.org/10.1002/crso.20076https://doi.org/10.1002/crso.20076

Food Pathogen Detection: From Culture Media to Universal Detection Systems of Multiple Pathogens

The article explains the development in methodology for food pathogens detection from culture-based methods to culture-independent methods.

Culture-dependent and-independent methods for detecting food pathogens
(Credit:BioExpert)

Universal Testing for Food Pathogens Detection (Credit: BioExpert)

Please click the following links to explore further details about these techniques.

https://www.printedelectronicsworld.com/articles/23813/new-creation-could-give-robots-human-like-sense-of-touch?rsst2id=1%2C4%2C8&utm_source=dlvr.it&utm_medium=linkedin

https://ask-bioexpert.com/blog-post/evolution-in-food-pathogen-detection-from-culture-media-to-universal-detection-systems-of-multiple-pathogens/

Covid-19: Mucormycosis Infection

Black Fungus (Credit:CDC)
Black Fungus (Credit:FirstPost)

This video explains about the Mucormycosis disease occuring after the Covid-19 coronavirus disease. Please click the following link for more information about it..

https://www.linkedin.com/posts/ramamurthy-lakshminarayanan-2181121a4_what-is-mucormycosis-or-black-fungus-infection-activity-6800650639073525760-bKqV

Bergey’s Manual – flow charts

Bacteria in Petridish
Chart1
Chart 2
Chart 3
Bacteria identification
Chart 4
Chart 5
Chart 6
Chart 7

https://www.linkedin.com/posts/eman-askar-834608132_bacterial-identification-flow-charts-activity-6765269931836678144-NneT

Soil Carbon- Recipe for Storing it.

Soil Carbon is an important resource for agricultural practices, but it not equally distributed. Here is an article explaining the recipe for storing soil carbon.

Please click the following link for the same..

https://www.linkedin.com/posts/michal-slota-arkop_soil-microbiome-carbon-activity-6800360125073801216-J8OZ

Smart Foam Sensing like Human-like Sense of Touch in Futuristic Robots

Scientists and technocrats at the National University of Singapore (NUS) are in process to develop smart electronic skin (E-Skin) foam named as Artificially innervated Foam (AiFoam) to be used in Robots just like for sensing similar to human touch.

For more information on this topic, please click the following links..

https://www.printedelectronicsworld.com/articles/23813/new-creation-could-give-robots-human-like-sense-of-touch?rsst2id=1%2C4%2C8&utm_source=dlvr.it&utm_medium=linkedin

https://www.linkedin.com/posts/printed-electronics-world_new-creation-could-give-robots-human-like-activity-6800033155257638912-RC0W

Monoclonal Antibodies for the treatment of Covid-19

https://wp.me/p84FZE-z8

Monoclonal Antibodies for the treatment of Covid-19

Monoclonal antibodies are a class of medicines that have transformed the way we prevent and treat diseases such as cancer and diseases of the immune system. They are proteins that the body produces to defend itself against disease, but are created in the lab and mass-produced in factories. That’s why these are also known as designer antibodies. This is one of the fastest-growing fields in biomedical research in future.

For more information about it, please click the following link:

https://www.gavi.org/vaccineswork/what-are-monoclonal-antibodies-and-can-they-treat-covid-19

25 Ways to Speed Up Your Windows 10 Computer for FREE! (2021)