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The Rise of GMO Hemp – The Latest Approval by the USDA on ‘Badger G’

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The Rise of GMO Hemp!

 

There’s a critical difference between traditional breeding of cannabis plants and genetically modifying them through biotechnology. Today, we’ll explore this distinction by examining the latest development in the cannabis industry – the USDA’s approval of a genetically modified (GMO) hemp strain.

 

Genetic modification involves directly altering the genes of an organism, introducing desirable traits not found in that species. This is different from breeding, which relies on selecting plants with advantageous genes that arise through natural genetic variation and crossbreeding them over multiple generations.

 

GMOs are already heavily utilized in major agricultural crops like corn, soy, and cotton. Given that industrial hemp falls under the jurisdiction of the U.S. Department of Agriculture (USDA), it’s unsurprising that hemp would follow this trend toward genetic engineering as the industry seeks to optimize traits and increase profits.

 

In this article, we’ll take a close look at the USDA’s recent approval of a GMO hemp strain called “Badger G” from the University of Wisconsin. This hemp variety has been genetically edited to eliminate the production of THC and CBD – the two most abundant and commercially significant cannabinoids found in cannabis plants. Instead, Badger G has been modified to increase levels of the lesser-known cannabinoid CBG.

 

By scrutinizing this landmark case of an approved GMO hemp cultivar, we can better understand the potential implications – both positive and negative – that genetic engineering could have on the rapidly evolving hemp industry. Key issues we’ll examine include potential cost savings, regulatory compliance, ethical concerns, and how this differs from traditional cannabis breeding programs.

 

 

Badger G is a genetically modified variety of hemp that was recently approved by the U.S. Department of Agriculture (USDA) for cultivation in the United States. Developed by researchers at the University of Wisconsin’s Crop Innovation Center, it represents a pioneering step in the genetic engineering of cannabis plants.

 

As detailed in the USDA announcement, Badger G has been genetically edited to knock out the expression of the CBDAS gene, which is responsible for producing the cannabinoids CBD and THC. By eliminating this gene, the modified hemp strain does not contain any detectable levels of CBD or THC. Instead, Badger G produces elevated levels of the lesser-known cannabinoid cannabigerol (CBG).

 

So what problem does a non-THC, non-CBD hemp variety solve? One of the primary challenges facing hemp growers since its federal legalization in 2018 has been maintaining THC levels below the allowable 0.3% limit. Hemp crops testing “hot” over this threshold are considered non-compliant and subject to destruction – a costly error. By removing THC entirely from its genetic makeup, Badger G provides hemp farmers with a bio-engineered solution to ensure legal compliance without this regulatory risk.

 

Furthermore, Badger G highlights how genetic engineering could enable specialized hemp cultivars tailored for different applications. While the source plant is extremely versatile with uses spanning textiles, food, supplements, biofuels and more, certain traits may be optimized for particular industries. A CBG-rich strain like Badger G could focus on pharmaceutical or nutraceutical markets, while other GMO varieties may enhance fiber quality for textiles, increase seed oil yields, or boost nutrition profiles for animal and human consumption.

 

This capacity for genetic differentiation supports the notion that hemp is not a one-size-fits-all crop. By harnessing biotechnology, the hemp industry could develop multiple distinct varietals suited for diverse commercial streams – textiles, food and beverage, dietary supplements, industrial materials, livestock feed, and so on. Growers and businesses could strategically select the specific traits and cannabinoid/terpene profiles best aligned with their product goals.

 

Of course, Badger G represents just an initial foray into genetically engineered cannabis. While targeted for industrial hemp, this development begs the question – when might we see GMO marijuana strains tailored for the adult-use market? breeding programs have already produced specialized cannabis chemovars high in THC, CBD, and lesser-known molecules like THCV and CBG. However, precise gene editing could take this even further, allowing scientists to truly customize cannabinoid and terpene profiles with immense specificity.

 

Most cannabis industry experts agree that genetically modified marijuana cultivars are an inevitability, despite the current uncertainty surrounding regulations. The FDA has already approved synthetically producing individual cannabinoids like THC and CBD. Given the immense commercial prospects, it seems only a matter of time before biotech firms develop patented GMO cannabis strains optimized for pharmaceutical or recreational markets. So while Badger G may be the first, it likely foreshadows many more genetically engineered varieties to come across the entire cannabis genus.

 

 

While both involve altering the genetics of an organism, there are critical differences between selective breeding and genetically modifying (GM) a plant through techniques like gene editing or genetic engineering. Selective breeding relies solely on natural methods to produce desired traits, whereas genetic modification directly manipulates an organism’s genes using biotechnology.

 

Selective breeding takes advantage of the natural genetic diversity present within a plant species. Breeders select parental plants with specific favorable traits and cross-pollinate them over successive generations. By consistently choosing offspring with the most desirable characteristics, conventional breeding programs can gradually concentrate useful genes and weed out unfavorable ones. However, this is limited to the genetic variation already present in that species’ gene pool.

 

In contrast, genetic modification allows plant scientists to directly add, remove, or edit specific genes from completely different organisms – capabilities far beyond what selective breeding can achieve through natural processes. Common GM techniques include inserting a bacterial gene to confer insect resistance, knocking out genes to disable certain pathways, or using gene editing tools like CRISPR to precisely tweak genomic sequences.

 

This added power brings added risks as well. Critics of GM crops raise concerns about potentially unintended consequences of altering an organism’s genes in unpredictable ways. There are also ethical debates around combining genes from vastly different species in ways that wouldn’t occur naturally. Some worry about potential health or environmental impacts we may not yet understand.

 

Proponents counter that GM crops are extensively tested and there is no evidence of harm from commercially-approved varieties. They argue genetic engineering is simply an extension of the genetic modification humans have done through breeding for millennia, now with far greater precision.

 

Regardless of one’s stance, the advent of gene editing tools like CRISPR have made genetically modifying plants drastically easier, faster, and cheaper than past methods of genetic engineering. With the right knowledge and equipment, virtually any gene sequence can now be disabled, edited, or swapped between organisms – including introducing animal or bacterial genes into plants with pinpoint accuracy.

 

As these biotechnologies become increasingly accessible, genetic modification will likely play a growing role in agriculture alongside conventional breeding programs. While more research into long-term impacts is still needed, GMOs seem poised to become a standard method for optimizing crop traits and developing plant varieties difficult or impossible to achieve through breeding alone.

 

 

 

As we’ve explored, the USDA’s approval of Badger G ushers in a new era of genetically modified hemp. But the broader implications extend far beyond this solitary GMO cultivar – it signals that genetic engineering has arrived for cannabis crops in a major way. While Badger G represents an initial step for industrial hemp, other bioengineered marijuana strains seem inevitability as the technology pervades agriculture.

 

This prompts the perennial debate – are GMOs an ethical and safe application of science, or a risky overreach of humanity manipulating nature? As with many issues, the reality lies in a nuanced middle ground. Genetic modification is simply a technology, and like any powerful tool, it can be leveraged for either beneficial or harmful ends.

 

Critics raise valid concerns around potential unintended consequences of altering organisms’ genes in unpredictable ways that could impact health or the environment. At the same time, supporters rightly point out that GMOs are already ubiquitous and there is no evidence of issues from commercially approved bioengineered crops to date.

 

Ultimately, it’s a philosophical question of what truly constitutes “natural” versus “unnatural”. Humans tend to view our own creations and impacts as distinct from nature. But we are an expression of nature – biological beings inexorably intertwined with the systems we inhabit. Our technological innovations, no matter how staggeringly advanced, emerge from the natural world.

 

Even our most seemingly “unnatural” acts like factory farming cattle or mass incarceration stem from the nature of our species and its capabilities. Genetic modification is simply one manifestation of humanity’s natural propensity to ceaselessly manipulate its environment and push evolutionary boundaries.

 

That’s not to say all applications of biotechnology are ethical or risk-free by virtue of being “natural”. Catastrophic misuse of this powerful technology could absolutely imperil ecosystems and human welfare in disastrous ways. As with any transformative scientific breakthrough, genetic engineering demands rigorous oversight, robust testing, and a judicious, morally-grounded approach.

 

For the legal cannabis industry, GMOs appear inevitable as companies race to optimize strains and stake out intellectual property claims. Whether cultivating specialized pharmaceutical cultivars, enhancing psychoactive profiles for the adult market, or increasing hemp’s myriad commercial outputs, genetic modification provides a lucrative avenue that corporations will be hard-pressed to ignore.

 

So as the era of bioengineered cannabis dawns with Badger G, how this unfolds will be a complex interplay of technological progress, commercial incentives, consumer backlash or acceptance, regulatory oversight, and our collective approach to harnessing nature’s awesome power responsibly. Whichever path we traverse will simply be the latest expression of our own human nature.

 

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Webinar Replay: Post-Election Cannabis Wrap – Smoke ’em if You’ve Got ’em

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On Thursday, November 7th, Vince Sliwoski, Aaron Pelley and Fred Rocafort held a post election discussion “Post-Election Cannabis Wrap – Smoke ’em if You’ve Got ’em”. Watch the replay!

Key Takeaways from the “Smoke ’em if You’ve Got ’em – 2024 Post Election Cannabis Wrap” Webinar:

  1. Panelists:
    • Vince Sliwoski: Oregon Business lawyer specializing in cannabis and commercial real estate.
    • Aaron Pelley: Experienced in cannabis law since Washington’s legalization in 2012.
    • Fred Rocafort: Trademark attorney working closely with the cannabis team.
  2. Election Results Overview:
    • Most 2024 cannabis ballot measures did not pass.
    • Florida, South Dakota, and North Dakota saw failures.
    • Nebraska became the 39th state to legalize cannabis for medical use when it passed two cannabis initiatives, Initiatives 437 and 438.
  3. Federal and State-Level Developments:
    • Medical use is currently legal in 38 states, and 24 states allow recreational use.
    • Republican support for marijuana legalization is growing.
  4. Federal Policy Implications:
    • Schedule III Rescheduling: The process to move cannabis to Schedule III is ongoing, which could significantly impact the industry.
    • Importance of Federal Appointments: The future of cannabis policy depends heavily on who is appointed to key positions in the administration.
  5. International and Domestic Trade:
    • Schedule III status could ease import/export restrictions on cannabis.
    • Unified control of House, Senate, and presidency might expedite legislative progress.
  6. Economic and Industry Impact:
    • Cannabis stocks experienced volatility post-election, reflecting investor uncertainty.
    • Federal legalization and banking reforms are crucial for industry stability and growth.
  7. Future Outlook:
    • The potential for federal rescheduling remains strong, with hearings scheduled for early 2025.
    • State-level initiatives and regulatory developments will continue to shape the industry.

Watch the replay!



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I Had Just One Puff

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“How Long Does One Puff of Weed Stay in Your System?”… This topic can be difficult to answer since it is dependent on elements such as the size of the hit and what constitutes a “one hit.” If you take a large bong pull then cough, it might linger in your system for 5-7 days. A moderate dose from a joint can last 3-5 days, whereas a few hits from a vaporizer may last 1-3 days.

 

The length of time that marijuana stays in the body varies based on a number of factors, including metabolism, THC levels, frequency of use, and hydration.

 

Delta-9-tetrahydrocannabinol, or THC, is the primary psychoactive component of cannabis. THC and its metabolites, which remain in your body long after the effects have subsided, are detected by drug tests.

 

Since these metabolites are fat-soluble, they cling to bodily fat molecules. They could thus take a while to fully pass through your system, particularly if your body fat percentage is higher.

 

THC is absorbed by tissues and organs (including the brain, heart, and fat) and converted by the liver into chemicals such as 11-hydroxy-THC and carboxy-THC. Cannabis is eliminated in feces at a rate of around 65%, while urine accounts for 20%. The leftover amount might be kept within the body.

 

THC deposited in bodily tissues ultimately re-enters the circulation and is processed by the liver. For frequent users, THC accumulates in fatty tissues quicker than it can be removed, thus it may be detectable in drug tests for days or weeks following consumption.

 

The detection time varies according to the amount and frequency of cannabis usage. Higher dosages and regular usage result in longer detection times.

 

The type of drug test also affects detection windows. Blood and saliva tests typically detect cannabis metabolites for shorter periods, while urine and hair samples can reveal use for weeks or even months. In some cases, hair tests have detected cannabis use over 90 days after consumption.

 

Detection Windows for Various Cannabis Drug Tests

 

Urine Tests

Among all drug tests, urine testing is the most commonly used method for screening for drug use in an individual.

 

Detection times vary, but a 2017 review suggests the following windows for cannabis in urine after last use:

 

– Single-use (e.g., one joint): up to 3 days

– Moderate use (around 4 times a week): 5–7 days

– Chronic use (daily): 10–15 days

– Chronic heavy use (multiple times daily): over 30 days

 

Blood Tests

Blood tests generally detect recent cannabis use, typically within 2–12 hours after consumption. However, in cases of heavy use, cannabis has been detected up to 30 days later. Chronic heavy use can extend the detection period in the bloodstream.

 

Saliva Tests

THC can enter saliva through secondhand cannabis smoke, but THC metabolites are only present if you’ve personally smoked or ingested cannabis.

 

Saliva testing has a short detection window and can sometimes identify cannabis use on the same day. A 2020 review found that THC was detectable in the saliva of frequent users for up to 72 hours after use, and it may remain in saliva longer than in blood following recent use.

 

In areas where cannabis is illegal, saliva testing is often used for roadside screenings.

 

Hair Tests

Hair follicle tests can detect cannabis use for up to 90 days. After use, cannabinoids reach the hair follicles through small blood vessels and from sebum and sweat surrounding the hair.

 

Hair grows at approximately 0.5 inches per month, so a 1.5-inch segment of hair close to the scalp can reveal cannabis use over the past three months.

 

Factors Affecting THC and Metabolite Retention

 

The length of time THC and its metabolites stay in your system depends on various factors. Some, like body mass index (BMI) and metabolic rate, relate to individual body processing, not the drug itself.

 

Other factors are specific to cannabis use, including:

 

– Dosage: How much you consume

– Frequency: How often you use cannabis

– Method of consumption: Smoking, dabbing, edibles, or sublingual

– THC potency: Higher potency can extend detection time

 

Higher doses and more frequent use generally extend THC retention. Cannabis consumed orally may remain in the system slightly longer than smoked cannabis, and stronger cannabis strains, higher in THC, may also stay detectable for a longer period.

 

How Quickly Do the Effects of Cannabis Set In?

 

When smoking cannabis, effects appear almost immediately, while ingested cannabis may take 1–3 hours to peak.

 

The psychoactive component THC produces a “high” with common effects such as:

 

– Altered senses, including perception of time

– Mood changes

– Difficulty with thinking and problem-solving

– Impaired memory

 

Other short-term effects can include:

– Anxiety and confusion

– Decreased coordination

– Dry mouth and eyes

– Nausea or lightheadedness

– Trouble focusing

– Increased appetite

– Rapid heart rate

– Restlessness and sleepiness

 

In rare cases, high doses may lead to hallucinations, delusions, or acute psychosis.

 

Regular cannabis use may have additional mental and physical effects. While research is ongoing, cannabis use may increase the risk of:

 

– Cognitive issues like memory loss

– Cardiovascular problems including heart disease and stroke

– Respiratory illnesses such as bronchitis or lung infections

– Mood disorders like depression and anxiety

 

Cannabis use during pregnancy can negatively impact fetal growth and development.

 

Duration of Effects

Short-term effects generally taper off within 1–3 hours, but for chronic users, some long-term effects may last days, weeks, or even months. Certain effects may even be permanent.

 

Bottom Line

The amount of time that cannabis remains in your system following a single use varies greatly depending on individual characteristics such as body fat, metabolism, frequency of use, and mode of intake. Frequent users may maintain traces of THC for weeks, whereas infrequent users may test positive for as little as a few days. Hair tests can disclose usage for up to 90 days, while blood and saliva tests identify more recent use. Urine tests are the most popular and have varying detection durations. The duration that THC and its metabolites are detectable will ultimately depend on a number of factors, including dose, strength, and individual body chemistry.

 

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Is Kratom Addictive? Understanding Dependence, Risks, and Safe Usage

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Is kratom addictive? Discover the potential for dependence on Kratom, the risks involved with its use, and how to approach its consumption responsibly.

From 2011 to 2017, over 1,800 calls to poison centers involved kratom in the U.S. This significant number highlights the concern regarding kratom addiction.

However, without Food and Drug Administration (FDA) oversight, and due to various consumption methods like teas and capsules, there are significant health risks. Safe use of kratom is now in question due to these issues.

Research debates how dependence develops, outlining signs like loss of control and withdrawal symptoms. These signs are seen in regular kratom users. Ironically, some people switch from drugs like heroin to kratom, looking for a legal alternative.

Understanding Kratom: Origins and Prevalence

Kratom comes from the Mitragyna speciosa tree in Southeast Asia. It can act like a stimulant or like opioids, based on how much you take. People use it in different ways, for a small energy boost or stronger effects at higher doses.

The legal status of kratom in the U.S. is complicated and changing. It’s a hot topic because some worry about its misuse. It’s still legal in several states. This shows how different places handle drug rules. The National Institute on Drug Abuse is looking into its medical benefits. But, the FDA hasn’t approved it for medical use yet. The DEA calls it a “drug of concern,” which means policies might change.

  • From 2011 to 2017, poison control centers in the U.S. got over 1,800 reports about kratom. This shows it’s widely used and might pose health risks.

  • Kratom’s main ingredients bind to opioid receptors very strongly, stronger than morphine even. This fact is key to understanding its effects.

  • As more people use kratom, more are reporting serious health problems. These include liver and heart issues, and tough withdrawal symptoms, particularly in those already sick.

The statistics show mounting worries about kratom in the U.S. As its use grows, it’s becoming more important to health policies and laws. What happens next will depend on further research and legal decisions.

Is Kratom Addictive: Investigating the Substance’s Nature

The question of kratom’s addictiveness focuses on how it affects brain receptors and its long-term health implications. The ongoing debate highlights concerns about dependence and the risk of addiction. Scientists are closely looking at these issues.

How Kratom Works in the Brain

Kratom’s main alkaloids, mitragynine and 7-hydroxymitragynine, bind to the brain’s opioid receptors, similar to painkillers and narcotics. This connection suggests a potential risk of dependence. These alkaloids are key to kratom’s pain relief but also point to possible addiction concerns, especially with frequent, high-dose usage.

Patterns and Consequences of Long-term Use

  • Using kratom often, especially in large doses, can increase the risk of dependence and intense withdrawal symptoms, similar to opioid withdrawal.

  • Although some use it for pain or to improve mood, long-term kratom users might see serious health problems, like liver damage and mental health issues.

  • Withdrawal symptoms, including irritability, nausea, and sleep problems, show kratom’s impact on one’s physical and mental health.

Assessment of Addiction Risks

Studies indicate a significant risk of addiction to kratom, especially with high doses or frequent use. Dependence develops as the body gets used to kratom, leading to tolerance and a need for more to feel its effects. Withdrawal symptoms emphasize this risk, as highlighted by health experts.

Physiological Effects: Kratom’s Impact on the Body

There is a lot of debate about the safety and use of kratom. This herbal extract comes from the Mitragyna speciosa plant. It has drawn attention for its possible harmful effects on the body. The FDA has issued many warnings about kratom, raising safety concerns.

  • Kratom Adverse Effects: Kratom users have reported side effects like nausea, vomiting, and confusion. More serious issues include high blood pressure and liver damage. These problems highlight the risks of using kratom.

  • Herbal Extract Safety: Some kratom products contain heavy metals and pathogens. These can cause severe health issues, including death. This shows the importance of safety in herbal products.

  • FDA Warnings and Regulations: The FDA has linked kratom to over 35 deaths and warns against using it. They point out the lack of medical uses and the risk of addiction.

  • Physiological Impact: Kratom’s effects depend on the dose and the user’s body. Yet, it can lead to dangerous outcomes like liver damage and seizures.

  • Safety Concerns from Authorities: Federal agencies like the DEA are worried about kratom’s safety. Although not a controlled substance, monitoring suggests users should be careful.

Kratom might offer temporary relief for some ailments, but it comes with significant risks. The FDA’s warnings should make people think twice. If considering kratom, it’s crucial to talk to a doctor first. Experts stress the need for safety and caution with herbal extracts.

Conclusion

Kratom’s role in health and regulation is complex, with views and research findings widely varied. Some people use kratom for its claimed health benefits, but it’s a hot topic. Experts advise caution and suggest consulting a doctor before using kratom due to the unclear effects.

Clinical studies using scores like SOWS and COWS haven’t confirmed withdrawal symptoms from kratom. This adds to the debate, especially when some users report withdrawal. This makes kratom a controversial subject among different findings and user experiences.

When it comes to treating opioid addiction, kratom can be both helpful and harmful. Some have used it successfully to fight addiction. Yet, some states have banned it. This highlights the need for regulations and consistent product quality. It also raises questions about kratom’s legal status due to mixed actions by authorities.

The situation shows how complex kratom is in the realm of substance use and law. Without clear evidence supporting either its benefits or risks, it poses a challenge. More research is needed to guide regulations and health advice. For now, anyone thinking of using kratom should be careful, seek medical advice, and keep up with laws and health guidelines.

 

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