Tick Bites! What to Look For -

Here in Massachusetts, especially in Essex County, spending time outdoors exposes you to insect bites, including those from ticks. But since there are many different biting insects (especially the dreaded stinking Greenheads) in Massachusetts, identifying a tick bite isn't always straightforward, as they can resemble other insect bites. However, recognizing the signs is crucial for preventing tick-borne illnesses like Lyme disease. Signs of a tick bite vary but may include redness, itchiness, or a small bump after detachment.

Ticks are adept at attaching to skin due to their barbed mouths and cement-like secretion (yuck), often favoring warm, moist areas like the hairline, armpits, or groin. Depending on their life stage, ticks can feed for several days, increasing the risk of disease transmission. Tick bites may trigger allergic reactions, with symptoms ranging from a small red spot to more severe reactions or rashes, making identification challenging even for experts.

Distinguishing tick bites from other insect bites, such as mosquito or spider bites, can be challenging. While mosquito bites are typically itchy and may have multiple lesions, spider bites are rare and often leave distinct marks. Tick bites are usually painless but can cause itching. Why are tick bites painless? According to iGenX, ‘The tick injects an anesthetic into the skin at its point of entry, which helps it avoid detection so it can continue feeding.’

Many patients with the tick-borne disease like Lyme disease don't recall having a bug bite of any kind. Recognizing symptoms like the bullseye rash associated with Lyme disease is important, but not all tick bites result in this pattern.

Promptly removing ticks with fine-tipped tweezers and cleaning the bite area can help prevent infection. Watch for signs of infection like fever or rash and seek medical attention if symptoms persist. Regular body checks after outdoor activities and using tick repellents are essential preventive measures.

Federal Funding for Tick Disease Study

Connecticut Senator Richard Blumenthal announced a significant federal grant of $239,000 for the Connecticut Agricultural Experiment Station (CAES) in New Haven to aid in the fight against tick-borne illnesses such as Lyme disease and babeiosis. The grant is part of a Congressionally-directed initiative to address the recent surge in Connecticut's tick population and the northward migration of disease-carrying species like the Gulf and Lone Star ticks. Senator Blumenthal emphasized the urgency of this battle against ticks, highlighting their expanding presence northward due to climate change and the threats they pose to public health.

Like much of New England, Connecticut has long been a focal point for tick research, particularly since the discovery of Lyme disease in the state in 1975. With over 2,700 cases of Lyme disease reported annually, concerns have also arisen regarding other tick-borne illnesses such as Rocky Mountain Spotted Fever and the Powassan virus. The spread of various tick species, including those from the South and as far away as Asia, further complicates the situation, as each species carries different disease risks.

The federal funding will support CAES's ongoing research efforts, including the study of tick species expansion and the decline in tick specimen submissions from rural areas, potentially due to a desensitization to tick risks among residents. This grant follows a similar allocation in 2023, which expanded testing in rural towns. Additionally, Blumenthal highlighted over $100 million in the federal budget dedicated to national tick-borne disease research and the development of new treatment strategies, with CAES eligible to apply for grants under this program. The Kay Hagan Tick Act, passed in 2019, underscores the significance of federal efforts in combating tick-borne illnesses, with Blumenthal and Senator Chris Murphy playing key roles as co-sponsors of the bill.

Tick and Mosquito Control - Chemicals

What are some of the insecticides used for Mosquito and Tick Control? 

Pyrethroid insecticides, synthetic compounds derived from natural pesticides found in chrysanthemum flowers, are widely used to control insect populations, particularly mosquitoes, and mitigate the spread of diseases such as West Nile virus. Common pyrethroids include permethrin, resmethrin, and sumithrin, found in various commercial products ranging from household insecticides to lice treatments and mosquito repellents. These chemicals are generally considered safe when used correctly and pose minimal risk to human health and the environment.

In adult mosquito control, pyrethroids are applied as ultra low-volume (ULV) sprays by public health officials and trained personnel. These sprays release fine aerosol droplets that linger in the air, effectively targeting adult mosquitoes upon contact. Approved by the U.S. Environmental Protection Agency (EPA), pyrethroids are applied at extremely low concentrations, typically less than 1/100th of a pound of active ingredient per acre, ensuring effective mosquito control with minimal environmental impact.

Following application, pyrethroids settle onto surfaces but break down rapidly under sunlight and atmospheric conditions. Due to their binding properties, they do not easily penetrate the soil or contaminate groundwater, reducing the risk of environmental pollution. While exposure to pyrethroid spray may cause irritation in sensitive individuals or exacerbate respiratory conditions, adverse health effects are rare when used as directed. Accidental exposure to large amounts may result in temporary symptoms such as dizziness or nausea, but pyrethroids do not pose long-term health risks, including birth defects or cancer, when applied according to label instructions.

Ticks and Dogs - All Year Struggle

Ticks exhibit remarkable survival capabilities, able to endure extended periods without feeding on a host's blood. Commonly found in wooded areas, particularly those with decaying vegetation or near bodies of water, ticks thrive in moist environments such as wood piles or areas with dense leaf litter. Following a period of dormancy during winter months, ticks emerge in springtime or during warmer weather to seek out hosts for feeding, relying on insulation during colder seasons and environmental cues to resume activity.

Environmental factors, particularly temperature fluctuations, play a crucial role in regulating tick populations. Frigid winters historically served as a natural culling mechanism, with tick populations declining notably when temperatures drop to -2 to 14 degrees Fahrenheit. However, as climate change contributes to warmer winters, fewer ticks succumb to the cold, leading to potential increases in tick populations as they emerge earlier in the year. Consequently, vigilance in tick prevention and monitoring becomes increasingly important for pet owners and outdoor enthusiasts. 

So when are ticks most active in our area of Essex County and Massachusetts in general? March through November is when tick populations are at their most active. Although they can be active all year round depending on the winter climate for that particular year. 

With that said, regular tick checks and prompt removal are essential practices for pet owners to mitigate the risks associated with tick-borne diseases. When removing ticks from dogs, it's crucial to exercise caution to prevent further transmission of pathogens. Utilizing tweezers to grasp the tick's head as close to the skin as possible and gently pulling it out in a straight motion can effectively remove ticks. Proper disposal of the tick and disinfecting the bite area with a saline solution are recommended steps to ensure thorough care and minimize potential health threats to both pets and humans.

Different Rodenticides

Rodenticides, substances designed to control rodent populations, come in various formulations and classes. However, due to safety concerns for children and pets, these products are restricted from consumer markets and can only be used by licensed Pest Management Professionals (PMP). 

Types of  Rodenticides 

Rodenticides may be broadly classified into two categories: anticoagulants and non-anticoagulants. An anticoagulant is commonly referred to as a blood thinner because it is a chemical that prevents or reduces coagulation of blood, meaning that it prolongs clotting time in affected animals.

Non-anticoagulant rodenticides have distinct modes of action. Bromethalin, for instance, disrupts cellular energy production in the nervous system, requiring a single dose for effectiveness and necessitating a license for purchase. Cholecalciferol, which induces excessive vitamin D production, poses risks to humans and non-target animals if exposed. Zinc phosphide, an inorganic compound, produces phosphine gas in the animal's stomach, causing organ failure. Both cholecalciferol and zinc phosphide are classified as restricted-use products by the U.S. EPA, indicating their potential for adverse effects and requiring certification for application.

Strict adherence to labeling instructions and regulations is essential when using rodenticides. Applicators must maintain proper credentials and wear personal protective equipment as outlined on the pesticide label. All labels and Safety Data Sheets should be kept on file, and pesticides should be used in accordance with federal, state, and local regulations. 

Brown Rat Sea Voyage

The dominance of brown rats all over North America, particularly in the eastern region, is a tale of ecological competition and mysterious conquests. The brown rats, with their aggressive nature and larger size than black rats, swiftly established dominance over their rat counterparts in Europe, eventually spreading across the Atlantic on ships and claiming territory in the Americas.

To unravel the narrative of rat conquest in North America, researchers led by Eric Guiry conducted molecular analyses on rat bone samples from archaeological sites dating back to the 1550s. This study, published in Science Advances, shed light on the fundamental differences between the two species and provided insights into how brown rats supplanted black rats. By innovatively utilizing shipwrecked rat samples, the researchers were able to pinpoint the arrival of brown rats earlier than previously thought, challenging historical records.

The research also delved into the dietary habits of brown and black rats over the centuries, revealing differences that suggested they occupied distinct ecological niches. Despite this divergence, the brown rat's dominance remained a puzzle. While theories point to their aggressive nature and size advantage, there are regions where black rats thrive instead. Further studies, perhaps focused on a single city, could offer deeper insights into the mechanisms behind this transition. Guiry's ongoing work in Europe and the abundance of rat bones worldwide promise further revelations in the understanding of rat colonization and conquest.

Prevent a Tick Bite with a Pill

Would you take a pill to prevent a tick bite? 

A new experimental pill designed to paralyze and kill ticks presents a promising breakthrough in the fight against Lyme disease. Developed by Tarsus Pharmaceuticals, this oral medication has shown positive results in a preliminary human trial, demonstrating its ability to eradicate ticks from the body within 24 hours and provide protection for up to 30 day! With Lyme disease posing a significant health threat in the United States, where hundreds of thousands are diagnosed annually, this innovative approach could offered potential relief from the burdensome impact of the tick-borne illness.

Lyme disease, caused by the Borrelia burgdorferi bacteria transmitted through tick bites, lacks a widely available vaccine, making prevention crucial. Despite existing measures such as insect repellents and protective clothing, the rise in tick-borne diseases persists. Tarsus' experimental pill, formulated with lotilaner, offers a new strategy for preventing not only Lyme disease but also other tick-borne illnesses like babesiosis and anaplasmosis. 

While the Tarsus pill shows promise, further extensive testing is needed to confirm its effectiveness in preventing Lyme disease. However, the potential of this pill as a pre-exposure prophylaxis offers hope for mitigating the debilitating consequences of Lyme disease, particularly for individuals experiencing persistent symptoms. As research progresses, this innovative approach could revolutionize tick prevention, providing a much-needed solution for those navigating tick-infested environments.

New Research Methods - Powassan Virus

There is a rare but potentially life-threatening tick borne disease called the Powassan virus and researchers at the University of Massachusetts Amherst have developed a more accurate method of detecting it in ticks. 

Conducting a survey in regions of Cape Cod and Martha’s Vineyard, the researchers used a new "Triplex Real-Time PCR" technology, which proved to be more effective than standard testing. The virus was detected in 33 out of 819 ticks collected, with Truro on Cape Cod showing the highest incidence at about 10%. This heightened accuracy in detection is crucial for assessing the risk of exposure to Powassan virus, which can lead to severe brain infections and meningitis in humans.

While Massachusetts has seen a significant number of Powassan cases compared to other states, human infections have been rare. The new testing method, which reduces the risk of false positives and negatives, offers a more precise understanding of the virus's distribution and prevalence among tick populations. Despite the rarity of Powassan cases, preventive measures such as wearing insect repellent and checking for ticks after outdoor activities remain essential in reducing the risk of transmission. 

AI Lasers Attached to Farming Equipment -

What is the future of pest control in world farming? And can we reduce the use of pesticides that not only impact the ecosystem but have negative health effects on workers as well as food consumers? 

In 2021, Carbon Robotics introduced its third-generation Autonomous Weeder, a farming robot equipped with high-power lasers to identify and eliminate weeds without harming soil or water. Building upon this technology, the company has now developed the LaserWeeder, a pull-behind version that can eliminate twice as many weeds per hour. Weeds pose a significant challenge to farmers, competing with crops for space, sunlight, and nutrients while also attracting insect pests. 

Chemical herbicides have drawbacks such as water contamination, and manual weeding is extremely labor-intensive. The Autonomous Weeder operates autonomously, scanning the ground with cameras and using AI to identify and destroy weeds with carbon dioxide lasers, eliminating over 100,000 weeds per hour. The new LaserWeeder, although not autonomous, boasts three times the lasers of its predecessor and can cover two acres in one hour, significantly reducing labor and chemical costs for farmers. Carbon Robotics has already sold out of its 2022 units and is accepting pre-orders for 2023, with growers experiencing an 80% reduction in weeding costs and quick returns on their investments. 

New and emerging technologies that tackle pest control are not ‘right around the corner’, but they are here and here to stay. A much needed welcome to our Earth's ecology.

52 Different Stinking (and Biting) Mosquitoes!

Have you ever wondered how many different species of mosquitoes there are in Massachusetts? You’re not alone. 

In fact mosquitoes are some of the most diverse insects in the world. There are over 3000 different types of mosquito species identified globally and more than 150 species found in North America, including 52 in Massachusetts (YIKES!). 

In Massachusetts, mosquito species have their own unique characteristics and habitat preferences. These species range from early spring pests like Ochlerotatus abserratus to summer pests like Ochlerotatus sollicitans, with some being potential vectors for diseases such as Eastern Equine Encephalitis (EEE) and heartworm. Mosquito-borne diseases in Massachusetts can be rare but still present a risk, particularly from species believed to transmit EEE, which can be found in suburban and rural areas of eastern Massachusetts (Essex County, Suffolks County, Cape Cod and the Islands).

Some of the common mosquito species in Massachusetts include Ochlerotatus and Aedes Vexans (real jerks in my humble opinion), each with specific breeding habitats and biting behaviors. Additionally, species like Culex pipiens and Culex restuans are year-round mosquitoes that are potential vectors for diseases like West Nile Virus. Understanding the behavior and habitat preferences of different mosquito species is essential for effective pest management and disease prevention efforts in the region. 

As we enter mosquito season, take time to examine your property for potential areas that can foster mosquito infestations. May you have the best spring, summer and fall without the buzz buzz of mosquitoes!

Facial Recognition Software to Exterminate Rats -

Rentokil, the world's largest pest control group, has developed technology in collaboration with Vodafone to track individual rodents and optimize pest control strategies. This includes piloting the use of facial recognition software to exterminate rats in homes, with real-time analysis and decision-making conducted from a central command center. The technology enables tracking of rodent habits and behavior patterns, aiding in identifying entry points and assessing the severity of infestations.

Rentokil's CEO, Andy Ransom, highlights the benefits of facial recognition technology in distinguishing between individual rats and understanding their behaviors. By monitoring rats in controlled environments and employing machine learning, the system builds recognition capabilities to effectively target pest control measures. The recent acquisition of Eitan Amichai, an Israeli market leader, has bolstered Rentokil's access to advanced technology, with the new system piloted by various customers, including food producers and offices.

Rentokil aims to expand its operation globally, targeting "cities of the future" in regions like China, India, and Indonesia, where population growth could lead to increased pest problems. Identifying areas with potential rodent infestations allows for proactive pest management strategies. Meanwhile, research indicates that rats possess an innate ability to synchronize their movements to rhythmic beats, challenging the notion that beat synchronization is uniquely human. Dr. Hirokazu Takahashi of the University of Tokyo suggests that music has profound effects on rat behavior, indicating a deeper understanding of rodent cognition.

New U.K. Approach to Agricultural Pesticide Alternatives - Eco Friendly

Agricultural innovation is underway to develop alternatives to toxic pesticides like neonicotinoids, which face increasing restrictions globally due to environmental concerns. One such method, 'camo-cropping,' involves spraying non-toxic fabric or food dyes on fields to reduce the color contrast between soil and crops, thereby deterring aphids, which transmit plant pathogens like virus yellows. The Morley Agricultural Foundation in Norfolk (U.K.) is conducting trials of camo-cropping with sugar beet plants, albeit hampered by atypical weather patterns.

Camo-cropping is part of an integrated pest management (IPM) strategy called the ABCD of Aphid IPM, led by the British Beet Research Organisation (BBRO) with support from the UK government's food and farming department. This approach incorporates various techniques, including attracting aphids to alternative hosts like brassicas, introducing beneficial insects to prey on aphids, and using deterrents such as plant-derived oils like garlic and mint. The effectiveness of these methods will be assessed through large-scale trials starting in 2023 to determine their viability and cost-effectiveness compared to chemical pesticides.

Globally, organizations like Cabi are also investing in biological alternatives to chemical pest control. These methods range from introducing predatory insects or microorganisms to deploying biopesticides derived from natural sources. While the biocontrol sector is growing, it still represents a small fraction of the overall crop protection market dominated by chemical pesticides. Challenges include the need for better education and information dissemination among growers and advisors, as well as the development of tools like Cabi's BioProtection Portal to support decision-making in biopesticide usage.

Despite the initial hurdles, transitioning away from chemical pesticides offers long-term benefits such as preserving soil health, enhancing plant resilience, and ensuring sustainable crop production. While chemical pesticides remain a significant market force, the growing demand for eco-friendly alternatives underscores the importance of continued research and investment in biological pest control methods.

Lyme Disease CDC Report - What 2022 can Teach Us

Lyme disease, caused by Borrelia spirochetes transmitted by ticks, is the most common vectorborne disease in the United States, with the highest incidence in specific regions. CDC surveillance methods were revised in 2022, allowing high-incidence jurisdictions to report cases based solely on laboratory evidence, leading to a 1.7-fold increase in reported cases compared to the annual average during 2017-2019. The rise in reported cases was particularly notable among older age groups.

The increase in reported Lyme disease cases in 2022 is primarily attributed to changes in surveillance methods rather than a true change in disease risk. The revised case definition streamlines reporting by eliminating the need for additional clinical information, but it hampers detailed comparison with historical data. Despite the increase in reported cases, surveillance in low-incidence jurisdictions still requires clinical investigation to ensure accurate identification of locally acquired infections.

The findings underscore the importance of standardized surveillance practices to improve data comparability across jurisdictions. However, challenges such as under or over reporting and changes in laboratory testing methods may impact the accuracy of reported cases. Further efforts are needed to enhance surveillance accuracy and develop effective prevention methods given the ongoing high burden of Lyme disease in the United States.

If you or a loved one believe you have been infected by a tick with Lyme disease, please seek immediate medical attention.

Human Sweat - Prevent Lyme Disease?

Lyme disease, a bacterial infection transmitted by ticks, affects millions of people yearly, with symptoms persisting in some despite antibiotic treatment. Researchers at MIT and the University of Helsinki have discovered a protein in human sweat that can protect against Lyme disease, with about a third of the population carrying a genetic variant linked to the disease. This unexpected finding presents opportunities for developing skin creams to prevent Lyme disease and alternative treatments for antibiotic-resistant infections.

The study, initiated by researchers at Stanford University, employed a genome-wide association study (GWAS) to identify genetic markers of susceptibility to Lyme disease, leading to the identification of SCGB1D2, a secretoglobin primarily produced by sweat glands. Experimentation revealed that the normal version of SCGB1D2 inhibited the growth of Borrelia burgdorferi, the bacterium causing Lyme disease, while a mutated variant was less effective. Mice injected with bacteria exposed to the normal protein remained uninfected, demonstrating the protein's protective potential.

Replication of the study's findings by researchers in Estonia using data from the Estonian Biobank validated the significance of SCGB1D2 in Lyme disease susceptibility. Further research aims to understand how SCGB1D2 inhibits bacterial growth and explore its application as a preventative measure against Lyme disease and other skin infections. Despite this promising discovery, individuals with the protective variant should not assume immunity, emphasizing the need for continued research into alternative treatments for Lyme disease and other infections.

Natural and Organic Rat Control - Terrier Dogs!

If I’m going to be completely honest with you, I get scared when I see rats!

Alive or dead (preferably dead) some pest control professionals are turning to the ultimate weapon against rats… man's best friend: Dogs. 

These furry companions offer not only company but also one of the most successful forms of proven pest control. From the trenches to the Victorian era, dogs have been the unsung heroes in the battle against rats, keeping cities safe from these pesky rodents.

With their keen sense of smell and agility, certain breeds of dogs, particularly terriers, excel at ratting. These small yet tenacious dogs are adept at flushing out rats from hiding spots, making them essential allies in pest control. Moreover, using dogs for ratting is not only legal but also more humane than traditional methods like poisoning. A dog can dispatch a rat within seconds, providing a swift and natural end compared to the slow and painful death caused by poison.

Trained to the highest standards, terriers are experts in sniffing out and eliminating rats swiftly and efficiently. With their unique abilities and natural instincts, they ensure a humane and effective solution to rat infestations, making them indispensable assets in our pest control arsenal.

Here’s a list of breeds used specifically in the UK that are perfect for ratting the natural and organic way:

• Patterdale Terrier. This dog gained notoriety in the north of England as a hunting terrier and is often used for badger control in addition to other pests.

• Bedlington Terrier. This dog was named after a village in Northumberland and was originally bred to hunt vermin.

• Norwich Terrier. This is one of the smallest breeds of terrier which makes them particularly stealth for catching rats and foxes.

• Manchester Terrier. This dog breed was bred in Manchester specifically for ratting and rabbiting and loves the thrill of a good chase.

• Jagd Terrier. Originating from Germany, these distinctive black and tan terriers were used for hunting game both above and below ground.

• Yorkshire Terrier. One of the most popular breeds of terrier, these playful, yappy dogs were historically used to capture vermin.

• Cairn Terrier. One of the oldest terrier breeds, the Cairn have hundreds of years’ experience in catching rodents. This dog gets its name from the hunting quarry between the Cairns in the Scottish Highlands.

• West Highland White Terrier. Cousin to the Cairn Terrier, the Westie was bred to hunt small rodents at places such as farms. Today, this intelligent dog is an extremely popular pet.

• Lakeland Terrier. This terrier originates from the Lake District and its size and energy levels make them ideal for hunting rodents in hard to reach places.

Pest Resistance to Pesticides - How to Combat it

Pesticides play a crucial role in controlling various pests, including insects, weeds, rodents, bacteria, and fungi. However, the effectiveness of many pesticides has diminished over time due to the development of resistance among pests. Resistance refers to a significant decrease in sensitivity to a pesticide, leading to reduced performance in the field. This phenomenon poses a considerable challenge in pest management as it limits the efficacy of pesticides in controlling pest populations.

Recognizing the severity of resistance issues, the Environmental Protection Agency (EPA) has prioritized the management of pesticide resistance as part of sustainable pest management strategies. The EPA emphasizes the importance of implementing alternative pest-management approaches and integrated pest management (IPM) programs to mitigate the development of resistance. By incorporating diverse methods and strategies, including cultural, biological, and mechanical controls alongside chemical pesticides, pest resistance can be slowed and combated effectively.

Addressing pesticide resistance requires a holistic approach that goes beyond reliance solely on chemical solutions. Integrated pest management programs promote the use of multiple tactics to manage pests sustainably while minimizing the risk of resistance development. By adopting a comprehensive strategy that integrates various pest-control measures, stakeholders can work towards maintaining the effectiveness of pesticides while preserving environmental and public health.

Rodent Control

Effective rodent control requires a combination of techniques, with snap trapping and exclusion being key components. As the use of rodenticides becomes more restricted due to environmental and health concerns, it's essential to rely on more organic and natural methods. Trapping and exclusion methods help to manage rodent populations effectively. When setting traps, wearing gloves is important to minimize the transfer of human scent, which could deter rodents from approaching the traps. Additionally, avoiding smoking while handling traps or baits helps maintain the effectiveness of the rodent control efforts, as the scent of smoke may repel rodents.

Strategic placement of traps is crucial for successful trapping. Rather than spacing traps at regular intervals, it's best to position them in areas with known rodent activity, such as along walls or near entry points. Dark, secluded areas are particularly attractive to rodents, so placing traps in such locations, especially near sources of shelter or warmth, increases the likelihood of capturing rodents. Outside, traps should be placed closest to areas with dense vegetation, debris piles, or other harborage sites where rodents are likely to nest or forage.

Exclusion plays a vital role in preventing rodent infestations by sealing off entry points and potential access routes. However, it's important to consider the purpose of the openings being sealed, as some may serve ventilation or drainage functions. Using manufactured stainless steel weep hole covers for sealing weep holes ensures proper ventilation while preventing rodent entry. Prefabricated exclusion mesh is another effective option for covering vent openings, foundation gaps, and similar entry points, providing a barrier that keeps rodents out while allowing airflow. Staying informed about the latest advancements in rodent control technology through training and outreach initiatives is essential for pest management professionals to adapt their strategies and techniques effectively. By staying current with developments in rodent control, professionals can enhance their ability to address rodent infestations efficiently while minimizing environmental impact and health risks.

Nature’s Organic Solution to Pest Control (Ticks) - Cedar Oil

Extracted from Eastern red cedar and other juniper tree species, cedarwood oil has long been used in various consumer products due to its pleasing scent and anti-fungal properties. In a study comparing cedarwood oil to DEET, an active ingredient in many repellent products, researchers found that different tick species exhibited varying degrees of susceptibility to cedar-wood oil.

Ticks, particularly the black-legged tick, are not only a nuisance but also pose health risks by transmitting disease-causing pathogens. Lyme disease, caused by the bacterium transmitted by the black-legged tick, affects nearly half a million people annually, while other species like the lone star tick can induce severe allergies such as alpha-gal syndrome. The experiments revealed that cedarwood oil was particularly effective against the black-legged tick nymphs, repelling 80 to 94 percent of them upon contact with treated surfaces. 

Supercritical fluid extraction, a method utilizing carbon dioxide to extract cedarwood oil from shavings or sawdust, has shown promise in yielding higher quantities of oil compared to traditional steam distillation methods. This technique not only enhances efficiency but also preserves the quality of the oil, increasing its concentration of cedrol, a biologically active compound responsible for repelling ticks and other insects. 

Using natural organic products such as cedar oil for pest control offer several benefits for both human health and the environment. Unlike synthetic pesticides, natural organic products are derived from plant-based ingredients, making them safer for use around children, pets, and wildlife. Please contact us for more information.

Ticks and Mice - Can’t Have One Without the Other

Ticks, particularly the black-legged tick or deer tick, have a fascinating life cycle deeply intertwined with the transmission of Lyme disease. Starting with thousands of eggs laid by a female tick in May, tiny larvae hatch in late summer and seek out their first blood meal, often finding it on white-footed mice, which can carry Lyme-causing bacteria. Once infected, the tick retains the bacteria for life, capable of transmitting it to other hosts. After feeding, the larvae molt into nymphs and lie dormant through winter, becoming active in spring and summer to seek their second blood meal, often from mice, deer, or humans. Nymphs are the primary transmitters of Lyme disease due to their small size and activity during peak human outdoor exposure.

The white-footed mouse's role is crucial in the tick lifecycle, as they serve as primary carriers of Lyme bacteria. A bountiful acorn season leads to increased mouse populations, subsequently boosting tick numbers and human Lyme disease infections. 

Natural predators like owls and hawks help control mouse populations without contracting Lyme disease themselves, making it imperative not to poison these predators. Tick saliva plays a significant role in their ability to remain attached to hosts for days, containing a special cement and chemicals that suppress pain and itchiness, allowing ticks to feed unnoticed.

Understanding the lifecycle and behavior of ticks is essential for Lyme disease prevention. Checking for and promptly removing ticks after outdoor activities can significantly reduce the risk of infection. Moreover, controlling white-footed mouse populations, preserving natural predators, and studying tick saliva for potential medical applications are vital strategies in mitigating the spread of Lyme disease.

The Versatile Dietary Behavior of Mice

Mice exhibit a versatile dietary behavior, being omnivorous with a preference for grains, fruits, and seeds in the wild, resulting in significant agricultural damage. Their diet adapts based on the environment, with house mice displaying an inclination towards carbohydrates and sugars, including grains and fruits, as they explore human dwellings. Their ability to scavenge and forage leads them to consume various foods, including high-fat or high-protein items, pet food, and bird seeds. Awareness of mice's dietary preferences is essential for effective pest management, emphasizing proper food storage and waste management to deter infestations.

Contrary to popular belief, cheese isn't a primary food choice for mice; they prefer nutrient-dense foods rich in carbohydrates. While they primarily consume grains and seeds, they occasionally consume meat opportunistically, along with hunting and eating a variety of insects. Despite not being apex predators, mice are known to hunt insects like worms, beetles, and cockroaches when food is scarce. In rare instances of starvation or intense competition for resources, mice may resort to cannibalism, particularly targeting younger or weaker individuals. Understanding mice's dietary habits informs pest control strategies, ensuring effective management and prevention of infestations in residential and agricultural settings.

Mice may even resort to cannibalism in rare instances of starvation or intense competition for food resources, particularly targeting younger or weaker individuals as a desperate measure to enhance their own survival chances. This behavior, while not the norm, underscores the lengths these small creatures will go to ensure survival when faced with scarcity. It's crucial to distinguish this cannibalistic behavior from the predatory actions of rats, which actively hunt mice as prey and competitors. While relatively rare, cannibalism among mice serves as a stark reminder of their adaptability and resilience in challenging conditions.