Keeping Cow Yeilds. Unsustainable
Keeping Cow Yeilds. Unsustainable
SAFE SUSTAINABLE PRODUCTION COWS
A cow sold for $300 at retail needs to be out the door as a one cow with 80-120% or higher percentage at a loerr cost under $300 to justify raising for harvest in production not as a zoo or hobbyists pet
Effective efforts in keeping healthy cows for different purpose requires & the stun & kill safe harvest after a free range monitored life on a safe property shielded from natural & man-made disaster or hazard is important
Raising cows or purchasing for harvest & resale with different variables included
ZOO HOBBYIST
A zoo preservation & wild cow or hobby cow sure yet production cowing isn't sustained in investment
Costs are more than returns so that's an ender before she starts
We require a profit above expense to operate & ulternatives for meats & milks exist. Feed & cultivation harvest variables with security have to drop before cows can exist as an equal then meat process &;safe use with environmental factors with health concerns considered
KEEPING COW
The cost to keep a cow varies, but in Canada, the average total cost per cow in cow-calf operations is around $1,124 annually. This includes both cash costs, depreciation, and opportunity costs. Feed is a significant expense, potentially ranging from $700-$1400 per year depending on the feeding strategy and local conditions.
Detailed Breakdown:
Canadian Cow-Calf Cost of Production Network (2021):
The average total cost per cow was $1,124, with cash costs at $704 (64%), depreciation at $130 (11%), and opportunity costs at $290 (25%).
Feed Costs:
Feed costs can range from $700 to $1400 annually, with the lower end being for pasture-based feeding and the higher end for winter feeding with hay.
Operating Costs:
Operating costs (excluding feed) can be around $593 per cow, with livestock, building, and machinery costs contributing to the total.
Fixed Costs:
Fixed costs can include items like land and fencing, with a 2021 estimate of $64 per cow.
Other Costs:
Other costs can include veterinary expenses, breeding costs, and other miscellaneous expenses like insurance, taxes, and water.
Seasonal Variations:
Cow prices tend to fluctuate seasonally, with potential increases during the winter feeding period.
COW HARVEST
The harvest price for cows varies based on factors like weight, grade, and market conditions. In Ontario, prices can range from $200 to $341 per hundredweight (cwt), or $200.19 to $335 per head, depending on the specific sale and the cow's characteristics according to various auction reports.
Factors Affecting Cow Harvest Price:
Weight:
Heavier cows generally fetch higher prices per head, but the price per pound might be lower due to the higher proportion of fat and bone.
Grade:
Cows are graded based on factors like muscle, fat cover, and maturity, which affects their suitability for different end uses (e.g., ground beef, steaks).
Market Conditions:
Supply and demand in the live cattle market play a significant role. High demand and low supply will push prices up, while the opposite will lower prices.
Location:
Prices can vary by region and even by individual auction barns notes a report from the Beef Farmers of Ontario.
Specific Sales:
Special sales, like vaccinated stocker sales, may attract different prices than regular sales.
Examples from Ontario Sales:
Hoard's Station Sale Barn:
Cows over 1600 lbs were selling for an average of $222.10 per cwt, while cows under 1600 lbs averaged $200.19 according to Beef Farmers of Ontario.
Ontario Livestock Exchange:
A special vaccinated stocker sale had cows averaging $200.36 per cwt according to Beef Farmers of Ontario.
Brussels Livestock:
Prices for choice fed cattle ranged from $230 to $341 per cwt, depending on the grade according to Brussels Livestock.
Ontario Stockyards:
Cows in the 600-699 lb range were selling for an average of $200.36 per cwt, while those in the 300-399 lb range averaged $200.36 per cwt according to Beef Farmers of Ontario.
To get the most accurate price for your specific cows, it's recommended to:
Consult with local cattle auction markets.Check recent market reports from organizations like Beef Farmers of Ontario.Consider the factors mentioned above (weight, grade, etc.) when evaluating prices.
RAISING COW
The total cost to raise a cow varies widely, but can range from $1,000 to $5,000+ per year, depending on various factors such as location, feed type, land costs, and whether you're raising a beef or dairy cow. This includes initial purchase price, feed, veterinary care, and other associated costs.
Here's a more detailed breakdown:
1. Initial Purchase Price:
Beef cows: Can range from a few hundred dollars for a young heifer to several thousand for a mature, bred cow.
Dairy cows: Can range from a few thousand to over $5,000, depending on breed and production.
Heifers: Generally less expensive than mature cows.
2. Feed Costs:
Hay: A significant expense, especially during winter. Estimates range from $217.50 to $510 per cow per year, depending on hay prices and quantity needed.
Pasture: If grazing, pasture rent can add to the cost.
Grain and Minerals: Additional feed costs for supplemental feeding.
3. Other Expenses:
Veterinary care: Includes vaccinations, deworming, and potential treatments.
Breeding costs: May include bull maintenance or artificial insemination costs.
Labor: Can be a significant expense, especially for larger operations.
Utilities: Water, electricity for feeding and other operations.
Machinery: Fuel, maintenance, and repairs for equipment.
Other: Insurance, property taxes, and miscellaneous supplies.
4. Factors Affecting Costs:
Farm size: Larger farms may have lower costs per cow due to economies of scale.
Location: Land and feed costs vary by region.
Feed type: Grass-fed operations may have lower feed costs than those relying heavily on hay and grain.
Management practices: Efficient management can help reduce costs.
Breed: Some breeds are more efficient at converting feed into meat or milk.
Example Costs:
A Canadian study found the average total cost per cow in cow-calf operations was $1,124, including cash costs, depreciation, and opportunity costs.
A 2021 analysis of dairy heifer rearing programs found the cost per heifer produced (from birth to first calving) was $4,822.
One homesteader estimated the total cost to raise a year's worth of grass-fed beef was $1,596, with income from selling half the beef at $1,462.50.
In conclusion, raising a cow is a substantial investment, and understanding the potential costs is crucial for anyone considering a cow-calf operation or raising cattle for personal consumption.
AGING PROTEIN
Efforts in scale life & DNA mutation then understanding horniness & proteins for aging control agaisnt gravity + skin stretching then longevity to increase life spans with healthy food - drink intake then respiratory + exhaustion plus exercise with nutrition then
Proteins & hormones like mRNA & RNA as people were widely introduced to with Covid 19 vaccinations after 2018-2019
Aging contorl through a set effort in daily life maintenance will be part of the 2026-2030 agenda as we increase average life expectancy for the masses beyond 100-110
Take note of the name: ReHMGB1. A new study pinpoints this protein as being able to spread the wear and tear that comes with time as it quietly travels through the bloodstream. This adds significantly to our understanding of aging.
Short for reduced high mobility group box 1, ReHMGB1 triggers senescence in cells, permanently disabling them. It doesn't just do this locally; it can send damaging signals throughout the body, particularly in response to injuries or disease.
"An important question in aging research is why senescent cells increase with age," write the study authors, led by researchers from the Korea University College of Medicine.
The team says their findings could help develop ways to keep us healthier for longer. If we can block or control this protein's signals, it might slow the cascade of cellular decline that comes with age.
"This study reveals that aging signals are not confined to individual cells but can be systemically transmitted via the blood, with ReHMGB1 acting as a key driver," says Korea University biomedical engineer Ok Hee Jeon.
The researchers were able to identify ReHMGB1 as a critical messenger passing on the senescence signal by analyzing different types of human cells grown in the lab and conducting a variety of tests on mice.
When ReHMGB1 transmission was blocked in mice with muscle injuries, muscle regeneration happened more quickly, while the animals showed improved physical performance, fewer signs of cellular aging, and reduced systemic inflammation.
The next step would be to see how this process could be disrupted, and this particular type of aging signal kept more localized – so the health conditions that come with old age might not be as damaging.
"By blocking this pathway, we were able to restore tissue regenerative capacity, suggesting a promising strategy to treat aging-related diseases," says Jeon.
This process is only one contributor to aging out of many, but the signals that ReHMGB1 spreads are particularly important in terms of our bodies becoming dysfunctional over time and less able to carry out repairs.
It's also worth bearing in mind the useful functions of ReHMGB1 in the body: alerting our biological systems to damage and indicating that repairs are needed. Any kind of intervention will have to take that into consideration.
We know that, generally speaking, populations are living for longer than ever before, and that's putting both our bodies and scientific research into uncharted territory. The various routines built into our cells must continue to function when years ago our bodies would have long given up.
From where we live to the genetics we're born with, there are many contributors to aging and lifespan. By learning more about how these work, we'll be better able to manage them – and perhaps extend life further.
"Building on current research in these areas will be essential to understanding the therapeutic potential of redox-sensitive HMGB1 in aging-related diseases and its role as a systemic mediator of senescence," write the researchers in their published paper.
https://www.sciencealert.com/aging-can-spread-through-your-body-via-a-single-protein-study-finds
Irrelevant Reference Links
In a quiet Cornell University lab, researchers have taken a hammer to decades of digital circuit convention. The result is a silicon chip that thinks less like a clock-driven processor and more like a living brain—only instead of neurons, it uses controlled bursts of microwave energy
Brain Chip like
https://www.tomshardware.com/pc-components/cpus/researchers-build-worlds-first-microwave-brain-chip-that-can-think-like-ai-and-talk-like-a-radio-all-at-gigahertz-speeds
Aging through a Single Protein
https://www.sciencealert.com/aging-can-spread-through-your-body-via-a-single-protein-study-finds
Boiling Tap Water for Microplastics
https://www.sciencealert.com/theres-a-surprisingly-easy-way-to-remove-microplastics-in-your-drinking-water
BYD In-House
https://electrek.co/2025/08/14/byd-builds-nearly-every-part-evs-from-batteries-to-tablets/
FRONT TOOTHS ON THE TITIES & PUSS
Bow-winkles & the big choppers on er bud
Rocky & winkels with the big tooths
SUSTIANABLE COW FEED FOR YIELDS
Sustainable feed for cows focuses on using alternative feed sources and optimizing feeding strategies to reduce environmental impact, lower costs, and improve animal health and productivity. This includes incorporating by-products, exploring novel feeds like seaweed and insects, and optimizing grazing management.
Key aspects of sustainable cow feeding:
• Alternative Feed Sources:
• By-products: Utilizing food and industrial by-products like straw, distillers grains, and food processing waste can reduce reliance on traditional feed crops and lower waste.
• Novel Feeds: Exploring feeds like seaweed, insects, and even some wood industry by-products can offer sustainable alternatives, especially in specific contexts.
• Legumes and Oilseeds: Incorporating nitrogen-fixing legumes (like alfalfa) and oilseeds (like camelina) can improve feed quality and reduce the need for synthetic nitrogen fertilizers.
• Optimized Feeding Strategies:
• Precision Feeding: Matching feed intake to the cow's nutritional needs (energy, protein, vitamins, and minerals) minimizes nutrient excretion and reduces waste.
• Improved Forage Quality: Focusing on high-quality forages through techniques like chopping and proper storage (silage) maximizes nutrient availability and reduces waste.
• Grazing Management: Optimizing grazing practices, including rotational grazing and integrating legumes into pastures, can enhance forage utilization and reduce the need for purchased feeds.
• Environmental Considerations:
• Reduced Greenhouse Gas Emissions: Sustainable feeding practices, such as using seaweed as a feed additive, can significantly reduce methane emissions from cows.
• Nutrient Management: Carefully managing nutrient inputs (especially nitrogen and phosphorus) helps prevent pollution of water and soil.
• Land Use Efficiency: Maximizing forage production on available land and utilizing by-products can reduce the overall land footprint of cattle production.
• Economic Viability:
• Cost Reduction: By utilizing locally available and less expensive feed sources, farmers can reduce feed costs and improve profitability.
• Increased Efficiency: Sustainable feeding practices can improve feed conversion efficiency, leading to increased milk or meat production per unit of feed.
Challenges and Future Directions:
• Cost and Availability:
Some alternative feeds may be more expensive or have limited availability, requiring further research and development to improve their economic viability.
• Scaling Up Production:
Large-scale adoption of some alternative feeds, like seaweed, will require significant investment in production and processing technologies.
• Consumer Acceptance:
Ensuring consumer acceptance of products derived from cattle fed alternative feeds is crucial for driving market demand.
Overall, sustainable feed for cows is a multifaceted approach that requires careful consideration of environmental, economic, and animal welfare factors. By embracing innovation and optimizing feeding strategies, it is possible to move towards a more sustainable and resilient cattle industry.
Modern Sustianable Cowing (Cattle Heard Harvesting)
https://youtu.be/FlL0aLKKyRA?si=HStpOOFP2FR0ZCEA
Feed Controls
https://youtu.be/PIHDmlUQ-1o?si=Z02_tXGdOnAr7-gN
Fodder, when grown and priced appropriately, can be a valuable feed option for cows. It can be a cost-effective way to improve feed efficiency and increase the value of animal proteins. However, it's crucial to consider the nutritional content, especially protein levels, and potential mineral imbalances, particularly with fodder beet.
Here's a more detailed look at the opinions surrounding fodder for cows:
Potential Benefits:
• Nutritional Value:
Fodder, especially green fodder, is rich in nutrients and can be a good source of vitamins, particularly Vitamin A.
• Improved Feed Efficiency:
When properly implemented, fodder can enhance feed efficiency and potentially boost animal protein production.
• Cost-Effectiveness:
Fodder can be a more economical option than some other feed sources, especially if grown and priced competitively.
• Digestibility:
Fodder, like barley fodder, can be highly digestible, providing a good source of nutrition for cows.
• Reduced Concentrate Needs:
Balanced feeding of green fodder can help reduce the amount of concentrates needed, potentially lowering milk production costs.
Potential Drawbacks and Considerations:
• Mineral Imbalances:
Fodder beet, for example, can be low in certain minerals like phosphorus, calcium, and magnesium, potentially leading to issues like ketosis and hepatic lipidosis.
• Protein Content:
While some fodders are high in protein, others may require supplementation to meet the cow's protein needs.
• Digestibility and Rumen Health:
Diets high in sugar and low in fiber (like some fodder beet) may not be ideal for rumen function and can pose risks for metabolic diseases.
• Potential for Mold:
Using clean seed is crucial to avoid mold growth in fodder systems.
• Intensive Systems:
Fodder systems can be labor and input intensive, requiring significant energy for sprouting.
Overall:
• Trial Before Adoption:
It's recommended to try fodder before committing to a large-scale implementation to ensure it fits the specific needs and goals of the operation.
• Support and Expertise:
Seek guidance from qualified professionals when integrating fodder into a feeding program.
• Consider the Overall Diet:
Fodder should be considered as part of a balanced diet, potentially supplementing other feedstuffs to meet all nutritional requirements.
ALTERNATIVE FEED FOR COWS
Insects
Cattle are natural upcyclers: Their specialized digestive systems allow them to convert low-quality sources of nutrients that humans cannot digest, such as grass and hay, into high-quality protein foods like meat and milk that meet human nutritional requirements. But when the protein content of grass and hay becomes too low, typically in winter, producers feed their animals an additional protein source—often soybean meal. This strategy helps cattle grow, but it also drives up the cost of meat and leaves less farmland to grow crops for human consumption.
Growing grains also has environmental impacts: For example, large-scale soybean production is a driver of deforestation in the Amazon. For all of these reasons, our laboratory is working to identify alternative, novel protein sources for cattle.
A ONE WHOLE INSECT + MANY OF ONE SPECIES
A multiple integration of species
A Whole Insect or Black Fly Larvae
Already approved for other livestock
Extensive research has shown that black soldier fly larvae can be fed to chickens, pigs and fish as a replacement for conventional protein feeds such as soybean meal and fish meal. The American Association of Feed Control Officials, whose members regulate the sale and distribution of animal feeds in the US, has approved the larvae as feed for poultry, pigs and certain fish.
So far, however, there has been scant research on feeding black soldier fly larvae to cattle. This is important for several reasons. First, more than 14 million cattle and calves are fed grain or feed in the US. Second, cattle’s specialized digestive system may allow them to utilize black soldier fly larvae as feed more efficiently than other livestock.
https://modernfarmer.com/2022/07/feed-cows-cattle-insects/#:~:text=Opinion: Feeding Insects to Cows Could Make Meat and Dairy More Sustainable,-by Merritt Drewery
BLACKFLY BREEDING
Sustianable water filtration woth anti-evaporation efforts then Piston-Punch integration for energy & oxidation creates a stream like effort then aquaponics can create effective freedom runoff with minimal.additives to grow cultivating backfires for larvae harvest safely utilizing natural standards & safety practices
Breeding black fly larvae for research or bait purposes requires simulating their natural habitat, which includes moving water and suitable substrates for egg-laying and larval development. Black fly larvae need oxygenated water, typically found in streams and rivers, and rely on filtering organic matter from the water for food.
Here's a breakdown of the key factors and steps involved:
1. Understanding the Natural Habitat:
• Moving Water:
Black flies breed in flowing water, like streams and rivers, not stagnant water.
• Substrate:
Females lay eggs on submerged objects like rocks, leaves, and vegetation in the water.
• Oxygen:
Black fly larvae need well-oxygenated water for respiration.
• Food Source:
Larvae feed on organic matter filtered from the water using specialized mouthparts called cephalic fans.
2. Creating a Suitable Environment for Breeding:
• Flowing Water Source:
You'll need a source of flowing water that simulates a stream or river environment, like a small stream or a modified aquarium setup with a pump to circulate water.
• Substrate:
Provide submerged objects like rocks, twigs, or artificial substrates (e.g., plastic mesh) for the flies to lay eggs and for larvae to attach to.
• Temperature Control:
Water temperature is crucial; some species overwinter as eggs or larvae. Maintain temperatures suitable for the target species.
• Feeding:
Ensure a source of organic matter in the water for the larvae to filter feed on.
3. Encouraging Egg-Laying and Larval Development:
• Attract Females:
Provide an environment that mimics their natural habitat to attract female black flies to lay eggs.
• Egg Attachment:
Observe how females deposit eggs and ensure the substrate is suitable for egg attachment.
• Larval Development:
Provide a suitable environment for larval development, including oxygenated water and a food source.
4. Monitoring and Maintenance:
• Regular Monitoring:
Check the breeding setup regularly for egg-laying, larval development, and pupation.
• Water Quality:
Monitor water quality (temperature, oxygen levels) to ensure optimal conditions.
• Feeding:
Ensure a consistent food supply for the larvae.
• Pest Control:
Be aware of other insects or organisms that may compete with or prey on black fly larvae and take appropriate measures.
5. Specific Considerations:
• Species-Specific Needs:
Black fly species have varying preferences for water flow, temperature, and food sources. Research the specific needs of the black fly species you are targeting.
• Laboratory Rearing:
For research purposes, laboratory rearing of black flies may involve more controlled environments and specific protocols, as seen in the UGA black fly laboratory rearing.
By carefully replicating the natural conditions and providing the necessary resources, you can successfully breed black fly larvae for various purposes.
DIETETARY & MEDICAL - MEDICATION CONTROLS
Feeding times. Exercise times + quality of life experience to socialize then breeding times & inspection woth monitored review quarterly in a safe legal standardized structure for livestock like fish separate from plant growth
Muscle versus fat control & weight control then quality of muscle meat
Steel 1 for Fussion
https://www.goodnewsnetwork.org/chinese-scientists-produce-impossible-steel-to-line-nuclear-fusion-reactors-in-major-breakthrough/
Final Edits. Hacked Edits. Hacked Re-Edits
Climate Choices. Life Choices
https://www.cbc.ca/news/science/climate-choices-dog-planes-1.7608247
Altinators
https://m.youtube.com/watch?v=tiKH48EMgKE
Brushless Altinators
https://youtu.be/fEn56i5SYDc?si=nON_DeccRT8dUxCZ
Volvo-Gen
https://youtu.be/0Y0VdoBTAHg?si=xhkFKEnjnhRPfnBg
https://youtu.be/zr6hpWH5E7c?si=lyAoaQYUx4EQe0zI
https://youtu.be/csuRb339xMY?si=3mzwnMj_sqdJgt4E
https://youtu.be/5zhljxjErLo?si=NkeXELTYoO7Q2py9
Humanoid Wood
https://youtu.be/mennX5J1uws?si=BxcANpUGeA-knUy2
Steel Structures - Base Mounting & Foundations
https://youtube.com/shorts/qGr_XOaEskU?si=GK1zr5WATY-W2A9P
https://youtu.be/ZXmycIklJY0?si=3uvHafFfsEPUImv5
Sustainable Steel
https://youtu.be/TFfB9nWYBUA?si=Pc2nExoEtAh8XOxZ
High Strength Steel
https://youtu.be/PfIj5bwAKIs?si=kbsORQ0XX9L6Cgcb
Gigapress die casting machine 7000T applied in XPENG, speed up EV manufacturing | LK Machinery
https://youtu.be/n_7T7Oj1ouA?si=tiw-QqmE93G5Kff0
Hydraulic Motor + Traction
https://youtu.be/_emeSYgbSIo?si=k3GYsOnT3HlranDM
https://youtu.be/UskuWZFknq0?si=sQo1Q0iN0PKl7uyv
Ballie by Samsung
https://youtu.be/v0XdLGYaNMw?si=OmD06soe9ljSNKtm
CIG

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