How It's Made
''Premium nutrition demands uncompromising standards. From ethically sourced European cattle to gentle freeze-drying or hydrolyzation, we preserve nature's full nutrient spectrum. Every serving delivers unmatched purity, potency, and bioavailability.''
Organ Procurement, Transport, and Preparation
The production cycle commences with the selection of EU-certified, pasture-raised cattle, subject to strict veterinary surveillance and certification at the slaughterhouse level to guarantee starting material quality. Immediately post-slaughter, organs are rapidly chilled to 0°C–4°C to arrest enzymatic degradation and microbial proliferation (Ratti, 2008). Tissues are then transported under continuous thermal monitoring to certified facilities operating under comprehensive food safety management systems, where every batch undergoes mandatory microbiological analysis.
Processing follows rigorous SOPs to maximize nutrient density by removing oxidation-prone blood, heavy connective tissue, and adipose tissue. A prime example of this precision is the preparation of bovine liver, where major blood vessels and capsule tissues are meticulously trimmed to ensure optimal purity and uniform drying. Similarly, decapsulation of testicular tissue - a future assortment addition - removes the tunica albuginea to prevent moisture entrapment and "freeze-rot" (Chandan et al., 2017) before tissue is uniformly diced for rapid freezing.
Lyophilisation (Freeze-Drying) of Organs
Following preparation, the tissues undergo lyophilization (freeze-drying), the gold standard for preserving the structural and chemical integrity of complex biological matrices (Ratti, 2001; Oikonomopoulou et al., 2011). The process begins with ultra-low temperature freezing, which locks the heat-sensitive vitamins, minerals, and organ-specific peptides into a solid crystalline state. These frozen tissues are then placed in a vacuum chamber where the ambient pressure is reduced below the triple point of water. This facilitates sublimation - the direct transition of ice into vapor without passing through a liquid phase - thereby bypassing the cellular damage and "case hardening" associated with traditional heat-drying.
This gentle dehydration occurs in two stages: primary drying, which removes the bulk of the ice via sublimation, and secondary drying, which targets tightly bound water molecules through desorption. By removing 98–99% of moisture while maintaining temperatures far below those that cause thermal denaturation, the process leaves the molecular structure of proteins and cofactors intact (Oikonomopoulou et al., 2011). The resulting "cake" is shelf-stable and highly porous, ensuring that once it is milled into a fine powder, it retains maximum bioavailability and enzymatic activity (Ratti, 2008). To conclude the cycle, the finished powders undergo final regulatory screenings for heavy metals and microbial purity to ensure a concentrated, pharmaceutical-grade superfood.
Hydrolyzation of Beef Protein
Our >95% Hydrolyzed Beef Protein is produced through a controlled enzymatic process designed to isolate and concentrate the protein fraction (Hou et al., 2017). Sourced from pasture-raised European cattle, the raw material undergoes thermal extraction without aggressive chemical filtration to yield a high-density protein fraction exceeding 95% purity.
This extract then undergoes enzymatic hydrolysis using natural proteolytic enzymes to cleave bovine protein chains into short-chain peptides and free amino acids (Korhonen & Pihlanto, 2006). This pre-digestion step enhances absorption rates and reduces digestive distress compared to intact proteins (Clemente, 2000). The resulting powder provides a concentrated profile of key amino acids - specifically glycine and proline (Sugihara et al., 2015) - supporting both performance and connective tissue integrity (Clark et al., 2008).
QUALITY CONTROL & ANALYTICAL CERTIFICATION
To guarantee absolute safety and biological purity, every production batch undergoes mandatory ISO-accredited laboratory testing prior to processing and release. Because the liver functions as a key metabolic filter, raw tissues are subjected to rigorous heavy metal quantification via inductively coupled plasma spectrometry. Every batch is screened for lead (Pb), cadmium (Cd), arsenic (As), and mercury (Hg) to verify that levels remain strictly below EU statutory thresholds.
Concurrently, comprehensive microbiological profiling is performed across all organ batches to ensure strict hygiene control. Testing confirms the complete absence of pathogens such as Salmonella spp. and Listeria monocytogenes per 25g, alongside stringent parameters for total aerobic counts, coliforms, Staphylococcus aureus, yeasts, and molds. This dual-layer analytical protocol guarantees that the dense micronutrient profile of our freeze-dried organs is delivered with uncompromising safety.
References
Clemente, A. (2000). Enzymatic protein hydrolysates in human nutrition. Trends in Food Science & Technology, 11(7), 254–262.
Hou, Y., Wu, Z., Dai, Z., Wang, G., & Wu, G. (2017). Protein hydrolysates in animal nutrition: Industrial production, bioactive peptides, and functional significance. Journal of Animal Science and Biotechnology, 8(1), 24.
Korhonen, H., & Pihlanto, A. (2006). Bioactive peptides: Production and functionality. International Dairy Journal, 16(9), 945–960.
Oikonomopoulou, V. P., Krokida, M. K., & Karathanos, V. T. (2011). The influence of freeze-drying conditions on microstructural changes of food products. Procedia Food Science, 1, 647–654.
Ratti, C. (2001). Hot air and freeze-drying of high-value foods: A review. Journal of Food Engineering, 49(4), 311–319.
Chandan, M., Talley, M. L., & Khare, R. (2017). Optimization of Cryoprotectants and Storage Conditions for Freeze-Drying of Protein Therapeutics. European Journal of Pharmaceutical Sciences, 99, 137–146.
Ratti, C. (2008). Hot air and freeze-drying of plant products: Thermodynamics and operational issues. Drying Technology, 26(1), 38–43.
