Inorganic Phosphorous Active Ingredients TRIZ Cases

A hypochlorous acid and acetic acid composition targets transient biofilms while preserving natural flora across skin, oral, and mucosal tissues.

A synergistic hypochlorous-acetic acid composition extends wound contact time, penetrates sub-surface biofilms, and limits tissue toxicity.

A dissolvable oral film combines immediate morphine delivery with ion-exchange sustained release to aid patients with swallowing difficulty.

Preformulated potassium phosphate injection controls osmolality and aluminum while avoiding dilution steps that raise contamination and dosing risks.

Pyramidal protuberances on a flexible fabric stimulate glabrous skin in proportion to pressure, improving proprioception, balance, and sway control.

Applying a sodium or potassium chloride composition at nerve regions with a pressure applicator targets fascial shortening without needles.

Crystalloid replacement can worsen endothelial injury and leakage; bioactive additives support cell survival and tissue oxygen perfusion.

Surface hypochlorous acid and deeper-penetrating acetic acid work together to address wound biofilms that resist complete disinfection.

A two-phase composite is sintered at 800–1200°C, then carbonated to balance dense strength with faster, predictable remodeling.

Controlled alkaline production forms zinc polyphosphate nanoparticles that strengthen intestinal barriers and help maintain IBD remission.

This case uses zinc polyphosphate to enhance barrier function, promote mucosal healing, and suppress inflammatory cytokines.

Modifying coral bones with dicalcium phosphate creates porous tricalcium phosphate that resists occlusal forces while maintaining biocompatibility.

Segmented precipitation removes heavy metal impurities from beta-tricalcium phosphate to ensure surgical safety.

A graphene structure with distributed gold and hydroxyapatite nanoparticles enhances mechanical strength and biocompatibility.

Segmented microneedle arrays distribute augmentation materials across multiple skin depths to eliminate filler waste and reduce injection pain.

Calcium polyphosphate salt delivers bio-available calcium in beverages while maintaining sodium hexametaphosphate preservative action.

A metabolic assessment system uses deuterium-labeled water and mass spectrometry to quantify fractional gluconeogenesis for precise nutritional support.

Controlling quenching rate and mold temperature transforms droplet-like separation into spinodal structures, enhancing cellular attachment.

Bridging bis(diphenylphosphino)alkane ligands in dinuclear gold(I) complexes increase lipophilicity and cytotoxicity against cancer cells.

Intraperitoneal pyrophosphate administration bypasses oral instability and injection toxicity to prevent vascular calcification in renal patients.

Fine sintered hydroxyapatite particles within a hydrogel carrier resolve flow bottlenecks in thin needles while minimizing tissue inflammation and pain.

Phosphorus-based materials convert to phosphate ions in acidic tumor microenvironments, inhibiting proliferation while sparing normal cells.

A calcified tissue substitute uses a multi-calcium salt gradient to induce gradual pore formation for new bone growth.

Impregnating a porous calcium phosphate scaffold with soluble compounds controls ion release kinetics, aligning material degradation with bone formation rates.

A therapeutic patch uses a pressure-sensitive adhesive layer to deliver homeopathic formulations through the skin.

Fermented composite nebulized inhalation liquid reduces nasal congestion and edema while minimizing side effects from conventional medications.

Bicarbonate buffers maintain pH above 6 to prevent pyrophosphate degradation during heat sterilization, addressing stability issues in dialysis treatments.

Biodegradable polymer implants release statins to replace unstable growth factors, reducing costs while accelerating bone healing.

Reducing boiling temperature and time maintains protein chain length, resolving the trade-off between sericin removal efficiency and mechanical strength.

Nanocrystalline hydroxyapatite composite with biodegradable polymer and plasticizer achieves extended moldability at room temperature.

A pectin and calcium phosphate composite gel forms through controlled ionic cross-linking at specific pH levels.

A sodium pyruvate solution containing calcium, phosphate, and magnesium enhances lung surfactant synthesis to improve oxygen saturation.

Standardized ready-to-use sodium phosphates injection prevents crystallization and reduces aluminum toxicity during storage.

Optimizing pore dimensions in the OCP-collagen scaffold resolves the trade-off between osteoblast infiltration and structural integrity.

Adding specific mineral supplements to poultry feed resolves the contradiction between high production efficiency and animal health reliability.

Ready-to-use potassium phosphate solutions in sodium chloride eliminate aseptic compounding risks while maintaining chemical stability and low aluminum content.

Replacing carboxylate linkers with phosphonate bonds eliminates hydrolytic cleavage, ensuring sustained stability during fractionated radiotherapy.

In situ formed phosphate salts in polyethylene containers eliminate aluminum toxicity risks while maintaining stability at room temperature.

A pharmaceutical composition combining coconut extract, mineral salts, and plant extracts to inactivate viral particles.

Cellular biomineralization yields high-crystallinity hydroxyapatite, overcoming low homogeneity in traditional synthesis.