DISCLAIMER: this post definitely includes information from perplexity.ai pro search (Grok 4), deep research and labs that has not been 'properly' fact checked. It's a work in progress but I thought I'd give you the heads up and a good excuse why I've paused TLUDing for a while...
- Feedstock grown with regenerative principles integrating biochar in the soil eg. bamboo (fastest CO2 sequestering plant, high Si). A strong candidate is Moso (Phyllostachys
edulis) which is a running bamboo that can be pyrolysed for biochar that exhibits electrical properties that make it suitable for various applications, particularly in energy storage and
environmental remediation.
- according to the American Bamboo Society, the Botanical Classification of Bamboo is:
- **KINGDOM:** Plantae
- **PHYLUM (DIVISION):** Magnoliophyta
- **CLASS:** Liliopsida
- **SUBCLASS:** Commelinidae
- **ORDER:** Cyperales
- **FAMILY:** Gramineae (Poaceae)
- **SUBFAMILY:** Bambusoideae
- **TRIBE:** Bambuseae
- **SUBTRIBE:** bambusinae
- bamboo harvested, dried eg. <10% moisture content, chips->
- hopper->a- Pyrolysis eg. Joey/Cornell Uni 'Open source trough pyrolyser' (continuous)
- b-steam activation
- c-milled ?optimal particle size for Metal Organic Framework (MOF), OR 'abc' in an integrated industrial system, such as:
- https://www.bygen.com.au/
- hopper->a- pyrolysis to biochar->b- low temperature activation (LTA, uses 'gases') (more research eg. surface chemistry functionalisation, such as C-O-M
bonding sites)->c- milled (to custom particle size)
- minerals for MOF eg.Manganese Mn (highest redox potential of earth-abundant metals. Oz is world's third largest producer (3 million metric tons) in 2023 behind 1-South Africa
(7.2 million metric tons), 2-Gabon (4.6 million metric tons))
- fabrication of MOF for application-specific tunable chemistry
- **Functionalization of (Steam) Activated Biochar** (optional)
Further modify the activated biochar surface, if needed, to optimize functional groups for metal binding. This may involve mild chemical treatments to increase sites for C–O–M
coordination bonds.
- **Mixing with Metal Precursors and Organic Linkers**
Combine the **functionalized biochar** with **metal salts** (e.g. Manganese precursors) and **organic linkers** (e.g., dicarboxylates) in a suitable solvent. This prepares the
components for **self-assembly**
NOTE: ethanol or water can be used as a solvent.
A '**One pot**' process can possibly be used.
- **Self-Assembly under Controlled Conditions**
Allow spontaneous organization through coordination bonds and non-covalent interactions (e.g., hydrogen bonding) at mild temperatures (**room temperature** to 80°C) and controlled
pH. This forms the 3D MOF network within the 3D biochar matrix.
- **Post-Synthesis Treatments**
Wash, dry, and possibly further activate the assembled MOF to remove impurities and stabilize the structure. This may include drying at low temperatures or additional thermal
processing
- applications
- catalyst
- environmental remediation eg. organic pollutants, tetracyclines, dyes, heavy metal removal from water
- CO₂ Reduction and Gas Conversion eg. CO2 to fuel
- Hydrogen Evolution Reaction (HER) eg. ?photocatalyst, electrocatalyst, for Green Hydrogen production
- energy storage
- supercapacitors
- batteries eg. anode and possibly cathode for Na ion
- hybrid eg. redox flow batteries
- desalination
- perovskites
Here's an example of keyword clustering I put together after initial keyword searches. I organised the keywords into clusters that can be directly entered into the search query in perplexity.ai
- Carbon biology
- biochar
- biochar 3D matrix
- biochar surface chemistry and functionalised groups
- DNA self-assembly compared to Metal Organic Framework MOF self-assembly
- Carbon chemistry
- Carbon
- crystalline nano structures
- advanced Carbon materials
- steam activated activation
- temperature
- C-O-M bonds
- coordination bond mechanism
- perovskites
- Metal Organic Framework MOF
- template
- MOF topology
- earth-abundant metals for biochar MOF
- Fe-doped
- Manganese-doped
- Nickel-doped
- Na-doped
- synthesis parameters
- long-term stability mechanisms
- Carbon physics
- electrical parameters
- electrically conductive networks/pathways
- electrical conductivity EC
- capacitance
- cycling stability
- biochar
- pyrolysis
- temperature
- panel kilns
- TLUD
- rotary kilns
- trough pyrolyser
- Microwave Assisted Pyrolysis MAP
- GaN
- feedstock
- bamboo
- biochar
- Silicon-rich
- other feedstocks
- moisture content MC
- cellulose nano crystals CNC
Black gold digging section
- applications
- battery electrolyte anode cathode
- supercapacitors
- industry
- scalable production
- industrial processes
- manufacturing
**Research strategy for perplexity.ai**
- Pro, Deep Research or Labs searches
- problem->data points->hypotheses ->learning issues->references
- open a new 'thread' then start with open and general questions (LIs), based on testing a hypothesis, then zoom in with every consecutive inquiry
- follow references (in text with full references at the end) and hunt down research papers (if you can access them) and get to the primary source BUT often research paper references are
completely out of context
- still no in-text page referencing
- search results not peer reviewed - the user becomes the peer!!
- use different internet search engines, as an additional layer for papers or ones not mentioned
- BUT what is the point of using AI if u need to fact check and evaluate it's sources? I suppose it needed to be done anyway for rigorous research but AI takes it to the next level of
confusion!!
- basically, if Intel is used for critical business decision making, check the sources and get to the primary sources, assuming they're not already primary sources. Also, could run some identical
Pro searches using different LLMs
- new knowledge, if it can be recognized with prior fact-checked knowledge, is also difficult to fact check because there's no prior history
- NEW STRATEGY
1. keyword extraction deemed important from the initial searches
2. clustering of the keywords
3. keyword clusters fed back into follow up questions
4. Repeat 1, 2 and 3
- perplexity Labs is a new approach, creating tables, graphs, charts and possibly pictures, as well as deep research in between
- Grok 4 is now available for Pro searches
- Web, academic, social and finance search categories are now available
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