Name: Electrolyte Solutions – Full Range
Brand: Canrud
Price: 60.41 USD

Question 1

Accepted Answer

If the cathode range is 1.3 V–4 V, it is recommended that if graphite is used as the anode, the same electrochemical window of 1.3–4 V should be used.

Question 2

Accepted Answer

Yes, it is.

Question 3

Accepted Answer

Wetting is affected by electrolyte composition, viscosity, amount, electrode density, temperature, time, and vacuum conditions. Solutions include using low-viscosity solvents, adjusting salt concentration, increasing electrolyte volume, reducing electrode density, and applying vacuum or elevated temperature aging.

Question 4

Question 5

Accepted Answer

We tested it in a half-cell; theoretical gravimetric capacity >95 mAh/g

Question 6

Accepted Answer

Causes include high surface area materials absorbing binder, low solid content, fast solvent evaporation, insufficient binder, and excessive coating thickness. Solutions involve formulation and process optimization.

Question 7

Accepted Answer

The sintering temperature of LLTO is generally around 1100–1300°C; the optimal sintering temperature needs to be determined experimentally — we can only provide a rough reference range.

Question 8

Accepted Answer

Key points include: capacity balancing between cathode and anode; electrolyte compatibility; formulation to minimize polarization; proper alignment and stacking to ensure stable internal contact.

Question 9

Accepted Answer

The oxide electrolyte powders we currently sell are LATP, LAGP, LLZO, LLTO, LALZO, LLZNTO, NZSPO, and LZSPO; the oxide ceramic sheets available are LATP, LAGP, LLZTO, and NZSPO. Standard thickness is 1 mm, diameters range from 10 to 15 mm, and custom specifications can be discussed with customer service.

Question 10

Accepted Answer

For 811 cathode, the specific capacity is roughly just over 180 mAh/g; this is considered normal.

Question 11

Accepted Answer

When electrolyte pellets are prepared by cold pressing, the size cannot be controlled to be identical for every pellet; generally they vary within a range. Achieving very high dimensional precision for each pellet is not possible because thermal shrinkage under the same process also differs, unless hot pressing and sintering are used.

Question 12

Question 13

Accepted Answer

There is essentially no noticeable difference between the two; the main distinction is in self-discharge, but it is very small — the latter has about 0.005 mV/hour lower self-discharge.

Question 14

Accepted Answer

NZSPO — this is a relatively mainstream and mature sodium-ion solid electrolyte technology at present. Regarding stability, it is stable across a voltage range of 0–4.5 V; it is stable at high voltage, and at low voltage it undergoes some reduction and valence change, but this does not greatly affect battery performance. If examining the mechanism microscopically, the low-voltage behavior may involve valence changes at the nanolayer level.

Question 15

Accepted Answer

We have a recommended compacted density value on our official website for the customer to refer to; if they want to achieve a compacted density within this range, the customer needs to verify it themselves to see the effect after pressing. Calendering according to a compacted density provided by the customer requires customization.

Question 16

Accepted Answer

None

Lithium Electrolytes (900+)	Sodium Electrolytes (500+)	Other Electrolytes (300+)	Salts / Organic Reagents (100+)
LiPF6 Electrolytes (Common Models)	NaClO4 Electrolytes	KPF6 Electrolytes	Lithium Salts
Electrolytes for Different Systems	NaPF6 Electrolytes (Conventional PC Dual-Solvent)	KFSI Electrolytes	Sodium Salts
Lithium-Sulfur Electrolytes	NaPF6 Electrolytes (Conventional PC Multi-Solvent)	LiDFOB Electrolytes	Potassium Salts
LiPF6 Electrolytes (Conventional Single / Dual / Multi-Solvent)	NaPF6 Electrolytes (Conventional EC Multi-Solvent)	LiBF4 Electrolytes	Carbonates
LiPF6 Electrolytes (FEC / VC / Multi-Additives)	NaPF6 Electrolytes (EC / EMC Dual-Solvent)	Supercapacitor Electrolytes	Carboxylates
LiPF6 Electrolytes (High FEC)	NaPF6 Electrolytes (EC / DEC Dual-Solvent)	Localized High-Concentration Electrolytes	Ethers
High-Concentration LiPF6 Electrolytes (>1M)	NaPF6 Electrolytes (EC / DMC Dual-Solvent)	Anode-Free Electrolytes	Nitriles
LiPF6 Electrolytes (Multiple Lithium Salts)	NaPF6 Electrolytes (Conventional Single-Solvent)	Unconventional Primary Salt Solutions	Sulfur-Containing
LiPF6 Electrolytes (Special Solvents)	NaPF6 Electrolytes (Ether-Based Solvents)	Mixed Solvents	Phosphorus-Containing
LiClO4 Electrolytes	NaPF6 Electrolytes (Special Solvents)	Ionic Liquids	Aromatics
LiFSI Electrolytes	NaFSI / NaTFSI / NaCF3SO3 Electrolytes		Borate Esters
LiTFSI Electrolytes	Full Sodium Electrolytes		Acid Anhydrides
Lithium-Air Electrolytes			Sulfones

Electrolyte Solutions – Full Range

Details