Abstract:
Present invention is related to equipment for continuously processing electrochemical device or component for increasing capacity comprising a first reaction part, a second reaction part and a separated layer configured to be placed between the first reaction part and the second reaction part. The first reaction part comprises a counter electrode, a first reaction solution contained in a first reaction cell having a gas outlet. The first reaction solution will produce a first non-metallic ion, a second metallic ion and a third gas after conducting an electrochemical reaction. The second reaction part comprises a working electrode and a second reaction solution containing the second metallic ion permeated through the separated layer from the first reaction part. The second metallic ion will then be deposited as metal particles onto the working electrode which has been continuously fed into the second reaction part. The present invention provides equipment which can continuously produce electrode with extra or additional lithium source without the effect of the gas byproduct with more evenly distribution and high quality.
Abstract:
Present invention provides an innovative alloy formation method for a solid state battery and the sold state battery thereof. The said sulfide solid-state electrolyte is doped with anode-philic material to replace the cation ion when synthesizing the sulfide solid-state electrolyte to improve its ionic conductivity but reduce the electronic conductivity avoiding internal electricity leakage. The present invention can also increase the moisture resistance for the sulfide solid-state electrolyte. After performing life cycles, an alloy is formed on an interface of the sulfide solid-state electrolyte which could stabilize and prolongs the life cycles of the full battery.
Abstract:
The present invention provides a method for stabilizing an electrode using a functional layer, the electrode and applications thereof, which generates a beneficial electrolyte interface layer on the surface of the negative electrode after charging and discharging, and a protective buffer layer to form an alloy that facilitates the deposition of dense lithium on the negative current collector, significantly extending the life of the battery.
Abstract:
Present invention is related to a metallic particle-deposition substrate having a metal substrate and multiple metallic particles attached thereon. The metallic particles are nano-particles with at least 90% of these nano-particles as single layer being evenly dispersed on the metal substrate. Each of the metallic particle is isolated without toughing or overlapping. The metal substrate has different material than the metallic particles in each preferred embodiment in the present invention. More preferably, at least 80% of the metallic particles have the distance between each metallic particle is at a range of 2-6 nm for better generation of hotspot effects. The present invention provides a fast production method for producing the substrate with heterogeneous interface. The metallic particles are evenly attached to the surface of the metal substrate to obtain better surface enhanced Raman effect as to apply for sensors in all kinds of field.
Abstract:
Present invention is related to a composite modified layer attached on a current collector comprising a lithiophilic particle being covered or coated by a polymer layer. The composite modified layer further could be coated with an additional carbon layer or artificial protective film as several suitable embodiments presented in this invention. The lithiophilic particle, such as sliver nano-particle, will firstly form a lithium-silver alloys to reduce a thermodynamic instability during the growth of lithium nuclei. The sliver nano-particle is able to be attached securely on the current collector by the polymer with high adhesion ability. The fuel cell including the composite modified layer in the present invention has higher average Coulombic efficiency and higher capacity retention.
Abstract:
Present invention is related to a composite modified layer attached on a current collector comprising a lithiophilic particle being covered or coated by a polymer layer. The composite modified layer further could be coated with an additional carbon layer or artificial protective film as several suitable embodiments presented in this invention. The lithiophilic particle, such as sliver nano-particle, will firstly form a lithium-silver alloys to reduce a thermodynamic instability during the growth of lithium nuclei. The sliver nano-particle is able to be attached securely on the current collector by the polymer with high adhesion ability. The fuel cell including the composite modified layer in the present invention has higher average Coulombic efficiency and higher capacity retention.
Abstract:
A ceramic material, methods for adsorbing and converting carbon dioxide are provided. The ceramic material is represented by a chemical formula M1xM2yOz, wherein M1 is selected from a group consisting of Nd, Sm, Gd, Yb, Sc, Y, La, Ac, Al, Ga, In, Tl, V, Nb, Ta, Fe, Co, Ni, Cu, Ca, Sr, Na, Li and K; M2 is selected from a group consisting of Ce, Zn, Ti, Zr and Si; O represents oxygen atom; x 0.5, x+y=1.0, z
Abstract translation:提供陶瓷材料,吸附和转化二氧化碳的方法。 陶瓷材料由化学式M1xM2yOz表示,其中M1选自Nd,Sm,Gd,Yb,Sc,Y,La,Ac,Al,Ga,In,Tl,V,Nb,Ta, Fe,Co,Ni,Cu,Ca,Sr,Na,Li和K; M2选自Ce,Zn,Ti,Zr和Si组成的组; O表示氧原子; x <0.5,y> 0.5,x + y = 1.0,z <2.0; 并且陶瓷材料在50℃下对于CO 2具有不小于20μmol/ g的吸附能力。
Abstract:
The present invention provides an electrolyte solvent with adjustable solvation properties, and through an electrolyte technology, adjusts the anion-rich solvent with favorable solubility, and develops and synthesizes the solvent with weak solvation properties, so that the battery performance can be greatly improved and the solvent can be produced at low cost. The electrolyte technology of the present invention can control the electrochemical battery, taking the lithium battery as an example, the growth pattern of the lithium and the interface control of the positive and negative electrodes, which can help improve the safety of the lithium battery during fast charging, and it can be extended to various electrochemical devices such as metal/metal-ion/metal and metal-ion hybrid batteries.
Abstract:
A method of preventing corrosion of a battery current collector, comprising the steps of: providing an electrochemical battery comprising at least an anode, a cathode, and an electrolyte between the anode and the cathode; wherein: the cathode comprises a metal current collector and the electrolyte comprises a metal chelator, a negatively charged metal salt, and a solvent; performing charge/discharge on the electrochemical battery; wherein, the metal chelator in the electrolyte and the metal ions of the metal current collector, or the metal chelator in the electrolyte is co-chelated with both the metal ions of the metal current collector and the negative charge of the negatively charged metal salt to form an anti-corrosion layer on the metal current collector; by adding a chelating electrolyte as a protective layer, the metal current collector can be protected from electrolyte corrosion and the electrodes maintain high conductivity, thereby improving the efficiency of the battery.
Abstract:
Present invention is related to a method for stabilizing sulfide solid electrolyte having steps of providing a sulfide solid electrolyte, contacting the sulfide solid electrolyte with carbon dioxide gas, and the sulfide solid electrolyte absorbing the CO2 gas. By introducing cost efficient CO2 gas, the sulfide solid electrolyte could have a more stable molecular structure to avoid degradation during long cycle lifetime.