Abstract: In order to solve the problem that the existing manganese-based positive electrode material battery has insufficient high-temperature cycle and high-temperature storage performances due to the dissolution of manganese ions, the present application provides a secondary battery, comprising a positive electrode, a negative electrode and a non-aqueous electrolyte, the positive electrode comprises a positive electrode material layer containing a positive electrode active material, the positive electrode active material comprises a manganese-based material, and the non-aqueous electrolyte comprises a solvent, an electrolyte salt and an additive, and the additive comprises a compound represented by structural formula 1: the secondary battery meets the following requirements: 0.05?100×W×u/(q×s)?5; and 2.0 g/Ah?W?4.5 g/Ah, 0.05%?u?3.5%, 5%?q?65%, 10 mg/cm2?s?30 mg/cm2.

Abstract: A patterned article that includes: an alkali silicate glass substrate comprising a thickness and a primary surface, the substrate having a bulk composition; a patterned region defined by at least a portion of the primary surface; and a compressive stress region that extends from the at least a portion of the primary surface to a first depth within the substrate. The patterned region comprises a surface roughness (Ra) from about 1 nm to about 600 nm and at least one of a plurality of protrusions and a plurality of depressions. Further, each of the compressive stress region and the patterned region comprises a concentration of at least one alkali metal ion that is different than the concentration of the at least one alkali metal ion in the bulk composition.

Abstract: Methods for regenerating poisoned salt bath comprising providing a salt bath comprising at least one of KNO3 and NaNO3, providing an ion-exchangeable substrate comprising lithium cations, contacting at least a portion of the ion-exchangeable substrate with the salt bath, whereby lithium cations in the salt bath diffuse from the ion-exchangeable substrate and are dissolved in the salt bath, and selectively precipitating dissolved lithium cations from the salt bath using phosphate salt. The methods further include preventing or reducing the formation of surface defects in the ion-exchangeable substrate by preventing or reducing the formation of crystals on the surface of the ion-exchangeable substrate upon removal from the salt bath.

Abstract: A patterned article that includes: an alkali silicate glass substrate comprising a thickness and a primary surface, the substrate having a bulk composition; a patterned region defined by at least a portion of the primary surface; and a compressive stress region that extends from the at least a portion of the primary surface to a first depth within the substrate. The patterned region comprises a surface roughness (Ra) from about 1 nm to about 600 nm and at least one of a plurality of protrusions and a plurality of depressions. Further, each of the compressive stress region and the patterned region comprises a concentration of at least one alkali metal ion that is different than the concentration of the at least one alkali metal ion in the bulk composition.

Abstract: Methods for regenerating poisoned salt bath comprising providing a salt bath comprising at least one of KNO3 and NaNO3, providing an ion-exchangeable substrate comprising lithium cations, contacting at least a portion of the ion-exchangeable substrate with the salt bath, whereby lithium cations in the salt bath diffuse from the ion-exchangeable substrate and are dissolved in the salt bath, and selectively precipitating dissolved lithium cations from the salt bath using phosphate salt. The methods further include preventing or reducing the formation of surface defects in the ion-exchangeable substrate by preventing or reducing the formation of crystals on the surface of the ion-exchangeable substrate upon removal from the salt bath.

Abstract: Described herein are various antimicrobial soda lime glass articles that have improved resistance to discoloration when exposed to harsh conditions, including manufacturing conditions. The improved antimicrobial glass articles described herein generally include a SLG substrate that has a thickness, t; a compressive stress layer of about 0.15*t or greater; and an antimicrobial agent-containing region having an antimicrobial agent and a thickness less than the thickness of the compressive stress layer. Roughly 2 to 20 microns of the primary surfaces of the glass substrate can be removed prior to development of the compressive stress and antimicrobial agent-containing region. In some aspects, prior-annealed and tempered, or prior-annealed, SLG is employed as the substrate. In some aspects, the substrate includes tin at one surface. The improved SLG substrates experience substantially no discoloration when exposed to harsh conditions. Methods of making and using the glass articles are also described.

Abstract: Methods for regenerating poisoned salt bath comprising providing a salt bath comprising at least one of KNO3 and NaNO3, providing an ion-exchangeable substrate comprising lithium cations, contacting at least a portion of the ion-exchangeable substrate with the salt bath, whereby lithium cations in the salt bath diffuse from the ion-exchangeable substrate and are dissolved in the salt bath, and selectively precipitating dissolved lithium cations from the salt bath using phosphate salt. The methods further include preventing or reducing the formation of surface defects in the ion-exchangeable substrate by preventing or reducing the formation of crystals on the surface of the ion-exchangeable substrate upon removal from the salt bath.

Abstract: Methods and systems of strengthening lithium-containing glass-based substrates including contacting at least a portion of the lithium-containing glass-based substrates with a first salt bath comprising at least 2 wt. % lithium nitrate and at least one of potassium nitrate and sodium nitrate and contacting at least a portion of the lithium-containing glass-based substrates with a second salt bath comprising at least one of potassium nitrate and sodium nitrate. The methods further include that after contacting 3 m2 of glass per kilogram of molten salt (3 m2/kg salt) to 13 m2/kg salt for the first salt bath, a surface compressive stress imparted to the glass articles by the contacting steps decreases by less than 30 MPa.

Abstract: Methods for regenerating poisoned salt bath comprising providing a salt bath comprising at least one of KNO3 and NaNO3, providing an ion-exchangeable substrate comprising lithium cations, contacting at least a portion of the ion-exchangeable substrate with the salt bath, whereby lithium cations in the salt bath diffuse from the ion-exchangeable substrate and are dissolved in the salt bath, and selectively precipitating dissolved lithium cations from the salt bath using phosphate salt. The methods further include preventing or reducing the formation of surface defects in the ion-exchangeable substrate by preventing or reducing the formation of crystals on the surface of the ion-exchangeable substrate upon removal from the salt bath.

Abstract: A method for adding Assist Feature comprises providing target patterns for OPC, selecting a rule in which only one Assist Feature can be added based on a Base AF rule, and establishing an Extra Assist Feature rule; making a global size-up of the target patterns, so that all sides of the target patterns extend outwards by a distance A; subtracting the distance value between the corresponding sides of the target patterns formatted under the Extra Assist Feature rule by a distance 2A based on the Extra Assist Feature rule; and carrying out the corresponding adjustment on other parameters which are affected by the overall sizing of the target patterns formatted under the Extra Assist Feature rule based on a distance A; operating the Extra Assist Feature rule to generate a first Assist Feature; executing the Base AF rule on the target patterns, generating a second Assist Feature by using the first Assist Feature as a newly-added reference feature, and superimposing the first Assist Feature, the second Assist Featu

Abstract: Methods of forming vias in a glass-based article by laser-damage-and-etch processes including etching solutions having positive charge organic molecules are disclosed. In some embodiments, a method of forming a via in a glass-based article includes forming a damage track through a bulk of the glass-based article extending from a first surface of the glass-based article to a second surface of the glass-based article, and applying an etching solution to the glass-based article to form the via. The etching solution includes at least one acid and a positive charge organic molecule. An etch rate at the first surface and the second surface is lower than an etch rate at the damage track.

Abstract: Described herein are various antimicrobial articles that have reduced discoloration after the formation of a silver-containing region in a substrate. The improved antimicrobial articles described herein generally include a substrate that comprises a compressive stress layer and a silver-containing region that each extend inward from a surface of the substrate to a specific depth, and has a uniform silver concentration profile across the surface of the substrate, such that the article exhibits little-to-no discoloration. Methods of making and using the articles are also described.

Abstract: Methods for regenerating poisoned salt bath comprising providing a salt bath comprising at least one of KNO3 and NaNO3, providing an ion-exchangeable substrate comprising lithium cations, contacting at least a portion of the ion-exchangeable substrate with the salt bath, whereby lithium cations in the salt bath diffuse from the ion-exchangeable substrate and are dissolved in the salt bath, and selectively precipitating dissolved lithium cations from the salt bath using phosphate salt. The methods further include preventing or reducing the formation of surface defects in the ion-exchangeable substrate by preventing or reducing the formation of crystals on the surface of the ion-exchangeable substrate upon removal from the salt bath.

Abstract: Methods for regenerating poisoned salt bath comprising providing a salt bath comprising at least one of KNO3 and NaNO3, providing an ion-exchangeable substrate comprising lithium cations, contacting at least a portion of the ion-exchangeable substrate with the salt bath, whereby lithium cations in the salt bath diffuse from the ion-exchangeable substrate and are dissolved in the salt bath, and selectively precipitating dissolved lithium cations from the salt bath using phosphate salt. The methods further include preventing or reducing the formation of surface defects in the ion-exchangeable substrate by preventing or reducing the formation of crystals on the surface of the ion-exchangeable substrate upon removal from the salt bath.

Abstract: The present disclosure relates to a radio frequency (RF) unit of a base station, and more particularly, to a method of manufacturing an RF power amplifier module, an RF power amplifier module, an RF module, and a base station. The RF power amplifier module includes at least a power device, a power circuit board, a heat-dissipation substrate, and input/output ports. A power device die of the power device and the power circuit board are mounted on the heat-dissipation substrate. The power device die is connected to the power circuit board through packaging lead wires. In one exemplary embodiment, a heat-dissipation effect and manufacturing efficiency of the RF power amplifier module are improved and a cost of the RF power amplifier module is reduced.

Abstract: Described herein are various antimicrobial soda lime glass articles that have improved resistance to discoloration when exposed to harsh conditions, including manufacturing conditions. The improved antimicrobial glass articles described herein generally include a SLG substrate that has a thickness, t; a compressive stress layer of about 0.15*t or greater; and an antimicrobial agent-containing region having an antimicrobial agent and a thickness less than the thickness of the compressive stress layer. Roughly 2 to 20 microns of the primary surfaces of the glass substrate can be removed prior to development of the compressive stress and antimicrobial agent-containing region. In some aspects, prior-annealed and tempered, or prior-annealed, SLG is employed as the substrate. In some aspects, the substrate includes tin at one surface. The improved SLG substrates experience substantially no discoloration when exposed to harsh conditions. Methods of making and using the glass articles are also described.

Abstract: The present disclosure relates to a radio frequency (RF) unit of a base station, and more particularly, to a method of manufacturing an RF power amplifier module, an RF power amplifier module, an RF module, and a base station. The RF power amplifier module includes at least a power device, a power circuit board, a heat-dissipation substrate, and input/output ports. A power device die of the power device and the power circuit board are mounted on the heat-dissipation substrate. The power device die is connected to the power circuit board through packaging lead wires. In one exemplary embodiment, a heat-dissipation effect and manufacturing efficiency of the RF power amplifier module are improved and a cost of the RF power amplifier module is reduced.

Abstract: The present invention discloses a double-exposure method comprising a first lithography process and a second lithography process. Between the first and the second lithography process, coat Resolution Enhancement Lithography Assisted by Chemical Shrink (RELACS) material on the first photoresist pattern, promote thermal crosslinking reaction at the interface between the RELACS materials and the first photoresist pattern; afterwards, remove the RELACS material which does not crosslink with the first photoresist pattern. This method not only realizes higher lithography resolution, but also avoids the adverse effects of the second exposure on the first photoresist pattern in double-exposure technology.