Micron Technology Incorporated

Shanghai Yuanhan Energy & Chemical Technology Co., Ltd.

Walsin Technology Corporation

Schneider Electric Industries Sas

Wenjun Wu

Yunfeng Zhang

Xiangquan Zhang

Wei Zhang

Deping He

Feng Xu

Qing Liu

Yujun Zhang

Akira Sawasaki

Yiling Wang

Chenglai Zhang

Meyiu Zhao

Tsai Tsung Tsai

Methods, systems, and devices for dynamically adjusting data read size are described. A memory system controller may be configured to dynamically adjust a size of data transmitted to a host system based on determining a quantity of data requested by the host system. The memory system controller may support receiving a read command of a first data size, incrementing a counter by the first data size, requesting the data from a memory device according to a second data size, and transmitting the data from the memory device according to a third data size based on the counter. The memory system controller may determine the counter does not satisfy a threshold and configure the third data size as a relatively small quantity of data. However, the memory system controller may determine the counter satisfies the threshold and configure the third data size as a relatively large quantity of data.

Dynamically adjusting data read size

Methods, systems, and devices for read buffer allocation balance between multiple memory dies are described. A memory system may transfer multiple device commands to various command queues in which each queue is associated with a respective memory die of the memory system. The memory system may determine an order for execution of the commands based on amounts of a buffer currently allocated to each memory die, amounts of a buffer request for each command, or both. The memory system may process the commands of each queue based on the order for execution and allocate buffer to respective memory dies based on the processed commands. The memory system may perform the commands, deallocate respective portions of the buffer associated with the commands, and transfer more device commands to each command queue.

Read buffer allocation balance between multiple memory dies

Methods, systems, and devices for data compression for mapping tables are described. A memory system may store a table that includes mappings between a set of logical block addresses and a set of physical block addresses. The table may be stored to volatile memory of the memory system and each entry may include a subset of physical block addresses and one or more logical block addresses that correspond to the subset of physical block addresses. In some implementations, a quantity of the entries that each include the subset of physical block addresses and the one or more logical block addresses may be determined based on dividing the set of physical block addresses by a factor. Similarly, a size of the entries may be determined based on dividing the set of physical block addresses by the factor.

Data compression for mapping tables

The present disclosure provides a method and a system for denitrogenation combustion and COcapture and utilization in a gas boiler. The method is implemented by the system for denitrogenation combustion and COcapture and utilization in the gas boiler, and comprises: after circulating flue gas is discharged from a gas boiler, introducing the circulating flue gas into a gas heat exchanger to perform heat exchange with natural gas, hydrogen, and carbon-based denitrogenation gas; introducing the circulating flue gas after heat exchange into a flue gas dehydration device to perform dehydration; introducing a first portion of the circulating flue gas after the heat exchange and dehydration into a blower through the flue gas dehydration device to be pressurized by the blower and introduced into a carbon-based denitrogenation gas mixer; preparing the carbon-based denitrogenation gas by mixing oxygen and the circulating flue gas using the carbon-based denitrogenation gas mixer for combustion for the gas boiler; and introducing a second portion of the circulating flue gas after heat exchange and dehydration into a COrecovery device to perform purification and deoxygenation through the flue gas dehydration device to obtain a COproduct, and pressurizing and transmitting the COproduct to a COutilization device through a COcompressor.

Methods and systems for denitrogenation combustion and COcapture and utilization in gas boilers

Disclosed is a combustion process of a glass kiln with non-catalytic reformers. A corresponding system includes the glass kiln, the non-catalytic reformers A/B, a flue gas recovery device, a chimney, a high-temperature flue gas fan, a natural gas supply device, and an oxygen supply device. The present disclosure circulates part of flue gas of the glass kiln and increases concentrations of vapor and carbon dioxide in the circulating flue gas, the vapor and the carbon dioxide in the circulating flue gas are subjected to a conversion and reforming reaction with natural gas in the non-catalytic reformers for recycling sensible heat of the high-temperature flue gas and meanwhile generating high-calorific-value water gas at 1300&#xb0; C. or above, thereby increasing a gross calorific value and a temperature of gas entering the glass kiln, and the high-calorific-value water gas, less unreacted natural gas, and oxygen are sufficiently combusted in the glass kiln.

Combustion process of glass kiln with non-catalytic reformers

A dielectric material is provided. The dielectric material includes a main composition including a BaTiOhaving a weight ranged from 50 to 94.9 wt %; a first sub-composition including a GeOand an MnCOrespectively having a weight ranged from 0.01 to 10 wt %; and a second sub-composition including a glass additive composed of a BO, a ZnO, a SiOand at least one of a CuO, a CaCOand a BaCO, wherein the glass additive has a weight ranged from 5 to 40 wt %.

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Shanghai, China

Wenjun Wu