May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

May 10, 2022

Zirconia Ceramic can make computers more power efficient

Recently, engineers at the University of California, Berkeley, described a major breakthrough in the design of transistors (tiny electronic switches that make up computer building blocks) that can dramatically reduce their energy consumption without sacrificing speed, size, or performance. This element is called the gate oxide layer, which plays a key role in the switching of transistors. In this study, the team could also achieve negative capacitance by combining hafnium oxide and zirconia in an engineered crystal structure called a superlattice, and also allowed both ferroelectricity

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

March 03, 2022

The main precision secondary processes of advanced ceramics

Precision technical ceramics have different secondary processing methods according to different performance requirements. At present, the main processing methods include mechanical processing, electrical processing, ultrasonic processing, laser processing and composite processing. Hereby we mainly introduce the mechanical processing technology of advanced ceramic materials, including turning, grinding, drilling, lapping and polishing.

February 26, 2022

Why are advanced ceramics metallized?

Advanced ceramics, often referred to as inorganic non-metallic materials, can be seen to be defined directly on the opposite side of metal. Since each of them has entirely different outstanding advantages because of the different internal microstructures of ceramics and metals, so in many practical applications, it is necessary to combine ceramics and metals together to show their respective advantages, thus giving birth to a very important Technology - Ceramic metallization.

February 26, 2022

Why are advanced ceramics metallized?

Advanced ceramics, often referred to as inorganic non-metallic materials, can be seen to be defined directly on the opposite side of metal. Since each of them has entirely different outstanding advantages because of the different internal microstructures of ceramics and metals, so in many practical applications, it is necessary to combine ceramics and metals together to show their respective advantages, thus giving birth to a very important Technology - Ceramic metallization.

February 26, 2022

Why are advanced ceramics metallized?

Advanced ceramics, often referred to as inorganic non-metallic materials, can be seen to be defined directly on the opposite side of metal. Since each of them has entirely different outstanding advantages because of the different internal microstructures of ceramics and metals, so in many practical applications, it is necessary to combine ceramics and metals together to show their respective advantages, thus giving birth to a very important Technology - Ceramic metallization.

February 26, 2022

Why are advanced ceramics metallized?

Advanced ceramics, often referred to as inorganic non-metallic materials, can be seen to be defined directly on the opposite side of metal. Since each of them has entirely different outstanding advantages because of the different internal microstructures of ceramics and metals, so in many practical applications, it is necessary to combine ceramics and metals together to show their respective advantages, thus giving birth to a very important Technology - Ceramic metallization.