All IPs > Analog & Mixed Signal > Amplifier
In the realm of analog and mixed signal applications, amplifier semiconductor IPs are crucial components that play a fundamental role. They are designed to amplify or boost the power, voltage, or current of a signal, ensuring that electronic devices perform efficiently and reliably. At Silicon Hub, our selection of amplifier semiconductor IPs caters to a variety of needs, from simple low-power audio amplifiers to complex RF power amplifiers used in wireless communication systems.
Amplifiers are a key part of many electronic products, including audio equipment, telecommunications infrastructure, and medical devices. For instance, in the audio sector, amplifiers enhance sound quality by increasing the amplitude of signals, thereby enabling concert-level sound in consumer devices. Similarly, in the telecom industry, RF amplifiers are vital for extending the range and clarity of wireless transmissions.
Our catalog at Silicon Hub includes a wide range of amplifier IPs tailored for different specifications and applications. These IPs are designed to meet stringent requirements for linearity, efficiency, and noise performance. Whether designing consumer electronics or sophisticated industrial systems, our amplifier solutions ensure optimal performance and scalability.
Choosing the right amplifier semiconductor IP can dramatically affect the overall performance of an electronic system. As the demand for more efficient and powerful electronic devices continues to grow, our amplifier IPs provide the necessary advancements to meet evolving technological challenges. Explore our broad selection to find the perfect match for your project requirements, and leverage Silicon Hub's expertise in delivering cutting-edge semiconductor solutions.
The KL730 AI SoC is equipped with a state-of-the-art third-generation reconfigurable NPU architecture, delivering up to 8 TOPS of computational power. This innovative architecture enhances computational efficiency, particularly with the latest CNN networks and transformer applications, while reducing DDR bandwidth demands. The KL730 excels in video processing, offering support for 4K 60FPS output and boasts capabilities like noise reduction, wide dynamic range, and low-light imaging. It is ideal for applications such as intelligent security, autonomous driving, and video conferencing.
SCALINX's AGX is a sophisticated programmable gain amplifier delivering exceptional flexibility and control for dynamic signal amplification. Featuring a gain range from 14 to 40 dB and a bandwidth of 300MHz, the AGX amplifier is adept at managing a wide variety of frequencies and signal types. Its design ensures precise signal manipulation, making it ideal for environments that demand variable gain control without compromising signal integrity. The high bandwidth and configurable gain settings allow it to adapt to different application requirements, providing reliable amplification in both consumer and industrial electronics. The AGX requires minimal configuration, leveraging its programmable nature to fit seamlessly into varying design architectures. Aside from its performance capabilities, the AGX is built to fit a range of process nodes, demonstrating a commitment to broad compatibility with existing and emerging semiconductor technologies. Whether in a complex system requiring diverse gain stages or straightforward amplification, the AGX's programmable gain functionality offers a versatile solution.
The aLFA-C is a versatile interfacing ASIC specifically engineered for infrared ROICs typically utilized in space applications. This device significantly replaces traditional front-end electronics infrastructure by incorporating advanced features. Designed to operate with minimal power requirements, it leverages on-chip LDOs and regulators, allowing the device to function on a single unregulated power supply. User-friendly interfaces such as SpaceWire enhance connectivity, while a fully programmable ROIC sequencer with multiple levels of nesting allows dynamic reprogramming.\n\nThe aLFA-C accommodates a wide range of input and output configurations with its 32 programmable digital outputs and 16 digital inputs, supporting differential and single-ended formats in CMOS or LVDS. It integrates a robust SPI interface alongside comprehensive analog acquisition capabilities through its numerous ADC channels. The device ensures precise control and measurement with its programmable gain and offset features, complemented by current biasing adjustments.\n\nThis ASIC is targeted towards critical environments offered by its resilience to radiation and extreme temperatures, facilitating reliable operations from deep cryogenic to high-temperature environments. With features tailored for adaptability, the aLFA-C proves indispensable in mission-critical sensor applications, enabling high precision and integration in space technology systems.
This product is designed with an architectural approach focused on maximizing efficiency in Class-D driver applications across a variety of power levels. It incorporates self-determining technology to optimize operation, ensuring that the energy consumption is minimized while maintaining high performance. This innovation is crucial for applications needing efficient power management, particularly in power-sensitive environments where maximized efficiency is essential for performance and longevity.
The GNSS VHDL Library is a high-performance, sophisticated library developed to streamline the integration of satellite navigation capabilities within digital hardware systems. Tailored for flexibility and adaptability, this library facilitates various GNSS systems, including GPS, GLONASS, and Galileo. Its design enables effective signal processing and navigation solutions through dedicated VHDL modules. A notable aspect of the GNSS VHDL Library is its compatibility with multiple hardware platforms and architectures, which include SPARC V8 and RISC-V systems. It encompasses modules like fast search engines, Viterbi decoders, and self-test units, allowing developers to customize and refine their application according to specific needs. The library supports a range of configurations: it can be tailored to manage different numbers of channels, frequencies, and system modules as specified by user requirements. By implementing a single, comprehensive configuration file, it minimizes the need for repetitive customization across different systems, which can significantly decrease development times and costs.
Vantablack S-VIS is a state-of-the-art material specifically engineered for use in space applications. It is distinguished by its ability to significantly reduce stray light in optical instruments, enhancing the calibration of IR camera systems. Vantablack S-VIS coatings provide a high-performance solution with spectrally flat absorption capabilities that range from the ultraviolet to near-millimeter spectral areas. In the challenging environment of space, these coatings help streamline instrument design by reducing size and weight while maintaining exceptional light absorption and high emissivity.
The BG-1V2-U is an ultra-low-power bandgap reference circuit crafted for high precision voltage regulation. Designed using UMC's 0.13 μm technology node, this circuit provides a stable 1.20 V reference voltage with virtually no quiescent current draw, ensuring minimal power usage. With a perfectly compact size, it is optimized for use in a diverse range of electronic systems that demand reliable performance. Enhanced stability is a core feature of the BG-1V2-U, ensuring that the reference voltage remains unaffected by temperature variations and processing disparities. This bandgap reference strikes a fine balance between size, power consumption, and performance, making it adept for integration in modern electronics where energy efficiency is key. The BG-1V2-U serves as an excellent choice for battery-operated devices, providing consistent reference voltages without the hefty power costs associated with conventional designs. Its robust construction and precise output make it a valuable component in tightly constrained environments.
Analog Circuit Works' Low Noise Amplifier (LNA) IP is among the top choices for applications demanding minimal noise and outstanding power efficiency. These amplifiers approach the theoretical limits of performance by optimizing the noise figure and power consumption across numerous process technologies.\n\nProven effective in a variety of applications, their LNA IP ensures high linearity and gain, making it suitable for use in complex communication and sensor systems. The product's design guarantees that it can be adapted to specific system requirements, maintaining performance integrity regardless of the demanding standards.\n\nIn employing these low noise amplifiers, clients benefit from groundbreaking solutions that integrate seamlessly into their system designs, thereby ensuring reliability and superior operational efficiency, meeting the increasing needs of modern electronic applications.
SystematIC provides a comprehensive collection of analog converters and amplifiers designed for sensor array applications. Capable of converting and amplifying signals from diverse sensors, these components are integral for precision measurement systems. These converters employ techniques such as Sigma-Delta modulation to achieve high-resolution data conversion, necessary for sophisticated sensor applications. These components are a part of intricate systems where precise analog-to-digital conversion and signal amplification are necessary, catering to varied measurement tasks including temperature, pressure, and ambient light assessments. Tailored for high accuracy and low noise, the converters and amplifiers assist in capturing and interpreting fine signal details essential in scientific and industrial applications. They support different integration levels, including photodiode and temperature sensor readouts, proving essential in applications requiring exact measurements. Their ability to support multiple sensor inputs with accurate analog amplification makes them a go-to choice in complex electronic assemblies that demand reliable performance under various conditions.
The ATEK552 is a high-performance, Wideband GaN Power Amplifier designed to deliver substantial power in high-frequency applications ranging from 3 to 17 GHz. Suitable for demanding RF systems, this amplifier provides a power output of 6 Watts, elevating its potential to manage substantial RF signals effectively. With a gain of 21 dB, it ensures significant amplification of input signals while maintaining quality and minimal distortion. Thanks to its robust design, the ATEK552 is an ideal choice for satellite communications, defense applications, and broadband RF systems that require reliable power amplification. It is fabricated as a die, which allows integration into miniaturized RF systems without compromising performance. Engineers can rely on the ATEK552 for its consistent delivery of high-quality amplification across the specified frequency range, making it indispensable for systems demanding high output power and efficiency. Its integration capability with existing RF architectures further enhances its utility in next-generation communication platforms.
The TIA Linear Amplifier caters to both limited and unlimited signal transmission types. It offers comprehensive support for single-lane transmissions at data rates of 25G, 28G, 56G, 64G, and 112G. This makes it indispensable for applications requiring precise signal boosting and minimal distortion.
CurrentRF's CC-100IP RF technology builds upon the CC-100’s energy recycling attributes, focusing primarily on RF applications. This tech enables devices to harness noise in RF systems, repurposing this energy for task execution, hence minimizing unnecessary power drain. Designed for integration in mixed signal and RF circuits, the CC-100IP RF offers a robust solution for managing high-frequency noise, enhancing power throughput, and delivering lower operational energy levels. Its deployment is beneficial across various industries that necessitate reliable RF performance coupled with energy efficiency, thus setting a benchmark in RF energy management.
Akronic specializes in designing state-of-the-art analog and mixed-signal integrated circuits. Their extensive experience covers all essential building blocks used in modern telecom and radar transceiver radios. Akronic's portfolio includes low-pass filters, often utilizing Leapfrog, OPAMP, or Gm-C architectures. These incorporate sophisticated configurations like Chebyshev or Butterworth to achieve high cut-off frequencies exceeding 1GHz. Their ICs also encompass base-band functions such as bandgap voltage references and gain-control operations, ensuring precise signal management. The company's expertise extends to high-speed signal converters, featuring both switched-capacitor and current-source DACs, along with advanced ADC designs like successive-approximation and time-interleaved architectures. Additionally, Akronic's frequency synthesis capabilities embody both fractional and integer-N PLL technologies, complete with multi-modulus prescalers and loop filters. Their focus on minutiae extends through aspects like VCO design, including innovative drivers and multiplexing solutions, making their analog and mixed-signal ICs a hallmark of advanced integrated design. Akronic integrates power-efficient designs with meticulous attention to signal integrity and stability. They provide linear-in-dB or stepped gain-control mechanisms and boast advanced AGC and ALC loop designs. Their emphasis on advanced compensation techniques, like LO leakage control, ensures optimal real-world performance, reinforcing Akronic’s authority in analog and mixed-signal innovation.
SystematIC's Magnetic Hall Sensor is engineered for isolated current sensing in DC and low-frequency applications. Utilizing Hall effect technology, this sensor fully integrates sensor elements with readout electronics within standard CMOS technology. The sensor is notable for its accuracy and high bandwidth, catering to rigorous industrial standards. It features a wide operational temperature range from -40°C to 110°C, accommodating variations in environmental conditions. This sensor operates with a single supply of 5.0 V and offers a typical bandwidth of 80 kHz, making it highly efficient for diverse applications. The design is particularly commendable for its low offset, low thermal coefficient, and minimal magnetic hysteresis. With rigorous isolation properties, this sensor is UL and CSA certified, boasting a high common-mode transient immunity of greater than 25 kV/μs and an isolation voltage of 3 kVRMS for one minute. These features ensure that the sensor can reliably operate in high-voltage and electromagnetically noisy environments.
Akronic's RF and mm-Wave integrated circuits are at the forefront of high-frequency subsystem designs for wireless radio transceivers. They operate over a wide range of frequencies from a few MHz to up to 100GHz. With a profound engineering approach, the company optimizes its circuit topology choices to enhance performance attributes such as noise reduction, output power, and linearity, while limiting power consumption. This strategy ensures minimal silicon footprint with maximum operational efficiency. The company excels in designing DC and single sideband (SSB) up/down conversion mixers, employing both active and passive components. Their ICs also feature essential RF elements like variable gain amplifiers and low noise amplifiers, which are critical for radio transceiver applications. The inclusion of VCOs, power detectors, and sophisticated LO generation tools rounds out a comprehensive RF and mm-Wave offer. Akronic's methodologies involve sophisticated supply and ground routing, and thorough internal de-coupling strategies. Their extensive use of electromagnetic simulations and a special 3D EM simulation approach guarantee a high correlation between simulations and intermediate results. This careful alignment ensures Akronic's RF and mm-Wave ICs deliver unparalleled functionality and integration for client applications.
The RT125 model by RafaelMicro offers a sophisticated 28Gbps signal regeneration solution; it combines a Clock Data Recovery (CDR) unit, Limiting Amplifier (LA), and Trans-Impedance Amplifier (TIA) into a single module. This integration caters to high-speed optical communication needs, ensuring high data integrity and minimal signal loss over extended distances.
The GS61008P is a high-performance GaN transistor, specifically engineered for applications demanding high power density and efficiency. By utilizing state-of-the-art enhancement mode GaN technology, this transistor operates with lower gate charge and faster switching speeds compared to traditional silicon-based devices, offering significant improvements in system performance. Its robust design supports a wide range of applications, from consumer electronics to industrial systems, where efficiency and compact form factor are critical. Technically, the GS61008P boasts an impressive current rating while minimizing on-resistance, which translates to reduced conduction losses and enhanced thermal performance. This makes it particularly suited for power supply designs and motor control applications that benefit from reduced heat generation and improved reliability. Part of a broader family of GaN products, the GS61008P integrates seamlessly into designs where space and thermal management are at a premium. Its advanced features not only simplify the design process but also contribute to more environmentally friendly and energy-efficient end products.
Granite SemiCom's Sensor Interface Conditioner (SIC) is a cutting-edge component designed to process and amplify small differential voltages generated by industrial sensors. It is particularly suited for managing signals from sensors utilizing Wheatstone Bridge configurations, offering precise amplification for communication over significant distances. The SIC can deliver digital outputs through an I2C link, enhancing compatibility with various host devices. With capabilities for remote management and encryption, it ensures data integrity and robust operation across dispersed sensor networks.