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Price & Stock for: GRM21BR61E106KA73L

Distributor Stock MOQ Package QTY Break / Prices
View this part on Avnet Americas 1,058,024 3,000 Reel
  • 3,000 $0.0352
  • 3,100 $0.0333
  • 6,100 $0.0314
  • 15,000 $0.0295
  • 30,000 $0.0276
  • 150,000 $0.0256
  • 300,000 $0.0238
View this part on Newark 93,000 3,000 TAPE & REEL FULL
  • 3,000 $0.0800
  • 6,000 $0.0760
  • 12,000 $0.0620
View this part on Newark 376,693 1 TAPE & REEL CUT
  • 1 $0.2400
  • 10 $0.1640
  • 25 $0.1370
  • 50 $0.1110
  • 100 $0.0840
View this part on Bristol Electronics 46,945 14
  • 14 $0.3750
  • 41 $0.1875
  • 268 $0.1125
  • 1,335 $0.0750
  • 4,668 $0.0562
  • 11,122 $0.0506
View this part on Bristol Electronics 10,288 1

Purchasing Insights: GRM21BR61E106KA73L

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Risk Rank

Risk Rank is a proprietary algorithm Supplyframe has developed to quantify component risk rank using multiple data points. This ranking helps engineers and buyers determine whether alternates should be sought for parts that are deemed as high risk.

Risk Rank Example

Risk Rank is determined by a combination of factors such as product lifecycle status, price & inventory votality, current inventory availability, and much more. Even the availability of manufacturer specifications and part documentation, such as datasheets and reference designs, have an impact on determining the overall riskiness of a part.

The risk is characterized across three product phases:

  • Design
  • Production
  • Long Term

For Purchasing Risk Rank, we focus on the Production and the Long Term Phases on Findchips in our evaluation of Risk.

Production Phase

The production phase is when the product is being assembled. Sourcing parts reliably is the essential task during this phase, as it determines whether the product can continue production. During the production phase, there is no time to test new components if something goes awry – the design is the locked-in and a primary risk factor is the component availability in the marketplace. It is possible to utilize alternative parts if things go wrong during this phase, but they need to be FFF (form, fit, function) compatible. Therefore, if a part is available in the online marketplace and has available FFF components, it will be listed as lower risk.

Long Term Phase

The amount of time that a product is manufactured often depends on the industry. Some automobile electronics are made consistently for 5-10 years, whereas military and industrial electronics could be produced from anywhere from 30-50 years.

This means part risk goes up with the likelihood of obsolescence. If a chip manufacturer decides to stop making a particular chip, it is supremely disruptive to mature products, because there may not even be replacement parts available. Other factors like environmental certifications (RoHS) feed into this as well, as non-certified parts are more likely to become obsolete in the future.

We combine both of these aspects into a Purchasing Risk Rank score in order to focus in on risk elements that would be most pertinent for purchasers to be aware of.

Risk Rank Breakdown

Risk Rank: Purchasing Risk

What is purchasing risk rank?

Purchasing Risk Rank is determined by in-depth analysis across risk factors of production risk and long term risk of a given part.

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Part Details for: GRM21BR61E106KA73L

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Risk Rank

Risk Rank is a proprietary algorithm Supplyframe has developed to quantify component risk rank using multiple data points. This ranking helps engineers and buyers determine whether alternates should be sought for parts that are deemed as high risk.

Risk Rank Example

Risk Rank is determined by a combination of factors such as product lifecycle status, price, inventory votality, current inventory availability, and much more. Even the availability of manufacturer specifications and part documentation, such as datasheets and reference designs, have an impact on determining the overall riskiness of a part.

The risk is characterized across three product phases:

  • Design
  • Production
  • Long Term

We focus on the Design Phase on Findchips in our evaluation of Risk.

Design Phase

The design phase of a product is the beginning of the product lifecycle. This is when engineers are doing analysis of components in the marketplace, determining which specifications are most important for their design and assessing the cost impact of using this particular component. While this is early in the product lifecycle, choices at this point can severely impact a product much later on when the product is being made. Additionally, this stage is the one furthest from a product being made, which is why we focus on metrics of stability over time when determining Design Risk.

Risk Rank Breakdown

Risk Rank: Design Risk

What is design risk rank?

Design Risk Rank is determined by in-depth analysis across risk factors, including part availability, functional equivalents, lifecycle, and more.

Resources and Additional Insights

Reference Designs

  • Altera Arria V FPGA Power Supply Reference Design - PMP9357.1 - TI Tool Folder
    PMP9357: This reference design provides all the power supply rails necessary to power Altera's Arria V FPGA. This design uses the TPS54620 to generate the rails to power the FPGA.
  • Altera Arria V GZ FPGA Discrete Power Solution Reference Design
    PMP9357: The PMP9357 reference design is a complete power solution for Altera's Arria V series FPGAs. This design uses several TPS54620 synchronous step down converters, LDOs, and a DDR termination regulator to provide all the necessary rails to power the FPGA. To provide correct power sequencing, a UCD90120A power supply sequencer/monitor is used and can be controlled through I2C.
  • Reference Design using TMS320C6657 to Implement Efficient OPUS Codec Solution
    TIDEP0036: The TIDEP0036 reference design provides an example of the ease of running TI optimized Opus encoder/decoder on the TMS320C6657 device. Since Opus supports a a wide range of bit rates, frame sizes and sampling rates, all with low delay, it has applicability for voice communications, networked audio and even high performance audio processing application. This design also highlights the performance improvements achieved when implementing the Opus codec on a DSP vs. a general purpose processor, like ARM. Depending upon the level of optimization of the code running on the genral purpose processor, implementing the Opus Codec on a C66x TI DSP core can have 3X the performance of an ARM CORTEX A-15 implementation. TMS320C66x DSPs support both audio and video codecs.
  • Altera Arria V FPGA Power Supply Reference Design
    PMP9357.1: This reference design provides all the power supply rails necessary to power Altera's Arria V FPGA. This design uses the TPS54620 to generate the rails to power the FPGA.
  • Data Acquisition for MUX and Step Inputs, 18 bits, 1uS Full Scale Response Reference Design
    TIPD112: This TI Verified Design is a high performance data acquisition system (DAQ) using an 18-bit SAR ADC, ADS8881 at a throughput of 1MSPS. This design has been optimized to provide 18-bit settling performance for a Full Scale Step Input signal, thus leading to excellent system linearity. Such an input stimulus is more applicable in MUXed applications for transition between channels with different input voltages. The input driver for the ADC uses the OPA350 for high bandwidth (small & large signal), output current drive and linear rail-to-rail input and output operation. The reference buffer drive utilizes a composite buffer made out of THS4281 & OPA333 to get the desired performance at lowest power consumption. This DAQ block achieves a ±2.5LSB INL performance for a total power consumption of less than 70mW. See more TI Precision Designs
  • Altera Arria V FPGA Power Supply Reference Design
    PMP9357.2: This reference design provides all the power supply rails necessary to power Altera's Arria V FPGA. This design uses the TPS54620 to generate the rails to power the FPGA.
  • Wide Bandwidth Optical Front-end Reference Design
    TIDA-00725: This reference design implements and measures a complete 120MHz wide bandwidth optical front end comprising a high speed transimpedance amplifier, fully differential amplifier, and high speed 14-bit 160MSPS ADC with JESD204B interface. Hardware and software are provided to evaluate the performance of the system in response to high speed optical pulses generated from the included laser driver and diode for applications including optical time domain reflectrometry (OTDR).
  • Altera Arria V FPGA Power Supply Reference Design - PMP9357.2 - TI Tool Folder
    PMP9357: This reference design provides all the power supply rails necessary to power Altera's Arria V FPGA. This design uses the TPS54620 to generate the rails to power the FPGA.
  • Altera Arria V FPGA Power Supply Reference Design
    PMP9357.5: This reference design provides all the power supply rails necessary to power Altera's Arria V FPGA. This design uses the TPS54620 to generate the rails to power the FPGA.
  • 16-bit 400KSPS 4-Ch. Multiplexed Data Acquisition Ref Design for High Voltage Inputs, Low Distortion
    TIPD151: This TI Verified Design implements a 16-bit, differential 4-channel multiplexed data acquisition system at 400KSPS throughput for high voltage differential input of ±20 V (40 Vpk-pk) industrial applications. The circuit is realized with a 16-bit successive-approximation-resistor (SAR) analog-to-digital converter (ADC), a precision high voltage signal conditioning front end, and a 4-channel differential multiplexer (MUX). The design details the process for optimizing the precision high voltage front end drive circuit using the OPA192 and OPA140 to achieve excellent dynamic performance with the ADS8864.
  • Altera Arria V FPGA Power Supply Reference Design
    PMP9357.6: This reference design provides all the power supply rails necessary to power Altera's Arria V FPGA. This design uses the TPS54620 to generate the rails to power the FPGA.
  • Synchronizing Multiple JESD204B ADCs for Emitter Position Location Reference Design
    TIDA-00467: A common technique to estimate the position of emitters uses the amplitude and phase shift data of a signal derived from an array of spatially distributed sensors. For such systems, it is important to guarantee a deterministic phase relationship between the sensors to minimize errors in the actual measured data. This application design will discuss how multiple Analog to Digital Converters (ADCs) with a JESD204B interface can be synchronized so that the sampled data from the ADCs are phase aligned.
  • Altera Arria V FPGA Power Supply Reference Design
    PMP9357.4: This reference design provides all the power supply rails necessary to power Altera's Arria V FPGA. This design uses the TPS54620 to generate the rails to power the FPGA.
  • Altera Arria V FPGA Power Supply Reference Design
    PMP9357.3: This reference design provides all the power supply rails necessary to power Altera's Arria V FPGA. This design uses the TPS54620 to generate the rails to power the FPGA.

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