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View this part on Avnet Americas 213,000 10,000 Reel
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View this part on Newark 0 5,000 TAPE & REEL CUT
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View this part on Bristol Electronics 61,950 89
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  • 268 $0.0375
  • 935 $0.0094
  • 7,980 $0.0056
  • 22,323 $0.0048
  • 41,668 $0.0045

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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: GRM155R71E103KA01D

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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.

Alternate Parts for: GRM155R71E103KA01D

Part Number Description Manufacturer Compare
C0402T103K3RAC7867 Capacitors Ceramic Capacitor, Multilayer, Ceramic, 25V, 10% +Tol, 10% -Tol, X7R, 15% TC, 0.01uF, Surface Mount, 0402, CHIP KEMET Corporation GRM155R71E103KA01D vs C0402T103K3RAC7867
0402B103K250NB Capacitors Ceramic Capacitor, Ceramic, 25V, 10% +Tol, 10% -Tol, X7R, -/+15ppm/Cel TC, 0.01uF, 0402, Hitano Enterprise Corp GRM155R71E103KA01D vs 0402B103K250NB
0402B103K250ST Capacitors Ceramic Capacitor, Multilayer, Ceramic, 25V, 10% +Tol, 10% -Tol, X7R, 15% TC, 0.01uF, Surface Mount, 0402, CHIP Fenghua (HK) Electronics Ltd GRM155R71E103KA01D vs 0402B103K250ST
0402B103K250SB Capacitors Ceramic Capacitor, Multilayer, Ceramic, 25V, 10% +Tol, 10% -Tol, X7R, 15% TC, 0.01uF, Surface Mount, 0402, CHIP Fenghua (HK) Electronics Ltd GRM155R71E103KA01D vs 0402B103K250SB
0402B103K250N Capacitors Ceramic Capacitor, Multilayer, Ceramic, 25V, 10% +Tol, 10% -Tol, X7R, 15% TC, 0.01uF, Surface Mount, 0402, CHIP Novacap GRM155R71E103KA01D vs 0402B103K250N
0402B103K250C Capacitors Ceramic Capacitor, Multilayer, Ceramic, 25V, 10% +Tol, 10% -Tol, X7R, 15% TC, 0.01uF, Surface Mount, 0402, CHIP Fenghua (HK) Electronics Ltd GRM155R71E103KA01D vs 0402B103K250C
0402B103K250S Capacitors Ceramic Capacitor, Multilayer, Ceramic, 25V, 10% +Tol, 10% -Tol, X7R, 15% TC, 0.01uF, Surface Mount, 0402, CHIP Fenghua (HK) Electronics Ltd GRM155R71E103KA01D vs 0402B103K250S
0402B103K250NT Capacitors Ceramic Capacitor, Multilayer, Ceramic, 25V, 10% +Tol, 10% -Tol, X7R, 15% TC, 0.01uF, Surface Mount, 0402, CHIP Novacap GRM155R71E103KA01D vs 0402B103K250NT

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.
  • CC1120-CC1190EM 915MHz Reference Design
    CC1120-CC1190EM915RD: This RF Layout Reference Design demonstrates good decoupling and layout techniques for a low power RF device operating in the 915 MHz frequency band. The design should be used in applications targeting compliance with FCC Section 15.247 in the in the 902-928 MHz frequency band. The maximum output power is +27 dBm.
  • 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.
  • Altera Arria V GX FPGA Power Solution Reference Design
    PMP9449: The PMP9449 reference design provides all the power supply rails necessary to power Altera's Arria® V GX family of FPGAs. It utilizes a TPS38600 to monitor the input supply and provide power on sequencing. This design features low cost, small footprint discrete ICs and is powered from a single 5V input.
  • 36-60V Input, 8.5V/400mA Synchronous Buck Reference Design
    PMP10847: This design uses the LM5017 to generate an 8.5V at 400mA rail from a 36V-60Vdc source. The constant on-time control method of the LM5017 minimizes the component count, resulting in a simple design. This supply achieves a peak efficiency over 87%.
  • Connected Home Network Reference Design
    TIDC-CHN: The Connected Home Network TI Design shows how to create a Sub-1 GHz star network with full house coverage for security and sensor applications. In this network, the central device is typically mains powered while the end devices are battery powered. The central device can be a gateway for internet of things (IoT), and enable internet connectivity for the end devices in the Connected Home Network. This TI Design is a pure software design using standard TI development boards from TI’s Sub-1 GHz wireless connectivity portfolio. To learn more about TI’s 169 MHz, 315 MHz, 433 MHz, 470 MHz, 868 MHz, 915 MHz and 920 MHz solutions, check out our Sub-1 GHz page.
  • 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.
  • Synchronization of JESD204B Giga-Sample ADCs using Xilinx Platform for Phased Array Radar Systems
    TIDA-00432: This system level design shows how two ADC12J4000 evaluation modules (EVMs) can be synchronized together using a Xilinx VC707 platform. The design document describes the required hardware modifications and device configurations, including the clocking scheme. Example configuration files are shown for each EVM. The FPGA firmware is described and the relevant Xilinx IP block configuration parameters are shown. Data taken on the actual hardware is shown and analyzed, showing synchronization within 50 ps without characterized cables or calibrated propagation delays.
  • Sub-1GHz Wireless Long Range Reference Design with CC1120 (868 to 915 MHz)
    TIDC-CC1120-LRM-868-915MHZ: Narrowband is an industry standard way to get long range RF communication with higher immunity to interference versus wide band solutions. Use this reference design to test out the longest range solution from TI for your Internet of Things (IoT) applications. The tool for 868 to 915 MHz uses the CC1120DK, where the crystal on the evaluation module is replaced by a TCXO, together with a SW solution optimized for narrowband long range communication.
  • Sub-1GHz Wireless Long Range Reference Design with CC1120 (420 to 470 MHz)
    TIDC-CC1120-LRM-420-470MHZ: Narrowband is an industry standard way to get long range RF communication with higher immunity to interference versus wide band solutions. Use this reference design to test out the longest range solution from TI for your Internet of Things (IoT) applications. The tool for 420 to 470 MHz uses the CC1120DK, where the crystal on the evaluation module is replaced by a TCXO, together with a SW solution optimized for narrowband long range communication.
  • Multiband (169, 433 and 868MHz) wM-Bus RF sub-system with Segmented LCD Reference Design
    TIDC-MULTIBAND-WMBUS: The TIDC-MULTIBAND-WMBUS single PCB covers all three wM-Bus frequency bands with only a few component value changes. It is a very low-power and ETSI Cat. 1 Receiver capable RF subsystem for wM-Bus 169MHz and 433 systems without SAW filter and TCXO. Ultralow-power MSP430 with always-on LCD segment support is an excellent fit for Sub-metering applications, like Heat Cost allocators.
  • 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.
  • 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.
  • RF Layout Reference Design for 868-930 MHz (CC1200 and CC1201)
    CC120XEM-868-930-RD: This RF Layout Reference Design demonstrates good decoupling and layout techniques for a low power RF device operating in the 868 MHz and 915 MHz frequency bands.
  • CC1125EM 868/915MHz Reference Design
    CC1125EM-868-915-RD: This RF Layout Reference Design demonstrates good decoupling and layout techniques for a low power RF device operating in the 868 MHz and 915 MHz frequency bands.
  • Dual-Wideband RF-to-Digital Receiver Design
    TIDA-00073: The TSW1265EVM is an example design of a wideband RF to digital dual receiver solution capable of digitizing up to 125MHz of spectrum. The system provides a reference on how to use the ADS4249, LMH6521, LMK0480x, and a dual mixer to achieve this. This reference EVEM coupled with a capture card such as the TSW1400 can be used to capture and analyze narrow band and wideband signals. Instructions are provided on how to change the LO and IF frequencies for different application needs. The TIDA-00073 was implemented with hardware from the TSW1265EVM.
  • High-Efficiency Small Form Factor 35W Sync Buck Reference Design
    PMP10740: PMP10740 is a single-phase synchronous buck converter rated for 1V output at 35A from an input voltage of 5V. This design uses the LM27403 synchronous buck controller and two CSD87350Q5D power block MOSFETs provide maximum efficiency when combined with a 250nH ferrite output inductor. The design solution uses all ceramic capacitors to fit into a minimum board area.
  • 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.
  • CC1120-CC1190EM 868MHz Reference Design
    CC1120-CC1190EM868RD: This RF Layout Reference Design demonstrates good decoupling and layout techniques for a low power RF device operating in the 868 MHz frequency band. The design should be used in applications targeting compliance with EN 300 220 in the in the European 869.4-869.65 MHz frequency sub-band (g3). The maximum output power is +27 dBm.
  • Universal AC Input, 12V/3A Single stage PFC-Flyback Reference Design with Synchronous Rectification
    PMP9730: The PMP9730 reference design employs the UCC28051 power factor correction controller to implement a single stage PFC-Flyback AC/DC converter that generates an isolated 12V output at 3A from a universal AC input. The design features UCC28910 primary side regulation Flyback switcher for generating the VDD bias rails and the UCC24610 for 2ndary side synchronous rectification. This provides an excellent solution for systems such as motor drives requiring an isolated bus voltage, good power factor and high efficiency.
  • Clocking Solution Reference Design for GSPS ADCs
    TIDA-00359: Low cost, high performance clocking solution for GSPS data converters. This reference design discusses the use of a TRF3765, a low noise frequency synthesizer, generating the sampling clock for a 4 GSPS analog-to-digital converter (ADC12J4000). Experiments demonstrate data sheet comparable SNR and SFDR performance.
  • ETSI Cat. 1 Receiver-Capable wM-Bus 169MHz RF Subsystem for Smart Gas and Water Meters
    TIDC-WMBUS-169MHZ: This reference design is a very low-power, ETSI Cat. 1 receiver capable RF subsystem for wM-Bus enabled smart gas and water meters at 169 MHz. It provides market-leading blocking, selectivity, and RX sensitivity numbers for all wM-Bus N-modes as per EN13757-4:2013 and their respective variants, which were defined in Italy and France. This cost-optimized design, without SAW filter and without TCXO, uses the RF friendly DC/DC to reduce the average power consumption while keeping the highest RF performance.
  • Single Phase 60W Audio Amplifier Reference Design
    PMP9372: PMP9372 is a single-phase synchronous boost converter, which utilizes the LM5121 controller. Inrush limiting is set to 11A nominal, which allows startup into a 4700μF output capacitor. The TPS3700DDC is used as an output voltage monitor, which provides Power Good signaling of output over-voltage and under-voltage.
  • 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.
  • ETSI Cat2 Receiver Capable wM-Bus 868 MHz RF Subsystem for Smart Utility Meter & Heat Cost Allocator
    TIDC-WMBUS-868MHZ: This reference design describes an ETSI Cat. 2 receiver-capable RF subsystem for smart meters, fully compliant with the most popular wM-Bus S, T and C-modes at 868 MHz as per EN13757-4:2014. The SimpleLink RF transceiver device delivers market leading blocking, selectivity and RX sensitivity numbers in wM-Bus applications, such as bi-directional flow meters, e-meters and heat cost allocators. This cost-optimized design handles the worst case frequency offset of +-60ppm in S2-mode by utilizing an inexpensive XTAL component. Neither an external SAW filter nor costly TCXO component are needed to meet the specification of the wM-Bus modes @ 868 MHz. Additionally, this design uses a ultra-low Iq DC/DC converter with dynamically adjustable output voltage, enables a new level of optimization of the design's power consumption, significantly extending the battery lifetime.
  • 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.
  • Battery-powered Data Collector for wM-Bus T-/C-mode & DSSS-coded Data Packets @ 868.95MHz Ref Design
    TIDC-DSSS868WMBUS-DC: The TIDC-DSSS868WMBUS-DC TI Design is a solution that enables Data Collectors with optimized firmware for receiving wireless M-Bus (wM-Bus) packets in frequent transmission (T-) and compact (C-) modes at 868.95MHz. For improved range a customized Direct Sequence Spread Spectrum (DSSS)-coded packet reception is also supported. This reference design can be adapted for wM-Bus and DSSS-enabled Data Collectors and mobile readers at 169 MHz and 433 MHz bands.

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