CC2650F128RGZT RF Transceiver ICs от Texas Instruments

Indicates the typical duration from order confirmation to shipment from the manufacturer's facility. This helps you plan production schedules and inventory. Verify current lead times with your distributor or supplier, as they may vary based on order quantity, product availability, and market conditions.

Identifies the company that designed and produced the component. Buyers often filter by manufacturer to ensure brand reliability, quality standards, and supply chain consistency. Verify the manufacturer against the datasheet and official packaging to avoid counterfeit parts.

Thickness of the component, a critical dimension for PCB clearance, enclosure fit, and thermal performance. This measurement is especially important for capacitors, inductors, and connectors. Ensure the thickness meets your design constraints and does not interfere with adjacent components. Check the datasheet for tolerance and recommended mounting height.

Physical package or case type of the component, defining its dimensions, mounting style, and thermal characteristics. Common types include SMD, through-hole, BGA, and QFN. Choose the package that fits your PCB layout and assembly process. Verify the exact package code in the datasheet for footprint compatibility.

Specifies how many analog input signals the ADC can sample and convert to digital. Compare this when selecting microcontrollers or data acquisition ICs. Verify against the datasheet to ensure enough channels for your application.

Total number of input/output pins or channels available on the device. Determines connectivity and interface capability. Verify against your system requirements and datasheet to ensure sufficient I/O for your application.

Specifies the modulation scheme used by the component for signal encoding. Compare modulation types to ensure compatibility with your communication protocol and system bandwidth. Verify the supported modulation formats in the datasheet before design-in.

Indicates the current consumption or output current during transmission mode. Essential for power budget calculations and thermal management in wireless modules. Check this value against your supply capability and compare with receiving current to estimate battery life.

Specifies the maximum DC voltage the component can safely handle under rated conditions. Engineers compare this to the circuit's operating voltage to ensure adequate margin. Always verify against the datasheet's derating curves for temperature and reliability.

This is the DC voltage at which the component is designed to operate under standard conditions. Compare it with your system's power rail and verify the operating range in the datasheet to ensure reliable performance.

Specifies the display technology used in the component, such as LCD, OLED, or TFT. This attribute helps engineers select the right module for their application. Verify the exact type and resolution in the datasheet to ensure compatibility with your system.

Indicates how many outputs deliver the non-inverted logic state. Compare this with the number of complementary or inverted outputs when selecting logic devices, and verify against the datasheet to ensure the output configuration matches your circuit requirements.

Lists additional parameters that further define the component's performance or features beyond the primary specifications. Review these attributes to understand special capabilities, limitations, or compliance details that may affect your design, and always confirm them in the manufacturer's datasheet.

Specifies the highest voltage standing wave ratio allowed at the input port, indicating how well the component matches the transmission line impedance. Lower VSWR means better matching and less reflection. Check this value when designing RF circuits to ensure signal integrity and avoid excessive power loss.

Indicates the maximum voltage the component can withstand or operate at, depending on context. Critical for ensuring the part is not overstressed in your application. Always compare with your circuit's voltage levels and consider transient spikes.

Select the RF standard or family that the component complies with, such as Bluetooth, Wi-Fi, Zigbee, or proprietary protocols. This defines compatibility with existing wireless infrastructure and regulatory certifications. Verify against the datasheet to ensure the device meets your target network requirements.

Manufacturer name as listed in the IHS database. Use this attribute to identify the original component maker when cross-referencing parts across distributors. Verify the manufacturer to ensure authenticity and traceability, especially for critical or regulated applications.

Communication protocol supported by the device, such as I2C, SPI, UART, CAN, or USB. This determines how the component interfaces with microcontrollers or other system devices. Ensure compatibility with your system's bus architecture and check protocol version and features in the datasheet.

Indicates the product series or family, grouping components with similar design and specifications. Helps identify compatible parts and compare within a product line. Verify the series against the datasheet to ensure correct application.

Specify the current consumption during receiving operation. This value is critical for battery life estimation in portable devices. Compare it with the datasheet's typical and maximum ratings to ensure your power supply can handle the load under worst-case conditions.

Maximum voltage standing wave ratio at the output port. This indicates how well the output impedance matches the load. A lower VSWR means better power transfer and less reflection. Check this value to ensure stable operation with your antenna or transmission line.

Defines the underlying technology used for data storage, such as SRAM, DRAM, or Flash. Determines volatility, speed, and endurance. Choose based on your application's need for persistence and access speed.

Outer diameter of the cable jacket or insulation. This dimension is essential for selecting connectors, grommets, and cable glands. Ensure it fits your mechanical design and routing constraints. Verify with the datasheet to avoid assembly issues in tight spaces.

Indicates whether the component can be mounted on a wall. This is relevant for enclosures, antennas, or modules designed for fixed installation. Check this attribute to ensure the product meets your installation requirements and that appropriate mounting hardware is included or specified.

Number of mixers integrated in the component. This is relevant for RF frequency conversion stages. More mixers may indicate support for multiple bands or complex architectures. Verify this count against your signal chain design to ensure the component meets your frequency planning needs.

Isolation between ports expressed in decibels. This indicates how well signals are prevented from leaking between channels or sections. Higher isolation is critical for minimizing crosstalk in RF switches, mixers, and amplifiers. Check this value to ensure signal integrity in your system.

Maximum data transfer rate supported. This is crucial for high-speed communication interfaces. Ensure the component can handle your required throughput with margin. Compare with the datasheet's specifications to avoid bottlenecks in your data path.

Indicates whether the component comes with preloaded firmware, software, or configuration data. This is relevant for microcontrollers, memory modules, or programmable devices. Verify the preloaded content matches your application requirements to avoid additional programming steps or compatibility issues.

Identifies the manufacturer or brand of the electronic component. Buyers use this to verify authenticity, compare supplier reputation, and ensure compatibility with existing designs. Always check the brand against the datasheet and authorized distributor listings.

Intended application or usage of the component. This helps identify the target market and typical use cases, such as automotive, industrial, or consumer electronics. Verify that the component's specifications align with your application's environmental and performance requirements.

Impedance of the secondary winding or port. This is important for transformers and baluns to ensure proper impedance matching. Mismatched impedance can cause signal reflections and power loss. Check this value against your circuit's load impedance for optimal performance.

Types of signals the component can process, such as analog, digital, or mixed. This defines the compatibility with your system's signal characteristics. Ensure the component supports the signal types used in your application to avoid performance degradation or damage.

Maximum continuous current the MOSFET can conduct in the on-state without exceeding thermal limits. Compare this rating with your circuit's peak and average current demands. Always verify against the datasheet's thermal resistance and ambient temperature conditions.

Specifies the physical weight of the electronic component, important for logistics, shipping cost, and mechanical design. Verify the exact weight in the datasheet or packaging information, as it may vary with packaging type and quantity.

Minimum control voltage required for operation. This is essential for devices like VCOs, attenuators, or switches that use voltage control. Ensure your control circuitry can provide at least this voltage to guarantee proper operation across the specified range.

Indicates support for UART interface. This is a common asynchronous serial protocol for communication between microcontrollers and peripherals. Check this attribute to ensure compatibility with your system's serial communication requirements.

Material used for the cable jacket or insulation. This affects flexibility, temperature rating, and chemical resistance. Choose a material that suits your environment, such as PVC for general use or PTFE for high-temperature applications. Verify with the datasheet for compliance.

The unique part number assigned by the original component manufacturer. Use this to cross-reference datasheets, verify specifications, and ensure the exact component matches your design requirements. Always confirm the number against the manufacturer's official documentation.

Number and configuration of strands in the conductor. This affects flexibility and current carrying capacity. More strands typically provide better flexibility. Ensure the conductor strand configuration meets your mechanical and electrical requirements.

Maximum data transmission rate supported. This is crucial for high-speed communication interfaces. Ensure the component can handle your required throughput with margin. Compare with the datasheet's specifications to avoid bottlenecks in your data path.

Indicates the specific product subcategories or classifications within the broader component family. Helps narrow down search results and identify the exact type of component needed for your design. Review the subcategory to ensure compatibility with your application.

Physical construction or design type. This describes the internal architecture or packaging style, such as surface mount, through-hole, or module. It affects mounting, thermal performance, and reliability. Verify that the construction matches your assembly process and application requirements.

Indicates the component's compliance status with the EU REACH regulation. Buyers should verify this code against the manufacturer's declaration to ensure restricted substances are within allowable limits for their target market.

Output power rating of the component. This is critical for amplifiers, transmitters, and power supplies. Ensure the component can deliver the required power to your load without exceeding its ratings. Check the datasheet for conditions and tolerances.

Specifies the wire size range the connector accepts, typically in AWG. Critical for ensuring proper crimp, current capacity, and mechanical fit. Verify against the connector datasheet to match your wire diameter and insulation thickness.

List of supported serial communication interfaces, such as SPI, I2C, UART, or CAN. This determines how the component communicates with your system. Verify that the required interfaces are available and compatible with your microcontroller or processor.

Number of analog signal samples taken per second by an ADC or digital sensor. Determines maximum signal frequency that can be accurately captured. Verify against datasheet for your application's bandwidth needs.

Typical power added efficiency as a percentage. This indicates how efficiently the component converts DC power to RF output power. Higher efficiency means less heat generation and longer battery life. Compare this value with your system's thermal and power budget.

Lists the product categories or classifications assigned to this component, such as connectors, capacitors, or modules. This helps in filtering and comparing similar parts. Review the categories to ensure the component fits your application and to find alternative parts in the same class.

Specifies the data format or package type of the component. This helps identify the physical or logical configuration, such as tape and reel, tray, or specific file format. Verify against the datasheet to ensure compatibility with your assembly process.

Identifies the processor architecture or family, such as ARM Cortex-M or RISC-V. This determines the instruction set, development tools, and software compatibility. Ensure the family matches your existing codebase and toolchain to minimize development effort and risk.

Specifies the processor core design, such as ARM Cortex-M or RISC-V. This determines instruction set compatibility, development tools, and software ecosystem. Verify against the datasheet to ensure firmware and RTOS support match your application requirements.

Check this attribute to confirm whether the component integrates an analog-to-digital converter. This is critical for microcontrollers, sensors, and mixed-signal ICs where analog inputs need digital processing. Verify against the datasheet to ensure the ADC meets your resolution and sampling requirements.

Number of independent pulse-width modulation outputs available on the component. Compare this when selecting microcontrollers, motor drivers, or LED controllers to ensure enough channels for your application. Verify against the datasheet for channel mapping and shared timer limitations.

Specifies the available low power modes for the component, such as sleep, standby, or shutdown. Compare modes to match your system's power budget and wake-up requirements. Verify supported modes and current consumption in the datasheet.

Defines the number of independent SPI interface channels available on the device. This is critical for connecting multiple peripherals or sensors. Check the datasheet to see if channels share resources or have dedicated pins, ensuring your design can accommodate all required SPI devices.

Indicates how many serial input/output interfaces the component provides. Compare this when selecting microcontrollers, FPGAs, or interface ICs to ensure enough UART, SPI, or I2C channels for your design. Verify against the datasheet pinout and peripheral list.

Specifies the number of bits in a single data word for digital components. This determines the maximum data width the device can process or store. Compare bit sizes when selecting microcontrollers, ADCs, DACs, or memory chips to ensure compatibility with your system's data bus and processing requirements.

Number of independent direct memory access channels available on the microcontroller or processor. Compare this when selecting devices for data-intensive applications to ensure sufficient bandwidth for peripherals without CPU load. Verify against the datasheet for exact channel mapping and features.

Specifies the maximum duration a component can withstand at the peak reflow temperature during soldering. Critical for evaluating solder joint reliability and preventing thermal damage. Verify against the datasheet's recommended soldering profile to ensure proper assembly.

Specifies the number of parallel data lines in bits for microcontrollers, DSPs, or memory interfaces. Wider buses enable higher throughput but affect pin count and power. Verify against the datasheet to ensure compatibility with your system's architecture and required performance.

Indicates whether the device supports JTAG boundary scan for testing interconnections and internal logic. Useful for board-level testing and debugging. Confirm the boundary scan description in the datasheet to ensure compatibility with your test tools and chain configuration.

Indicates whether the component includes a watchdog timer and its type. This timer resets the system if software hangs, improving reliability. Verify the timeout period and enable/disable options in the datasheet for your application.

Shows whether the component includes an integrated cache memory to speed up data access for the processor. Compare cache presence and size to assess performance for real-time or high-throughput tasks. Verify details in the datasheet.

Specifies the amount of random access memory available for data storage during operation. This determines the complexity of tasks the component can handle. Buyers should verify that the RAM size meets the application's memory requirements, especially for real-time processing or buffering.

Indicates the count of independent timer modules integrated into the microcontroller or IC. Compare this when selecting devices for time-critical tasks like PWM generation, event counting, or real-time scheduling. Verify the exact timer features and resolution in the datasheet.

Specifies the range of DC or AC input voltage the component requires for proper operation. Engineers compare this to the system power rail to ensure compatibility. Always verify against the datasheet's absolute maximum ratings to prevent damage.

Specifies the maximum duration in seconds that a component can withstand at its peak reflow temperature during soldering. Critical for PCB assembly process control to prevent thermal damage. Verify against the datasheet for your specific soldering profile.

Maximum voltage standing wave ratio, indicating how well the component's input impedance is matched to the transmission line. Lower values mean better matching and less signal reflection. Check this parameter when designing RF circuits to ensure minimal power loss and stable operation across the specified frequency range.