SILICON LABS SiWX917 Wi-Fi 6 Plus Bluetooth Processor Radio Board
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Litlhaloso
- Lebitso la Sehlahisoa: SiWx917 Low-Power Wi-Fi MCU
- Energy Efficiency: World’s most energy-efficient Wi-Fi 6 MCU
- Bophelo ba Battery: Ho fihlela lilemo tse 5 bakeng sa lisebelisoa tsa IoT
- Motlakase: Cortex-M4 Application Processor
- Sesebelisoa sa Wireless: Network Wireless processor (NWP)
- Tsamaiso ea Matla: Tharollo e bohlale ea taolo ea matla
- Lipheripherals: Ultra-Low-Power peripherals
- Protocol: Wi-Fi 6 e nang le likarolo tsa ho boloka matla
Litaelo tsa Tšebeliso ea Sehlahisoa
Mabapi le SiWx917 Low-Power Wi-Fi MCU
The SiWx917 is designed to provide energy-efficient connectivity for IoT devices. It offers advanced power optimization features to extend battery life significantly.
Likarolo tsa ho Matlafatsa Matla
- Libaka tsa Matla: Utilize power-gating and clock-gating for efficient energy management.
- Mekhoa ea Matla: Understand the different power states to optimize power consumption.
- Matla a Matlatage le Frequency Scaling: Fetola voltage le maqhubu a thehiloeng holim'a boima ba mosebetsi bakeng sa katleho.
- Karolo ea SRAM: Optimize memory usage for lower power consumption.
- Lisebelisoa tsa Ultra-Low-Low-Power: Leverage low-power peripherals for overall energy savings.
Protocol ea Wi-Fi le Lintlha tsa Moqapi
Make use of features like Delivery Traffic Indication Message (DTIM) and Target Wake Time (TWT) to enhance power efficiency during communication.
Ho nts'etsapele lisebelisoa tsa IoT ka SiWx917
Follow best practices outlined in the whitepaper to maximize energy efficiency and battery life for your IoT products.
Ho hlalosa SiWx917 Low-Power Wi-Fi Features bakeng sa Baetsi ba Lihlahisoa tsa IoT
Phello e felletsengview ea ts'ebeliso ea matla a Wi-Fi ho SiWx917 MCU e se nang mohala bakeng sa ho nts'etsapele lisebelisoa tse bohlale tsa IoT tse sebetsang hantle.
Bangoli: Nicola Wrachien, Kalevi Ratschunas, Divya Chilukoti, Jeremy Stacy, Mikko Nurmimaki
Mabapi le Whitepaper ena
SiWx917 ke Wi-Fi 6 Wi-Fi 6 wireless microcontroller unit (MCU) e sebetsang hantle ka ho fetisisa lefatšeng 'me e ka fana ka lilemo tsa bophelo ba betri bakeng sa lisebelisoa tsa IoT. E na le tharollo e bohlale ea taolo ea matla e fanang ka bahlahisi ba IoT menyetla ea ho eketsa matla a matle ho feta sehlahisoa se seng 'marakeng. Mofani oa tlhahlobo ea ikemetseng o hakanya hore SiWx917 e khona ho fana ka bophelo ba betri ea lilemo tse 5 bakeng sa liloko tse bohlale.
Leha ho le joalo, ho kenya chip ea Wi-Fi 6 e sebetsang hantle ka ho fetesisa lefatšeng ka bophara ho sehlahisoa sa hau ha ho tlise lilemo tsa bophelo ba betri kapa boemo bo tlase ba hona joale: o hloka ho tseba ho sebelisa likarolo tse tsoetseng pele tsa matla a tlase tsa SiWx917 le protocol ea Wi-Fi.
Whitepaper ena e u thusa ho ba hloahloa ho nts'etsopele lisebelisoa tse sebetsang hantle, empa tse matla le tse bohlale tsa IoT u sebelisa SiWx917. E u fa leseli le felletsengview of SiWx917’s low-power capabilities, power management, and Wi-Fi power saving techniques, including several best-practice tips.
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Ke Hobane'ng ha Wi-Fi e Matla a Tlase
Historically, Wi-Fi has been a power-intensive wireless technology, prohibiting its use in energy-efficient and resource-constrained applications. However, the dramatic growth of IoT and the evolution of the energy-efficient Wi-Fi 6 protocol generation are coinciding and changing the course for low-power Wi-Fi. With Wi-Fi 6, finally there is a simple, battery-friendly, and high-throughput way for developers to connect smart IoT devices to the cloud without bridges and protocol translations.
Wi-Fi Challenges in the IoT
Buyers seek energy-efficient, sustainable, and cost-effective products. To reflect the increasing awareness of green initiatives, new energy regulations are constantly enforced, increasing product development costs. The main challenge for the designers and developers of Wi-Fi IoT devices and smart appliances lies in power consumption.
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Lisebelisoa tsa Wi-Fi tsa Low-Power li sebelisoa Hokae?
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Sehlahisoa sa SiWx917 se Felletseview
Silicon Labs' SiWx917 ultra-low-power wireless SoCs le modules fana ka Wi-Fi® 6, Bluetooth® Low Energy (LE), Matter, le marang-rang a IP bakeng sa khokahanyo e sireletsehileng ea maru. SiWx917 e etselitsoe lisebelisoa tse tsoetseng pele tsa IoT tse tsamaeang ka betri le lisebelisoa tse bohlale tse baballang matla. SiWx917 e ipapisitse le moralo oa li-microprocessor tse peli tse nang le processor ea netweke ea 160MHz (NWP) le ARM® Cortex® M4 joalo ka MCU ea ts'ebeliso e nang le lebelo la oache la 180MHz. Marang-rang a TCP/IP, ts'ireletso, le mekotla e se nang mohala e sebetsa ho NWP, e theola MCU, e ikemiselitseng ho tsamaisa ts'ebeliso, Matter le peripherals. Mochine o ikhethileng oa AI/ML o theola MCU, o fana ka ts'ebetso e ntlafalitsoeng ea mochini (ML) ho Edge.
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Bophelo ba Battery ba Lilemo tse 5 bakeng sa Lisebelisoa tsa IoT
SiWx917 e na le tšebeliso e tlase ea matla sehlopheng sa eona, e sebelisa 22µA feela ea matla mokhoeng oa ho robala o hokahaneng oa Wi-Fi 6 ha e lekantsoe ntle le MCU ka menahano e thathamisitsoeng ka ho le letona. Ts'ebeliso ea eona e kopaneng ea matla bakeng sa khokahano ea Wi-Fi 6 e nang le nako ea ho tsoha (TWT) (boroko bo hokahaneng) mme sesebelisoa sa MCU ke 37µA feela. Mofani oa liteko o ikemetseng, Novus Labs o hakantse hore SiWx917 e ka nolofalletsa linotlolo tse bohlale ho fihlela bophelo ba betri ea lilemo tse 5 ka libeteri tse 'ne tsa AA tse nang le matla a 3000mAh.
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Litlhophiso le Maikutlo a SiWx917 bakeng sa lilemo tse 5 tsa Battery-life ea IoT
- NWP in associated standby low-power mode
- SiWG917 SoC mode
- TCP client maintains socket connection
- 60 secs TCP keep-alive used
- WLAN keep-alive 30 secs
- 325kB SRAM retention
- TWT Auto Config feature enabled
- TWT Rx latency 60 sec with 8ms wakeup duration
- Arm Cortex-M4 in sleep mode (PS4) with 320kB SRAM retention
- Average current consumption for wireless and application MCU 37µA at 3.3V
- Measurements taken in a lab
- Battery capacity 4xAA 3000mAh

Ithute haholoanyane: An independent interoperability and power consumption test by Novus Labs estimated that the SiWx917 Wi-Fi 6 SoC can boost smart lock battery life to up to 5 years. Read the full test report with SiWx917 power consumption, throughput, and battery life in different network congestions.
Mohopolo oa Moqapi oa Matla a Tlase oa Wi-Fi
The concept of low-power Wi-Fi design can be divided into three groups. First, low-power Wi-Fi design begins from the functional requirements of your IoT application. The second groupcontains the advanced low-power features and capabilities that SiWx917 can offer for IoT device makers. The SiWx917 features can be divided into multiple sections covering the product architecture, power management, peripherals, memory, and more. Finally, in the core of the low-power Wi-Fi design concept there is the Wi-Fi protocol, providing many settings to play with when optimizing the power consumption for the IoT application. These three areas of low-power Wi-Fi design finally constitute the overall energy efficiency for your IoT device.
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Likarolo le Bokhoni ba Matla a SiWx917
Karolo ena e fana ka pheletsoview of all the main low-power features and capabilities available
on SiWx917 including links to more in-depth materials.
Libaka tsa Matla
SiWx917 e arotsoe ka libaka tse ngata tsa matla le likaroloana tse arohaneng ho lumella tsamaiso e ntle ea matla ka ho sebelisa matla-gating le clock-gating holim'a sebaka se seng le se seng sa matla le li-block motheo. Tharollo ena e bohlale ea taolo ea matla e thusa bahlahisi ho ntlafatsa tšebeliso ea matla ka mokhoa o bonolo likarolong tse fapaneng tsa chip ho latela litlhoko tsa kopo ea IoT. Ho SiWx917, libaka tsa matla le matla- le clock-gating li kenngoa ts'ebetsong e le karolo ea leano le tšoanang la taolo ea matla.
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Matla a ho Kena
Power-gating ke mokhoa oa ho koala phepelo ea motlakase ho li-blocks tse ikhethileng ho SiWx917 ha li sa hlokahale, ho lumella bahlahisi ho fokotsa tšebeliso ea matla ea sesebelisoa. Le ha li-blocks tse ling li tima, likarolo tse ling tsa chip li ka lula li le mafolofolo ho bona liketsahalo tsa ho tsoha, ho boloka bokhoni ba ho tsoha kapele ha ho hlokahala. Mohlala, mehloli ea ho tsosa ea Ultra-Ultra-low-power (ULLP) joalo ka UULP_VBAT GPIO e sebelisoa ha Cortex-M4 application MCU e le boemong ba ho koala ha PS0.
Examples of Power-Gating Options ho SiWx917
- MCU power-gating: In the PS0 shutdown, PS1, and PS4/3/2 sleep modes, the CPU is power-gated, reducing power consumption significantly. During MCU power-gating, SRAM can be retained in the sleep mode, but not in the shutdown mode.
- SRAM power-gating: In the total SRAM of 672kB, there is a specific section from where designated portions can be power-gated, dividing it into multiple power domains.
- Peripheral power-gating: In lower power states, unnecessary peripherals can be power-gated.
Tshupa-nako
Clock-gating is a power-saving technique that allows the device to selectively disable clock signals to specific blocks to reduce power consumption when they are not in use. As opposed to power-gating, clock-gating enables faster wake-up of the blocks that are in standby while power-gating saves more energy but comes with a wake-up latency penalty. The exact implementation and control of clock-gating may vary depending on the specific operating mode and the current power state of the SiWx917.
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Mekhoa ea Matla le Linaha
Cortex-M4 Application processor
The Arm Cortex-M4 application microcontroller unit (MCU) ho SiWx917 e fana ka mefuta e mengata ea mekhoa ea matla le linaha, tseo e leng karolo ea leano la taolo ea matla ea SiWx917. Li etselitsoe ho fa ba ntlafatsang menyetla e mengata ea ho ntlafatsa tšebeliso ea matla lisebelisoa tsa bona. Mona ke karohano ea maemo a holimo ea mekhoa ea matla le linaha tsa ts'ebeliso ea Cortex-M4 MCU:
Ithute haholoanyane: Ka kopo sheba ho SiWx917 datasheet for an in-depth explanation of the power modes and states.
- E sebetsang PS4, PS3, PS2, PS1
- PS4: Complete Cortex-M4 is functional and operating at full power
- PS3: Complete Cortex-M4 is functional at reduced voltage. 90MHz boholo. Lebelo la oache ea MCU.
- PS2: A limited set of peripherals available with a reduced voltage, 32/20MHz MCU lebelo oache, SRAM ho boloka.
- PS1: Entered only from the PS2 state.
- MCU is power-gated, limited peripherals, RAM retention.
- Robala PS4, PS3, PS2
- Entered from the Active states
- MCU power-gated
- UULP and analog peripherals available
- Four GPIOs available as power sources (UULP_VBAT_GPIO)
- 320kB LP SRAM retained
- Standby PS4, PS3, PS2
- Entered from the Active states
- MCU is clock-gated
- SRAM inherits the voltage level from the respective Active states
- Peripherals, GPIO and SRAM inherit settings from the respective Active states
- Faster wake-up compared to Sleep mode, PS1, PS0
- Tlosa PS0
- Entered from the Active states
- MCU power-gated
- UULP and analog peripherals available
- Four GPIOs available as power sources (UULP_VBAT_GPIO)
- No SRAM retention

Network Wireless Processor
- The NWP on the SiWx917 is an independent processor that runs the wireless protocols, networking stacks such as TCP/IP, TLS, and MQTT, and security engine, offloading these tasks from the application MCU. It also serves various protocol keep alive protocols, allowing the application MCU sleep longer. The NWP has several power modes designed to help developers optimize power consumption based on network activity and application requirements.
- On high level, NWP’s power states can be divided into active/high-performance states and sleep/low-power states. The active states can be in one of the three modes: transmit, receive, or listen. The sleep states can be either connected or unconnected, depending on whether the device should maintain its connection on the Wi-Fi network. For unconnected sleep, the NWP can be in two possible states: with SRAM retention or without SRAM retention. When in connected sleep state, NWP always retains RAM and wakes up based on the DTIM or TWT interval configurations. The NWP can assume three alternative power save profiles (PSP), e etsang qeto ea hore na e fumana joang data e buffered ho AP ka mor'a hore e fumane beacon e nang le TIM bit set.
- Max PSP: Data retrieved via power save polling (PS-Poll) frames. Saves power but increases delay and reduces throughput.
- Fast PSP: Streamlined data retrieval without polling. Client transitions to the active state and sends a null data frame to the AP for data retrieval.
- Enhanced Max PSP: If the AP acknowledges PS-Poll but does not deliver buffered data within 20 ms due to e.g. an interoperability issue, the NWP switches to the active state, and sends null data frame, and waits for Monitor Interval time to retrieve the buffered data.
Lefapha la Tsamaiso ea Matla a NWP
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Network Wireless Processor (NWP) Power States
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SiWx917 State Machine
Li-processor tsa NWP le lisebelisoa tsa MCU li sebetsa ho ipapisitse le mechini ea bona ea mmuso. Setšoantšo se kopantsoeng sa boemo bo ka tlase se fana ka ho fetaview ea liphetoho tsa maemo a matla a mahlakore ka bobeli, le hore na li ka sebelisana joang, le hore na ke metsoako efe ea matla a matla a tšehetsoeng pakeng tsa li-processor.
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Ithute haholoanyane: Ka kopo sheba ho AN1430: SiWG917 Low-Power Application Note for more details on the state machine and power management.
Matla a Matlatage le Frequency Scaling
Matla a matlatage and frequency scaling allows adjusting the clock frequency of the SiWx917 processor and other blocks on the chip to balance between power consumption and performance for the application – for instance, using a high-performance mode when executing computationally intensive tasks and switching to a power-save mode during idle periods to conserve energy. The SiWx917 can be configured as either power-save or performance mode. After each state change, the clock sets into power-save mode by default.
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SRAM Partitioning
The SiWx917 features a total of 672kB of SRAM which can be segregated into different areas based on power to reduce current consumption. In addition to the regular SRAM areas, there are two main power-saving areas: low-power (LP) SRAM of 320 kB and ULP SRAM of 8 kB. Both are further partitioned into multiple domains consisting of one or several banks allowing flexible and energy-efficient power management. The power of these SRAM domains can be controlled flexibly in different ways depending on the power state. In the Sleep mode and PS1, both the LP SRAM and ULP SRAM can be retained. Neither LP SRAM nor ULP SRAM can be retained in the PS0 shutdown mode.
Ithute haholoanyane: Ka kopo sheba ho AN1416: SiWx917 SoC Memory Map for more insights on the SiWx917 memory configurations.
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Li-peripherals tsa Ultra-Low-Low-Power
Li-peripheral tsa Ultra-low-power (ULP) ke karolo ea bohlokoa ea matla a tlase a SiWx917. Li thusa ho bokella lintlha tsa sensor ha sesebelisoa sa Cortex-M4 MCU le NWP li robetse, ho boloka matla a mangata. SiWx917 e kenyelletsa mefuta e mengata ea ULP ea lisebelisoa tsa analog le tsa dijithale tse etselitsoeng ho sebetsa ka tšebeliso e fokolang ea matla. Boemong ba ho Robala, linaha tsa GPIO ha li bolokehe. SiWx917 e boetse e fana ka li-peripherals tsa Ultra-ultra-low-power (UULP). Lithapa tsa UULP tse kang UULP_VBAT_GPIO li ka sebelisoa ho matlafatsa lisebelisoa tsa kantle ho sistimi.
Lisebelisoa tse nang le Liphetolelo tsa ULP:
- I2C, I2S, UART, GPIO, Timers
- ADC, DAC (Analog/Digital Converters)
- DMA (Direct Memory Access)
- SSI Primary (Synchronous Serial Interface)
- RTC (Oache ea Nako ea Sebele)
- BOD 2 (Brown-Out Detector)
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Sesebelisoa sa DC-DC
SiWx917 e kenyelletsa sistimi e ka hare ea taolo ea matla e nang le li-converter tsa DC-DC le li-linear regulator ho hlahisa matla ohle.tage hlokahalang hore chip e sebetse ho tsoa mehloling e fapaneng ea lisebelisoa le ho matlafatsa likarolo tsa kantle, ho thusa bahlahisi ho fokotsa tšebeliso ea matla. Ho na le mefuta e 'meli ea li-converter tsa DC-DC tse ka tsamaisoang ka 1.8 V kapa 3.3 V. Li-converter tsa LC DC-DC li fepa RF le li-digital blocks le SC DC-DC converters the always-on core logic domain.
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Ithute haholoanyane: Ka kopo sheba ho AN1448: SiWx917 Power Supply Architecture and Configurations document for more insights on power management.
Protocol ea Wi-Fi le likarolo tsa Moqapi oa Matla a Tlase
Wi-Fi 6 ke eona e sebelisang matla ka ho fetesisa ea Wi-Fi, leha ho le joalo Wi-Fi 4 e ntse e le eona tlhahiso ea protocol e fumanehang hohle 'me e fana ka matla a lekaneng bakeng sa lits'ebetso tse ngata tsa IoT. Karolong ena, re tšohla lintlha tsa bohlokoa ka ho fetisisa tsa moralo oa matla a tlase a protocol ea Wi-Fi.
Delivery Traffic Indication Message (DTIM)
- Molaetsa o bonts'ang sephethephethe (DTIM) ke mofuta o ikhethileng oa molaetsa oa sephethephethe (TIM) oo ka ona li-AP tsa Wi-Fi li tsebisang bareki haeba ho na le li-multicast kapa tsa phatlalatso tse ba emetseng ho buffer ea AP.
- DTIM e fanoa e le karolo ea molaetsa oa lebone, ka lebelo le hlalosoang ke nako ea DTIM (DTIM ha se karolo ea lebone le leng le le leng). Nako ea nako ea DTIM e behiloe ke AP 'me e hlahisoa ka li-increments tsa 100ms bakeng sa ho phatlalatsa hangata le ho hasanya ho bareki ba bangata.
Listen Interval (LI) e ka hlophisoa ho moreki hore a e qobelle hore a tsohe ka makhetlo a haufi a li-multiples tsa DTIM beacon/beacon interval e phatlalalitsoeng ke AP, e ka tlase ho kapa e lekanang le LI. Ho beha LI ho 1000ms, moreki o tsoha hang ka motsotsoana, ke hore, nako e 'ngoe le e 'ngoe ea leshome ea DTIM. A LI e kaholimo ho 1000 milliseconds e ka lebisa ho AP ho khaola moreki. - TIMs are present in every beacon indicating that there is pending data for the client in the AP.
- If the TIM bit is set, it indicates that there is data for a specific client.
Nako ea nako ea DTIM le litlhophiso tse ling li ama tšebeliso ea matla ea moreki oa Wi-Fi le bophelo ba betri:
- If the LI is set, the client wakes up upon the LI interval to check whether there is data for them on the AP. If the LI is not set, the client wakes up per the DTIM interval set by the AP.
- The client goes back to sleep after the data is retrieved.
- Also, the data retrieval process defined by the power save profile (PSP) ho NWP e ama tšebeliso ea matla.

Nako e Lebeletsoeng ea ho Tsoha (TWT)
In the legacy power save modes such as DTIM, Wi-Fi 4 clients go to sleep and wake up at predefined intervals to check for incoming data and transfer data regardless of the wake-up schedules of other clients. With Target Wake Time (TWT) in Wi-Fi 6, the clients negotiate the wakeup scheduling with the AP, ensuring no two clients wake up at the same time. This method helps avoid packet collisions, thus reducing retransmissions and, in turn, reducing the current consumption for all the clients. The multicast TWT feature enables to set several devices to be awake at the same time. In general, TWT allows Wi-Fi clients to remain in sleep for longer durations, increases power efficiency on connected clients, and reduces network congestion.
Ho lokisa TWT ka bomong ho SiWx917
- Manual TWT Configuration: The TWT parameters such as sleep duration, wake-up duration, and wake interval are calculated based on the TWT specification parameters configured in the application.
- Automatic (Auto) TWT: A Silicon Labs implementation that configures TWT parameters automatically based on the application requirements such as the average throughput and RX latency. Based on these inputs, the NWP configures the TWT parameters and negotiates them with the AP. The Auto-TWT also checks if the TWT is optimal for a specific combination of latency and throughput parameters. If deemed inefficient, legacy listen Interval-based power saving (DTIM) is enabled instead of the TWT. Auto-TWT is recommended for better throughput, interoperability, power efficiency.
- A Wi-Fi 6 client that has subscribed to a TWT agreement should not transmit outside of its service period (SP) to reduce the risk of media contention with other devices. Adhering to the TWT improves the energy efficiency of the device, and other Wi-Fi 6 devices in the network with a TWT agreement.
- If a Wi-Fi 6 device is expected to transmit frequently with a short notification time (e.g.
a few seconds), a short TWT interval is recommended. If the occurrence of low-latency transmissions is very sporadic (e.g. fire alarm), transmitting outside the SP could turn out to be a more energy-efficient solution. However, in this case a power consumption penalty should be factored in due to potential media contention with other devices. - If a Wi-Fi 6 device is expected to receive a large amount of data (e.g. firmware update), TWT teardown or re-negotiation of TWT agreement should be considered. The additional procedure increases power overhead, but due to rare occasions, the impact on the overall power consumption is limited.

Ho Sebelisa DTIM le TWT Neng?
Leha Wi-Fi 6 le TWT hangata li khothaletsoa lits'ebetsong tsa IoT tsa matla a tlase, mekhoa ea ho boloka matla a Wi-Fi joalo ka DTIM le eona e na le sebaka sa eona. Tafole e ka tlase e fana ka malebela a hore na u khetha mokhoa ofe.
Ho Sebelisa DTIM Neng?
- Wi-Fi 6 and TWT is not always supported or enabled by Wi-Fi routers. However, DTIM is a legacy functionality that is generally supported on Wi-Fi routers.
- When the network traffic is very low, the overhead of negotiating and maintaining TWT
(depending on TWT settings) is not worthwhile. DTIM does not require negotiation. - When there is a lot of unpredictable network traffic
- Use DTIM when there are many devices not supporting TWT, because they can potentially collide with the service period of TWT-enabled clients.
Ho Sebelisa TWT Neng?
- When the IoT application or use case can tolerate a long sleep time, TWT can save energy
- When there are a lot of TWT-enabled clients in the network and the wake-up times can be arranged so that they won’t overlap. This ensures a more efficient radio resource utilization, saving power.
Ithute haholoanyane: Ke kopa o bone AN1430 SiWx917 Low-Power Application Note for more details on the Wi-Fi power saving techniques.
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Conclusions – IoT-Optimized Wi-Fi
Re tšepa hore u fumane pampiri ena e tšoeu e thusa ho ntlafatsa moralo oa hau oa Wi-Fi oa matla a tlase. Sepheo sa pampiri e tšoeu ke ho ntlafatsa matla feela hobane e ntse e le e 'ngoe ea liqholotso tse thata ka ho fetisisa bakeng sa baetsi ba IoT le lisebelisoa tse bohlale. Leha ho le joalo, IoT ha e felle feela ka ho ntlafatsa tšebeliso ea matla. Lisebelisoa tsa sejoale-joale tsa IoT-optimized Wi-Fi li tlameha ho ba le likarolo tse matla tsa komporo, tse tsoetseng pele, le ts'ireletso e matla ho fana ka litlhoko tsa mebaraka e potlakileng ea bareki le ea likhoebo. SiWx917 Wi-Fi 6 wireless MCU ke tharollo e ntlafalitsoeng ea IoT e u fang tekanyo e phethahetseng ea matla a tlase haholo le komporo le likarolo tse tsoetseng pele.
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Likarolo tsa IoT-Optimized Wi-Fi
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Litaelo tsa Moqapi oa Matla a Tlase a Wi-Fi bakeng sa Lisebelisoa tse Tšeletseng tsa IoT
Best-practice low-power Wi-Fi design guidelines from distinguished specialists – Six IoT device examples. Silicon Labs SiWx917 is an ultra-low-power Wi-Fi 6 wireless MCU tested to enable years of battery life and low standby current on smart IoT devices. However, optimizing the SiWx917 wireless MCU and the Wi-Fi protocol for your design can be challenging. In this document, the distinguished specialists from the Silicon Labs Developer Services Team and Sigma Connectivity, a global design and engineering service provider, share their best-practice design guidelines for six low-power Wi-Fi device examples, ho u thusa ho qoba maraba a tloaelehileng le ho boloka nako.
Li-Labs tsa silicon
Silicon Labs (NASDAQ: SLAB) is the leading innovator in low-power wireless connectivity, building embedded technology that connects devices and improves lives. Merging cutting-edge technology into the world’s most highly integrated SoCs, Silicon Labs provides device makers with the solutions, support, and ecosystems needed to create advanced edge connectivity applications. Headquartered in Austin, Texas, Silicon Labs has operations in over 16 countries and is the trusted partner for innovative solutions in the smart home, industrial IoT, and smart cities markets. Learn more at www.silabs.com.
Lipotso Tse Botsoang Hangata
P: Nako e lekantsoeng ea bophelo ba betri e sebelisa SiWx917?
A: The SiWx917 can provide up to 5 years of battery life for IoT devices, as per independent testing.
P: Ke liphephetso life tse ling tsa bohlokoa tseo baetsi ba lisebelisoa tsa Wi-Fi IoT ba tobaneng le tsona?
A: Power consumption is a significant challenge due to the historical power-intensive nature of Wi-Fi technology.
P: Wi-Fi 6 e sebetsana joang le katleho ea matla lits'ebetsong tsa IoT?
A: Wi-Fi 6 offers a battery-friendly and high-throughput solution for connecting IoT devices, making it simpler and more efficient.
Litokomane / Lisebelisoa
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