Features

• Powerful Harvard Architecture Processor
• Flexible On-Chip Memory
• Complete Development Tools
• Precision, Programmable Clocking
• Programmable Pin Configurations
• Additional System Resources
• For more, see pdf
   

Functional Overview

The enCoRe V LV family of devices are designed to replace multiple traditional low voltage microcontroller system components with one, low cost single chip programmable component. Communication peripherals (I2C/SPI), a fast CPU, Flash program memory, SRAM data memory, and configurable I/O are included in a range of convenient pinouts.

Features

• Radio System-on-Chip, with built-in 8-bit MCU in a single device.
• Operates in the unlicensed worldwide Industrial, Scientific, and Medical (ISM) band (2.400 GHz to 2.483 GHz).
• On Air compatible with second generation radio WirelessUSB™ LP and PRoC LP.
• Pin-to-pin compatible with PRoC LP except the Pin31 and Pin37. 

Intelligent

• M8C based 8-bit CPU, optimized for human interface devices (HID) applications
• 256 bytes of SRAM
• 8 Kbytes of flash memory with EEPROM emulation
• In-System reprogrammable through D+/D– pins
• CPU speed up to 12 MHz
• For more, see pdf

Functional Description

PRoC LPstar devices are integrated radio and microcontroller functions in the same package to provide a dual role single-chip solution.

Communication between the microcontroller and the radio is via the SPI interface between both functions.

Features

• Radio System-on-Chip with built-in 8-bit MCU in a single device.
• Operates in the unlicensed worldwide Industrial, Scientific, and Medical (ISM) band (2.400 GHz to 2.483 GHz).
• On Air compatible with second generation radio WirelessUSB™ LP and PRoC LP.
• Pin-to-pin compatible with PRoC LP except the Pin31 and Pin37.

Intelligent

• M8C based 8-bit CPU, optimized for human interface devices (HID) applications
• 256 bytes of SRAM
• 8 Kbytes of flash memory with EEPROM emulation
• In-system reprogrammable through D+/D– pins
• CPU speed up to 12 MHz
• For more, see pdf

 Functional Description

PRoC LPstar devices are integrated radio and microcontroller functions in the same package to provide a dual-role single-chip solution.

Communication between the microcontroller and the radio is through the radio’s SPI interface.

Features

• Fully integrated 2.4-GHz radio on a chip
• 1-Mbps over-the-air data rate
• Transmit power typical: 0 dBm
• Receive sensitivity typical: –87 dBm
• 1 μA typical current consumption in sleep state
• Closed-loop frequency synthesis
• Supports frequency-hopping spread spectrum
• On-chip packet framer with 64-byte first in first out (FIFO) data buffer
• Built-in auto-retry-acknowledge protocol simplifies usage
• For more, see pdf

Product Description

WirelessUSB™-NL, optimized to operate in the 2.4-GHz ISM band, is Cypress's third generation of 2.4-GHz low-power RF technology, bringing the next level of low-power performance into a small 4-mm × 4-mm footprint. WirelessUSB-NL implements a Gaussian frequency-shift keying (GFSK) radio using a differentiated single-mixer, closed-loop modulation design that optimizes power efficiency and interference immunity.

• USB 2.0-USB-IF certified (TID # 40000552)
• Single Device, Two Functions
• Flash Based Microcontroller Function
• Industry-Leading 2.4 GHz Radio Transceiver Function
• Component Reduction
• Flexible I/O
• USB Specification Compliance
• Operating Voltage from 4.0 V to 5.5 V DC
• Operating Temperature from 0 to 70°C
• Pb-free 40-pin QFN Package
• Advanced Development Tools Based on Cypress’s PSoC® Tools
• For more,see pdf

Functional Description

PRoC LP devices are integrated radio and microcontroller functions in the same package to provide a dual role single-chip solution.

Communication between the microcontroller and the radio is via the SPI interface between both functions.

Functional Overview

The CYRF69213 is a complete Radio System-on-Chip device, providing a complete RF system solution with a single device and a few discrete components. The CYRF69213 is designed to implement low cost wireless systems operating in the worldwide 2.4 GHz Industrial, Scientific, and Medical (ISM) frequency band (2.400 GHz–2.4835 GHz).

PRoC-CS is a 2.4-GHz RF solution integrated with Cypress’ capacitive touch sensing 8-bit MCU. The PRoC-CS is a complete solution featuring 32-KB flash, with support for CapSense button, slider, proximity sensors, and a GFSK radio modem which can support data rate up to 1 Mbps.

Note The WUSB-NL radio module provided with CY3668 Rev. *A does not require these modifications.

CAUTION

• ANY CHANGE TO THE MODULE HAS TO BE CARRIED OUT BY A PERSON QUALIFIED IN REPLACING CHIP COMPONENTS.
• USE ESD PROTECTION WHILE CARRYING OUT THE MODIFICATION.
• USE TEMPERATURE-CONTROLLED SOLDERING STATION (RECOMMENDED).

INSTRUCTIONS TO MODIFY WUSB-NL MODULES
Perform the following changes on both the WUSB-NL modules:

• Replace the existing capacitor at location C7 with a 33-pF, 0603 size capacitor
• Replace the existing capacitor at location C8 with a 27-pF, 0603 size capacitor

Figure 1. WUSB-NL Module and Location of C7 and C8

Cypress recommends the following parts from Murata for this purpose:

• 33-pF capacitor : GRM1885C1H330JA01D
• 27-pF capacitor : GRM1885C1H270JA01D

After you complete these changes, the WUSB-NL modules are ready to interoperate with any nonDVK hardware.

INTEROPERATING WITH NON DVK WUSB-NL HARDWARE

For a modified WUSB-NL module to interoperate with nonDVK hardware, the firmware running on both hardware must be compatible.For this reason you must port the WUSB-NL driver provided with CY3668 Rev. ** to the nonDVK hardware before initiating data communication between them. If your application requires AgileHID protocol, you must port the AgileHID protocol provided with CY3668 Rev. ** DVK to the nonDVK hardware as well. Alternatively, you can also port the firmware (WUSB-NL driver and AgileHID protocol) running on the nonDVK hardware to CY3668 Rev. ** DVK.

For best operation, design the product so that the main antenna radiation is away from the body or at least not proximity-loaded by the human body or dielectric objects within the product.

Remember to keep the antenna away from clock lines, digital bus signals, and power supply; otherwise, harmonics of the clock frequency will jam certain receive frequencies.

•  RF path: Adhere closely to the recommended reference design circuit (Refer TRM, FIGURE-3.1)
•  Clock traces: Keep the quartz crystal traces simple and direct. The self-bias resistor should be close to the XTALi and XTALo pins. The oscillation loop, consisting of the series resistor and crystal, should be a simple, small loop. The crystal-loading capacitors should be near the crystal. The ground connection to these capacitors must be good, clean, and quiet. This prevents noise from being injected into the oscillator. It is best to have one ground plane for the entire RF section. Do not keep any unwanted trace below the crystal. The crystal and the associated components should be kept as close as possible to the IC pins (XTALOUT and XTALIN) to keep stray capacitance as minimum.
•  Power distribution and decoupling: Capacitors should be located near the VDD pins, as shown in Typical Application on page 13 of the WUSB-NL TRM.
•  Antenna placement: When using an antenna, follow the manufacturer's recommendation regarding layout.
•  Digital interface: The digital interface should be routed with a solid ground reference, to have a good return path you need a good grounding between RF and MCU that can help reduce noise 'seen' at the antenna, thus improving performance.

However, you can make the two radio modules compatible by replacing the passives C7 and C8 on the radio module provided with the Rev. ** kit. For more information on how to do this modification, see KBA83288.

Note: You can identify the CY3668 kit revision by the sticker attached behind the kit box. Similarly, you can identify the radio module provided with the CY3668 Rev *A kit by the sticker attached behind the module.

Figure 1. CY3668 Kit Revision

Figure 2. CY3668 Rev. *A Radio Module

PRoC™ LP Features

• Single Device, Two Functions
• Flash Based Microcontroller Function
• Industry leading 2.4 GHz Radio Transceiver Function
• Component Reduction
• Flexible I/O
• Operating Voltage from 1.8 V to 3.6 V DC
• Operating Temperature from 0 to 70 °C
• Pb-free 40-pin QFN Package
• Advanced Development Tools based on Cypress’s PSoC® Tools
• For more,see pdf

Functional Overview

The CYRF69103 is a complete Radio System-on-Chip device, providing a complete RF system solution with a single device and a few discrete components. The CYRF69103 is designed to implement low cost wireless systems operating in the worldwide 2.4 GHz Industrial, Scientific, and Medical (ISM) frequency band (2.400 GHz to 2.4835 GHz).

Features

• 2.4-GHz direct sequence spread spectrum (DSSS) radio transceiver
• Operates in the unlicensed worldwide industrial, scientific, and medical (ISM) band (2.400 GHz to 2.483 GHz)
• 21-mA operating current (transmit at –5 dBm)
• Transmit power up to 4 dBm
• Receive sensitivity up to –97 dBm
• Sleep current less than 1 μA
• DSSS data rates up to 250 kbps, Gaussian frequency-shift keying (GFSK) data rate of 1 Mbps
• Low external component count
• Auto transaction sequencer (ATS) - no MCU intervention
• For more, see pdf
   

Functional Overview

The CYRF7936 IC is designed to implement wireless device links operating in the worldwide 2.4-GHz ISM frequency band. It is intended for systems compliant with worldwide regulations covered by ETSI EN 301 489-1 V1.41, ETSI EN 300 328-1 V1.3.1 (Europe), FCC CFR 47 Part 15 (USA and Industry Canada), and TELEC ARIB_T66_March, 2003 (Japan).

Please refer to "Cypress WUSB-NL Driver - Release Notes" document for detailed instructions to upgrade your current driver to this release.

Please contact wusbnl@cypress.com for any help.

Overview

CYRF8935 WirelessUSB NL is Cypress’s third generation of 2.4 GHz low-power RF technology, bringing next level of low-power performance into a small 4 mm x 4 mm footprint. WirelessUSB NL implements a GFSK radio using a differentiated single-mixer, closed-loop modulation design that optimizes power ef_ciency and interference immunity. This also translates into the highest on-air throughput which makes WirelessUSB NL particularly powerful for streaming applications such as audio, along with HID applications such as wireless keyboards, mice and USB dongles.

The CY3668 WirelessUSB NL development kit provides a generic platform for developing wireless applications based on the WirelessUSB NL, enCoRe II and enCoRe V devices. The out-of-box examples that come with this kit also demonstrates the new enhanced agile HID protocol for secure and reliable wireless data transfers.
 

Kit Contents:

• CY3668 bridge/keyboard development boards (2)
• NL modules (2)
• CY3668- enCoRe II module (1)
• CY3668-enCoRe V modules (2)
• 3.3-V LCD (2)
• Power adaptor (2)
• Quick Start Guide
• Resource CD which includes, PSoC Designer, PSoC Programmer, Projects and documentation.

Software Title	Description	Link
PSoC Designer	This kit requires PSoC Designer for development
PSoC Programmer	This kit requires PSoC Programmer for programming

wirelessdesignmag.com

Today, along with wireless USB there are a number of other wireless options available - each suited to a different type of traffic." Existing low-cost RF transceivers typically use the 27 MHz, 433 MHz, 868 MHz, or 900 MHz frequency ranges. In the 2.4 GHz and 5.4 GHz frequency ranges, there are options such as various renditions of 802.XX and Bluetooth.

Crossing the three spectrums is ZigBee (868 MHz, 915 MHz, and 2.4 GHz). For non-network, multipoint-to-point applications, there is wireless USB in the 2.4 GHz range (See Table 1). Another alternative is infrared...

WirelessUSB LP VoIP demo kit provides a smart implementation of low power, low cost, duplex wireless headset to a single wireless receiver. The kit combines Cypress's WirelessUSB LP radio system-on-chip and enCoRe(TM) (Enhanced Component Reduction) micro controllers with Winbond's W681360, 13 bit low power CODEC to implement clean signal quality and production-ready, 2.4GHz wireless VoIP headset system.

Source code schematics and gerber file documentation for easy design provided.

Kit Contents:

• WirelessUSB Headset Board - Innovative dual antenna design for range and robustness. Uses Cypress WirelessUSB LP (CYRF6936), Wireless enCoRe II (CY7C60323) flash MCU and Winbond (W681360) 3V Single-Channel CODEC.
• WirelessUSB Full-Speed USB Bridge - Simple and small formfactor bridge. Uses WirelesUSB LP (CYRF6936) and enCoRe III (CY7C64215) USB flash MCU
• WirelessUSB LP VoIP Demo Kit CD-ROM - Provides kit documentation, hardware schematics, bill of materials and firmware for Wireless VoIP headset design.
• Other - Mono Headset, Battery charger and USB extension cable for the bridge.

Key Features

• Headset with antenna diversity for maximizing range and robustness
• Duplex voice sampling at 8KHz with clean signal quality
• Over 8hrs of talk time between re-charging

Partner Name: Winbond

Partner Parts Supported: Winbond CODEC W681360

An industry's first, the CY3631 takes the headaches out of RF fabrication, improves manufacturing productivity, and ensures outgoing quality.

• MTK Test Fixture
• 12" SMA to SMA coaxial cable
• 24" SMA to SMA coaxial cable
• SMA-F to SMA-F adapter
• (6) Fixed 50 ohm attenuators, various values
• SMA 2.4GHz antenna
• Power supply transformer
• CD-ROM with firmware source and documentation

Not included but required for use are the Device Under Test (DUT) and an anechoic RF test chamber, sized appropriately for the DUT, with SMA pass-through connectors. 

Optional, not included, equipment includes: 

• A variable 50-ohm attenuator for calibration
• An SMA torque wrench
• A computer to download configuration and/or test start commands and, optionally, log test results
• An RS-232 serial cable or USB-to-serial adapter cable for connecting the computer to the 9-pin D connector of the MTK Test Fixture
   

• Single Device, Two functions
• Wide operating range: 1.9 V to 3.6 V
• Powerful Harvard-architecture processor
• Temperature range: 0 °C to +70 °C
• Flexible on-chip memory
• Precision, programmable clocking
• Programmable pin configurations
• Versatile analog system
• Additional system resources
• Complete development tools
• Package option
• For more, see pdf.

PSoC® Functional Overview

The PSoC family consists of on-chip controller devices, which are designed to replace multiple traditional microcontroller unit (MCU)-based components with one, low cost single-chip programmable component. A PSoC device includes configurable analog and digital blocks, and programmable interconnect. This architecture allows the user to create customized peripheral configurations, to match the requirements of each individual application. Additionally, a fast CPU, flash program memory, SRAM data memory, and configurable I/O are included in a range of convenient pinouts.

In this application note, we use a CY3660 Development Kit (DVK) to demonstrate wireless data exchange between two enCoRe™ V LV devices each using the WirelessUSB™-LP Radio. The CY3660 DVK includes two enCoRe V LV development boards, each with a WirelessUSB-LP radio. With the PSoC® Designer™ projects attached to this application, we configure one board for data transmission and the second board for data reception.

Introduction

This application note focuses on an RF-based remote control device operating over the 2.4-GHz ISM (industrial, scientific, and medical) band. Because it uses Cypress’s proprietary WirelessUSB-NL radio, the device overcomes the following shortcomings of IR-based remote control:

• line-of-sight pointing
• limited operating angles
• short transmission range
• reflection problems
• high current consumption

• Nlradio.asm
• Nlradio.h
• Nlradio.inc
• Nlspi.asm

This document describes the APIs exposed by the WUSB-NL driver.

The WUSB-NL radio driver is used in wireless mouse, keyboard, and bridge application software stacks. The WUSB-NL radio driver is modular and can be used as a library. The API exported by this module is explained in this document.

• Supports Serial Peripheral Interconnect (SPI) Master protocol
• Supports SPI clocking modes 0, 1, 2, and 3
• Programmable interrupt on SPI-done condition
• SPI Slave devices can be independently selected
   

The SPIM User Module is a Serial Peripheral Interconnect Master. It performs full duplex synchronous 8- bit data transfers. SCLK phase, SCLK polarity, and LSB First can be specified to accommodate most SPI clocking modes. Controlled by user supplied software, you can configure the slave select signal to control one or more SPI Slave devices.

The SPI User Module also supports two wire serial devices such as optical mouse sensors that employ an SDIO/SCK interface.

• 1 second
• 5 seconds
• 30 seconds
• 1 minute
• 5 minutes

For example, when the report interval is 30 seconds, a data packet is sent once every 30 seconds. The size of the data packet is uniform (7 bytes) for all five report interval values. The lowest report interval (1 second) gives you the fastest data rate.

The firmware changes its current report interval value to next value when the SW2 button on RF Expansion Card (FTRF) is pressed for more than 2 seconds. If current report interval value is 1 second, the firmware changes it to 5 seconds. If the current report interval value is 5 minutes it rolls back and changes the report interval to 1 second.

Follow this procedure to change the report interval value:

Figure 1 RF Expansion Card (FTRF)

• Press the SW2 button for more than 2 seconds
• Release the button when the red LED glows continuously. When SW2 is pressed for more than 2 seconds the firmware changes the report interval to next value and lights the red LED continuously.
• Look at the red LED immediately after you release the SW2 button. The red LED blinks a finite number of times to indicate the current report interval value as shown below.

• Implements CapSense® capacitive sensing in the CY8C20xx6A family of PSoC® devices using sigma-delta data conversion.
• Configurable system parameters allow tuning to optimize performance in a broad range of applications.
• Supports up to 36 capacitive sensors and 6 sliders.
• Capable of detecting touches as low as 0.1 pF, that is, detecting a finger is possible through up to 15 mm of glass or 5 mm of plastic.
• High immunity to AC mains noise, other EMI, and power supply noise.
• Supports capacitive sensors configured as independent buttons and/or as dependent arrays to form sliders.
• Effective number of slider elements can double the number of dedicated I/O pins using diplexing technique.
• Supports slider resolution greater than physical pitch through interpolation.
• Shield electrode provided for reliable operation with high parasitic capacitance and/or in the presence of water film.
• Guided sensor and pin assignments using the CSD Wizard.
• The CY8C20045 family does not support sliders.

• 8-bit resolution
• Sample rates up to 100 sps
• Input range depends on CPU Clock
   

The SAADC implements a simple ADC which does not require a Digital Block to operate.

Note:  The SAADC has 8 bits of resolution with 1% error if placed in analog column 0. When placed in analog column 1 the error is 4%.

• Provides a global shadow register for a selected port data register
• Generates a set of macros for port pin manipulation
• Prevents corruption of GPIO pin settings during CPU control of GPIO
• Cooperates with other user modules that allocate shadow registers.
   

• Industry standard Philips I2C bus compatible interface.
• Enables you to reprogram a PSoC device using the I2C system bus instead of in-system programming pins.

The I2C Bootloader User Module implements a bootloader that can reprogram the PSoC device over the I2C interface. The PSoC device already gives an in-system serial programming interface (ISSP) that allows downloading new code into the device. However, the bootloader allows a code update to occur through an industry standard communication interface, such as I2C.

The SPI-based WUSB_NL User Module is a firmware interface to the CYRF8935 WirelessUSB NL radio modem hardware.

• Typical transmit power: 0 dBm
• Packet framer with 64-byte first in first out (FIFO) data buffer
• Auto-retry-acknowledge protocol to simplify usage
• Cyclic Redundancy Check (CRC)
• Forward Error Correction (FEC)
• Supports up to 4 Mbps SPI bus baud rate
• Digital readout of received signal strength indication (RSSI)

Functional Description

The WUSB_NL User Module can be used as a base for developing proprietary wireless protocols. The WUSB_NL User Module application programming interface (API) provides functions that can be called from both C and assembly to start the radio, send and receive data, change channels, change transmit power, and more.

The WUSB_NL User Module offers hardware SPI interface, initialization, configuration, and communication functions for interfacing with an NL radio.

WirelessUSB-LP RDK (CY4636) provides an exemplary implementation of a 2:1, bi-directional Wireless desktop keyboard and mouse to single wireless receiver. The RDK will help jump-start your Keyboard and Mouse development using WirelessUSB-LP (CYRF6936) Radio System on Chip.

WirelessUSB LP RDK (CY4636) provides an exemplary implementation of a 2:1, bi-directional Wireless desktop keyboard and mouse to single wireless receiver. The RDK will help jump-start your Keyboard and Mouse development using WirelessUSB LP (CYRF6936) Radio System on Chip.  WirelessUSB LP is the next generation WirelessUSB device, with high data throughput and low power designed to operate in 2.4 GHz ISM band. WirelessUSB LP has many powerful features that allow users to create never before seen radio applications.

Schematics, source code, firmware and RF gerber files are provided as an accelerated starting point for PC Human Interface Devices (HID) designers wishing to cut the cord on their HID applications.

WirelessUSB RDK Keyboard - The RDK keyboard is a 101-key Keyboard with  multimedia keys (internet, mail etc) and power keys.
WirelessUSB RDK Mouse - The RDK mouse is a three-button optical mouse with scroll wheel. The mouse uses Agilent 3040 optical sensor.
WirelessUSB RDK Bridge/Dongle - The RDK bridge supports both the RDK Keyboard and Mouse. The RDK uses Cypress's famous KISSBind(TM) for binding the Keyboard and Mouse to the dongle.
WirelessUSB LP RDK CD-ROM - The CD contains the documentation, example code and hardware design files - everything you need to design a wireless keyboard and mouse.

Key Features

• 2.4-GHz unlicensed ISM band for worldwide deployment
• Over 10-meter wireless operation
• Up to 1 Mbps bidirectional wireless connectivity
• Around 1 ms typical latency
• Over 1 year of battery life under normal usage models
• Interference avoidance technology for robust operation in close proximity of 2.4-GHz wireless technologies like Wi-Fi(R) and Bluetooth(R)
• 2.4-GHz DSSS radio WirelessUSB protocol, enabling co-location of hundreds of WirelessUSB systems for office and classroom deployment
• Signal strength/battery life indicator software utility
• Precise optical navigation technology-smooth and accurate surface navigation
• USB plug 'n play - no new software drivers required

Hardware Description
 

This reference design kit includes:

• CYRF6936 WirelessUSB LS transceiver
• ADNS-3040 optical sensor mouse
• WirelessUSB LS 101 multimedia keyboard
• Small form factor bridge
• Batteries
• CD-ROM containing the following:
  • Signal strength/battery life indicator software utility
  • Firmware source code
  • Firmware design notes
  • Cypress and Agilent data sheets
  • Application notes
  • Hardware Bill of Materials
  • Hardware Gerber files
  • Hardware schematics

There are two types of solutions available for a wireless keyboard design:

1. 2-chip solutions: separate MCU and RF ICs
2. Single-chip solution: combing RF and MCU in a single chip

The following table lists Cypress’s wireless keyboard portfolio. Based on the required features of the solution, the relevant products can be chosen for the design.

There are two types of solutions available for a wireless presenter design:

1. 2-chip solutions: separate MCU and RF ICs
2. Single-chip solution: combing RF and MCU in a single chip

The following table lists Cypress’s wireless presenter portfolio. Based on the required features of the solution, the relevant products can be chosen for the design.

There are two types of solutions available for RF remote control design:

1. 2-chip solutions: separate MCU and RF ICs
2. Single-chip solution: combing RF and MCU in a single chip

The following table lists Cypress’s RF remote control portfolio. Based on the required features of the solution, the relevant products can be chosen for the design.

There are two types of solutions available for a wireless mouse design:

1. 2-chip solutions: separate MCU and RF ICs
2. Single-chip solution: combing RF and MCU in a single chip

The following table lists Cypress’s wireless mouse portfolio. Based on the required features of the solution, the relevant products can be chosen for the design.

There are two types of solutions available for a wireless dongle design:

1. 2-chip solutions: separate MCU and RF ICs
2. Single-chip solution: combing RF and MCU in a single chip

The following table lists Cypress’s wireless dongle portfolio. Based on the required features of the solution, the relevant products can be chosen for the design.

1. Button Bind
   In this type of binding, a separate bind button is provided for dongle and device. Binding takes place once the bind button is pressed on both dongle and device side. At the end of binding device stores unique ID of dongle in the flash. On subsequent power-on, device uses the stored unique ID of dongle for data transfer. Bind button can be used again to bind a different evice to the same dongle or vice versa.

   Advantage	Disadvantage
   Possibility of device wrongly binding to a different dongle is very less.	Increase in cost due to additional hardware circuitry needed for bind switch on both device and dongle. It is difficult to provide a bind switch in nano-dongle.

2. Power Bind
   In this type of binding there will not be a separate bind button in dongle or device. After power on, dongle goes to bind state if both keyboard and mouse are not bound. If one of the devices is bound then dongle will be in bind state for a period of 8 (configurable) sec and then move to Operating/Idle state. Once device is in Operating/Idle state, no device can be bound. To bind again, dongle power needs to be reset.
   Power bind con be made conditional too. In this case, it will go to binding mode on power on only if some condition (for example, a set of buttons pressed concurrently) is met.

   Advantage	Disadvantage
   No additional hardware circuitry required resulting in reduced cost. Simple to implement. If manufacturer wants to associate a dongle to a single device (like mouse) then binding is same as enhanced KISS bind.	If dongle is bound only to one device and if second device required to be bound then power to dongle needs to be reset. This would cause inconvenience to user.

3. Factory set Bind
   For factory set binding, unique ID of Dongle is read from PC using proprietary tool and stored in device flash. Device by default will be bound with specific dongle.

PRoC LP Mouse - The RDK mouse is a three-button optical mouse with scroll wheel. Based on the CYRF69103 PRoC LP for Peripherals and the Avago 3040 optical sensor.

WirelessUSB LP Keyboard - The RDK keyboard is a 101-key keyboard with  multimedia keys (internet, mail etc) and power keys. Features AES 128-bit encryption and bi-directional communication for toggling CAPS LOCK and NUM LOCK LEDs. Based on the CYRF6936 WirelessUSB LP radio SoC and CY7C60123 Wireless enCoRe II MCU.

PRoC LP Bridge/Dongle - A single-chip USB bridge based on the CYRF69213 PRoC LP for Bridges. Features support for Microsoft Windows Vista HotStart (Direct Application Launch) via two dedicated IOs.

WirelessUSB LP RDK CD-ROM - The CD contains the documentation, example code and hardware design files - everything you need to design a wireless keyboard and mouse.

In the latest update, Cypress introduced an upgraded version of its wireless protocol incorporating Dynamic Data Rate (DR) and Dynamic Power Amplification (PA) features. This new version AgileHID(TM) wireless protocol is specifically designed to overcome interference from emerging 802.11n networks, which, along with cordless phones, microwaves and other devices in the 2.4 GHz band, can severely hamper the performance of wireless peripherals. Cypress' Best-in-Class protocol will help our customers' products be prepared for 802.11n interference.

Key Features

• 2.4 GHz unlicensed ISM band for worldwide usage
• 10 m wireless range
• Up to 1 Mbps bidirectional wireless connectivity
• Over 1 year of battery life for both mouse and keyboard
• AgileHID protocol, with hardware-assisted interference avoidance algorithms for robust operation in close proximity of 2.4 GHz wireless technologies like WiFi(R) and Bluetooth(R)
• Frequency and DSSS PN code diversity to support the simultaneous co-location of hundreds of PRoC LP-based keyboard and mouse systems.
• Cypress' patented KISSBind buttonless-bind technology
• 128-bit AES encryption
• Firmware and hardware support for Microsoft Windows Vista HotStart (Direct Application Launch)
• Signal strength/battery life indicator software utility
• Precise optical navigation technology-smooth and accurate surface navigation
• USB plug 'n play - no new software drivers required
   

Hardware Description

This reference design kit includes:

• PRoC LP-based mouse with ADNS 3040 optical sensor
• WirelessUSB LP 101 multimedia keyboard
• PRoC LP-based small form-factor USB bridge
• Batteries
• CD-ROM containing the following:
  • Signal strength/battery life indicator software utility
  • Firmware source code
  • Firmware design notes
  • Cypress and Avago data sheets
  • Application notes
  • Hardware Bill of Materials
  • Hardware Gerber files
  • Hardware schematics 
     

For programming the Wireless Keyboard, Mouse and Bridge, customers are requested to purchase CY3617 kit.  For Bridge additionally, CY3655-PLG is required.

Note: To program RDK Mouse please use Miniprog3 Kit(http://www.cypress.com/?rID=38154 ). This provides 3.3 V during programming required for enCoreII MCU.Miniprog1 Supports only 5vrequired for Keyboard and Dongle.

SAN JOSE, Calif., October 16, 2012, – Cypress Semiconductor Corp. (NASDAQ: CY) today introduced a single-chip solution that integrates a wireless radio with touch-sensing circuitry for wireless mice, trackpads, remote controls, presenter tools, and other Human Interface Devices (HIDs). The new PRoC™-UI (Programmable Radio-on-a-Chip–User Interface) solution combines 2.4-GHz proprietary WirelessUSB™-NL Radio with Cypress’s CapSense® and TrueTouch® capacitive touch technologies. This combination enables user interface functionality in wireless devices, including gestures supported by the upcoming Windows 8 applications.

The one-chip solution also offers standard HID microcontroller functionality, effectively combining three chips into one to save BOM cost, board space, and power, while increasing reliability compared with multi-chip implementations. More information on the new device is available at www.cypress.com/go/PRoC-UI.

Cypress’s CapSense technology has replaced over 4 billion mechanical buttons worldwide, making Cypress the industry’s leading capacitive touch supplier. CapSense offers stylish interfaces, and superior reliability compared to mechanical buttons. PRoC-UI is also available with Cypress’s leading TrueTouch touchscreen technology, enabling multiple new HID use cases with multi-finger gesture recognition, including new Windows 8 gestures. The TrueTouch variant also supports customized gestures. Both CapSense and TrueTouch variants include advanced features such as proximity sensing (which allows a device to “wake up” as a hand approaches) and haptics (to give tactile user feedback).

PRoC-UI boasts an impressive -87 dBm receive sensitivity at 1 Mbps. This enhanced sensitivity enables longer range (up to 30 meters) operation and allows for lower-power transmit signals. The device features low active and standby currents, which enable longer battery life. It also offers superior performance in the presence of 2.4-GHz interference from common sources such as WiFi, Bluetooth, cordless phones, and microwaves.

“We are seeing an emerging class of applications and use cases that combine touch with wireless functionality. Cypress has integrated its market-leading user interface and wireless technologies to respond to this need,” said Jayant Somani, senior director of worldwide marketing for Cypress’s Data Communication Division. “The PRoC-UI solution delivers cost savings through integration, shorter design times, lower power, and smaller form factor. Perhaps more importantly, it allows our customers to differentiate their products in a highly competitive space.”

PRoC-UI supports Cypress’s AgileHID™ protocol that allows existing WirelessUSB-NL customers to get started quickly on their designs without any additional effort. Customers who have existing designs with WirelessUSB-NL can reuse the same dongles for new PRoC-UI based touch products. PRoC-UI comes with free software to enable end-product customization.

Customer Endorsements

“We are confident that PRoC-UI is the ideal single-chip solution for wireless, touch-based HID designs. We’re excited about building new designs with the PRoC-UI products.”
- Jonathan Lin, Product and Marketing Director, Primax

“PRoC-UI not only integrates touch and wireless into a single device, but also offers easy integration with external components. Moreover, Cypress’s excellent customer support makes designing touch-based wireless HID products simpler and faster.”
- Jim Wu, Marketing Associate Vice President, Sysgration

“With PRoC-UI, Cypress has a sure winner on their hands. We are very excited to partner with Cypress in bringing new touch-enabled wireless devices to the market.”
- Kevin Chen, Vice President, Foundata

Availability
PRoC-UI is currently sampling in 40-QFN and 68-QFN packages with volume production expected in January 2013. PRoC-UI advance datasheets, user guides, application notes, reference schematics and a video demo featuring a wireless trackpad in Windows 8 are available at www.cypress.com/go/PRoC-UI.

About Cypress
Cypress delivers high-performance, mixed-signal, programmable solutions that provide customers with rapid time-to-market and exceptional system value. Cypress offerings include the flagship PSoC® 1, PSoC 3, and PSoC 5 programmable system-on-chip families and derivatives, CapSense touch sensing and TrueTouch solutions for touchscreens. Cypress is the world leader in USB controllers, including the high-performance West Bridge® solution that enhances connectivity and performance in multimedia handsets, PCs, and tablets. Cypress is also the world leader in SRAM memories. Cypress serves numerous markets including consumer, mobile handsets, computation, data communications, automotive, industrial, and military. Cypress trades on the NASDAQ Global Select Market under the ticker symbol CY. Visit Cypress online at www.cypress.com.

# # #

Cypress, the Cypress logo, PSoC, CapSense, TrueTouch and West Bridge are registered trademarks and PRoC, WirelessUSB, and AgileHID are trademarks of Cypress Semiconductor Corp. All other trademarks are property of their owners.

Features and Overview

• Protocol stack that implements node functionality to support a wireless star network consisting of one hub and up to 250 nodes
• Provides reliable two way communication between a hub and node
• Dynamic data rate (up to 1 Mbps) and output power according to the channel noise level and packet loss rate
• Operates in the unlicensed worldwide Industrial, Scientific, and Medical (ISM) band (2.400–2.483GHz)

The CyFi™ Star Network Protocol Stack (CYFISNP) User Module is designed to address up to 250 general purpose nodes; it provides reliable two way communication between the hub and node(s). The hub is assumed to be wall powered, while the nodes may be either wall powered or powered by an alkaline (low impedance) or coin-cell (high impedance) battery.

• Industry standard Philips I²C-bus compatible interface (version 2.1)
• Only two pins (SDA and SCL) required to interface several slave I²C devices
• Standard mode data supports rate of 100 kbits/s
• High level API requires minimal user programming
• Low level API provided for flexibility

• Uses the industry standard Hitachi HD44780 LCD display driver chip protocol
• Requires only seven I/O pins
• Routines provided to print RAM or ROM strings
• Routines provided to print numbers
• Routines provided to display horizontal and vertical bar graphs
• Uses a single I/O port
   

The Character LCD User Module is a set of library routines that writes text strings and formatted numbers to a common two- or four-line LCD module. Vertical and horizontal bar graphs are supported, using the character graphics feature of these LCD modules. This module was developed specifically for the industry standard Hitachi HD44780 two-line by 16 character LCD display driver chip, but will work for many other four-line displays. This library uses the 4-bit interface mode to limit the number of I/O pins required.

• Supports Serial Peripheral Interconnect (SPI) Master protocol.
• Supports SPI clocking modes 0, 1, 2, and 3.
• Selectable input sources for clock and MISO.
• Selectable output routing for MOSI and SCLK.
• Programmable interrupt on SPI done condition.
• SPI Slave devices are independently selected.
   

The SPIM User Module is a Serial Peripheral Interconnect Master. It performs full duplex synchronous 8- bit data transfers. SCLK phase, SCLK polarity, and LSB First are available to accommodate most SPI clocking modes. Controlled by user supplied software, the slave select signal is able to control one or more SPI Slave devices. The SPIM PSoC block has selectable routing for the input and output signals and programmable interrupt driven control.

• Supports Serial Peripheral Interconnect (SPI) slave protocol.
• Supports protocol modes 0, 1, 2, and 3.
• Selectable input sources for MOSI, SCLK, and ~SS.
• Selectable output routing for MISO.
• Programmable interrupt on SPI done condition.
• SS may be firmware controlled.
   

The SPIS User Module is a Serial Peripheral Interconnect Slave (SPIS). It performs full duplex synchronous 8 bit data transfers. You can specify SCLK phase, SCLK polarity, and LSB First to accommodate most SPI protocols. The SPIS PSoC block has selectable routing for the input and output signals and programmable interrupt driven control. Application Programming Interface (API) firmware provides a high level programming interface for either assembly or C application software.

• Industry standard Philips I2C bus compatible interface
• Emulates common I2C EEPROM interface
• Only two pins (SDA and SCL) required to interface to I2C bus
• Standard data rate of 100/400 kbps
• High level API requires minimal user programming
   

The EzI2Cs user module implements an I2C register-based slave device. The I2C bus is an industry standard, two wire hardware interface developed by Philips® (now NXP).The master initiates all communication on the I2C bus and supplies the clock for all slave devices. The EzI2Cs user module supports the standard mode with speeds up to 400 kbps. No digital or analog PSoC blocks are consumed with this module. The EzI2Cs user module is compatible with multiple devices on the same bus.

• 8 to 10-bit resolution
• Sample rate up to 11.71 ksps (10-bit resolution)
• Sample rate up to 46.875 ksps (8-bit resolution)
• Input range up to reference voltage
• Internal clock divider
   

The ADCINC User Module is part of the System Performance Controller (SPC). SPC is a modular system for product performance compensation over process, voltage, and temperature variations. The system is based on the M8C microcontroller. The heart of the SPC is the microcontroller core, temperature sensor, and the SPC system bus.
 

• 16-bit programmable countdown timer
• One shot countdown option where the period is not reloaded on Terminal Count
• Interrupt occurs on Terminal Count
• Uses the internal 32 kHz clock or the CPU clock
   

The user module is a 16-bit programmable timer with interrupt call back. It is clocked by the internal 32 kHz clock or the CPU clock.

• Industry standard Philips I2C bus compatible interface
• Slave only operation
• Only two pins (SDA and SCL) required to interface to I2C bus
• Standard data rate of 100/400 kbits/s, also supports 50 kbits/s
• High level API requires minimal user programming
• 7-bit addressing mode
   

The I2C Hardware User Module implements an I2C Slave device in firmware. The I2C bus is an industry standard, two wire hardware interface developed by Philips®. The master initiates all communication on the I2C bus and supplies the clock for all slave devices. The I2CHW User Module supports the standard mode with speeds up to 400 kbits/s and is compatible with other slave devices on the same bus.

Features and Overview

• Full byte-oriented EEPROM emulation
• Abstracts block-oriented Flash architecture
• Efficient use of memory
   

The EEPROM User Module emulates an EEPROM device within the Flash memory of the PSoC device. The EEPROM device can be defined to start at any Flash block boundary, with a byte length from 1 to the remainder of Flash memory space. The API enables the user to read and write 1 to N bytes at a time.

• Full byte-oriented EEPROM emulation
• Abstracts block-oriented flash architecture
• Efficient use of memory

How to enable/disable:

To enable/disable FEC, register 32 (bytes b4 and b5) can be programmed with the following options:

How to enable:

To enable data whitening, program register bit 14 of register 41, as the direction below:

How to select whitening seed:

To select data whitening seed, program register 35 (bit b0, b1, b2, b3, b4, b5, and b6) as the direction below:

The protocol provides the following functionalities:

1. Binding device (mouse/keyboard) with bridge connected to PC
2. Packet transmit
3. Packet receive

The following functionalities of the protocol are not visible to application:

1. Configuring transmit, receive, and transaction parameters
2. Channel change algorithm to handle interference/noise
3. Reconnection between device and bridge
4. CRC generation
5. Network ID generation

• Wireless HID – Mice, keyboards, presenters
• Remote controllers – For consumer electronics (TVs, Set Top Boxes, and so on) and for radio controlled models or toys
• R/C Models and toys

If you have any doubts as to whether your application can be supported with PRoC-EMB please contact procui@cypress.com.

Thus in the case of PRoC-CS (40 pin) you have 7 general purpose I/Os free for capacitive buttons in your design if you want to use the radio. The 7 I/Os can be used to support a maximum of 12 buttons using a matrix layout or it can be used to support a maximum of 14 segments on a capacitive slider using a diplexer. The 68 pin PRoC-CS part has 35 GPIOs (26 for capacitive sensing) and can be used for applications where there is a need for larger number of GPIOs.

The PRoC-TT part supports 35 general purpose I/Os that can be used for capacitive sensing. If you are using the radio, a maximum of 26 XY sensors are available for touch support.

In some cases your design may require more general purpose I/Os (GPIOs) than available on the PRoC-UI parts. An example of a design like this is a keyboard with a built-in trackpad.In such cases PRoC-UI supports connection of an external MCU over SPI. In the case of the keyboard with built in trackpad, the external MCU can handle mechanical buttons while the PRoC-UI can handle the trackpad and radio functionality.

We recommend the enCoRe Low Voltage series of MCUs for use with PRoC-UI. To find out more about our enCoRe low voltage MCUs please click here

PRoC-CS is enabled by SmartSense™ technology for auto tuning, which automatically optimizes CapSense® performance in a wide range of applications. The EMC version of SmartSense boasts of best in class noise immunity.

PRoC-TT, PRoC-USB, and PRoC-EMB are not intended for CapSense and thus do not support auto-tuning for capacitive sensors.

 PRoC-CS (CYRF89435-68LTXC) and PRoC-EMB (CYRF89135-40LTXC) will be supported in later releases of PSoC Designer.

Please contact procui@cypress.com to know more about this.

PRoC-CS (CYRF89435-68LTXC) and PRoC-EMB (CYRF89135-40LTXC) will be in production in the first quarter of 2013.

Please contact your local sales or procui@cypress.com for more details.

• Touch mouse - Unlike a typical mouse, this species of mice has a touch-sensitive surface on top, so instead of clicking with fingers, users can tap and swipe and perform other gestures as they would on a touch-screen. PRoC-TT can be used as a single chip solution for such designs. PRoC-TT enables touch mice to support Windows 8 specific gestures as well as normal one and two finger gestures.
  

  

• Wireless trackpad - Wireless trackpads have a touch sensitive surface to them to recognize gestures performed by users together with a wireless 2.4 GHz link to transmit the recognized gestures to a dongle on the PC side. The dongle forwards the gestures to the windows OS. PRoC-TT can be used as a single chip solution on the trackpad side for touch sensing and wireless communication. PRoC-TT enables wireless trackpads to support Windows 8 specific gestures as well as normal one and two finger gestures.
• Keyboard with built in trackpad - Wireless keyboards design with built-in trackpads enable users to perform gestures together with typing. Such designs enable ease of use for end users. Activities such as scrolling, zooming in and out, and switching between applications become easy to perform without having to switch to a mouse while typing on the keyboard. PRoC-TT together with an external MCU offers a two chip solution for such designs. Moreover with Windows 8 Metro UI coming out, PRoC-TT which supports Windows 8 gestures opens up more possibilities for such designs.
• Remote controller with trackpad - With Smart TVs or Connected TVs providing users with a range of functionality such as web browsing, on demand streaming and so on, remote controllers for TVs and Set Top Boxes (STBs) are also evolving. Remote controllers are incorporating trackpads for cursor movement and gesture support. PRoC-TT enables a single chip solution (both touch sensing and wireless communication) for such remotes.
• Remote controlled toys - Radio Controlled (R/C) models and R/C toys are controlled using a remote controller. Remote controllers with trackpads allow users to use touch i.e. finger movements to control R/C toys. PRoC-TT can be used as a single chip solution for touch sensing and wireless communication on such remote controllers.

Please note that this list is not exhaustive. If you have any doubts as to whether your application can be supported with PRoC-TT please contact us at procui@cypress.com

• Mouse with capacitive scroll and haptics – Capacitive sensing based sliders (to replace scroll wheels) and haptic feedback enable user friendly and sleek mouse design. PRoC-CS provides a single chip solution to support capacitive sensing, haptic feedback control and wireless communication on a single chip. Keyboard with multimedia keys – Wireless keyboards which have capacitive keys for multimedia control, LEDs for battery monitoring, and so on, can be supported with PRoC-CS. Depending on functionality required, single chip (PRoC-CS) and two chip (PRoC-CS + external enCoRe V MCU) solutions are available.
• Remote controllers with capacitive touch buttons – Remote controllers for TVs, Set Top Boxes and other consumer electronics, which use capacitive buttons look sleeker and more stylish than those with mechanical buttons. PRoC-CS provides a single chip solution for such devices, integrating capacitive sensing and wireless 2.4 GHz on a single chip.Remote controlled toys – Radio Controlled (R/C) models and R/C toys are controlled using a remote controller. Remote controllers which use capacitive buttons look sleeker and more stylish than those with mechanical buttons. PRoC-CS provides a single chip solution for such devices, integrating capacitive sensing and wireless 2.4 GHz on a single chip.

Please note that this list is not exhaustive. If you have any doubts as to whether your application can be supported with PRoC-CS please contact us at procui@cypress.com

Designers can create frequency-agile 2.4 GHz designs using procedures provided by standards bodies or by building their own protocol.

If you have any doubts as to whether your application can be supported with PRoC-USB please contact us at procui@cypress.com

• Combines three chips into one for wireless touch sensing solutions
• On board low power, radio - WirelessUSB-NL
• Reduces board space, BOM costs
• Low power consumption for battery operation
• Uses market leading CapSense® and TrueTouch® technology
• High performance sensing across a variety of overlay materials and thickness
• Library of one finger and two finger gestures on trackpads included
• Windows 8 compatible and supports Windows 8 touch gestures
• SmartSense™ Auto-Tuning technology
• Complete user interface solution including audio, visual, and haptics feedback
• Higher flash size

APIs available with the user module are for tuning and debugging purpose. We do not recommend you to use those APIs to develop your own gestures. For any further queries on customized gestures please mail us at procui@cypress.com

1. Single Finger Pan North
2. Single Finger Pan Northeast
3. Single Finger Pan Northwest
4. Single Finger Pan South
5. Single Finger Pan Southeast
6. Single Finger Pan Southwest
7. Single Finger Pan East
8. Single Finger Pan West
9. Single Finger Single Click
10. Single Finger Double Click
11. Single Finger Rotate Clockwise
12. Single Finger Rotate Counter Clockwise
13. Two Finger Pan North
14. Two Finger Pan Northeast
15. Two Finger Pan Northwest
16. Two Finger Pan South
17. Two Finger Pan Southeast
18. Two Finger Pan Southwest
19. Two Finger Pan East
20. Two Finger Pan West
21. Two Finger Tap
22. Pinch
23. Zoom Out
24. Drag
25. Slide From Right Edge (Windows 8)
26. Slide From Left Edge (Windows 8)
27. Slide From Top Edge (Windows 8)
28. Two Finger Inertial Scroll (Windows 8)

• Supports Serial Peripheral Interconnect (SPI) Master protocol
• Supports SPI clocking modes 0, 1, 2, and 3
• Selectable input sources for clock and MISO
• Selectable output routing for MOSI and SCLK
• Programmable interrupt on SPI-done condition
• SPI Slave devices can be independently selected

• 2.4 GHz radio transceiver
• Operates in the unlicensed Industrial, Scientific, and Medical (ISM) band (2.4 GHz-2.483 GHz)
• -90 dBm receive sensitivity
• Up to 0 dBm output power
• Range of up to 10 meters
• Data throughput up to 62.5 Kbs

The WirelessUSB LS Radio User Module is a firmware interface to the WirelessUSB LS Radio hardware. The radio does not use any PSoC digital or analog blocks. The WirelessUSB LS Radio API provides functions callable from both C and assembly to start the radio, send and receive data, change channels, change PN codes, and so on. 

• 12-bit programmable interval timer
• Source clock rates up to 24 MHz
• Automatic reload of period on terminal count

Functional Description

The 12-Bit Programmable Interval Timer User Module provides convenient access to the Programmable Interval Timer feature of the enCoRe II.

• USB device interface driver
• Support for interrupt and control transfer types
• Setup wizard for easy and accurate descriptor generation
• Runtime support for descriptor set selection
• Optional USB string descriptors
• Optional HID class support
• Optional PS/2 support for USB-PS/2 combination devices (Note: PS/2 is not supported on CYRF69xx3 devices)

Functional Description

The USB Device User Module provides a USB Chapter 9 compliant device framework. The user module provides a low level driver for the control endpoint that decodes and dispatches requests from the USB host. The user module supports the HID Class. USB descriptors can be configured with the USB Setup Wizard.

• 7/8-bit software serial transmitter
• Data framing consists of start, optional parity, and one or two stop bits
• RS-232 serial-data compatible format with optional parity
   

The TX8SW User Module is an 7- or 8-bit RS-232 data-format compliant serial transmitter. The data transmitted is framed with a leading start bit and a final one or two stop bits. Transmitter firmware is used to start and stop device and control transmission of complex structures like strings, HEX value representations, and so on.

• AutoTuning algorithms optimize the operational parameters at runtime based on the parasitic capacitance of each sensor.
• Scans 1 to 36 capacitive sensors.
• Capable of detecting 0.1 pF touch with parasitic sensor capacitance (Cp) up to 50 pF as long as layout guidelines of are followed.
• Sensing possible through up to a 15 mm glass overlay.
• High immunity to AC mains noise, other EMI, and power supply voltage changes.
• Supports capacitive sensors configured as independent buttons, proximity sensors and/or as dependent arrays to form sliders. Sliders and proximity sensors not fully supported in this beta version.
• Effective number of slider elements can double the number of dedicated IO pins using diplexing technique.
• Supports slider resolution greater than physical pitch through interpolation.
• Touchpads can be implemented as pairs of interwoven orthogonal sliders.
• Shield electrode provides for reliable operation with high parasitic capacitance and/or in the presence of water film.
• Guided sensor and pin assignments using the CSDAUTO Wizard.
• PC GUI application support for raw data monitoring in real-time.
   

The CSDAUTO (Autotuning CapSense® using a Sigma-Delta Modulator) User Module provides capacitance sensing using the switched capacitor technique with a sigma-delta modulator to convert the sensor capacitance into digital code.

Features and Overview

• 12-bit interval timer
• Input clock: enCoRe II TCAPCLK Clock
• Provides a 1 Millisecond interrupt with the TCAPCLK Divider = 6 (24 MHz/6 = 4 MHz)
• Source clock rates up to 24 MHz
• Designed to use with the USB User Module for USB Suspend handling

Functional Description

The MSTIMER User Module provides convenient access to the "1024 microsecond" feature of the enCoRe II.

Features and Overview

• PS/2 Device Interface
• Selectable command sets for mouse or keyboard applications
• Custom feature unlock mechanism
• Integrated with the USB SIE for combo USB-PS/2 applications

Functional Description

The PS/2 Device User Module supports a standard PS/2 keyboard or a standard PS/2 mouse. A PS/2 connector is a 6-pin mini-DIN connector. It can be used for connecting either a keyboard or a mouse with a compatible computer. You must choose to support either a keyboard or a mouse with the PS/2 Device User Module. Choose to support either the keyboard command set or the mouse command set when you select the user module. If you wish to change from one to the other after the user module is selected, right click on the user module icon and select User Module Selection Options. By convention, connectors that support keyboards are color coded purple, and ports that support mice are color coded green. With the addition of the USB Device User Module, you can create a single device that supports a USB and PS/2 combination device.

• 2.4 GHz Direct Sequence Spread Spectrum (DSSS) radio transceiver
• Operates in the unlicensed worldwide Industrial, Scientific, and Medical (ISM) band (2.400 GHz to 2.483 GHz)
• 21 mA operating current (Transmit at –5 dBm)
• Transmit power up to 4 dBm
• Receive sensitivity up to –97 dBm
• Sleep Current less than 1 μA
• DSSS data rates up to 250 kbps, GFSK data rate of 1 Mbps
• Low external component count
• Auto Transaction Sequencer (ATS) - no MCU intervention
• Framing, Length, CRC16, and Auto ACK
• Power Management Unit (PMU) for MCU/Sensor
• Fast Startup and Fast Channel Changes
• Separate 16-byte Transmit and Receive FIFOs
• AutoRate™ - dynamic data rate reception
• Receive Signal Strength Indication (RSSI)
• Serial Peripheral Interface (SPI) control while in sleep mode
• 4 MHz SPI microcontroller interface
• Battery Voltage Monitoring Circuitry
• Supports coin-cell operated applications
• Operating voltage from 1.8V to 3.6V
• Operating temperature from 0 to 70°C
• Space saving 40-pin QFN 6x6 mm package

Functional Description
 
The CYRF6936 WirelessUSB™ LP radio is a second generation member of the Cypress WirelessUSB Radio System-On-Chip (SoC)  family. The CYRF6936 is interoperable with the first generation CYWUSB69xx devices. The CYRF6936 IC adds a range of enhanced features, including increased operating voltage range, reduced supply current in all operating modes, higher data rate options, reduced crystal start up, synthesizer settling, and link turnaround times.

WirelessUSB LR(TM) Radio Module

Features

• The CYWM6935 LR(TM) 2.4-GHz DSSS Radio SoC Module includes radio (CYWUSB6935) , antenna, and all external components
• Complete Radio Module with Dual PCB Trace Antennas
• Operates in the unlicensed Industrial, Scientific, and Medical (ISM) band (2.4 GHz-2.483 GHz)
• -95-dBm receive sensitivity
• Up to 0-dBm output power
• Range of up to 50 meters or more
• Data throughput of up to 62.5 kbits/sec
• SPI microcontroller interface (up to 2 MHz data rate)
• Operating voltage from 2.7V to 3.6V
• For more, see Pdf

Functional Description

The CYWM6935 WirelessUSB LR(TM) Radio Module offers a complete radio module solution for integration into existing or new 2.4-GHz products.

The CYWM6935 is tested for functional operation and is FCC/ETSI(EU)/Industry pre-certified. The module is supplied with dual integrated PCB trace antennas. The CYWM6935 is available in a small PCBA design and can be mounted horizontally to the device PCB via a 12-pin header.

WirelessUSB LS(TM) Radio Module

Features

• The CYWM6934 LS(TM) 2.4-GHz DSSS Radio SoC Module includes radio (CYWUSB6934), antenna, and all external components
• Complete Radio Module with PCB Trace Antenna
• Operates in the unlicensed Industrial, Scientific, and Medical (ISM) band (2.4 GHz-2.483 GHz)
• -90-dBm receive sensitivity
• Up to 0-dBm output power
• Range of up to 10 meters or more
• Data throughput of up to 62.5 kbits/sec
• SPI microcontroller interface (up to 2 MHz data rate)
• Operating voltage from 2.7V to 3.6V
• For more, see pdf

Functional Description

The CYWM6934 WirelessUSB LS(TM) Radio Module offers a complete radio module solution for integration into existing or new 2.4-GHz products. The CYWM6934 is tested for functional operation and is FCC/ETSI(EU)/Industry pre-certified. The module is supplied with an integrated PCB trace antenna. The CYWM6934 is available in a small PCBA design and can be mounted horizontally to the device PCB via a 12-pin header.      More...

WirelessUSB™ LR 2.4 GHz DSSS Radio SoC

Features

• 2.4-GHz radio transceiver
• Operates in the unlicensed Industrial, Scientific, and Medical (ISM) band (2.4 GHz to 2.483 GHz)
• Receive sensitivity: –95 dBm
• Up to 0 dBm output power
• Range of up to 50 meters or more
• Data throughput of up to 62.5 kbits/sec
• Highly integrated low cost, minimal number of external components required
• Dual direct sequence spread spectrum (DSSS) reconfigurable baseband correlators
• SPI microcontroller interface (up to 2 MHz data rate)
• For more, see pdf

Functional Description

The CYWUSB6935 transceiver is a single-chip 2.4 GHz DSSS Gaussian Frequency Shift Keying (GFSK) baseband modem radio that connects directly to a microcontroller via a simple serial peripheral interface.

The CYWUSB6935 is offered in an industrial temperature range 48-pin QFN and a commercial temperature range 48-pin QFN.

Features

• 2.4-GHz radio transceiver
• Operates in the unlicensed Industrial, Scientific, and Medical (ISM) band (2.4 GHz to 2.483 GHz)
• Receive sensitivity: –90 dBm
• Up to 0 dBm output power
• Range of up to 10 meters or more
• Data throughput of up to 62.5 kbits/sec
• Highly integrated low cost, minimal number of external components required
• Dual direct sequence spread spectrum (DSSS reconfigurable baseband correlators
• SPI microcontroller interface (up to 2-MHz data rate)
• For more, see pdf

Functional Description

The CYWUSB6932/CYWUSB6934 Integrated Circuits (ICs) are highly integrated 2.4-GHz DSSS radio system-on-chip (SoC) ICs. From the serial peripheral interface (SPI) to the antenna, these ICs are single-chip 2.4-GHz DSSS Gaussian Frequency Shift Keying (GFSK) baseband modems that connect directly to a microcontroller via simple serial interface.

The CYWUSB6932 transmit-only IC and the CYWUSB6934 transceiver IC are available in a small footprint 48-pin QFN package.

Features

• enCoRe™ II low-voltage (enCoRe II LV) – enhanced component reduction
  • Internal crystalless oscillator with support for optional external clock or external crystal or resonator
  • Configurable I/O for real world interface without external components
• Enhanced 8-bit microcontroller
  • Harvard architecture
  • M8C CPU speed up to 12 MHz or sourced by an external crystal, resonator, or clock signal
• Internal memory
  • 256 bytes of random access memory (RAM)
  • 8 KB of flash including electrically erasable read only memory (EEROM) emulation
• FOr more, see pdf
   

Introduction

The enCoRe II LV family brings the features and benefits of the enCoRe II to non-USB applications. The enCoRe II family has an integrated oscillator that eliminates the external crystal or resonator, reducing overall cost. Other external components, such as wakeup circuitry, are also integrated into this chip.