CYPRESS CY7C65620_13

CY7C65620
CY7C65630
EZ-USB HX2LP™
Low Power USB 2.0 Hub Controller Family
EZ-USB HX2LP™ Low Power USB 2.0 Hub Controller Family
Features
■
USB 2.0 hub controller
■
Automotive and Industrial grade option (–40 °C to 85 °C)
■
Compliant with USB 2.0 specification
■
USB-IF certified: TID# 30000009
■
Windows Hardware Quality Lab (WHQL) Compliant
■
Up to four downstream ports supported
■
Supports bus powered and self powered modes
■
Single transaction translator (TT)
■
Bus power configurations
■
Fit, form, and function compatible with CY7C65640 and
CY7C65640A (TetraHub™)
■
Space saving 56-pin QFN
■
Single power supply requirement
❐ Internal regulator for reduced cost
■
Integrated upstream pull-up resistor
■
Integrated pull-down resistors for all downstream ports
■
Integrated upstream and downstream termination resistors
■
Integrated port status indicator control
■
24 MHz external crystal (integrated phase-locked loop (PLL))
■
In-system EEPROM programming
■
Configurable with external SPI EEPROM:
❐ Vendor ID, Product ID, Device ID (VID/PID/DID)
❐ Number of active ports
❐ Number of removable ports
❐ Maximum power setting for high-speed and full-speed
❐ Hub controller power setting
❐ Power-on timer
❐ Overcurrent detection mode
❐ Enabled and disabled overcurrent timer
❐ Overcurrent pin polarity
❐ Indicator pin polarity
❐ Compound device
❐ Enable full-speed only
❐ Disable port indicators
❐ Ganged power switching
❐ Self and bus powered compatibility
❐ Fully configurable string descriptors for multiple language
support
Block Diagram – CY7C65630
D+
D-
USB 2.0 PHY
24 MHz
Crystal
High-Speed
USB Control Logic
Serial
Interface
Engine
PLL
SPI_SCK
SPI_SD
SPI_CS
SPI Communication
Block
USB Upstream Port
Transaction Translator
Hub Repeater
TT RAM
Routing Logic
USB Downstream Port 1
USB 2.0
PHY
D+
D-
Port Power
Control
Port
Status
USB Downstream Port 2
USB 2.0
PHY
PWR#[1]
LED D+
OVR#[1]
Port Power
Control
D- PWR#[2]
Port
Status
OVR#[2]
LED
USB Downstream Port 4
USB Downstream Port 3
USB 2.0
PHY
D+
D-
Port Power
Control
Port
Status
USB 2.0
PHY
PWR#[3]
LED D+
OVR#[3]
D-
Port Power
Control
Port
Status
PWR#[4]
LED
OVR#[4]
Errata: For information on silicon errata, see “Errata” on page 27. Details include trigger conditions, devices affected, and proposed workaround.
Cypress Semiconductor Corporation
Document Number: 38-08037 Rev. *Z
•
198 Champion Court
•
San Jose, CA 95134-1709
•
408-943-2600
Revised June 19, 2013
CY7C65620
CY7C65630
Block Diagram – CY7C65620
D+
D-
USB 2.0 PHY
24 MHz
Crystal
High-Speed
USB Control Logic
Serial
Interface
Engine
PLL
SPI Communication
Block
USB Upstream Port
SPI_SCK
SPI_SD
SPI_CS
Transaction Translator (X1)
Hub Repeater
TT RAM
Routing Logic
USB Downstream Port 1
USB 2.0
PHY
D+
Port Power
Control
D- PWR#[1]
Document Number: 38-08037 Rev. *Z
Port
Status
OVR#[1]
LED
USB Downstream Port 2
USB 2.0
PHY
D+
D-
Port Power
Control
Port
Status
PWR#[2]
LED
OVR#[2]
Page 2 of 30
CY7C65620
CY7C65630
Contents
Introduction ....................................................................... 4
USB Serial Interface Engine ........................................ 4
Hub Repeater .............................................................. 4
Transaction Translator ................................................ 4
Applications ...................................................................... 4
Functional Overview ........................................................ 4
System Initialization ..................................................... 4
Enumeration ................................................................ 4
Downstream Ports ....................................................... 5
Upstream Port ............................................................. 5
Power Switching .......................................................... 5
Overcurrent Detection ................................................. 5
Port Indicators ............................................................. 5
Pin Configuration ............................................................. 7
Pin Definitions .................................................................. 8
Default Descriptors ........................................................ 10
Device Descriptor ...................................................... 10
Configuration Descriptor ............................................ 10
Interface Descriptor ................................................... 11
Endpoint Descriptor ................................................... 11
Device Qualifier Descriptor ........................................ 11
Hub Descriptor .......................................................... 12
Configuration Options ................................................... 13
0xD0 Load ................................................................. 13
0xD2 Load ................................................................. 13
0xD4 Load ................................................................. 14
Supported USB Requests .............................................. 17
Device Class Commands .......................................... 17
Hub Class Commands .............................................. 18
Document Number: 38-08037 Rev. *Z
Upstream USB Connection ............................................ 20
Downstream USB Connection ....................................... 20
LED Connection .............................................................. 20
System Block Diagram ................................................... 21
Absolute Maximum Ratings .......................................... 22
Operating Conditions ..................................................... 22
Electrical Characteristics ............................................... 22
DC Electrical Characteristics ..................................... 22
USB Transceiver ....................................................... 22
AC Electrical Characteristics ..................................... 23
Ordering Information ...................................................... 24
Ordering Code Definitions ......................................... 24
Package Diagram ............................................................ 25
Thermal Impedance for the Package ........................ 25
Acronyms ........................................................................ 26
Document Conventions ................................................. 26
Units of Measure ....................................................... 26
Numeric Naming ........................................................ 26
Errata ............................................................................... 27
Part Numbers Affected .............................................. 27
HX2LP Qualification Status ....................................... 27
HX2LP Errata Summary ............................................ 27
Document History Page ................................................. 28
Sales, Solutions, and Legal Information ...................... 30
Worldwide Sales and Design Support ....................... 30
Products .................................................................... 30
PSoC Solutions ......................................................... 30
Page 3 of 30
CY7C65620
CY7C65630
Introduction
EZ-USB HX2LP™ is Cypress’s next generation family of
high-performance, low-power USB 2.0 hub controllers. HX2LP is
an ultra low power single chip USB 2.0 hub controller with
integrated upstream and downstream transceivers, a USB serial
interface engine (SIE), USB hub control and repeater logic, and
TT logic. Cypress has also integrated many of the external
passive components, such as pull-up and pull-down resistors,
reducing the overall bill of materials required to implement a hub
design. The HX2LP portfolio consists of:
the route only includes the repeater and no TT, because the
device and the hub are operating at the same speed. When the
hub is operating at full-speed (the upstream port is connected to
a full-speed host controller), a high-speed peripheral does not
operate at its full capability. These devices only work at
full-speed. Full- and low-speed devices connected to this hub
operate at their normal speed.
Applications
Typical applications for the HX2LP device family are:
■
Standalone hubs
This device option is for ultra low-power applications that require
four downstream ports. All four ports share a single transaction
translator. The CY7C65630 is available in 56 QFN and is also
pin-for-pin compatible with the CY7C65640.
■
Motherboard hubs
■
Monitor hubs
■
Advanced port replicators
■
■
Docking stations
■
Split-PC designs
■
External personal storage drives
■
Keyboard hubs
■
CY7C65630: 4-port/single transaction translator
CY7C65620: 2-port/single transaction translator
This device option is for a 2-port bus powered application. Both
ports share a single transaction translator. The CY7C65620 is
available in a 56 QFN.
All device options are supported by Cypress’s world class
reference design kits, which include board schematics, bill of
materials, Gerber files, Orcad files, and thorough design
documentation.
USB Serial Interface Engine
The
serial
interface
engine
(SIE)
allows
the
CY7C65620/CY7C65630 to communicate with the USB host.
The SIE handles the following USB activities independently of
the Hub Control Block.
Functional Overview
The Cypress CY7C65620/CY7C65630 USB 2.0 Hubs are
high-performance, low system cost solutions for USB. The
CY7C65620/CY7C65630 USB 2.0 Hubs integrate 1.5 k
upstream pull-up resistors for full-speed operation and all
downstream 15 k pull-down resistors and series termination
resistors on all upstream and downstream D+ and D– pins. This
results in optimization of system costs by providing built-in
support for the USB 2.0 specification.
■
Bit stuffing and unstuffing
■
Checksum generation and checking
System Initialization
■
TOKEN type identification
■
Address checking.
On power-up, the CY7C65620/CY7C65630 reads an external
SPI EEPROM for configuration information. At the most basic
level, this EEPROM has the vendor ID (VID), product ID (PID),
and device ID (DID) for the customer’s application. For more
specialized applications, other configuration options can be
specified. See Configuration Options on page 13 for more
details.
Hub Repeater
The hub repeater manages the connectivity between upstream
and downstream facing ports that are operating at the same
speed. It supports full- or low-speed connectivity and high-speed
connectivity. According to the USB 2.0 specification, the HUB
Repeater provides the following functions:
■
Sets up and tears down connectivity on packet boundaries
■
Ensures orderly entry into and out of the suspend state,
including proper handling of remote wakeups.
Transaction Translator
The TT translates data from one speed to another. A TT takes
high speed split transactions and translates them to full- or
low-speed transactions when the hub is operating at high-speed
(the upstream port is connected to a high-speed host controller)
and has full- or low-speed devices attached. The operating
speed of a device attached on a downstream facing port
determines whether the routing logic connects a port to the TT
or hub repeater. If a full- or low-speed device is connected to the
hub operating at high-speed, the data transfer route includes the
TT. If a high-speed device is connected to this high-speed hub,
Document Number: 38-08037 Rev. *Z
After reading the EEPROM, if VBUSPOWER (connected to
upstream VBUS) is high, CY7C65620/CY7C65630 enables the
pull-up resistor on D+ to indicate its presence to the upstream
hub, after which a USB bus reset is expected. During this reset,
CY7C65620/CY7C65630 initiates a chirp to indicate that it is a
high-speed peripheral. In a USB 2.0 system, the upstream hub
responds with a chirp sequence, and CY7C65620/CY7C65630
is in a high-speed mode, with the upstream D+ pull-up resistor
turned off. In USB 1.x systems, no such chirp sequence from the
upstream hub is seen, and CY7C65620/CY7C65630 operates
as a normal 1.x hub (operating at full-speed).
Enumeration
After a USB bus reset, CY7C65620/CY7C65630 is in an
unaddressed, unconfigured state (configuration value set to ’0’).
During the enumeration process, the host sets the hub's address
and configuration. After the hub is configured, the full hub
functionality is available.
Page 4 of 30
CY7C65620
CY7C65630
Downstream Ports
The CY7C65620/CY7C65630 supports a maximum of four
downstream ports, each of which may be marked as usable or
removable in the extended configuration (0xD2 EEPROM load
or 0xD4 EEPROM load, see Configuration Options on page 13.
Downstream D+ and D– pull-down resistors are incorporated in
CY7C65620/CY7C65630 for each port. Before the hubs are
configured, the ports are driven SE0 (single ended zero, where
both D+ and D– are driven low) and are set to the unpowered
state. When the hub is configured, the ports are not driven and
the host may power the ports by sending a SetPortPower
command for each port. After a port is powered, any connect or
disconnect event is detected by the hub. Any change in the port
state is reported by the hubs back to the host through the status
change endpoint (endpoint 1). On receipt of SetPortReset
request for a port with a device connected, the hub does as
follows:
■
Performs a USB reset on the corresponding port
■
Puts the port in an enabled state
■
Enables the green port indicator for that port (if not previously
overridden by the host)
■
Enables babble detection after the port is enabled.
Babble consists of a non-idle condition on the port after EOF2. If
babble is detected on an enabled port, that port is disabled. A
ClearPortEnable request from the host also disables the
specified port.
Downstream ports can be individually suspended by the host
with the SetPortSuspend request. If the hub is not suspended, a
remote wakeup event on that port is reflected to the host through
a port change indication in the hub status change endpoint. If the
hub is suspended, a remote wakeup event on this port is
forwarded to the host. The host may resume the port by sending
a ClearPortSuspend command.
Upstream Port
The upstream port includes the transmitter and the receiver state
machine. The transmitter and receiver operate in high-speed
and full-speed depending on the current hub configuration.
The transmitter state machine monitors the upstream facing port
while the hub repeater has connectivity in the upstream direction.
This machine prevents babble and disconnect events on the
downstream facing ports of this hub from propagating and
causing the hub to be disabled or disconnected by the hub to
which it is attached.
Power Switching
The CY7C65620/CY7C65630 includes interface signals for
external port power switches. Both ganged and individual
(per-port) configurations are supported, with individual switching
being the default. Initially all ports are unpowered. After
enumerating, the host may power each port by sending a
SetPortPower request for that port. The power switching and
overcurrent detection of downstream ports is managed by
control pins connected to an external power switch device. PWR
Document Number: 38-08037 Rev. *Z
[n]# output pins of the CY7C65620/CY7C65630 series are
connected to the respective external power switch's port power
enable signals. Note that each port power output pin of the
external power switch must be bypassed with an electrolytic or
tantalum capacitor as required by the USB specification. These
capacitors supply the inrush currents, which occur during
downstream device hot-attach events. The polarity of this pin is
configured through the EEPROM; see Configuration Options on
page 13.
Overcurrent Detection
Overcurrent detection includes 8 ms of timed filtering by default.
This parameter is configured from the external EEPROM in a
range of 0 ms to 15 ms for both enabled ports and disabled ports
individually. Detection of overcurrent on downstream ports is
managed by control pins connected to an external power switch
device.
The OVR[n]# pins of the CY7C65620/CY7C65630 series are
connected to the respective external power switch’s port
overcurrent indication (output) signals. After detecting an
overcurrent condition, hub reports overcurrent condition to the
host and disables the PWR# output to the external power device.
The polarity of the OVR pins can be configured through the
EEPROM; see Configuration Options on page 13.
Port Indicators
The USB 2.0 port indicators are also supported directly by
CY7C65620/CY7C65630. According to the specification, each
downstream port of the hub optionally supports a status
indicator. The presence of indicators for downstream facing ports
is specified by bit 7 of the wHubCharacteristics field of the hub
class descriptor. The default CY7C65620/CY7C65630
descriptor specifies that port indicators are supported
(wHubCharacteristics, bit 7 is set). If port indicators are not
included in the hub, disable this bit through EEPROM settings.
Each port indicator pin is strategically located directly on the
opposite edge of the port with which it is associated. A port
indicator provides two colors: green and amber. This is usually
implemented as two separate LEDs, one amber and the other
green. A combination of hardware and software control is used
to inform the user of the current status of the port or the device
attached to the port and to guide the user through problem
resolution. Colors and blinking provide information to the user.
The significance of the color of the LED depends on the
operational
mode
of
CY7C65620/CY7C65630.
The
CY7C65620/CY7C65630 port indicators has two modes of
operation: automatic and manual.
On power up the CY7C65620/CY7C65630 defaults to automatic
mode, where the color of the Port Indicator (green, amber, off)
indicates the functional status of the CY7C65620/CY7C65630
port. In automatic mode, the CY7C65620/CY7C65630 turns on
the green LED whenever the port is enabled and the amber LED
when an overcurrent condition is detected. The color of the port
indicator is set by the port state machine. Blinking of the LEDs is
not supported in automatic mode. Table 1 identifies the mapping
of color to port state in automatic mode.
Page 5 of 30
CY7C65620
CY7C65630
Table 1. Automatic Port State to Port Indicator Color
Mapping
Downstream Facing Hub Port State
Color Definition
Port State
Off or Amber, if due to an
overcurrent condition
Powered Off
Off
Disconnected, Disabled, Not
Configured, Resetting, Testing
Green
Off
Enabled, Transmit, or
TransmitR
Suspended, Resuming,
SendEOR, Restart_E/S
The LED control lines can also be modulated with a square wave
for power conservation. The polarity of these pins is
programmable, see Configuration Options on page 13.
In manual mode, the indicators are under the control of the host,
which can turn on the LEDs, or leave them off. This is done by a
USB Hub class request. Blinking of the LEDs is supported in
manual mode. The port indicators enable the user to intervene
in any error detection. For example, when babble is detected
while plugging in a defective device, or when an overcurrent
condition occurs, the port indicators corresponding to the
downstream port blink green or only light the amber LED,
respectively.
Table 2 displays the color definition of the indicators when
CY7C65620/CY7C65630 is in manual mode.[1]
Table 2. Port Indicator Color Definitions in Manual Mode
Color Definition
Off
Port State
Not operational
Amber
Error condition
Green
Fully operational
Blinking Off / Green
Software attention
Blinking Off / Amber
Hardware attention
Blinking Green / Amber
Reserved
Note
1. Information presented in <ref_note>Table 1 and <ref_note>Table 2 is from USB 2.0 specification Tables 11-6 and 11-7, respectively.
Document Number: 38-08037 Rev. *Z
Page 6 of 30
CY7C65620
CY7C65630
Pin Configuration
DD–[4]/NC
DD+[4]/NC
VCC
SPI_SCK
50
49
48
47
46
45
GREEN#[4]/NC
SPI_SD
51
AMBER#[4]/NC
GND
52
SELFPWR
OVR#[4]/Rsvd
53
RESET
PWR#[4]/NC
54
GND
OVR#[3]/Rsvd
55
PWR#[3]/NC
56
VCC
GND
Figure 1. 56-pin Quad Flat Pack No Leads (8 mm × 8 mm) [2]
44
43
1
42 AMBER#[3]/NC
2
41 GREEN#[3]/NC
3
40
GND 4
GND
39 VCC
DD–[3]/NC
5
38 AMBER#[2]
DD+[3]/NC
6
37 GREEN#[2]
VCC
7
36 AMBER#[1]
GND
8
35 GREEN#[1]
DD–[2]
9
34 GND
DD+[2] 10
33 VCC
VCC 11
32 OVR#[2]
GND 12
31 PWR#[2]
DD–[1] 13
30 OVR#[1]
DD+[1] 14
20
21
22
23
24
25
VCC
GND
XIN
XOUT
VCC
GND
SPI_CS
26
27
28
GND
19
VCC
18
VBUSPOWER
17
D+
16
GND
VCC
15
D–
29 PWR#[1]
Note
2. NC and Rsvd are for CY7C65620 only.
Document Number: 38-08037 Rev. *Z
Page 7 of 30
CY7C65620
CY7C65630
Pin Definitions
Table 3. Pin Assignments [3]
Pin
CY7C65630
Name
CY7C65620
Name
3
7
11
15
19
23
27
33
39
55
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
VCC
Power
Power
Power
Power
Power
Power
Power
Power
Power
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
VCC. This signal provides power to the chip.
VCC. This signal provides power to the chip.
VCC. This signal provides power to the chip.
VCC. This signal provides power to the chip.
VCC. This signal provides power to the chip.
VCC. This signal provides power to the chip.
VCC. This signal provides power to the chip.
VCC. This signal provides power to the chip.
VCC. This signal provides power to the chip.
4
8
12
16
20
24
28
34
40
47
50
56
21
22
46
GND
GND
GND
GND
GND
GND
GND
GND
GND
GND
GND
GND
XIN
XOUT
RESET#
VCC
GND
GND
GND
GND
GND
GND
GND
GND
GND
GND
GND
GND
XIN
XOUT
RESET#
Power
Power
Power
Power
Power
Power
Power
Power
Power
Power
Power
Power
Power
Input
Output
Input
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
45
SELFPWR
SELFPWR
Input
N/A
VBUSPOWER VBUSPOWER Input
N/A
VCC. This signal provides power to the chip.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
GND. Connect to ground with as short a path as possible.
24 MHz crystal IN or external clock input.
24 MHz crystal OUT. (NC if external clock is used)
Active LOW reset. This pin resets the entire chip. It is normally tied to
VCC through a 100 K resistor, and to GND through a 0.1 µF capacitor.
No other special power-up procedure is required.
Self power. Indicator for bus or self powered. 0 is bus powered, 1 is self
powered.
VBUS. Connect to the VBUS pin of the upstream connector. This signal
indicates to the hub that it is in a connected state, and may enable the
D+ pull-up resistor to indicate a connection. (The hub does so after the
external EEPROM is read).
26
SPI Interface
25
SPI_CS
48
SPI_SCK
49
SPI_SD
Upstream Port
17
D–
18
D+
Type Default
Description
SPI_CS
SPI_SCK
SPI_SD
Output
Output
I/O/Z
O
O
Z
SPI chip select. Connect to CS pin of the EEPROM.
SPI clock. Connect to EEPROM SCK pin.
SPI dataline connect to GND with 15 kresistor and to the Data I/O pin
of the EEPROM.
D–
D+
I/O/Z
I/O/Z
Z
Z
Upstream D– Signal.
Upstream D+ Signal.
Note
3. Unused port DD+/DD– lines can be left floating. Leave the port power, amber, and green LED pins unconnected, and deassert the overcurrent pin. Do not leave the
overcurrent pin floating; it is an input. SPI data line should be connected to GND with 15 k resistor (Even if no EEPROM is used).
Document Number: 38-08037 Rev. *Z
Page 8 of 30
CY7C65620
CY7C65630
Table 3. Pin Assignments [3] (continued)
CY7C65630
Name
Downstream Port 1
Pin
CY7C65620
Name
Type Default
13
14
36
DD–[1]
DD+[1]
AMBER#[1]
DD–[1]
DD+[1]
AMBER#[1]
I/O/Z
I/O/Z
Output
Z
Z
1
35
GREEN#[1]
GREEN#[1]
Output
1
30
OVR#[1]
OVR#[1]
Input
1
29
PWR#[1]
PWR#[1]
O/Z
Z
DD–[2]
DD+[2]
AMBER#[2]
I/O/Z
I/O/Z
Output
Z
Z
1
Downstream Port 2
9
DD–[2]
10
DD+[2]
38
AMBER#[2]
37
GREEN#[2]
GREEN#[2]
Output
1
32
OVR#[2]
OVR#[2]
Input
1
31
PWR#[2]
PWR#[2]
O/Z
Z
NC
NC
NC
I/O/Z
I/O/Z
Output
Z
Z
1
Downstream Port 3
5
DD–[3]
6
DD+[3]
42
AMBER#[3]
41
GREEN#[3]
NC
Output
1
53
OVR#[3]
Reserved
Input
1
54
PWR#[3]
NC
O/Z
Z
NC
NC
NC
I/O/Z
I/O/Z
Output
Z
Z
1
Downstream Port 4
1
DD–[4]
2
DD+[4]
44
AMBER#[4]
43
GREEN#[4]
NC
Output
1
51
OVR#[4]
Reserved
Input
1
52
PWR#[4]
NC
O/Z
Z
Document Number: 38-08037 Rev. *Z
Description
Downstream D– Signal.
Downstream D+ Signal.
LED. Driver output for Amber LED. Port indicator support. Default is
active LOW. Polarity is controlled through EEPROM.
LED. Driver output for Green LED. Port indicator support. Default is
active LOW. Polarity is controlled through EEPROM.
Overcurrent condition detection input. Default is active LOW. Polarity is
controlled through EEPROM.
Power switch driver output. Default is active LOW. Polarity is controlled
through EEPROM.
Downstream D– Signal.
Downstream D+ Signal.
LED. Driver output for amber LED. Port indicator support. Default is
active LOW. Polarity is controlled through EEPROM.
LED. Driver output for green LED. Port indicator support. Default is
active LOW. Polarity is controlled through EEPROM.
Overcurrent condition detection input. Default is active LOW. Polarity is
controlled through EEPROM.
Power switch driver output. Default is active LOW. Polarity is controlled
through EEPROM.
Downstream D– Signal.
Downstream D+ Signal.
LED. Driver output for amber LED. Port indicator support. Default is
active LOW. Polarity is controlled through EEPROM.
LED. Driver output for Green LED. Port indicator support. Default is
active LOW. Polarity is controlled through EEPROM.
Overcurrent condition detection input. Default is active LOW. Polarity is
controlled through EEPROM.
Reserved. Pull to deasserted state with external resistor (CY7C65620
only)
Power switch driver output. Default is active LOW. Polarity is controlled
through EEPROM.
Downstream D– Signal.
Downstream D+ Signal.
LED. Driver output for amber LED. Port indicator support. Default is
active LOW. Polarity is controlled through EEPROM.
LED. Driver output for green LED. Port indicator support. Default is
active LOW. Polarity is controlled through EEPROM.
Overcurrent condition detection input. Default is active LOW. Polarity is
controlled through EEPROM.
Reserved. Pull to deasserted state with external resistor (CY7C65620
only)
Power switch driver output. Default is active LOW. Polarity is controlled
through EEPROM.
Page 9 of 30
CY7C65620
CY7C65630
Default Descriptors
This section presents the different descriptors that are available. The following tables list the functionality of each descriptor.
Device Descriptor
The standard device descriptor for CY7C65620/CY7C65630 is based on the information found in the SPI EEPROM. The information
in the EEPROM overrides the default descriptor values. If no EEPROM is used, the CY7C65620/CY7C65630 enumerates with the
default descriptor values as shown in the following table. If a blank EEPROM is connected, the hub enumerates as vendor defined
class instead of a hub class. This is for the purpose of programming the EEPROM with the Cypress driver.
Byte
Full Speed
High Speed
0
0x12
0x12
1
0x01
0x01
2,3
0x0110
0x0200
4
0x09
5
0x00
6
7
Field Name
bLength
Description
18 bytes
bDescriptorType
DEVICE_DESCRIPTOR
bcdUSB
USB specification 2.0 (1.1 if forced FS)
0x09
bDeviceClass
HUB
0x00
bDeviceSubClass
None
0x00
0x01
bDeviceProtocol
None
0x40
0x40
bMaxPacketSize0
64 bytes
8,9
0x04B4
0x04B4
wIdVendor
VID (overridden by what is defined in EEPROM)
10,11
0x6560
0x6560
wIdProduct
PID (overridden by what is defined in EEPROM)
12, 13
0x0915
0x0915
14
0x00
0x00
wbcdDevice
DID (overridden by what is defined in EEPROM)
iManufacturer
Overridden by EEPROM
15
0x00
0x00
iProduct
Overridden by EEPROM
16
0x00
0x00
iSerialNumber
Overridden by EEPROM
17
0x01
0x01
bNumConfigurations
One configuration supported
Configuration Descriptor
Byte
Full Speed
High Speed
0x09
Field Name
bLength
Description
0
0x09
1
0x02[4]/0x07[5]
2
0x0019
0x0019
wTotalLength
Length of all other descriptors
4
0x01
0x01
bNumInterfaces
1
5
0x01
0x01
bConfigurationValue
The configuration to use
6
0x00
0x00
iConfiguration
7
0xA0
0xE0
0xA0
0xE0
bmAttributes
8
0x28
0x57[4]
bMaxPower
0x02[4]/0x07[5] bDescriptorType
9 bytes
CONFIG_DESCRIPTOR
Value depends on pin 45 - SELFPWR signal
SELFPWR = 0 yields 0xA0 and =1 yields 0xE0
Notes
4. Configured speed descriptor.
5. Other speed descriptor.
Document Number: 38-08037 Rev. *Z
Page 10 of 30
CY7C65620
CY7C65630
Interface Descriptor
Byte
Full Speed
High Speed
0
0x09
0x09
Field Name
Description
bLength
9 bytes
INTERFACE_DESCRIPTOR
1
0x04
0x04
bDescriptorType
2
0x00
0x00
bInterfaceNumber
3
0x00
0x00
bAlternateSetting
4
0x01
0x01
bNumEndpoints
5
0x09
0x09
bInterfaceClass
6
0x00
0x00
bInterfaceSubClass
7
0x00
0x00
bInterfaceProtocol
8
0x00
0x00
iInterface
Endpoint Descriptor
Byte
Full-Speed
High-Speed
Field Name
Description
0
0x07
0x07
bLength
7 bytes
1
0x05
0x05
bDescriptorType
ENDPOINT_DESCRIPTOR
2
0x81
0x81
bEndpointAddress
IN Endpoint #1
3
0x03
0x03
bmAttributes
Interrupt
4, 5
0x0001
0x0001
6
0xFF
0x0C
wMaxPacketSize
Maximum packet size
bInterval
Polling rate
Device Qualifier Descriptor
Byte
Full-Speed
High-Speed
Field Name
0
0x0A
0x0A
bLength
10 bytes
1
0x06
0x06
bDescriptorType
DEVICE_QUALIFIER
2, 3
0x0200
0x0200
4
0x09
0x09
5
0x00
0x00
bDeviceSubClass
6
0x01
0x00
bDeviceProtocol
bcdUSB
bDeviceClass
7
0x40
0x40
bMaxPacketSize0
8
0x01
0x01
bNumConfigurations
9
0x00
0x00
bReserved
Document Number: 38-08037 Rev. *Z
Description
Page 11 of 30
CY7C65620
CY7C65630
Hub Descriptor
Byte
All Speed
Field Name
Description
0
0x09
bLength
9 bytes
1
0x29
bDescriptorType
HUB descriptor
2
0x04[6]
0x02
bNbrPorts
Number of ports supported, CY7C65630
Number of ports supported, CY7C65620
3,4
0x0089[6]
wHubCharacteristics
b1, b0: Logical power switching mode
00: Ganged power switching (all ports’ power at once).
01: Individual port power switching (Default in CY7C65620/CY7C65630).
b2: Identifies a compound device
0: Hub is not part of a compound device (Default in CY7C65620/CY7C65630).
1: Hub is part of a compound device.
b4, b3: Overcurrent protection mode
00: Global overcurrent protection. The hub reports overcurrent as a
summation of all ports’ current draw, without a breakdown of individual port
overcurrent status.
01: Individual port overcurrent protection. The hub reports overcurrent on a
per-port basis. Each port has an overcurrent status (Default in
CY7C65620/CY7C65630).
1X: No overcurrent protection. This option is allowed only for bus powered
hubs that do not implement overcurrent protection.
b6, b5: TT think time
00: TT requires at most eight FS bit times of inter transaction gap on a full/lowspeed downstream bus (Default in CY7C65620/CY7C65630).
b7: Port indicators supported,
0: Port indicators are not supported on its downstream facing ports and the
SetPortIndicator request has no effect.
1: Port indicators are supported on its downstream facing ports and the
SetPortIndicator request controls the indicators. See “Functional Overview”
on page 4 and “Supported USB Requests” on page 17. (Default in
CY7C65620/CY7C65630).
b15, b8: Reserved
5
0x32[6]
bPwrOn2PwrGood
Time from when the port is powered to when the power is good on that port.
6
0x28[6]
0xAE[6]
bHubContrCurrent
Maximum current requirement for the hub controller at full-speed.
Maximum current requirement for the hub controller at high-speed.
7
0x00[6]
bDeviceRemovable
Indicates if the logical port has a removable device attached (0 = removable,
1 = non removable).
8
0xFF[6]
bPortPwrCtrlMask
Required for compatibility with software written for 1.0 compliant devices.
Note
6. This value is configured through the external EEPROM.
Document Number: 38-08037 Rev. *Z
Page 12 of 30
CY7C65620
CY7C65630
Configuration Options
Systems using CY7C65620/CY7C65630 have the option of
using a fuse ROM, which is preset at the factory to configure the
hub. Otherwise, it must have an external EEPROM for the device
to
have
a
unique
VID,
PID,
and
DID.
The
CY7C65620/CY7C65630 can communicate with SPI EEPROM
that are either double byte addressed or single byte with the ninth
bit within the instruction byte, such as the 24LC040 parts use.
The 25LC080 EEPROM uses the double byte address format.
Therefore, the CY7C65620/CY7C65630 can communicate with
these parts. The '010s and '020s use the same command format
that is used to interface with the ‘040 and hence these can also
be used to interface with the CY7C65620/CY7C65630.
If the attached EEPROM is blank (0xFF) the hub enumerates as
a vendor class device. In this configuration, the hub connects to
the Cypress driver to allow programming of the EEPROM. When
the EEPROM is programmed, a power cycle configures the chip
as a hub class device.
With this EEPROM format, only a unique VID, PID, and DID must
be present in the external SPI EEPROM. The contents of the
EEPROM must contain this information in the following format:
Byte
Value
0xD0
1
VID (LSB)
2
VID (MSB)
3
PID (LSB)
4
PID (MSB)
5
reserved
6
DID (MSB)
Least significant byte of vendor ID
Byte 2: VID (MSB)
Most significant byte of vendor ID
Byte 3: PID (LSB)
Least significant byte of product ID
Byte 4: PID (MSB)]
Most significant byte of product ID
Byte 5: Reserved
Reserved
Byte 6: DID (MSB)]
Most significant byte of device ID
Count time in ms for filtering overcurrent detection. Bits 7–4
are for an enabled port, and bits 3–0 are for a disabled port.
Both range from 0 ms to 15 ms. See Port Indicators on page
5. Default: 8 ms = 0x88.
Byte 8: ActivePorts[3:0], RemovablePorts[3:0]
Bits 7–4 are the ActivePorts[3:0] bits that indicates if the
corresponding port is usable. For example, a two-port hub
that uses ports 1 and 4 would set this field to 0x09. The total
number of ports reported in the Hub Descriptor: bNbrPorts
field is calculated from this. Bits 3–0 are the
RemovablePorts[3:0] bits that indicates whether the
corresponding logical port is removable (set to high). Logical
port numbers are from 1 to n where n is the total number of
active ports. If port 2 is disabled then physical ports 1, 3, and
4 map to logical ports 1, 2, and 3. These bit values are
reported
appropriately
in
the
HubDescriptor:DeviceRemovable field. Default: 0xFF.
0xD2 Load
Byte
Needs to be programmed with 0xD2
Byte 1: VID (LSB)
Byte 7: EnabledOvercurrentTimer[3:0],
DisabledOvercurrentTimer[3:0]
0xD0 Load
0
Byte 0: 0xD2
Value (MSBLSB)
0
0xD2
1
VID (LSB)
2
VID (MSB)
3
PID (LSB)
4
PID (MSB)
5
reserved
6
DID (MSB)
7
EnabledOverCurrentTimer[3:0],
DisableOvercurrentTimer[3:0]
8
ActivePorts[3:0], RemovablePorts[3:0]
9
MaxPower
10
HubControllerPower
11
PowerOnTimer
12
IllegalHubDescriptor, CompoundDevice,
FullspeedOnly, NoPortIndicators, Reserved,
GangPowered, Reserved, Reserved
Document Number: 38-08037 Rev. *Z
Byte 9: MaximumPower
This value is reported in the
ConfigurationDescriptor:bMaxPower field and is the current
in 2 mA increments that is required from the upstream hub.
Default: 0x28 = 80 mA for full-speed and 0x57 = 174 mA for
high-speed.
Byte 10: HubControllerPower
This value is reported in the
HubDescriptor:bHubContrCurrent field and is the current in
milliamperes required by the hub controller.
Default: 0x50 = 80 mA for full-speed and 0xAE = 174 mA for
high-speed.
Byte 11: PowerOnTimer
This value is reported in the
HubDescriptor:bPwrOn2PwrGood field and is the time in
2 ms intervals from the SetPortPower command until the
power on the corresponding downstream port is good.
Default: 0x32 = 100 ms.
Page 13 of 30
CY7C65620
CY7C65630
Byte 12: IllegalHubDescriptor, CompoundDevice, Full
Speed Only, NoPortIndicators, Reserved, GangPowered,
Reserved, Reserved
Bit 7: IllegalHubDescriptor. For GetHubDescriptor request,
some USB hosts use a DescriptorTypeof 0x00 instead of
HUB_DESCRIPTOR, 0x29. According to the USB 2.0
standard, a hub must treat this as a Request Error, and STALL
the transaction accordingly (USB 2.0, 11.24.2.5). For systems
that do not accept this, the IllegalHubDescriptor configuration
bit can be set to allow CY7C65620/CY7C65630 to accept a
DescriptorType of 0x00 for this command. Default is 1.
Bit 6: CompoundDevice. Indicates whether the hub is part of
a compound device. This is reported in the HubDescriptor,
wHub-Characteristics: b2. Default set to ‘0’.
Bit 5: Fullspeed. Only configures the hub to be a full-speed
only device. Default is set to ‘0’.
Bit 4: NoPortIndicators. Turns off the port indicators and does
not report them as present in the HubDescriptor,
wHubCharacteristics b7 field. Default is set to ‘0’.
Bit 3: Reserved. Set this bit to ‘0’.
Bit 2: GangPowered. Indicates whether the port power
switching is ganged (set to 1) or per-port (set to ‘0’). This is
reported in the HubDescriptor, wHubCharacteristics field, b4,
b3, b1, and b0. Default is set to ‘0’.
Bit 1: Reserved. Default is set to ‘0’.
Bit 0: Reserved. Default is set to ‘0’.
0xD4 Load
Byte
0
1
2
3
4
5
6
7
8
9
10
11
12
13
14
Value (MSB LSB)
0xD4
VID (LSB)
VID (MSB)
PID (LSB)
PID (MSB)
reserved
DID (MSB)
EnabledOverCurrentTimer[3:0],
DisableOvercurrentTimer[3:0]
MaxPower (full-speed)
MaxPower (high-speed)
Reserved
Reserved
HubControllerPower full-speed bus
powered
HubControllerPower high-speed bus
powered
HubControllerPower full-speed self
powered
Document Number: 38-08037 Rev. *Z
Factory
Fusable
X
X
X
X
0xD4 Load (continued)
Byte
Value (MSB LSB)
HubControllerPower high-speed self
powered
16
PowerOnTimer
17
IllegalHubDescriptor,
CompoundDevice, FullspeedOnly,
NoPortIndicators, Reserved,
GangPowered, Reserved, Reserved
18
AmberPolarity, GreenPolarity,
ModulateIndicators,
PowerControlPolarity,
OverCurrentPolarity,
OverCurrentMode1,
OverCurrentMode2
19
Write protect
20
NumLangs
21
SupportedStrings
22
ActivePorts[3:0]
23
RemovablePorts[3:0]
24
LangID
a=24+2N iManufacturer
b=a+2N iProduct
c=b+2N iSerialNumber
d=c+2N iConfiguration(FS)
e=d+2N iConfiguration(HS)
f=e+2N iInterface(0)
g=f+2N reserved
h=g+2N Strings
N:NumLangs
Factory
Fusable
15
X
X
X
Byte 0: 0xD4
Needs to be programmed with 0xD4
Byte 1: VID (LSB)
X
Least significant byte of vendor ID
Byte 2: VID (MSB)
X
X
Most significant byte of vendor ID
Byte 3: PID (LSB)
Least significant byte of product ID
Byte 4: PID (MSB)
X
Most significant byte of product ID
Byte 5: Reserved
X
Reserved
Byte 6: DID (MSB)
Most significant byte of device ID
Page 14 of 30
CY7C65620
CY7C65630
Byte 7: EnabledOvercurrentTimer[3:0],
DisabledOvercurrentTimer[3:0]
Count time in ms for filtering overcurrent detection. Bits 7–4
are for an enabled port, and bits 3–0 are for a disabled port.
Both range from 0 ms to 15 ms. See Port Indicators on page
5. Default: 8 ms = 0x88.
Byte 8: MaximumPower (Full-speed)
This value is reported in the
ConfigurationDescriptor:bMaxPower field and is the current
in 2 mA increments that is required from the upstream hub
when connected at full-speed. Default: 0x28 = 80 mA for
full-speed.
Byte 9: MaximumPower (High-speed)
This value is reported in the
ConfigurationDescriptor:bMaxPower field and is the current
in 2 mA increments that is required from the upstream hub
when connected at high-speed. Default: 0x57 = 174 mA for
high-speed.
Byte 10: Reserved
Write zeros to this location.
Byte 11: Reserved
Write zeros to this location.
Byte 12: HubControllerPower (Full-speed, bus-powered)
This value is reported in the
HubDescriptor:bHubContrCurrent field and is the current in
milliamperes required by the hub controller when connected
on the upstream hub as a full-speed. Default: 0x50 = 80 mA
for full-speed.
Byte 13: HubControllerPower (High-speed, bus-powered)
This value is reported in the
HubDescriptor:bHubContrCurrent field and is the current in
milliamperes required by the hub controller when connected
on the upstream hub as a high-speed.
Default: 0xAE = 174 mA for high-speed.
Byte 14: HubControllerPower (Full-speed, self-powered)
This value is reported in the
HubDescriptor:bHubContrCurrent field and is the current in
milliamperes required by the hub controller when connected
on the upstream hub as a full-speed. Default: 0x50 = 80 mA
for full-speed.
Byte 15: HubControllerPower (High-speed, self-powered)
This value is reported in the
HubDescriptor:bHubContrCurrent field and is the current in
milliamperes required by the hub controller when connected
on the upstream hub as a high-speed. Default: 0x64 = 100 mA
for high-speed.
Byte 16: PowerOnTimer
This value is reported in the
HubDescriptor:bPwrOn2PwrGood field and is the time in
2 ms increments from the SetPortPower command until the
power on the corresponding downstream port is good.
Default: 0x32 = 100 ms.
Document Number: 38-08037 Rev. *Z
Byte 17: IllegalHubDescriptor, CompoundDevice,
Full-Speed Only, NoPortIndicators, Reserved,
GangPowered, Reserved, Reserved
Bit 7: IllegalHubDescriptor. For GetHubDescriptor request,
some USB hosts use a DescriptorTypeof 0x00 instead of
HUB_DESCRIPTOR, 0x29. According to the USB 2.0
standard, a hub must treat this as a request error, and STALL
the transaction accordingly (USB 2.0, 11.24.2.5). For systems
that do not accept this, the IllegalHubDescriptor configuration
bit may be set to allow CY7C65620/CY7C65630 to accept a
DescriptorType of 0x00 for this command. Default set to 1.
Bit 6: CompoundDevice. Indicates whether the hub is part of
a compound device. This is reported in the HubDescriptor,
wHub-Characteristics: b2. Default is set to ‘0’.
Bit 5: Fullspeed. Only configures the hub to be a full speed
only device. Default is set to ‘0’.
Bit 4: NoPortIndicators. Turns off the port indicators and does
not report them as present in the HubDescriptor,
wHubCharacteristics b7 field. Default is set to ‘0’.
Bit 3: Reserved. Set this bit to ‘0’.
Bit 2: GangPowered. Indicates whether the port power
switching is ganged (set to 1) or per-port (set to ‘0’). This is
reported in the HubDescriptor, wHubCharacteristics field, b4,
b3, b1, and b0. Default is set to ‘0’.
Bit 1: Reserved. Default is set to ‘0’.
Bit 0: Reserved. Default is set to ‘0’.
Byte 18: AmberPolarity, GreenPolarity, SelfPowerable,
ModulateIndicators, PowerControlPolarity,
OverCurrentPolarity, OverCurrentMode1,
OverCurrentMode2
Bit 7: AmberPolarity. Indicates the polarity of the amber
indicator control. (1 = high, 0 = low)
Bit 6: GreenPolarity. Indicates the polarity of the green
indicator control. (1 = high, 0 = low)
Bit 5: SelfPowerable. Indicates whether the hub is capable of
operating in self powered mode. If ‘0’, the hub is capable of
bus powered operation only.
Bit 4: ModulateIndicators. If this bit is set, the indicator outputs
are modulated by a square wave of 120 Hz, for power
savings. If ‘0’, the outputs are static.
Bit 3: PowerControlPolarity. If set, the power control outputs
are active HIGH. If not set, the power control outputs are
active LOW.
Bit 2: OverCurrentPolarity. If set, the overcurrent inputs are
active HIGH. If not set, the overcurrent inputs are active LOW.
Bit 1: OverCurrentMode1. Reported as bit 4 of the
wHubCharacteristics field of the hub descriptor. If set to ‘1’,
this bit disables overcurrent detection.
Bit 0: OverCurrentMode2. Reported as bit 3 of the
wHubCharacteristics field of the hub descriptor. If Bit 1 of this
byte is set to ‘0’, overcurrent detection is enabled. If this bit
(Bit 0) is set to ‘1’, the hub reports overcurrent on a per-port
basis. If set to ‘0’, the hub reports overcurrent as the
summation of all ports’ current draw.
Page 15 of 30
CY7C65620
CY7C65630
Byte 19: Write Protect
Writing the value 0x42 to this field enables Write Protect and
any future writes to the EEPROM fail. Default is set to ‘0’.
Byte 20: NumLangs
Number
of
supported
string
languages.
CY7C65620/CY7C65630 supports a maximum of 31
languages; if this field is set to ‘0’ or a number larger than 31,
all string support is disabled.
Byte 21: SupportedStrings
This field contains a bitmap of strings supported by the hub.
A set bit indicates that the standard string is supported. A bit
not set indicates that the string is not supported. The hub
controller returns a non zero index for each string that is
supported, and returns 0x00 for each string not supported, as
indicated by this field. The bits in this field correspond to the
following standard strings.
Table 4. Byte 21 Supported Strings
Bit
Name
Description
7
Reserved
6
Reserved
5
Interface (0)
The iInterface string index
reported in the first interface
descriptor (alternate setting 0)
4
iConfiguration
(high speed) The iConfiguration
string index reported in the
configuration descriptor, when
operating at high speed
3
iConfiguration
high). Logical port numbers are from 1 to n where n is the total
number of active ports. If port 2 is disabled then physical ports
1, 3, and 4 map to logical ports 1, 2, and 3. These bit values
are recorded in the HubDescriptor:DeviceRemovable field.
Default 0x0F.
Byte 24: LangID
Array of LangID codes supported by the hub. Each LangID
consists of two bytes, stored LSB first. The array has
NumLangs entries (2 × NumLangs bytes).
Byte a: iManufacturer
Array of addresses for the iManufacturer strings. Each
address is two bytes long, stored LSB first. The array has
NumLangs entries (2 × NumLangs bytes). The starting
EEPROM address is based upon the number entered for
NumLangs. The address a = 24 + 2 × NumLangs.
Byte b: iProduct
Array of addresses for the iProduct strings. Each address is
two bytes long, stored LSB first. The array has NumLangs
entries (2 × NumLangs bytes).
The address b = a + 2 × NumLangs.
Byte c: iSerialNumber
(full speed) The iConfiguration
string index reported in the
configuration descriptor, when
operating at full speed
2
iSerial Number
The iSerialNumber string index
reported in the device descriptor
1
iProduct
The iProduct string index
reported in the device descriptor
0
iManufacturer
The iManufacturer string index
reported in the device descriptor
Byte 22: ActivePorts[3:0]
Bits 3–0 are the ActivePorts[3:0] bits that indicates if the
corresponding port is usable. For example, a two-port hub
that uses ports 1 and 4 sets this field to 0x09. The total
number of ports reported in the Hub Descriptor: bNbrPorts
field is calculated from this. Default 0x0F.
Byte 23: RemovablePorts[3:0]
Bits 3–0 are the RemovablePorts[3:0] bits that indicates
whether the corresponding logical port is removable (set to
Document Number: 38-08037 Rev. *Z
Array of addresses for the iSerialNumber strings. Each
address is two bytes long, stored LSB first. The array has
NumLangs entries (2 × NumLangs bytes).
The address c = b + 2 × NumLangs.
Byte d: iConfiguration(Full Speed)
Array of addresses for the iConfiguration (full speed) strings.
Each address is two bytes long, stored LSB first. The array
has NumLangs entries (2 × NumLangs bytes).
The address d = c + 2 × NumLangs.
Byte e: iConfiguration(High Speed)
Array of addresses for the iConfiguration (high speed) strings.
Each address is two bytes long, stored LSB first. The array
has NumLangs entries (2 × NumLangs bytes).
The address e = d + 2 × NumLangs.
Byte f: iInterface(0)
Array of addresses for the iInterface(0) strings. Each address
is two bytes long, stored LSB first. The array has NumLangs
entries (2 × NumLangs bytes).
The address f = e + 2 × NumLangs.
Byte g: iInterface(1)
Reserved
Byte h: Strings
Strings addressed by the string pointers. Strings must comply
with the USB specification. The first byte must be the length
of the string in bytes, the second must be 0x03, and the string
must be in Unicode.
Page 16 of 30
CY7C65620
CY7C65630
Supported USB Requests
Device Class Commands
Table 5. Device Class Requests
bmRequestType
bRequest
GetDeviceStatus
Request
10000000B
0x00
0x0000
wValue
0x0000
wIndex
0x0002
wLength
2 Byte device status
Data
GetInterfaceStatus
10000001B
0x00
0x0000
0x0000
0x0002
2 Byte interface
status
GetEndpointStatus
10000010B
0x00
0x0000
0x0000
0x0002
2 Byte endpoint
status
GetDeviceDescriptor
10000000B
0x06
0x0001
Zero or
language ID
Descriptor Descriptor
length
GetConfigDescriptor
10000000B
0x06
0x0002
Zero or
language ID
Descriptor Descriptor
length
GetDeviceQualifierDescripto
r
10000000B
0x06
0x0006
Zero or
language ID
Descriptor Descriptor
length
GetOtherSpeedConfiguratio
nDescriptor
10000000B
0x06
0x0007
Zero or
language ID
Descriptor Descriptor
length
GetConfiguration[7]
10000000B
0x08
0x0000
0x0000
0x0001
Configuration value
SetCongfiguration[7]
00000000B
0x09
Configuration
value
0x0000
0x0000
None
GetInterface
10000001B
0xA
0x0000
0x0000
0x0001
Interface number
SetInterface
00000001B
0x0B
Alternate setting Interface
number
0x0000
None
SetAddress
00000000B
0x05
Device address 0x0000
0x0000
None
SetDeviceRemoteWakeup
00000000B
0x03
0x01
0x0000
0x0000
None
SetDeviceTest_J
00000000B
0x03
0x02
0x0100
0x0000
None
SetDeviceTest_K
00000000B
0x03
0x02
0x0200
0x0000
None
SetDeviceTest_SE0_NAK
00000000B
0x03
0x02
0x0300
0x0000
None
SetDeviceTest_Packet
00000000B
0x03
0x02
0x0400
0x0000
None
SetEndpointHalt
00000000B
0x03
0x00
0x0000
0x0000
None
ClearDeviceRemoteWakeup
00000000B
0x01
0x01
0x0000
0x0000
None
ClearEndpointHalt
00000000B
0x01
0x00
0x0000
0x0000
None
Note
7. Only one configuration is supported in CY7C65620/CY7C65630.
Document Number: 38-08037 Rev. *Z
Page 17 of 30
CY7C65620
CY7C65630
Hub Class Commands
Table 6. Hub Class Requests
Request
bmRequestType bRequest
wValue
wIndex
wLength
Data
GetHubStatus
10100000B
0x00
0x0000
0x0000
0x0004
Hub status (See Table 11-19
of USB 2.0 Specifications)
Change status (See Table
11-20
of
USB
2.0
specifications)
GetPortStatus
10100011B
0x00
0x0000
Byte 0: 0x00 0x0004
Byte 1: Port
Port status (See Table 11-21
of USB 2.0 Specifications)
Change status (See Table
11-20
of
USB
2.0
specifications)
ClearHubFeature
00100000B
0x01
Feature selectors[8]
0 or 1
0x0000
0x0000
None
ClearPortFeature
00100011B
0x01
Feature selectors[8] Byte 0: 0x00 0x0000
1, 2, 8, 16, 17, 18, 19, Byte 1: Port
or 20
None
ClearPortFeature
00100011B
0x01
Feature selectors[8] Byte 0: 22
Byte 1: Port
(PORT_INDICATOR)
0x0000
None
SetHubFeature
00100000B
0x03
Feature selector[8]
0 or 1
0x0000
0x0000
SetPortFeature
00100011B
0x03
Feature selectors[8]
2, 4 or 8
Port
0x0000
None
SetPortFeature
00100011B
0x03
Feature selector[8]
21
(PORT_TEST)
0x0000
Byte 0:
selectors[8]
1,2, 3, 4 or 5
Byte 1: Port
None
SetPortFeature
00100011B
0x03
Feature selector[8]
Byte 0:
0x0000
22
selectors[9] 0,
(PORT_INDICATOR) 1, 2, or 3 Byte
1: Port
None
GetHubDescriptor
10100000B
0x06
Descriptor type and
descriptor index
ClearTTBuffer
00100011B
0x08
Dev_Addr, EP_Num TT_Port
0x0000
None
ResetTT
00100000B
0x09
0x0000
Byte 0: 0x00 0x0000
Byte 1: Port
None
GetTTState
10100011B
0X0A
TT_Flags
Byte 0: 0x00 TT state
Byte 1: Port length
TT state
StopTT
00100011B
0x0B
0x0000
Byte 0: 0x00 0x0000
Byte 1: Port
None
Hub
descriptor
length
Notes
8. Selector values for different features are presented in Table 7 on page 19.
9. Selector values for different features are presented in Table 9 on page 19.
Document Number: 38-08037 Rev. *Z
Page 18 of 30
CY7C65620
CY7C65630
Table 6. Hub Class Requests (continued)
Request
bmRequestType bRequest
wValue
wIndex
wLength
Data
Vendor Commands
Read EEPROM
11000000B
0x02
0x00
0x00
Length
Data
This request results in reading length bytes of data from the external memory device and returned to the host. Data is read
beginning with address 0. This request fails if there is no external memory device present. This request is only valid if the hub is
in the configured state; the request fails otherwise.
Write EEPROM
01000000B
0x01
0x00
0x00
Length
Data
This request results in writing length bytes of data to the external memory device. Data is written beginning with address 0. This
request fails if there is no external memory device present. This request is only valid if the hub is in the configured state or if the
external memory device write protect byte is set; the request fails otherwise.
Table 7. Hub Class Feature Selector
Recipient
Value
C_HUB_LOCAL_POWER
Feature Selector
Hub
0
Table 8. Test Mode Selector for Feature Selector
PORT_TEST (21)[10]
C_HUB_OVER_CURRENT
Hub
1
PORT_CONNECTION
Port
0
Test_J
1
2
PORT_TEST Mode Description
Selector Value
PORT_ENABLE
Port
1
Test_K
PORT_SUSPEND
Port
2
Test_SE0_NAK
3
4
5
PORT_RESET
Port
4
Test_Packet
PORT_POWER
Port
8
Test_Force_Enable
PORT_LOW_SPEED
Port
9
C_PORT_CONNECTION
Port
16
C_PORT_ENABLE
Port
17
C_PORT_SUSPEND
Port
18
C_PORT_OVER_CURRENT
Port
19
C_PORT_RESET
Port
20
PORT_TEST
Port
21
PORT_INDICATOR
Port
22
Table 9. Port Indicator Selector for Feature Selector PORT_INDICATOR (22)
Port Indicator Color
Selector Value
Port Indicator Mode
Color set automatically as shown in Table 1 on page 6
0
Automatic mode
Amber
1
Manual mode
Green
2
Manual mode
Off
3
Manual mode
Note
10. Selector values for different features are presented in Table 8.
Document Number: 38-08037 Rev. *Z
Page 19 of 30
CY7C65620
CY7C65630
Upstream USB Connection
The following is a schematic of the USB upstream connector.
Figure 2. USB Upstream Port Connection
BUSPOWER
VCC
2.2 F
10V
D–
D–
D+
D+
100 k
GND
SHELL
Downstream USB Connection
The following is a schematic of the USB downstream connector.
Figure 3. USB Downstream Port Connection
VCC
PWRx
150 µF
10V
0.01 µF DD–[X]
D–
DD+[X]
D+
GND
SHELL
LED Connection
The following is a schematic of the LED circuitry.
Figure 4. USB Downstream Port Connection
3.3V
GREEN#[x]
AMBER#[x]
Document Number: 38-08037 Rev. *Z
680
680
Page 20 of 30
CY7C65620
CY7C65630
System Block Diagram
Figure 5. Sample Schematic for 4-port Self Powered Configuration
5V
VBUSPOWER
VBUS
VCC
D– 2.2 F
D–
OVR1
10V
D+
D+
DsPWR1
PWR1
15 k
150 k
DsPWR4
Power
PWR2 Management
OVR2
PWR3
GND
OVR3
PWR4
OVR4
SHELL
DsPWR3
150 F
10V
DD–[1]
DD+[1]
0.01F
VCC
D–
D+
GND
SHELL
DsPWR2
DsPWR1
3.3V
GREEN#[1]
AMBER#[1]
680
680
SPI_SD
DO
SPI_SCK
SPI_CS
DsPWR2
DI
CLK
SPI_SD
150 F
10V
CS
SPI
EEPROM
DD–[2]
DD+[2]
0.01F
VCC
D–
D+
GND
SHELL
24 MHz
3.3V
3.3V
3.3V
GREEN#[2]
12 pF
12 pF
XIN
SELFPWR
DsPWR3
GREEN[1]
AMBER[1]
GREEN[1]
AMBER[1]
GREEN[2]
AMBER[2]
GREEN[2]
AMBER[2]
RESET
GREEN[3]
AMBER[3]
GREEN[3]
AMBER[3]
D–
D-
GREEN[4]
AMBER[4]
GREEN[4]
AMBER[4]
D+
D+
VBUSPOWER
3.3V
VBUSPOWER
100K
0.1F
DD–[1]
DD-[1]
DD+[1]
DD+[1]
DD–[2]
DD-[2]
DD+[2]
DD+[2]
DD–[3]
DD-[3]
DD+[3]
DD+[3]
DD–[4]
DD-[4]
HX2LP
PWR1
OVR1
PWR2
OVR2
PWR3
OVR3
PWR4
OVR4
SPI_CS
SPI_SCK
SPI_SD
DD+[4]
GND1
GND2
GND3
GND4
GND5
GND6
GND7
GND8
GND9
GND10
GND11
GND12
DD+[4]
680
XOUT
10K
VCC1
VCC2
VCC3
VCC4
VCC5
VCC6
VCC7
VCC8
VCC9
VCC10
VCC11
AMBER#[2]
680
Document Number: 38-08037 Rev. *Z
PWR1
OVR1
PWR2
OVR2
PWR3
OVR3
PWR4
OVR4
SPI_CS
150 F
10V
DD-[3]
DD+[3]
0.01F
VCC
D–
D+
GND
SHELL
3.3 V
GREEN#[3]
AMBER#[3]
680
680
DsPWR4
150 F
10V
DD-[4]
DD+[4]
0.01F
VCC
D–
D+
GND
SHELL
SPI_SCK
SPI_SD
3.3 V
GREEN#[4]
AMBER#[4]
680
680
Page 21 of 30
CY7C65620
CY7C65630
Absolute Maximum Ratings
Exceeding maximum ratings may impair the useful life of the
device. These user guidelines are not tested.
Storage temperature ............................... –65 °C to +150 °C
Ambient temperature with power applied:
Commercial .................................................. 0 °C to +70 °C
Automotive ................................................ –40 °C to +85 °C
Industrial .................................................... –40 °C to +85 °C
Supply voltage to ground potential ..............–0.5 V to +4.0 V
Reset period
(the minimum period between
when VCC reaches the minimum operating voltage
and de-assertion of the reset line) ..............................1.9 ms
Operating Conditions
TA (ambient temperature under bias)
Commercial .................................................. 0 °C to +70 °C
Automotive ................................................ –40 °C to +85 °C
Industrial ................................................... –40 °C to +85 °C
DC voltage applied to outputs
in high Z state ..................................... –0.5 V to VCC + 0.5 V
Supply voltage ........................................ +3.15 V to +3.45 V
Power dissipation (4 HS ports) .................................... 0.9 W
FOSC (oscillator or crystal frequency)
parallel resonant,
12 pF load capacitance, 0.5 mW ................ 24 MHz ± 0.05%
Static discharge voltage .......................................... > 2000 V
Maximum output sink current per I/O ......................... 10 mA
Ground voltage ............................................................... 0 V
Electrical Characteristics
DC Electrical Characteristics
Parameter
VCC
Description
Conditions
Supply voltage
VCC RampUp Ramp rate on VCC
Min
Typ
Max
Unit
3.15
3.3
3.45
V
–
–
18
V/ms
VIH
Input high voltage
2
–
5.25
V
VIL
Input low voltage
–0.5
–
0.8
V
Il
Input leakage current
0 < VIN < VCC
–
–
±10
A
VOH
Output voltage high
IOUT = 4 mA
2.4
–
–
V
IOUT = –4 mA
–
–
0.4
V
–
–
4
mA
VOL
Output low voltage
IOH
Output current high
IOL
Output current low
–
–
4
mA
CIN
Input pin capacitance
–
–
10
pF
ISUSP
Suspend current
–
80
–
A
ICC
Supply current
4 active ports
2 active ports
No active ports
Full speed host, full-speed devices
–
86
110
mA
High speed host, high-speed devices
–
231
260
mA
High speed host, full-speed devices
–
154
180
mA
Full speed host, full-speed devices
–
77
100
mA
High speed host, high-speed devices
–
163
190
mA
High speed host, full-speed devices
–
136
160
mA
Full speed host
–
65
90
mA
High speed host
–
93
120
mA
USB Transceiver
USB 2.0 certified in full-, low-, and high-speed modes.
Document Number: 38-08037 Rev. *Z
Page 22 of 30
CY7C65620
CY7C65630
AC Electrical Characteristics
Both the upstream USB transceiver and all four downstream transceivers have passed the USB-IF USB 2.0 Electrical Certification
Testing.
Table 10. Serial Peripheral Interface
Parameter
Description
Min
Typ
Max
Unit
–
–
500
ns
Clock frequency
–
–
250
kHz
Data setup time
50
–
–
ns
Hold time
100
–
–
ns
Clock rise/fall time
Document Number: 38-08037 Rev. *Z
Conditions
Page 23 of 30
CY7C65620
CY7C65630
Ordering Information
Ordering Code
Package Type
CY7C65620-56LTXC
56-pin QFN 2-Port Sawn Type QFN Bulk
CY7C65620-56LTXCT
56-pin QFN 2-Port Sawn Type QFN Tape and Reel
CY7C65620-56LFXA
56-pin QFN 2-Port Automotive AEC grade
CY7C65620-56LFXAT
56-pin QFN 2-Port Automotive AEC grade Tape and Reel
CY7C65630-56LTXC
56-pin QFN 4-Port Sawn Type QFN Bulk
CY7C65630-56LTXCT
56-pin QFN 4-Port Sawn Type QFN Tape and Reel
CY7C65630-56LFXA
56-pin QFN 4-Port Automotive AEC grade
CY7C65630-56LFXAT
56-pin QFN 4-Port Automotive AEC grade Tape and Reel
CY4606
CY7C65630 USB 2.0 4-Port Hub Reference Design Kit
CY4605
CY7C65620 USB 2.0 2-Port Hub Reference Design Kit
CY7C65630-56LTXI
56-pin QFN 4-Port Industrial grade
CY7C65630-56LTXIT
56-pin QFN 4-Port Industrial grade Tape and Reel
CY7C65620-56LTXI
56-pin QFN 2-Port Industrial grade
CY7C65620-56LTXIT
56-pin QFN 2-Port Industrial grade Tape and Reel
Ordering Code Definitions
CY 7C656 X0 - 56L X
X X X
X = blank or T (blank = Bulk; T = Tape and Reel)
X = Temperature Grade = C, A or I
C = Commercial grade; A = Automotive grade; I = Industrial grade
X = Pb-free
X = F or T
F = Punch; T = Sawn
56L = 56-pin QFN
X = 2 or 3
2 = 2 port; 3 = 4 port
Part Identifier
Company ID: CY = Cypress
Document Number: 38-08037 Rev. *Z
Page 24 of 30
CY7C65620
CY7C65630
Package Diagram
The CY7C65620/CY7C65630 is available in a space saving 56-pin QFN (8 × 8 mm).
Figure 6. 56-pin Sawn QFN (8 × 8 × 1.00 mm)
51-85187 *F
Figure 7. 56-pin QFN 8 × 8 mm LF56A (Subcon Punch Type with 6.1 × 6.1 EPad)
SOLDERABLE
EXPOSED
PAD
51-85144 *I
Thermal Impedance for the Package
Package
56-pin QFN
Typical JA
18.4 °C/W
Document Number: 38-08037 Rev. *Z
Typical JC
2.1 °C/W
Page 25 of 30
CY7C65620
CY7C65630
Acronyms
Document Conventions
The following table lists the acronyms that are used in this
document.
Units of Measure
Acronym
Description
AC
alternating current
AI
analog input
The following table lists all the abbreviations used to measure
the PSoC devices.
Symbol
Unit of Measure
AIO
analog input/output
°C
degree Celsius
DO
digital output
k
kilohm
GPO
general purpose output
µA
microampere
LSB
least significant bit
µs
microsecond
MSB
most significant bit
mA
milliampere
P
power pins
ms
millisecond
PCB
printed circuit board
mV
millivolt
PLL
phase-locked loop
nA
nanoampere
POR
power-on reset

ohm
POST
power on self test
RF
radio frequency
pF
picofarad
V
volt
Numeric Naming
Hexadecimal numbers are represented with all letters in
uppercase with an appended lowercase 'h' (for example, '14h' or
'3Ah'). Hexadecimal numbers may also be represented by a '0x'
prefix, the C coding convention. Binary numbers have an
appended lowercase 'b' (for example, 01010100b' or
'01000011b'). Numbers not indicated by an 'h', 'b', or 0x are
decimal.
Document Number: 38-08037 Rev. *Z
Page 26 of 30
CY7C65620
CY7C65630
Errata
This section describes the errata for the EZ-USB HX2LP™ Low-Power USB 2.0 Hub Controller Family, CY7C65620/30. Details include
errata trigger conditions, scope of impact, available workaround, and silicon revision applicability. Contact your local Cypress Sales
Representative if you have questions.
Part Numbers Affected
Part Number
Device Characteristics
CY7C65620
All Packages
CY7C65630
All Packages
HX2LP Qualification Status
Product status: Production
HX2LP Errata Summary
1. Non-periodic and Isochronous OUT transfers in the same microframe
■
Description
With the operating in High-Speed mode with a Full-Speed device connected to a downstream port, Sometimes, an Isochronous OUT
packet gets corrupted on the downstream port.
■
Implication
The main cause of this phenomenon is in the way the hub's Transaction Translator downstream handler state machine schedules
transactions if non-periodic (Control or Bulk) transactions are found in the non-periodic buffer while an Isochronous OUT transaction
is active on the port. If the downstream handler state machine sees an Isochronous OUT packet in the Transaction translation buffer
and if it is scheduled in the same micro-frame by the host then it will skip the Isochronous OUT transaction and resume a non-periodic
transaction.
■
Workaround
The workaround for this issue is for the host controller to avoid scheduling non-periodic traffic such that it will run while an Isochronous
OUT transaction is active. Non-periodic traffic can be scheduled to run in the micro-frame before the Isochronous OUT transaction
begins, or after the Isochronous OUT transaction completes.
■
Status
No plan to fix currently - recommend using workaround.
2. Last data not received in multi-microframe Isochronous IN transfers
■
Description
With the hub operating in High-Speed mode with a Full-Speed device connected to a downstream port, Sometimes a multi-microframe
Isochronous IN transaction resulted in the last two Complete Split transactions that should have returned data but instead returned
NYET handshakes.
■
Implication
The main cause of this phenomenon is in the hub's Transaction Translator logic which tracks data stored in the periodic transaction
buffer. If the Full-Speed transaction completes before the Complete-Split token is received from the host, there is a chance that buffer
will be over-written if the requested Isochronous IN payload is greater than 440 bytes (USB 2.0 specification on buffer size).
■
Workaround
The workaround for this issue is for the host controller to avoid scheduling the Complete Split token for the microframe where the
Full-Speed packet ends too late in the frame. The TT is guaranteed to work correctly if the Complete Split is received in the first quarter
of the microframe.
■
Status
No plan to fix currently - recommend using workaround.
Document Number: 38-08037 Rev. *Z
Page 27 of 30
CY7C65620
CY7C65630
Document History Page
Document Title: CY7C65620/CY7C65630, EZ-USB HX2LP™ Low Power USB 2.0 Hub Controller Family
Document Number: 38-08037
Revision ECN No.
Orig. of
Change
Submission
Date
Description of Change
**
131505
JTC
02/12/2004 New data sheet
*A
231329
KKU
See ECN
Changed load capacitors to 12 pF, updated part numbers, added functional
overviews, block descriptions, pin configurations, default descriptors, configurations options, supported USB requests, electrical characteristics and package
diagram
*B
250869
ARI
See ECN
Added typical values for Icc in the DC Electrical Characteristics table, changed MPN
CY7C65650 to CY7C65640B, added CY7C65620 package
*C
330195
KKU
See ECN
Added Reset period in to the table in section ‘Serial Peripheral Interface’
Added 0xD4 EEPROM Load
Added vendor command values
Added VCC ramp rate
Updated block diagram
*D
342997
KKU
See ECN
Updated features list
Removed from the Enumeration section “Once the hub is configured, the full hub
functionality is available”
Added reference to 0xD4 load to the Downstream Ports section
Added reference to polarity control in the Power Switching and Over-current
Detection sections
Updated the Automatic Port State to Port Indicator Color Mapping table to match
USB-IF spec changes
Added LED modulation to the Port Indicators section
Updated pin description table - SELFPWR# to SELFPWR and removed references
to limitations of bus powered. Added reference to polarity control on PWR#,
OVR# and LED control lines
Updated Default descriptors
Updated EEPROM list to include 25LC080
Removed NoEOPatEOF1 bit
Added LED polarity control
*E
498396
TEH
See ECN
Removed all references to HX1TT and Multi-TT
Updated Block Diagrams to remove ports and TTs
Removed Preliminary
Updated Device ID default
Added Write Protect Description
Correct sample schematics to reflect latest RDK
Updated Power Consumption Numbers
Updated Part Numbers
*F
570287
ARI
See ECN
Corrected typo in Table 3. Changed downstream port 4 signal labels from [3] to [4].
Added dimensions of E-Pads to Figure 6.
*G
852600
KKU
See ECN
Changed feature “2-Port Single TT for bus power support” to “Bus powered configurations”
Updated figure 5.
Added blank EEPROM statement to the Device Descriptor section
Added blank EEPROM statement to the Configuration Options section
Added indicator for factory fusable options.
Document Number: 38-08037 Rev. *Z
Page 28 of 30
CY7C65620
CY7C65630
Document History Page (continued)
Document Title: CY7C65620/CY7C65630, EZ-USB HX2LP™ Low Power USB 2.0 Hub Controller Family
Document Number: 38-08037
Revision ECN No.
Orig. of
Change
Submission
Date
Description of Change
*H
1019740 KKU / ARI
See ECN
Added to Features: Automotive AEC grade option (-40-85C).
Added to Part numbers: CY7C65630-56LFXA: 56-pin QFN 4-Port Automotive AEC
grade.
Added absolute ambient temperature with power applied for automotive part.
Added operational Ambient Temperature Under Bias for automotive part.
Replaced TBD under absolute maximum power dissipation with 0.9 Watts.
Removed internal part numbers referenced in figure 6 note 5.
Changed “USB 2.0-Compliant” to “USB 2.0-Certified”
Removable Ports updated to reflect logical ports. Edited for active voice.
*I
2238608
KKU
See ECN
Block diagrams for CY7C65630 and CY7C65620 were altered in the *H revision
and should not have been. Reverted diagrams to *G version
*J
2370406
PYRS
See ECN
Changing the status from Preliminary to Final as per author’s confirmation
*K
2657415
DPT /
PYRS
02/10/09
Added package diagram for 56-pin Sawn QFN.
*L
2705817
GOR /
PYRS
05/13/09
Added new part numbers to the ordering information table
*M
2719596
VIVG /
AESA
06/16/2009 Added CY7C65620-56LFXA part in the ordering information table
*N
2753668
VIVG
*O
2857913
VIVG
08/19/09
Added Tape and Reel for CY7C65620 and CY7C65630 automotive parts
*P
2896582
ODC
*Q
3011613
ODC
08/20/2010 Added Ordering Code Definitions
Added the tabular column “Thermal Impedance for the package”
Added Document Conventions
Minor edits
*R
3095394
ODC
11/25/2010 Updated Table 8 on page 19 and Table 9 on page 19.
*S
3174789
ODC
02/16/2011 Updated 0xD2 Load and 0xD4 Load.
Updated Package Diagram.
*T
3252356
ODC
05/09/2011 Changed title from CY7C656XX EZ-USB HX2LP(TM) Low power USB 2.0 Hub
Controller Family to CY7C65620/CY7C65630 EZ-USB HX2LP(TM) Low power
USB 2.0 Hub Controller Family
*U
3501907
PRVE
02/10/2012 Updated Ordering Information and removed parts (CY7C65630-56LFXC,
CY7C65630-56LFXCT, and CY7C65620-56LFXCT)
Updated Package Diagram (51-85187 and 51-85144).
*V
3735946
PRVE
09/06/2012 Updated Ordering Information, added four MPNs (CY7C65630-56LTXI,
CY7C65630-56LTXIT, CY7C65620-56LTXI, CY7C65620-56LTXIT).
Updated Ordering Code Definitions.
01/19/2010 Corrected typo in Ordering Information table for CY7C65620-56LFXA.
Updated 56-pin Punch and Sawn QFN package diagrams.
Added Contents on page 3.
03/19/10
Removed obsolete part (CY7C65620-56LFXC) from ordering information table
Updated package diagrams
*W
3806343
PRJI
11/08/2012 Updated Pin Definitions (Updated Note 3, referred in Table 3).
*X
3830076
PRJI
12/04/2012 Updated Absolute Maximum Ratings (Added Reset period and its details).
Updated Electrical Characteristics (Updated AC Electrical Characteristics (Updated
Table 10 (Removed Reset period))).
*Y
3992033
PRJI
05/06/2013 Added Errata.
*Z
4033909
PRJI
06/19/2013 Added Errata Footnotes.
Updated in new template.
Document Number: 38-08037 Rev. *Z
Page 29 of 30
CY7C65620
CY7C65630
Sales, Solutions, and Legal Information
Worldwide Sales and Design Support
Cypress maintains a worldwide network of offices, solution centers, manufacturer’s representatives, and distributors. To find the office
closest to you, visit us at Cypress Locations.
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psoc.cypress.com/solutions
PSoC 1 | PSoC 3 | PSoC 4 | PSoC 5LP
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cypress.com/go/memory
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cypress.com/go/wireless
© Cypress Semiconductor Corporation, 2004-2013. The information contained herein is subject to change without notice. Cypress Semiconductor Corporation assumes no responsibility for the use of
any circuitry other than circuitry embodied in a Cypress product. Nor does it convey or imply any license under patent or other rights. Cypress products are not warranted nor intended to be used for
medical, life support, life saving, critical control or safety applications, unless pursuant to an express written agreement with Cypress. Furthermore, Cypress does not authorize its products for use as
critical components in life-support systems where a malfunction or failure may reasonably be expected to result in significant injury to the user. The inclusion of Cypress products in life-support systems
application implies that the manufacturer assumes all risk of such use and in doing so indemnifies Cypress against all charges.
Any Source Code (software and/or firmware) is owned by Cypress Semiconductor Corporation (Cypress) and is protected by and subject to worldwide patent protection (United States and foreign),
United States copyright laws and international treaty provisions. Cypress hereby grants to licensee a personal, non-exclusive, non-transferable license to copy, use, modify, create derivative works of,
and compile the Cypress Source Code and derivative works for the sole purpose of creating custom software and or firmware in support of licensee product to be used only in conjunction with a Cypress
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the express written permission of Cypress.
Disclaimer: CYPRESS MAKES NO WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, WITH REGARD TO THIS MATERIAL, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES
OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE. Cypress reserves the right to make changes without further notice to the materials described herein. Cypress does not
assume any liability arising out of the application or use of any product or circuit described herein. Cypress does not authorize its products for use as critical components in life-support systems where
a malfunction or failure may reasonably be expected to result in significant injury to the user. The inclusion of Cypress’ product in a life-support systems application implies that the manufacturer
assumes all risk of such use and in doing so indemnifies Cypress against all charges.
Use may be limited by and subject to the applicable Cypress software license agreement.
Document Number: 38-08037 Rev. *Z
Revised June 19, 2013
Page 30 of 30
TetraHub and EZ-USB HX2LP are trademarks of Cypress Semiconductor Corporation. All products and company names mentioned in this document may be the trademarks of their respective holders.