Supply voltages and all digital activity to external hosts go through the
PCMCIA interface. This interface is handled by SULO asic. In SULO asic
the PCMCIA interface section Vccs is PCMCIA connector Vcc. It is inde-
pendent from SULO core Vcc which is regulated to 2.8V from PCMCIA
connector Vcc.
The interface has two operating modes: one for PCMCIA compliant com-
puter hosts and one for non–PCMCIA (or vertical or Nokia mode) hosts.
The PCMCIA interface has two different pinouts. First is the normal
PCMCIA pinout which conforms to the PC Card’97 standard . Second
mode is the non–PCMCIA mode in which MBUS, FBUS and PCM SIO
buses are brought to the PCMCIA connector. Also flow control signals
and RESET are routed to the connector. The PCMCIA connector pinouts
and electrical characteristics are shown in the tables on the following
pages.
RPM-1
PCMCIA Connector
The 68–pin PCMCIA connector complies with the PC Card Standard
NO TAG which specifies the pinout and the functionality and electrical
characteristics of the pins. In the non–PCMCIA mode the functionality of
the pins is changed (see the following table).
No. 34
No. 68
No. 1
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Page 11
RPM-1
System Module
PAMS Technical Documentation
The pins of the PCMCIA connector are listed below:
PCMCIA modeNon–PCMCIA mode
Pin
Signal
name
1GNDGround.Ground
2D3I/OData bit 3.DSP SleepnoteOUT
3D4/IOData bit 4.RIXOUT
4D5I/OData bit 5.DCDXOUT
5D6I/OData bit 6.CTSXOUT
6D7I/OData bit 7.PCMTxDATAOUT
7CE1XINCard enable 1, pulled upPulled up
8A10INncnc
9OEXINOutput enable, pulled uppulled up.
65D9I/Oncnc
66D10I/Oncnc
67CD2XOUTConnected to ground.Connected to ground.
68GNDGroundGround.
Signal
name
FunctionDir
PAMS Technical Documentation
Non–PCMCIA modePCMCIA mode
Signal
name
PCMCIA connector electrical specifications:
DirFunction
PinLine
Symbol
PCMCIA-
signals
PCMCIA
signals
29A0Bidirectional MBUS0V
ParameterMinimumTypical /
PCMCIA input signals,0.0V
PCMCIA output signals0.0V
SIM Interface
System asic MAD2WD1 controls the SIM card. All signals go through the
CCONT asic, where the level shifting of logical signals between
MAD2WD1 and SIM card are done . The CCONT contains also switched
mode supply for SIM–interface, called VSIM. MAD2WD1 controls the
VSIM voltage level (3V/5V) through control bus VSIM level is SIM car dependent..
To protect the SIM card from damage (when card is removed from
PCMCIA slot in power on state) there is a control signal, SIMCardDetx in
MAD2WD1.
2.4V
2.8V
2.1V
Nominal
LOW
HIGH
LOW
HIGH
LOW
HIGH
MaximumNotes
0.8V
VCC
+0.25V
0.5V
VCC
0.6V
2.8V
TTL or CMOS logic levels,
VCC=5V
TTL or CMOS logic levels,
VCC=5V
NOTE 2.8V is maximum in-
put voltage level. (This ap-
plies to NON–PCMCIA
only)
Active signal in that pin starts automatically the power down sequence.
The information from the removing is taken from PCMCIA RESET signal.
As power supply pins are longer, PCMCIA RESET pin is disconnected before power supply pins and internal pull up resistor activates the PCMCIA
RESET signal which activates the MAD2WD1 reset signal, MADPURX.
The MADPURX is delayed so, that there is enough time to drive SIM card
down before MAD goes to reset state.
All SIM reader signals withstand short circuit to ground without damage.
SIM Connector
SIM connector provides 6 contact pads for the SIM card according to the
GSM 11.11 standard.
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Nokia Mobile Phones Ltd.
Issue 1 12/99
PAMS Technical Documentation
1
6
34
System Module
The pins of the SIM connector are listed below:
PinLine SymbolMinTyp.Max.UnitNotes
RPM-1
1SIMCLK Frequency
Trise/Tfall
2SIMRST
5V SIM Card
3V SIM Card
Trise/Tfall
6SIMDATA
5V SIM Card, logical
”1”
logical
”0”
3V SIM Card, logical
”1”
logical
”0”
Trise/Tfall
3,5VSIM
5V level
Operating voltage, 3V
level
Output current
4.0
2.8
4.0
0.0
2.8
0.0
4.8
2.8
3.25
25
HIGHVSIM
100
HIGH
LOW
HIGH
LOW
5.0
3.0
VSIM
0.5
VSIM
0.5
1
5.2
3.2
MHz
ns
V
V
ns
V
V
V
V
us
V
V
SIM clock
SIM reset
SIM data
Supply voltage
Fullfill the GSM11.10
current spike requ.
30
4GNDSignal ground
Issue 1 12/99
Nokia Mobile Phones Ltd.
mA
Page 15
RPM-1
Explanation
Explanation
System Module
PAMS Technical Documentation
The signals of the SIM interface are listed below:
Note that the SIM card reader (X700) pin numbers are NOT the same as
pin numbers of the SIM card.
Nokia Mobile Phones Ltd.
Issue 1 12/99
PAMS Technical Documentation
Im edance
50ohm
tor
Antenna or RF Connector
Antenna or RF connector contacts are listed below:
RPM-1
System Module
Con-
tact
1EXT_ANT
2GND
Line
Symbol
ParameterMini-
mum
p
Loss in GSM
band
Loss in PCN
band
Headset or Analog Audio Interface
The Headset or Analog audio signals to the headset connector are coming from COBBA_GJP audio codec. Audio signals from COBBA_GJP to
headset connector goes through RF block in the PCB layout, and connector is near the antenna. Because of that there must be EMI protection circuit near the headset connector and also in COBBA_GJP side.
Typical
/ Nomi-
nal
Maxi-
mum
External antenna connec0 V DC
0.6dB
1.0dB
Unit / Notes
,
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Page 17
RPM-1
System Module
PAMS Technical Documentation
Baseband
HookDet
MAD
HeadDet
CCON
T
AUXOUT
EA
D
EAR
N
EAR
P
HFC
M
VCOBBA
RF
Headset
connector
MIC
EAR
COM
EMI protection
(low impedance
in audio freq.)
VCOBBA
SGN
D
H
F
XEAR
HSGND
HSEAR
COBBA_GJP
MIC1
N
MIC1
P
MIC3
N
MIC3
P
Headset Connector
XMI
C
HSMIC
Page 18
The headset connector is used to connect the HDC–6D headset to
RPM–1. HDC–6D has a 2.5 mm stereo plug connector.
Nokia Mobile Phones Ltd.
Issue 1 12/99
PAMS Technical Documentation
HookD
eadesga
HeadDet signal
1
3
24
Electrical specifications for the Headset interface
PinNameFunctionMinTypMaxUnitDescription
3HSEARAnalog audio output
Accessory detection with
et signal.
2HSMICHeadset microphone input
Headset detection with
HeadDet signal.
Micbias on
22Output AC impedance (ref. GND)
10FSeries output capacitance
16150300Load AC impedance to GND: Headset
1.0V
0.56VDC Voltage (level in MAD–ASIC, ”0”<0.2*VBB).
00.2VDC Voltage (ref. HSGND). Headset with closed
162501500Load DC resistance to HSGND. Headset with closed
1.96VDC Voltage (ref. HSGND). Headset with open switch
47kPull–up resistor to VBB in RPM–1
2.02.2kInput AC impedance (Micbias on)
2.5kHeadset source impedance
100300500 ABias current (Note! Micbias 2.1 V)
200mV
47kPull–up resistor to VBB in phone
1.21.7VHeadset connected.
2.1VHeadset not connected.
Max. output level. No load
p–p
switch
switch
Maximum signal level
p–p
RPM-1
System Module
Headset detection with
Micbias off
Micbias2.1VSwitched on when call is on and headset is in.
1HSGNDAudio signal ground
(=AGND).
4GNDGround0Ground
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.
Nokia Mobile Phones Ltd.
00.1VHeadset connected.
2.52.9VHeadset not connected.
0Is the same than GND in the phone, they have been
connected together by a 0 ohm resistor.
Page 19
RPM-1
System Module
Modes of Operation
Standard PCMCIA mode
This is the standard operating mode of the RPM–1. The card is used as a
standard 8–bit PCMCIA I/O device. In this mode the card can be used in
two different sub–modes: Nokia–mode and generic mode. In generic
mode the card functions just as a normal modem card and no RPM–1–
specific SW drivers are needed in the PC. In Nokia–mode an improved
power management is offered (deep sleep), but this requires the use of
RPM–1–specific SW drivers in the PC.
The host PC automatically configures its internal memory and interrupt
mapping based on so called CIS data structure (Configuration Information
Structure, specified by the PC card standard) which is stored in the serial
EEPROM in the card and loaded into Sulo ASIC at startup. The PCMCIA
ASIC (Sulo) also contains the following standard PC card registers: Configuration Option Register (COR), Configuration and Status Register
(CSR), and Extended Status Register (ESR). See document NO TAG for
details.
PAMS Technical Documentation
PCMCIA connector signals are listed in NO TAG.
Vertical (i.e. non–PCMCIA) mode
For host devices not having a PCMCIA slot the RPM–1 has been designed to support also simple direct serial bus operation. In this mode the
PCMCIA connector signals have been redefined to support new logical
interfaces. PCMCIA connector signals in non–PCMCIA mode are listed in
NO TAG.
Typical RPM–1 host interface is RS232C. The application specific socket
for the RPM–1 is assumed to contain all 5V to RS232C buffering circuitry.
The vertical operating mode is activated by grounding pin 62
(SPKR#/BVD2) in the PCMCIA connector before card RESET is released.
Pin 62 (SPKR#/BVD2) must be kept grounded all the time when operating
in non–PCMCIA mode. The SPKR#/BVD2 pin has an internal pull–up resistor ensuring standard PCMCIA mode operation if the pin is left unconnected.
This section of the document specifies the BB section of the GX9 RF/sys-
tem module for RPM–1.
The baseband block diagram is below:
PAMS Technical Documentation
PAMS Technical Documentation
Functional Description
Power Distribution
The supply voltage (VCC) from PCMCIA slot goes to the CCONT VBAT
pins, Sulo ASIC and Sulo core voltage regulator. Also transmit power amplifier (PA) is connected to VCC via FET switch and MBUS switch is powered from VCC rail.
The voltage to power amplifier is connected via delayed FET switch,
which is turned on slowly after the card is powered by host computer, and
CIS information has been read. The VPA line has capacitor array, and to
avoid the inrush current the FET switch is delayed so, that current spike is
under 300mA in the beginning.
Because the SULO ASIC must be powered all the time when the RPM–1
is in PCMCIA slot of the host computer, it needs own regulator for core
voltage. The SULO ASIC draws the core voltage supply from low dropout
regulator, which regulates PCMCIA voltage (Vcc) to 2.8V. The CIS EEPROM takes supply voltage from the same regulator. Secondary supply
voltage (Vcca) to SULO is taken directly from PCMCIA supply voltage
(Vcc). This voltage set the logic levels for PCMCIA interface (5V).
RPM-1
System Module
The CCONT includes all the voltage regulators and feeds the power to
the whole RF and BB system (except SULO, CIS EEPROM and TX power
amplifiers). The MAD2WD1 IOs, COBBA_GJP digital parts and memories
are powered from the same regulator which provides 2.8V baseband supply VBB. The baseband regulator is active always when the CCONT supply voltage is higher than 3.1 V. There is also a separate regulator for SIM
card. The VSIM regulator output is selectable between 3V and 5V, controlled by MAD via serial control bus. COBBA_GJP analog parts are powered from dedicated 2.8V supply, VCOBBA, by the CCONT. CCONT includes also voltage reference regulator for COBBA_GJP analog parts,
temperature measurement and RF block.
The CCONT has six additional 2.8V regulators providing power to the RF
section. These regulators can be controlled either by direct control signals
from MAD or by RF regulator control register in CCONT which MAD can
update.
The switched mode regulator, V5V, is used for SUMMA and Integral PLL
charge pump supply VCP. This voltage can be controlled on and off with
serial IO bus.
The CCONT programmable regulator, V2V, is used as a power source for
MAD2WD1 core. The V2V level in startup is set to 1.975V. The right voltage level for the MAD2WD1 C07 core is 1.75 V (1.65 ... 1.95 V). This level is set by MCU SW before DSP release and normal operation. Detailed
information about V2V setting can be found in ”CCONT V2V User’s
Manual” NO TAG.
The VPP voltage is used for FLASH memory programming, when MCU
code is downloaded to the FLASH memory and when EEPROM emula-
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Nokia Mobile Phones Ltd.
Page 23
RPM-1
System Module
tion blocks of FLASH memory are updated. The VPP voltage is taken
from VBB power net through a voltage switch. VPP is enabled with
MAD2WD1 general I/O pin, MCUGenIO4.
DC Characteristics of the CCONT voltage regulators are listed below:
PAMS Technical Documentation
Reg.on/off-
Control
line in
CCONT
VR1SLEEPX Supply voltage
VR2CNTVR2 Supply voltage
VR3CNTVR3 Supply voltage
VR4CNTVR4 Supply voltage
VR5CNTVR5 Supply voltage
VR6SLEEPX Supply voltage
VR7TXPWR Supply voltage
VBB Supply voltage
VSIMSIMPWR Supply voltage
V5V Supply voltage
V2VProgrammable,
VRef Supply voltage
ParameterMin.Typ.Max.UnitComments
Supply current
Supply current
Supply current
Supply current
Supply current
Supply current
Supply current
Supply current (on)
(sleep)
Supply Voltage
Supply current
Supply current
Supply voltage
Supply current
Supply current
2.72.82.85
80
2.72.82.85
80
2.72.82.85
50
2.72.82.85
80
2.72.82.85
80
2.72.82.85
80
2.72.82.85
150VmA
2.72.82.85
125
1
2.8
4.8
4.85.05.2
1.32.65
1.4781.51.523
3.0
5.0
3.2
5.2
330
30
50
200
V
VCTCXO voltage,
mA
mA
mA
mA
mAmACurrent limit 250mA
uA
mA
mA
controlled by MAD
(VCXOPwr)
VmARx part voltage, con-
trolled by MAD
(RxPwr)
V
V
VmARx part voltage, con-
V
V
V
V
V
V
VuAReference voltage to
VSYN_2 voltage,
controlled by MAD
(SynthPwr)
VSYN_1 voltage,
controlled by MAD
(SynthPwr)
trolled by MAD
(RxPwr)
VCOBBA voltage,
controlled by MAD
(VCXOPwr)
Tx voltage, con-
trolled by MAD
(TxPwr)
Current limit 5mA
Voltage (3V/5V) is
selected by MAD via
control bus
SUMMA/FPLL
charge pump volt-
age.
Initilal state 1.975V,
Is set to 1.75 V
after startup
COBBA_GJP and
SUMMA
Power up
The only way to power up RPM–1 is to insert it in to a 68 pin PCMCIA
connector. The connector may be either in a PCMCIA compliant slot, or a
Page 24
Nokia Mobile Phones Ltd.
Issue 1 12/99
PAMS Technical Documentation
NOKIA proprietary non–PCMCIA slot. The host computer or controller
connects power to the card after it has detected the card in it’s slot.
Power–Up in PCMCIA mode
RPM-1
System Module
VPA
1
SLEEPX
0
1
CCONTPURx
0
1
62ms
MADPURx
0
1
PCMCIA slot IREQx/READY
0
1
100ms
0
10us
CIS information from EEPROM to Sulo RAM
PCMCIA slot RESET
20ms
1.975V
1.75 V
2.8V
Vcc
0
Max. 500ms
V2V, MAD core voltage (C07)
Power aplifier voltage, VPA
0
Baseband voltage VBB
0
PCMCIA Vcc
3.0V
3
1
2
4
CIS READING
5
6
Power up in PCMCIA mode takes place in following steps:
Issue 1 12/99
Nokia Mobile Phones Ltd.
Page 25
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