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Methods to detect antagonists of protein-protein interactions

M.6 Refere nces

2.1 Intro duction

2.1.1 Methods to detect antagonists of protein-protein interactions

maximum number of DRBs.

Compared with issue 01 (2013-04-28), this issue does not include any new information or exclude any information.

01 (2013-04-28)

This is the first commercial release of DBS3900 Hardware Description.

Compared with Draft A (2013-01-15), this issue includes the following new information:

l 5.14 Optical Modules

Compared with Draft A (2013-01-15), this issue includes the following changes:

Topic Change Description

3 Principles and Functions of a BBU3900 Added the working principle of the BBU3900.

Topic Change Description l 5.1 WMPT

l 5.2 UMPT l 5.3 GTMU l 5.4 LMPT l 5.5 WBBP l 5.6 LBBP l 5.8 UPEU l 5.9 UEIU l 5.10 UTRP l 5.11 USCU l 5.12 UBRI l 5.13 UCIU

Added figures illustrating the working principles of the boards.

5.2 UMPT Added the meanings of bits 3 and 4 of DIP

switch SW1.

5.8 UPEU Modified figures of the UPEUc and UPEUd

panels.

l 5.2 UMPT l 5.4 LMPT l 5.5 WBBP l 5.6 LBBP

Added description of board specifications.

Configuration of BBU Boards in Triple-mode Base Stations

Added information about a base station in which two BBUs are working in G*U*L mode and interconnected by connecting the UCIU in one BBU and the UMPT in the other BBU.

No information in Draft A (2013-01-15) is excluded from this issue.

Draft A (2013-01-15)

This is a draft.

Compared with the issues for the multimode base station version V100R007C00 and the single-mode base station versions NodeB V200R014C00, BTS V100R014C00, and eNodeB

V100R005C00, this issue includes the following changes:

Stations, Configuration of BBU Boards in UL/U*L Base Stations and Configuration of BBU Boards in Triple-mode Base Stations.

l Added the description of the UMPTb1, UMPTb2, and UBRIb.

l Added description of the separate-MPT multimode base stations and co-MPT multimode base stations.

l Divided the BBU board configurations for GSM BTS into BBU board configurations for GBTS and eGBTS.

Compared with the issues for the MBTS V100R007C00, NodeB V200R014C00, BTS V100R014C00, and eNodeB V100R005C00, this issue does not include any new information or exclude any information.

2 BBU3900 Exterior

BBU3900 has a case structure with a width of 19 in. and a height of 2 U (88.90 mm or 3.50 in.).

The following figure shows the exterior of the BBU3900.

Figure 2-1 BBU3900 Exterior

A BBU3900 has a label with the electronic serial number (ESN) printed on it. The position of the label on a BBU3900 is as follows:

l If there is a label on the FAN unit of the BBU, the ESN is printed on the label and a mounting ear of the BBU, as shown in the following figure.

Figure 2-2 ESN position 1

l If there is no label on the FAN unit of the BBU, the ESN is printed on a mounting ear of the BBU, as shown in the following figure.

Figure 2-3 ESN position 2

NOTE

The ESN is a unique identifier of a device and is used during base station commissioning.

3 Principles and Functions of a BBU3900

A BBU3900 is a baseband processing unit. It processes the baseband signals of a base station.

Principle

The BBU3900 includes the baseband subsystem, cabinet subsystem, transmission subsystem, interconnection subsystem, main control subsystem, monitoring subsystem, and clock subsystem, and each subsystem consists of different units or modules as follows:

l The baseband subsystem consists of the baseband processing unit.

l The cabinet subsystem consists of the backplane, fan, and power modules.

l The transmission subsystem consists of the main control transmission unit and transmission extension unit.

l The interconnection subsystem consists of the main control transmission unita and infrastructure interconnection unit.

l The main control subsystem consists of the main control transmission unit.

l The monitoring subsystem consists of the power module and monitoring unit.

l The clock subsystem consists of the main control transmission unit and clock signal processing unit.

NOTE

a: The main control transmission unit in an interconnection subsystem is the UMPT.

The following figure shows the principle of the BBU3900.

Figure 3-1 Principle of the BBU3900

Function

The BBU3900 performs the following functions:

l Provides ports to be connected to the transmission equipment, RF modules, USB devicesa, external clock reference, and LMT or M2000 for transmitting signals,

automatically upgrading software, receiving clock reference, and maintaining the BBU on the LMT or M2000.

l Manages the entire base station system, including the processing of uplink and downlink data, signaling processing, resource management, and operation and maintenance.

NOTE

a: The security of the USB port is ensured by encryption, and the USB port can be shut down using commands. The USB commission port is used for commissioning the base station rather than configuring and exporting information of the base station.

4 Slot Assignment in the BBU3900

About This Chapter

This section describes the BBU3900 slot assignment principles.

4.1 BBU Slot Distribution

This section describes the BBU slot distribution.

4.2 BBU Slot Assignment in a GSM Base Station

This section describes the principles for BBU slot assignment in a GSM base station.

4.3 BBU Slot Assignment in a UMTS Base Station

This section describes the principles for BBU slot assignment in a UMTS base station.

4.4 BBU Slot Assignment in an LTE Base Station

This section describes the principles for BBU slot assignment in an LTE base station.

4.5 BBU Slot Assignment in a GU or G*U Base Station

This section describes the principles for BBU slot assignment in a GU or G*U base station.

4.6 BBU Slot Assignment in a GL or G*L Base Station

This section describes the principles for BBU slot assignment in a GL or G*L base station.

4.7 BBU Slot Assignment in a UL or U*L Base Station

This section describes the principles for BBU slot assignment in a UL or U*L base station.

4.8 BBU Slot Assignment in a Triple-Mode Base Station

This section describes the principles for BBU slot assignment in a triple-mode base station.

4.1 BBU Slot Distribution

This section describes the BBU slot distribution.

A BBU has 11 slots. The following figure shows how they are distributed on a BBU.

Figure 4-1 BBU slot distribution

4.2 BBU Slot Assignment in a GSM Base Station

This section describes the principles for BBU slot assignment in a GSM base station.

BBU Slot Assignment in a GBTS

The following figure shows the BBU slot assignment in a GBTS.

Figure 4-2 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-1 Principles for BBU slot assignment

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

The following figure shows the typical configuration of BBU boards.

Figure 4-3 Typical configuration of BBU boards

BBU Slot Assignment in an eGBTS

The following figure shows the BBU slot assignment in an eGBTS.

Figure 4-4 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-2 Principles for BBU slot assignment Priorit

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

The following figure shows the typical configuration of BBU boards.

Figure 4-5 Typical configuration of BBU boards

4.3 BBU Slot Assignment in a UMTS Base Station

This section describes the principles for BBU slot assignment in a UMTS base station.

The following figure shows the BBU slot assignment in an UMTS base station.

Figure 4-6 BBU slot assignment

The following table describes the principles for BBU slot assignment in a UMTS base station.

Table 4-3 Principles for BBU slot assignment Prior

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

1 Main

Prior

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

UTR

In a UMTS single-mode base station, the UMPT and WMPT cannot be configured in the same BBU.

The following figure shows the typical configuration of BBU boards.

Figure 4-7 Typical configuration of BBU boards

4.4 BBU Slot Assignment in an LTE Base Station

This section describes the principles for BBU slot assignment in an LTE base station.

The following figure shows the BBU slot assignment in an LTE base station.

Figure 4-8 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-4 Principles for BBU slot assignment Prior

ity Boar d Type

Boar

d Man

dator y or Not

Maxi mum Qua ntity

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

1 Main

contr ol board in

UMP Tb

Yes 2 Slot 7 Slot 6 - - -

-UMP Ta2/

Prior

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

TDD

In an LTE FDD or LTE TDD single-mode base station, the UMPT and LMPT cannot be configured in the same BBU.

The following figure shows the typical configuration of BBU boards.

Figure 4-9 Typical configuration of BBU boards

4.5 BBU Slot Assignment in a GU or G*U Base Station

This section describes the principles for BBU slot assignment in a GU or G*U base station.

BBU Slot Assignment in a GU Base Station

NOTE

l A GU base station is a separate-MPT base station. This means that in one single BBU, there are two main control boards working in GSM and UMTS modes separately.

l A G*U base station is a co-MPT GU base station. This means that in one single BBU, the main control board work in GSM and UMTS modes simultaneously.

The following figure shows the BBU slot assignment in a GU base station.

Figure 4-10 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-5 Principles for BBU slot assignment Priori

Slot Assignment Sequence (the

Leftmost Slot Has the Highest Priority)

1 Main

-Priori

Slot Assignment Sequence (the

Leftmost Slot Has the Highest Priority)

S

Priori

Slot Assignment Sequence (the

Leftmost Slot Has the Highest Priority)

not

The following figure shows the typical configuration of BBU boards.

Figure 4-11 Typical configuration of BBU boards

BBU Slot Assignment in a G*U Base Station

The following figure shows the BBU slot assignment in a G*U base station.

Figure 4-12 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-6 Principles for BBU slot assignment Prior

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

1 Main

Prior

ity Boar d Clas sific ation

Boar

d Man

dator y or Not

Maxi mum Qua ntity

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

board in UMT S mode

WBB Pd WBB Pb WBB Pa

The following figure shows the typical configuration of BBU boards.

Figure 4-13 Typical configuration of BBU boards

4.6 BBU Slot Assignment in a GL or G*L Base Station

This section describes the principles for BBU slot assignment in a GL or G*L base station.

BBU Slot Assignment in a GL Base Station

NOTE

l A GL base station is a separate-MPT base station. This means that in one single BBU, there are two main control boards working in GSM and LTE modes separately.

l A G*L base station is a co-MPT GL base station. This means that in one single BBU, the main control board work in GSM and LTE modes simultaneously.

The following figure shows the BBU slot assignment.

Figure 4-14 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-7 Principles for BBU slot assignment Priori

Slot Assignment Sequence (the

Leftmost Slot Has the Highest Priority)

1 Main

-Priori

Slot Assignment Sequence (the

Leftmost Slot Has the Highest Priority)

USCU

The following figure shows the typical configuration of BBU boards.

Figure 4-15 Typical configuration of BBU boards

BBU Slot Assignment in a G*L Base Station

The following figure shows the BBU slot assignment.

Figure 4-16 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-8 Principles for BBU slot assignment Prior

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

1 Main

-Prior

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

5 Base

The following figure shows the typical configuration of BBU boards.

Figure 4-17 Typical configuration of BBU boards

4.7 BBU Slot Assignment in a UL or U*L Base Station

This section describes the principles for BBU slot assignment in a UL or U*L base station.

BBU Slot Assignment in a UL Base Station

NOTE

l A UL base station is a separate-MPT base station. This means that in one single BBU, there are two main control boards working in UMTS and LTE modes separately.

l A U*L base station is a co-MPT UL base station. This means that in one single BBU, the main control board work in UMTS and LTE modes simultaneously.

The following figure shows the BBU slot assignment.

Figure 4-18 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-9 Principles for BBU slot assignment Priori

ty Board

Type Board Mand atory

Slot Assignment Sequence (the

Leftmost Slot Has the Highest Priority)

1 Main

Priori

ty Board

Type Board Mand atory

Slot Assignment Sequence (the

Leftmost Slot Has the Highest Priority)

UTRP

The following figure shows the typical configuration of BBU boards.

Figure 4-19 Typical configuration of BBU boards

BBU Slot Assignment in a U*L Base Station

The following figure shows the BBU slot assignment.

Figure 4-20 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-10 Principles for BBU slot assignment Prior

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

1 Main

Prior

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

5 Base

The following figure shows the typical configuration of BBU boards.

Figure 4-21 Typical configuration of BBU boards

4.8 BBU Slot Assignment in a Triple-Mode Base Station

This section describes the principles for BBU slot assignment in a triple-mode base station.

BBU Slot Assignment in a Triple-Mode Base Station

NOTE

l GU+L indicates two BBUs, one working in GU mode, the other in LTE mode.

l G[U*L] indicates that one single BBU work in triple modes. The BBU is configured with two main control boards. One is the GTMU or GTMUb working in GSM mode, and the other is the UMPT working in UMTS and LTE modes.

l G*U*L indicates that one single BBU is configured with one UMPT working in triple modes.

The following table describes the BBU slot assignment in a separate-MPT triple-mode base station in various application scenarios.

Table 4-11 BBU slot assignment

Application Scenarios Description

Separate-MPT triple-mode base station configured with two BBUs

l GU+L (BBUs not interconnected) l GL+U (BBUs not interconnected)

l For the BBU slot assignment in a GU base station, see BBU Slot Assignment in a G*U Base Station.

l For the BBU slot assignment in an LTE base station, see 4.4 BBU Slot

Assignment in an LTE Base Station.

l For the BBU slot assignment in a GL base station, see 4.6 BBU Slot Assignment in a GL or G*L Base Station.

l For the BBU slot assignment in a UMTS base station, see 4.3 BBU Slot

Assignment in a UMTS Base Station.

Application Scenarios Description Separate-MPT triple-mode base station

configured with two BBUs l GU+L (BBUs interconnected) l GL+U (BBUs interconnected) l GU+UL (BBUs interconnected)

GU+L (BBUs interconnected):

l In the BBU working in GU mode, except that the UCIU is newly added, the configuration of other boards is the same as that in BBU Slot Assignment in a G*U Base Station. The UCIU configuration principles are as follows:

l In the BBU working in LTE mode, except that a UMPT must be configured as the main control board, the configuration of other boards is the same as that in 4.4 BBU Slot Assignment in an LTE Base Station.

GL+U (BBUs interconnected):

l In the BBU working in GL mode, except that the UCIU is newly added, the configuration of other boards is the same as that in 4.6 BBU Slot Assignment in a GL or G*L Base Station. The UCIU configuration principles are as follows:

l In the BBU working in UMTS mode, a UMPT must be configured as the main control board. The configuration of other boards is the same as that in 4.3 BBU Slot Assignment in a UMTS Base Station.

GU+UL (BBUs interconnected):

l In the BBU working in GU mode, except that the UCIU is newly added, the configuration of other boards is the same as that in BBU Slot Assignment in a G*U Base Station. The UCIU configuration principles are as follows:

l In the BBU working in UL mode, except that a UMPT must be configured as the main control board, the configuration of other boards is the same as that in 4.7 BBU Slot Assignment in a UL or U*L Base Station.

Separate-MPT base station configured with one BBU

l G[U*L]

For the slot assignment principles of a BBU in G[U*L] mode, see BBU Slot Assignment in a G[U*L] Base Station.

Application Scenarios Description Co-MPT base station configured with one

BBU l G*U*L

For the slot assignment principles of a BBU in G*U*L mode, see BBU Slot Assignment in a G*U*L Base Station.

The slot assignment principles of a BBU in G*U*L mode are the same as those of a BBU in G*L mode, see BBU Slot Assignment in a G*L Base Station.

Co-MPT base station configured with two BBUs, both in G*U*L mode

For details, see Typical Configuration of BBU Boards in a G*U*L+G*U*L Base Station (BBUs Interconnected).

The following figure shows configuration principles for the UCIU.

Table 4-12 Configuration principles for the UCIU Board

Type

Board Mand atory or Not

Maxi mum Quan tity

Slot Assignment Priorities (Descending from Left to Right)

Interc onnect ion board

UCIU Yes 1 Slot 4 Slot 0 Slot 1 - -

-BBU Slot Assignment in a G[U*L] Base Station

The following figure shows the BBU slot assignment.

Figure 4-22 BBU slot assignment

Table 4-13 Principles for BBU slot assignment

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

1 Main

Prior

ity Boar d Type

Boar

d Man

dator y or Not

Maxi mum Qua ntity

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

WBB Pb WBB Pa

7 Base

band board in LTE FDD mode

LBB Pd

Yes 5 Slot 3 Slot 1 Slot 2 Slot 0 Slot 4

-LBB Pc

The following figure shows the typical configuration of BBU boards.

Figure 4-23 Typical configuration of BBU boards

BBU Slot Assignment in a G*U*L Base Station

The following figure shows the BBU slot assignment.

Figure 4-24 BBU slot assignment

The following table describes the principles for BBU slot assignment.

Table 4-14 Principles for BBU slot assignment Prior

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

1 Main

Prior

ity Boar d Type

Boar

d Man

dator y or Not

Maxi mum Qua ntity

Slot Assignment Sequence (the Leftmost Slot Has the Highest Priority)

LTE mode

LBB Pc

The following figure shows the typical configuration of BBU boards.

Figure 4-25 Typical configuration of BBU boards

Typical Configuration of BBU Boards in a G*U*L+G*U*L Base Station (BBUs Interconnected)

The following figure shows the typical slot assignment in two interconnected BBUs in G*U*L +G*U*L mode.

Figure 4-26 Typical configuration of BBU boards in a G*U*L+G*U*L base station (BBUs interconnected)

5 BBU3900 Boards

About This Chapter

BBU3900 boards include main processing boards, baseband processing boards, transmission extension boards, fan modules, power modules, monitoring modules, clock boards with satellite cards, baseband extension boards, and interconnection boards.

5.1 WMPT

The WCDMA main processing and transmission unit (WMPT) is the main control and transmission unit for the WCDMA mode.

5.2 UMPT

The Universal Main Processing & Transmission unit (UMPT) is a main control and transmission unit commonly used by the BBU3900.

5.3 GTMU

The GSM transmission and timing and management unit (GTMU) is the main control and transmission unit for the GSM mode.

5.4 LMPT

The LTE main processing and transmission unit (LMPT) is the main control and transmission unit for the LTE mode.