TW201206095A - Soft handoff of a CDMA reverse link - Google Patents

Soft handoff of a CDMA reverse link Download PDF

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Publication number
TW201206095A
TW201206095A TW100114978A TW100114978A TW201206095A TW 201206095 A TW201206095 A TW 201206095A TW 100114978 A TW100114978 A TW 100114978A TW 100114978 A TW100114978 A TW 100114978A TW 201206095 A TW201206095 A TW 201206095A
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TW
Taiwan
Prior art keywords
base station
command
code
reverse link
timing
Prior art date
Application number
TW100114978A
Other languages
Chinese (zh)
Other versions
TWI470946B (en
Inventor
Jr A Proctor James
Original Assignee
Ipr Licensing Inc
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Publication of TW201206095A publication Critical patent/TW201206095A/en
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Publication of TWI470946B publication Critical patent/TWI470946B/en

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Classifications

    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W36/00Hand-off or reselection arrangements
    • H04W36/16Performing reselection for specific purposes
    • H04W36/18Performing reselection for specific purposes for allowing seamless reselection, e.g. soft reselection
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04BTRANSMISSION
    • H04B7/00Radio transmission systems, i.e. using radiation field
    • H04B7/24Radio transmission systems, i.e. using radiation field for communication between two or more posts
    • H04B7/26Radio transmission systems, i.e. using radiation field for communication between two or more posts at least one of which is mobile
    • H04B7/2628Radio transmission systems, i.e. using radiation field for communication between two or more posts at least one of which is mobile using code-division multiple access [CDMA] or spread spectrum multiple access [SSMA]
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04JMULTIPLEX COMMUNICATION
    • H04J13/00Code division multiplex systems
    • H04J13/0007Code type
    • H04J13/0022PN, e.g. Kronecker
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W52/00Power management, e.g. TPC [Transmission Power Control], power saving or power classes
    • H04W52/04TPC
    • H04W52/06TPC algorithms
    • H04W52/14Separate analysis of uplink or downlink
    • H04W52/146Uplink power control
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W52/00Power management, e.g. TPC [Transmission Power Control], power saving or power classes
    • H04W52/04TPC
    • H04W52/38TPC being performed in particular situations
    • H04W52/40TPC being performed in particular situations during macro-diversity or soft handoff
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W56/00Synchronisation arrangements
    • H04W56/001Synchronization between nodes
    • H04W56/002Mutual synchronization
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W56/00Synchronisation arrangements
    • H04W56/004Synchronisation arrangements compensating for timing error of reception due to propagation delay
    • H04W56/0045Synchronisation arrangements compensating for timing error of reception due to propagation delay compensating for timing error by altering transmission time

Abstract

Method and apparatus for base stations and subscriber units allows soft handoff of a CDMA reverse link utilizing an orthogonal channel structure. Subscriber units transmit an orthogonally coded signal over a reverse link to the base stations. A given base station provides timing control of the timing offset of the reverse link signal. Based on at least one criterion, an alignment controller determines that the given base station should hand off timing control to another base station, and a soft handoff process ensues. In response to a command or message for soft handoff of the subscriber unit from the given base station to another station, the subscriber unit makes a coarse timing adjustment to the timing of the coded signal. The subscriber unit may make fine timing adjustments based on feedback from the base station controlling timing. Multiple base stations may provide power control feedback to the subscriber unit.

Description

201206095 六、發明說明: 【發明所屬之技術領域】 本發明大致上係關於通訊網路,且特別係關於分 碼多路接取反向鏈路之軟性交接操作。 【先前技術】 無線通訊服務之形式及需求在最近二十年係具 有空前的成長。包含行動電話、個人通訊服務 (Personal Communication Services, PCS )及类員似系 統之無線語音通訊服務現今係提供幾乎到處存在之 涵蓋範圍。用於如此網路之基礎結構係已經被建立成 美國、歐洲及世界上其他工業化之區域之大部分居民 具有不只一個‘而為複數個服務提供者可以選擇之情 況。 於電子及電腦工業之持續成長係對於接取網際 網路及無數的服務及提供之特色之增加的需求有貢 獻。於使用包含膝上型電腦、手持個人數位助理、網 際網路致能之行動電話及類似裝置之計算設備,尤其 是可攜式之種類,之增殖係已經造成無線資料存取之 需求的對應增加。 雖然行動電話及個人通訊服務網路係廣泛地配 置,這些系統起始並非意欲用於攜帶流通資料。反而 是,相較於網際網路通訊所需之叢發模式數位通訊協 定,這些系統係設計用於有效率地支援連續之類似訊 201206095 號。亦考慮語音通訊係適合於一個大約3千赫芝之通 訊頻道頻寬。然而,對於諸如網路劉覽之有效的網際 網路通訊而言,需要至少每秒5 6千位元之資料率係 可以被接受的。 ' '' 此外,該流通貧料流本身之本質係與語音通訊之 本質不同。語音係需要一個連續的多工連結;亦即, ::個連結之-端之使用者係期望能夠持續地傳送 來結ί另一端之使用者及由該使用者接收而 ί導際網路接取網頁-般而言係非常叢 ^向的。典型地,—個遠距客戶電腦之使用者 ς諸二一個網路伺服器上之電腦槽案之位址。: 地為糸被格式化為一個相當短的資料訊息,典型 中ί小於1 0 0 0位元組。然後,諸如於該網路 該連結之另-端係以可: 料,被請求之資料稽案作回應。由於網際 本身之延遲的固有特性, :: 4之内容開始傳送給使用者之在該破 者更多。然後,-旦該内容被傳/』延遲至少數秒或 3定下-頁被下載之前花費:秒:用 規看或讀取該頁之内容。 次者甚至數分鐘 途,:f ’語音網路係被建構成支援高移動力之用 形式“動Γ采用ί長之長度以支援高速公路之速度 動力,以當以語音為基礎之行動及個人通訊 ⑧ 201206095 服務之網路之使用者沿著一條高速公路以高速移動 時維持連結。然而,一個膝上型電腦之典型的使用者 係相當靜止的,諸如坐於桌子前。因此,用於無線語 音之考量行動單元對行動單元之高速移動力之重要 觀點典型地係不需要用於支援資料存取。 【發明内容】 改進現存之热線基礎結構之某些構件以更有效 率地適合無線資料係有意義的。實施用於高資料率1 低移動力之使用者之新的使用者等級之額外功^應 該向後與現在用於為低資料率及高移動力之 之功能相容。此將允許使用現存被使用之語音網路基 礎結構之相同的頻率分配計劃、基地臺天線、建構位 置及其他方面,以提供新的高速資料服務。 於反向鏈路上攜帶資料之如此的網路之反向 路ΐ支援儘可能高之資料率料別重要的,例如由遠 距單元至該基地臺。考詹法1 τ 至芩應者如1S_95分碼多路接取 (Code DlvlsiGn 胸响―⑽,cdm 位行動係指定於一順向鏈 見存之數 列,以維護頻道之門之悬Λ向上使用不同的碼序 乍又頦迢之間之取小的干擾。明確言之, 一個系統於順向鏈路上接用 禮如 i羅蛭福、音# 父碼,其係定義個別的 避輯頻逗。然而,如此 备 曰 ,^ 此之系统之裒佳操作係需要所有 二此之I1依時間對準於-特定邊界,以於該接3 隻正乂性。因此,該傳輪係必須被同步化。 此並非一個順向鏈路中之一個特別的考量,因為 201206095 =有的傳輸係起源於相同之位置,亦即,於—個基地 堂收^站之位置。然而,目前之數位行動分碼多路 接取標準係、不企圖使用或者需要在反向鏈路方向上 頻迢之間之正交性。-般而言,其係假設同步化起源 =於:同位置之複數個遠距單元且距離該 可月匕相备不同距離之傳輸係困難的。反而是 統典型地係使料有此長的偽隨 ^201206095 VI. Description of the Invention: TECHNICAL FIELD OF THE INVENTION The present invention relates generally to communication networks, and more particularly to soft handover operations for coded multiple access reverse links. [Prior Art] The form and demand of wireless communication services have grown unprecedentedly in the last two decades. Wireless voice communication services, including mobile phones, personal communication services (PCS) and class-like systems, now offer almost everywhere coverage. The infrastructure used for such networks has been established as the majority of residents in the United States, Europe, and other industrialized regions of the world with more than one ‘and multiple service providers to choose from. The continued growth in the electronics and computer industries is a contribution to the increased demand for access to the Internet and countless services and features offered. The use of computing devices including laptops, handheld personal digital assistants, Internet-enabled mobile phones and similar devices, especially portable types, has increased the demand for wireless data access. . Although mobile phones and personal communication service networks are widely deployed, these systems are not intended to be used to carry streaming information. Instead, these systems are designed to efficiently support continuous similar messages 201206095, compared to the burst mode digital communication protocol required for Internet communication. It is also considered that the voice communication system is suitable for a communication channel bandwidth of about 3 kilohertz. However, for Internet communications such as Internet Explorer, a data rate of at least 56,000 bits per second is acceptable. ' '' In addition, the nature of the flow of the poor stream itself is different from the nature of voice communication. The voice system requires a continuous multiplex connection; that is, the user of the ::link-end is expected to be able to continuously transmit the user at the other end and receive it by the user. Taking web pages - in general terms - is very straightforward. Typically, the user of a remote client computer has the address of a computer slot on a network server. : The ground is formatted as a fairly short data message, typically ί is less than 1 0 0 0 bytes. Then, the other end of the link, such as the network, responds with the requested data file. Due to the inherent nature of the delay of the Internet itself, the content of :: 4 begins to be transmitted to the user more in the break. Then, the content is transmitted / "delayed for at least a few seconds or 3 - the time before the page is downloaded: seconds: to view or read the contents of the page. The second or even a few minutes, :f 'Voice network is built to support the form of high mobility. "Use the length of ί long to support the speed of the highway, for voice-based actions and individuals. Communication 8 201206095 The user of the service network maintains a link when moving along a highway at high speed. However, the typical user of a laptop is quite static, such as sitting at a desk. Therefore, for wireless Voice Considerations The important point of action of the mobile unit on the high-speed mobility of the mobile unit is typically not required to support data access. [Summary] Improving some of the components of the existing hotline infrastructure to more efficiently fit wireless data It is meaningful. The additional work of implementing a new user level for users with high data rate 1 low mobility should be backwards and compatible with the functions currently used for low data rates and high mobility. This will allow Use the same frequency allocation plan, base station antenna, construction location, and other aspects of the existing voice network infrastructure to provide new High-speed data service. The reverse path of such a network carrying data on the reverse link supports the highest possible data rate, such as from the remote unit to the base station. Coca-Chan 1 τ to 芩If the responder is 1S_95 coded multiple access (Code DlvlsiGn chest sound - (10), cdm bit action is specified in a sequence of the forward chain to save, to maintain the channel door hang up using different code sequences 乍 颏The small interference between the two is clear. In a word, a system uses a gift such as i Luo Fufu, sound # father code on the forward link, which defines individual avoidance frequencies. However, so this is the case, ^ this The best operation of the system requires that all of the I1s are time-aligned to the -specific boundary so that the connection is positive. Therefore, the transmission must be synchronized. This is not a forward link. A special consideration, because 201206095 = some transmission systems originated from the same location, that is, in the location of a base station. However, the current digital code division multi-channel access standard system, no Attempt to use or need to be in the reverse link direction Orthogonality between 迢. In general, it is assumed that the synchronization origin = in: a plurality of remote units in the same position and the transmission system at different distances from the moon can be difficult. The ground system has this long pseudo with ^

之晶片準位㈣,以辨識該個別的反向鍵路頻H 而,使用此亂碼係排除彼此正交 用 ς 輸之可能性。 个丨』的使用者之傳 因此,本發明之一個實施 用者之一個第一群組之使】:包3;種支援於使 用者之組成成分之間之通訊者二個::群組之使 路接取行動電爷季續之w古為一個數位分碼多 用去总 既有使用者之第一群组之使 用者係以一個共同第一碼編Μ ,吏 :組之使用者係藉由提供用於每—個使::第: = 唯-地_ == 瑪之該碼相位偏移之一而二者/之:相:之碼及該 群組之使用者之每一個」、之傳輸。然而,第二 碼其之傳輸,該額外的碼;於第步以—個額外的碼編 一個係為唯—沾 / ;弟—群組之使用者之每 彼此正交,同時=允許第二群短之使用者之傳輸 個單—使用者::、Λ維持整體之外觀為第-群組之- 201206095 指S、给第一群組之使用者之 :的^逮率或者爲隨機碼m第個共 者之瑪典型地係可以為' 组唯一Π-群组之使用 之終端之個別组成成分係可由乂:。第一群組 選擇出之較長的偽ρ嫉雖 错由擾頻具有一個被 之碼而被辨識出列之唯-的相位偏移 於一個較佳實施例中 於第二群组使用者之間之發訊的2 確: 二吏明確言之’ 一個共同的瑪頻道係 門使用於作為一個同步化 、场』以專 該編碼機制係於一個反。允許在舉例而言 下,維持第=1鍵路方向上實施之情況 、、寺弟一群組之終端之傳輸的正確時序。 於另一個實施例中,堂__被/ 配用於傳輸之特定時間槽 之破分 ::::維待正交.…地,:二:::: 二t於第,之使用者之傳輸表現為 本發明之原理係允許設計用於交通工且之 ::目前的分碼多路接取系統支援於其之反向鏈路 上之正交頻道使用者之軟性交接操作,以增加於一t 的可變射頻環境下反向鏈路頻道連結之韌性。门 因為一個正交鏈路係必須為於時間上對準,以 :寺:-個使用者至下一個使用者之正交性,所以由二 固早-基地臺而來之時序控制迴路係被採用。對於在 201206095 —個反向鏈路方向上之兩個基地臺而言,正交性係不 ,易達到,因為相對之傳播時間延遲係使在兩個基地 堂之時間對準變複雜。因此’為了使用具有軟性交接 操作之正交反向鏈路,係具有一個提供時序控制之主 要反向鏈路基地臺及一個可以以非同步方式接收 輸之輔助基地臺。 特疋之條件係被定義成決定何時重新指定由該 f要基地臺至該輔助基地臺之時序控制以允許由該 第基地至至5亥第二基地堂之正交鏈路之改變係有 利的。當只有一個正交基地臺時,於該第二基地臺所 接收之訊號準位可以足夠用於接收。這些訊號可以被 使用於提供用於多樣化。此係於高移動性系統中特別 有用。 雖然只#-個單-基地臺實施時序控㈣,於一個 較佳實施例中’兩者係實施功率控制。此係因為,杂 該非正交基地臺之路徑損失隨著該使用者移動而^ 少時,該接收到之功率可以變成如此強,使得其開始 產生過量之干擾,減少該辅助基地臺之容量。因此, 當該訊號準位係適合於在該輔助基地臺處接收時,命 令或者訊息係被傳送至該用戶單元以減少該傳送之 功率。㈣這些命令係影響於該正交基地臺處及該非 正交基地臺處之接收功率’重新指定由該主要基地臺 至該輔助基地臺之時序控制係適當的。一個典型的产 況可以為當對於該非正交或者辅助基地臺之測量出 201206095 口路徑損失係超過某一臨限差時,舉例而言 貝。 現有之分螞多路接取系統係以非正交方式界定 反向鏈路頻道化。此係蕤出炅〜 又万式芥疋 .^ ^ ^ 係猎由界疋用於每一個反向鏈路 >勺反尚 的展開碼位移而實施。正交的及非正 =向相容性係能约由用於— 旱該相同展開石馬之正交 ^土也至且,、 ^ ^ ^ ^ . 乂便用者而達成。當這些使用者 的:=ΐ:被反接些使用者訊號 ;;2 —的位移且能夠根據碼位移及正交碼而 路…統所既有不會比為現有之分碼多 擾。因此二 非交訊號產生更多干 狗以一個正交主交接操作,其係能 施。 要基地堂及非正交辅助基地臺而實 田》亥主要基地臺係被重新 係由-個輔助基地臺而棗瞎…疋冑仔現在之訏序 制交接摔作係ρ έ_ 、 '、Ρ,反向鏈路時序控 我保π係已經發生),並 处 及碼相位偏移。使用—個值:係U一個大的延遲 迴路可能太r、 傳的一位元差動時序控制 地以該新的基地臺 :_^又接知作時不能快速 生時,一個她雕 " 乂。因此,當該交接操作發 於快逮地重新對犟,“戈者訊息係可以被使用 整可以為丄Ϊ 路,其中’該總體時序調 為、,,巴對的或者相對的。於該時序命之情況下 9 201206095 5玄用戶單元係被告知實施一 該時序 項粗略的時序調整’而於 序訊息中之資訊。 早兀係自動地回應該時 用於時序控制交接操作之條件 列之-之條件而定: 據至少下 上.7個替代路經之測量值係超過用於 期間之一個臨限值; 疋之 ,在二路徑之測量值係超過相對於目前路 k在知疋之期間之一個臨限值; 量值:或:前選擇出之路徑係下降成低於一個絕對測 4 ·候選路徑係超過一個絕對測量值, 其中’ f玄測量值係可以為下列之—或多個: a.功率; b·訊號對雜訊比; c.功率之變異值; d. 訊號對雜訊比之變異值·或者 e. 兩個路徑(亦即,正交鏈路及非正交鏈路)之 間之上述測量值之相對比值。 -個正交鏈路(RL)之功率控制(或者訊號對雜 訊比之控制)係可以根據正交(對準之)及非正交路 徑而定。當一個非正交路徑之訊號對雜訊比係符合上 文所列之品。=質條件同時一個功率控制迴路係為活動 時,該用戶罩7G之時序控制係可以重新指定成與該非 12 201206095 正交路徑相關之該基地臺。 關於該功率控制迴路,假如一個 而非-:訊息或者報告’則該命令係可以為每::路 徑之訊唬對雜訊比之最小值。 徑被追縱,且-個需要電力而另-個係二如太兩r; 力二則該;力係被命令成減少。此係亦適用於 性父接功犯,其中,由該用戶單元所輸出人 在所有提供功率測量值之^ ^ /功率係僅 之情況下增加。之…訊息係需要其增加 在由一個基地臺之一個非正交路徑 及由正交路徑而來之命令之間係可以且有來… 的偏移值。舉例而言,於访τ六__、/、有一個相對 路徑控制功率之減少之丄。个:化被忽略且其他的 刀卞又成y之刖,需要由非正 較多或較少功率之命令係可能 二而來之 維持-段較長的期間。基地臺内之正交區二::或者 一個上述之類似方法而予以處理。 域係可以以 當時序正交係由一個基地臺所 =正交基地臺及非正交基地臺::持功 ;量值之Γ二:交二臺兩者所维持時,包: 傳送至該用戶單元傳送器。 S向路鏈路而被 由母個基地臺而來之功率护:A丨入 是否於每-個個別的基地臺處一;:j:令可以根據 達成而定。該品質測量值可以為二;2量值係被 L錯祆率,訊號對 13 201206095 雜,比’接收到之功率或者干擾密度Ec/lo。假設該 測f值係滿足’則一個減少傳輸功率之命令係被傳送 =。因為該接取終端係接收由該兩個基地臺而來之命 令,通常其係將接收衝突的命令。當此情況產生時, 假如個p务低功率之命令產1,則該接取終端係遵從 該降低功率之命令。此係可以使用一個互斥或 (exclusive-OR )之函數而實施;舉例而言,只有在 兩個基地1皆命令提高功率之情況下,—個提高功率 之動作係產生。假如個基地臺係命令降低功率, 則—個降低功率之動作係產生於該接取終端。此對於 命令亦為相同,其中’功率上之最小的 曰加I或者敢大之滅少量係被遵從。 一個2:係為一個分碼多路接取通訊系統1 0之 個::分碼多路接取通訊系統10係使用-制’於該機構中,一個第一等級之糾 一、破扣疋具有不同碼相位偏移之唯一的長碼,且 第二等級之邏輯頻道係藉由使用—個妓 ::碼相位偏移及結合使用一個用於每一個頻; 唯一的正交碼之額外編碼程序而被設置。 、、之 於一個實施例之下列詳細敘述之中, 〇係被教述成使得該共享㈣ ^訊系統 :頻道或者射頻頻道。然而,應瞭解的是無 义之技術係能_用於實施對於其他形式之媒體^ 201206095 共旱接取,諸如雷每_、*# 及拣敢在/ 電腦網路連結,電纜連結, =係在-個需求驅動之基礎下被允許之其他實 以及j ΐ統i 0係提供一第-群組之使用者1 1 〇 弟—组之使用者2 1 0無線通訊。該第-群 二用:者-1 1 0典型地係為行動電話設備之既有 的使用者’該行動電話設備係諸如無線手機i i 3一 ^^ 1 3 — 2及/或設置於車輛中之行動電話工工 k。該第一群組之# 個語音模式之網路,夢Iti1/主要係使用於-u工 错此其之通訊係被編碼為連續 二個較佳實施例中,這些使用者之傳輸係 二 早70113透過順向鏈路40射頻頻道及 ::鏈路” _道而被轉送。該些訊號係於一個 n官理’該中央位置係包含一個基地臺天 、,泉 1 1 8,基地收發器 4 (Base Transceiv BTS) 1 2 0,基地臺押制哭。 ’ - (Base Station Controller, 。因此,該第一群組之使用者丄i 〇典 ,地係結合於使用該行動用戶單元丄丄3、基地收發 器臺1 2 0及該基地臺控制器丄2 3之語音合1之 中’以透過公共交換電話網路1 2 4而連^話連 結。The wafer level (4) is used to identify the individual reverse key frequency H, and the use of this garbled code eliminates the possibility of orthogonality with each other. Therefore, a first group of users of one embodiment of the present invention: package 3; a type of correspondent that supports the user's components:: group The user of the first group of users who have been used by the user is a common first code. Provided by one for each:::: = only - _ == _ one of the code phase offsets of the two and the: phase: the code and each of the users of the group", Transmission. However, the second code is transmitted, the additional code; in the first step, an additional code is used to encode a system as a unique-dip; the brother-group user is orthogonal to each other, and at the same time = the second is allowed The transmission of a short group of users - the user::, to maintain the overall appearance of the first group - 201206095 refers to S, to the users of the first group: the rate of capture or random code m The first co-author's horse is typically the individual component of the terminal that can be used as a 'group unique Π-group. The first group selects a longer pseudo-p嫉, although the error has a coded offset and is recognized as a column-only phase offset in a preferred embodiment for the second group of users. The two of the messages are indeed: The second is clear that 'a common Ma channel system is used as a synchronization, field to tie the encoding mechanism to a counter. For example, it is possible to maintain the correct timing of the transmission in the direction of the =1-th key direction and the transmission of the terminal of the group. In another embodiment, the __ is / is assigned to the specific time slot of the transmission: ::: dimension to be orthogonal .... ground, : two:::: two t in the first, the user's Transmission performance is the principle of the invention that allows for the design of traffic workers: the current code division multiple access system supports the soft handover operation of the orthogonal channel users on its reverse link to increase The resilience of reverse link channel connections in a variable RF environment. Because the orthogonal link system must be aligned in time, the temple: the orthogonality of the user to the next user, so the timing control loop from the second solid-base station is use. For the two base stations in the 201206095-reverse link direction, the orthogonality is not easy to achieve because the relative propagation time delay complicates the time alignment between the two base stations. Therefore, in order to use the orthogonal reverse link with soft handover operation, there is a primary reverse link base station that provides timing control and an auxiliary base station that can receive and receive in an asynchronous manner. The condition of the feature is defined as deciding when to re-specify the timing control from the base station to the auxiliary base station to allow for the change of the orthogonal link from the base station to the second base station of the 5th base. . When there is only one orthogonal base station, the signal level received at the second base station may be sufficient for reception. These signals can be used to provide for diversification. This is especially useful in high mobility systems. Although only #- single-base stations implement timing control (4), in a preferred embodiment, both implement power control. This is because, when the path loss of the non-orthogonal base station decreases as the user moves, the received power can become so strong that it begins to generate excessive interference and reduces the capacity of the auxiliary base station. Thus, when the signal level is suitable for reception at the secondary base station, a command or message is transmitted to the subscriber unit to reduce the power of the transmission. (d) These commands affect the received power at the orthogonal base station and the non-orthogonal base station. The re-designation of the timing control system from the primary base station to the secondary base station is appropriate. A typical condition can be, for example, when the 201206095 path loss for the non-orthogonal or auxiliary base station exceeds a certain margin, for example. The existing split multi-access system defines the reverse link channelization in a non-orthogonal manner. This system is 炅 又 又 又 又 又 ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ The orthogonal and non-positive-compatibility energy can be achieved by the use of the same for the same unfolding stone horses of the same drought, and ^ ^ ^ ^ . When these users: = ΐ: are reversed to some user signals; 2 - the displacement and can be based on the code shift and the orthogonal code, the system will not be more than the existing code division. Therefore, the two non-communication signals generate more dry dogs with an orthogonal main handover operation, which can be implemented. It is necessary to base the base hall and the non-orthogonal auxiliary base station. The main base station of Shida, Hai, is re-established by an auxiliary base station and the jujube... The current order of the Taipa is the handover system ρ έ _, ', Ρ The reverse link timing control keeps the π system already occurring) and the code phase offset. Use a value: a large delay loop of U may be too r, one bit of differential transmission is controlled by the new base station: _^ and when it is known, it cannot be quickly born, a her sculpture " Hey. Therefore, when the handover operation is re-targeted at the fast-tracking location, the "goer message system can be used as a loop, where the overall timing is adjusted to , , , or opposite. In the case of the 9 201206095 5 Xuan user unit is told to implement a rough timing adjustment of the timing item and the information in the sequence message. The early detection system automatically responds to the conditions for the timing control handover operation - Depending on the conditions: According to at least the upper seven. The measured value of the alternative path exceeds a threshold for the period; 疋, the measured value in the two path exceeds the current period relative to the current road. A threshold value; or: the previously selected path is reduced to less than an absolute measurement. 4. The candidate path system exceeds an absolute measurement value, where the 'f meta-measurement value can be the following one or more : a. power; b. signal to noise ratio; c. power variation value; d. signal to noise ratio variation value or e. two paths (ie, orthogonal link and non-orthogonal chain Relative ratio of the above measured values between the roads - Orthogonal link (RL) power control (or signal-to-noise ratio control) can be based on orthogonal (aligned) and non-orthogonal paths. When a non-orthogonal path signal is mismatched The analog system meets the items listed above. = Quality condition When a power control loop is active, the timing control of the user cover 7G can be redesignated to be associated with the non-12 201206095 orthogonal path. The power control loop, if one is not -: message or report 'the command can be the minimum of the noise ratio for each :: path. The path is tracked, and - one requires power and the other The system is as good as two two; the second is the force; the force is ordered to decrease. This system is also applicable to the sexual father, in which the output of the user unit is at all power measurements. It is only necessary to increase the information. It is necessary to increase the offset value between the non-orthogonal path of a base station and the command from the orthogonal path. For example, , visit τ six __, /, have a relative After the reduction of the diameter control power, the calculation is ignored and the other knives become y, and the command system that is not more or less power may be maintained for two periods. Orthogonal region 2:: or a similar method as described above. The domain system can be used as a time series orthogonal system by a base station = orthogonal base station and non-orthogonal base station:: work; Second: When the two stations are maintained, the packet is transmitted to the subscriber unit transmitter. The S-way link is powered by the parent base station: whether the A-input is in each individual Base station 1:; j: order can be based on the achievement. The quality measurement can be two; 2 value is L error rate, signal pair 13 201206095 miscellaneous, than 'received power or interference density Ec /lo. Assuming that the f-value is satisfied, then a command to reduce the transmission power is transmitted =. Since the pick-up terminal receives commands from the two base stations, it will usually receive conflicting commands. When this occurs, the command is followed by the command to reduce power if a low power command is issued. This can be implemented using a mutually exclusive or (exclusive-OR) function; for example, only when both bases 1 command to increase power, an action to increase power is generated. If a base station command is to reduce power, then a power reduction action is generated from the access terminal. This is also the same for the command, where the smallest of the power plus I or the dare to destroy a small amount is followed. A 2: is a code division multi-channel access communication system 10:: code division multi-channel access communication system 10 system use - system in the organization, a first level of correction, broken buckle 疋A unique long code with a different code phase offset, and the second level of logical channel is used by using a 妓:: code phase offset and a combination of one for each frequency; additional encoding of the unique orthogonal code The program is set. In the following detailed description of an embodiment, the system is taught to make the shared (four) system: channel or radio frequency channel. However, it should be understood that the technology of nonsense can be used for implementation of other forms of media ^ 201206095 co-existence, such as mine per _, * # and daring in / computer network connection, cable connection, = system The other real and j-systems that are allowed on a demand-driven basis provide a first-group user 1 1 brother-group user 2 1 0 wireless communication. The first-group two-purpose: -1 1 0 is typically an existing user of a mobile telephone device. The mobile telephone device is such as a wireless mobile phone ii 3 - ^ 1 3 3 - 2 and/or is disposed in the vehicle. Mobile phone worker k. The network of the first group of # voice modes, the dream Iti1/ is mainly used for the -u error, the communication system is coded into two consecutive preferred embodiments, the transmission system of these users is two early The 70113 is forwarded through the forward link 40 RF channel and the :: link " _ channel. The signals are tied to a n - government 'the central location contains a base station, and the spring 1 1 8 base transceiver 4 (Base Transceiv BTS) 1 2 0, the base station is forced to cry. ' - (Base Station Controller,. Therefore, the user of the first group 丄i 〇, the system is combined with the user unit using the action丄丄3. The base transceiver station 120 and the base station controller 丄2 3 of the voice combination 1 are connected by the public switched telephone network 1 2 4 .

由δ亥第-群組之使用者所使用之順向鍵路4 〇 係可以根據眾所周知之數位㈣標準W 些標準係例如定義於由通信工業I會The forward link 4 used by the users of the δ海第-group can be based on the well-known digital (four) standard. Some standards are defined, for example, by the communication industry I.

S 15 201206095 ^Telecommunication Industry Association, TIA ) ,, 疋之IS- 9 5B中之分碼多路接取標準。該 ^ 40係包含至少-個發訊頻道141及流通資=,142以及其他邏輯頻道144。該發訊、 。流通資料頻道142以及其他邏輯頻道/“二 疋義於稽由使用正交編碼頻道之系統之中。 =使用者H0亦根據㈣―95B標準 ==路50而編碼其之傳輸。因此,其係使用 頻道1 T 7 〇 :向-中之數個邏輯頻道,包含-個接取 '、=1,〜通貧料頻道1 5 2,及其他邏輯頻道 ^ 4。於該反向鏈路5 〇中,該第一群組之使用者 且0典型地係使用不同的碼相位偏移以—個丑同 些訊號。於反向鏈路50上用於:些 編物之方式亦係熟習該項技術 該通訊系統丄0亦包含一第二群组之使用者2速二群、组之使用者21 〇典型地係為需要高 構^料服務之使用者。該些使用者2工〇之系統 1糸i含複數個遠距設置之個人電腦裝置2丄2 2 2 1 2 -h f 1 卜對應之遠距用戶接取單元(Subscriber A-essUnit,SAU)2l4-l^l4^2,...,2 1 4 - h > ^ 己.,,214_1及結合之天線216 2 2 2 h 201206095 2 1 6 —1。設置於中央之設備係包含一個基地臺天線 218 ’及一個基地臺處理器(Base StationS 15 201206095 ^Telecommunication Industry Association, TIA ) , , 分 IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS IS The ^ 40 system includes at least one messaging channel 141 and a streaming currency = 142 and other logical channels 144. The message, . The circulation data channel 142 and other logical channels/"two are used in the system using orthogonal coding channels. = User H0 also encodes the transmission according to (4) - 95B standard == way 50. Therefore, its system Use channel 1 T 7 〇: several logical channels in the -, including - one access ', =1, ~ pass poor channel 1 5 2, and other logical channels ^ 4. On the reverse link 5 〇 The users of the first group and 0 typically use different code phase offsets as ugly signals. The use of the reverse link 50 for: some of the methods are also familiar with the technology. The communication system 丄0 also includes a second group of users, a two-speed group, and a group of users 21, typically users who need high-quality services.糸i PC device with a plurality of remote settings 2丄2 2 2 1 2 -hf 1 Bu corresponding to the Subscriber A-essUnit (SAU) 2l4-l^l4^2,... , 2 1 4 - h > ^ 己.,, 214_1 and combined antenna 216 2 2 2 h 201206095 2 1 6 -1. The equipment installed in the center includes a base station antenna 218 And a base station processor (Base Station

Processor, BSP ) 2 2 0。該基地臺處理器2 2 〇係提 供至一個網際網路閘道器2 2 2及由該網際網路閘 道為2 2 2而來之連結,該網際網路閘道器2 2 2係 接著提供接取一個資料網路,諸如網際網路2 2 4及 連接至§亥網路2 2 2之網路樓案伺服器2 3 〇。 該些電腦裝置212可以透過由既有的使用者 1 1 0所使用之該順向鏈路4 〇及該反向鏈路5 〇 所貫施之雙向無線鏈結而傳送資料至網路伺服器2 3 0及接收由網路伺服器2 3 〇而來之資料。應^解 的是,於所示之-個點至多點之多路接取無線通訊系 統1 0之中,一個給定之基地臺處理器2 2 〇係以類 似於一個仃動電話通訊網路之方式而提供與許多不 同的活動的用戶接取單元214之通訊。 於目4之場景中,分配用於由該第一群組之使用 者1 1 0所使用之射頻頻率係與分配用於由該第二 群纽之使用者21〇所使用之射頻頻率相同。本發明 係特別地關於如何允許一個不同的編碼結構由該第 3組之使用者21〇所使用同時產生對於該第一 群、,且之使用者1 1 〇最小的干擾。 2 一 1 ’手持單元212 該些電腦裝置212典型:係為膝上型電腦2 h,網際網路致能之行 動电話或偏人數位助理型 _ ^ ^ ^ 土异裝置。該些電腦裝置 £ 17 201206095 212之每一個係透過一個諸如乙太形 結之適合的線路連結而連接至一個個u 單元214。 j日]用尸接取 個用戶接取單元2 1 4係允許與農纟士人之帝 腦裝置2 1 2 i秀矾兮i_ /、、、,口0之毛 t 臺處理112 2 Q、該網際網 裔2 2 2及該網際網路224 路稽案飼服器2 3 0。於該反向鍵路方:上接= 對於由,些電腦褒置2 1 2朝制服器2 3。移動 ί = ί二:而言,該些電腦裝置2 1 2係提供-個網 際為路^疋準位之封包至該用戶接取單元2 1 4。然 後,該用戶接取單元2 1 4係以適當的無線連結框化 及編碼而囊封额線之減(㈣,乙太網路框化卜 然後,該適當地袼式化之無線資料封包係透過天線2 1 6及2 1 8而移動經過包含該反向鏈路5 〇之射 -。於該中央基地臺位置處,該基地臺處理 :2 U接者取出該射頻鏈路框化且以網際網路協 疋之形式重新格式化該封包’且透過該網際網路閑道 :2 2 2而轉送該封包。然後,該封包係經過任何數 里及/或任何形式之諸如網際網路2 2 4之傳輸护 制協定/網際網路協定之網路而選擇至其最終目^ 地之路由,諸如該網路檔案伺服器2 3 〇。 資料亦可以於一個順向鏈路4 0之方向由該網 路棺案飼服器2 3 〇傳送至該些電腦展置2丄2。於 此實例中’―個起源於該槽案飼服器2 3 0之網際網 .201206095 路協定封包係透過該網際 經過網際網路2 2 4而 ’二2 2 2而移動 叩達该基地堂處理器2 2 …u I田的揲線協定框化及編 網際網路協定封包。麸徭 , 饭刀八主邊 匕…、後,該封包係移動通過該天線 1 6,2 1 8而至該意欲之接收之用戶接取單元 2 1 4δ亥接收之用戶接取 扭~ & 取早2 1 4係解碼該無線 爲=,且轉送該封包至該實施該網際網路協定 層處理之意欲之電腦裝置2 1 2。 哭9 ^ /個給疋之電腦裝置2 1 2及該擋案伺服 恭 係能夠被視為於該網際網路協定居之雒工 終點。一旦一個連結被建立,於該電:裝 to之個使用者係因而可以傳送資料至該檔案 5服斋f 3 〇及由該檔案伺服器2 3 〇接收資料。 個流通資料頻道2 5 2 — 個維瘦,返5 3 °該反向鏈路接取頻道2 5 1係被 =戶接取單兀2 4 0所使用,以傳送訊息至該基地臺 處理哭9 Ο η 」〇以請求該流通資料頻道准許給予它 們然後’該被指定之流通資料頻道2 5 2係由該用 22 早 214攜帶資料酬載至該基地臺處理器 應瞭解的是,一個給定之網際網路協定層連 結可以直 -p . 一 地具有超過一個指定至其之流通資料頻 由”二群組之使用者2 i 〇之觀點而言,該反 路5 〇係真正地包含許多不同形式之邏輯及, 體之射頻頻道,包含一個接取頻道251,複數Processor, BSP ) 2 2 0. The base station processor 2 2 is provided to an Internet gateway 2 2 2 and the Internet gateway is connected to the 2 2 2 network. The Internet gateway 2 2 2 is followed by Provide access to a data network, such as the Internet 2 2 4 and the network building server connected to the Internet 2 2 2 2 〇. The computer devices 212 can transmit data to the network server through the forward link 4 使用 used by the existing user 110 and the two-way wireless link applied by the reverse link 5 2 3 0 and receive data from the network server 2 3 . It should be understood that among the multiple point-to-multipoint access wireless communication systems 10 shown, a given base station processor 2 2 is similar to a mobile telephone communication network. Communication with the user access unit 214 of many different activities is provided. In the scenario of item 4, the radio frequency frequencies allocated for use by the user 1 10 of the first group are the same as the radio frequency frequencies allocated for use by the user 21 of the second group. The present invention relates in particular to how a different coding structure is allowed to be used by the user of the third group 21 while generating the least interference to the first group, and the user 1 1 。. 2 1 '' Handheld Unit 212 These computer devices 212 are typically 2 hours for a laptop computer, an Internet enabled mobile phone or a partial number of assistants _ ^ ^ ^. Each of the computer devices £ 17 201206095 212 is connected to a single u unit 214 via a suitable line connection such as an Ethernet connection. j day] use the corpse to pick up a user access unit 2 1 4 is allowed to work with the farmer's emperor brain device 2 1 2 i show 矾兮i_ /,,,, mouth 0 hair t station processing 112 2 Q, The Internet is 2 2 2 and the Internet 224 Road Inspector Feeder 2 3 0. On the reverse link side: up = for some, some computers set 2 1 2 towards the uniform 2 3 . Mobile ί = ί 2: In terms of the computer device 2 1 2, a network packet is provided to the user access unit 2 1 4 . Then, the user access unit 2 1 4 is framed and encoded by an appropriate wireless link to encapsulate the reduction of the frontal line ((4), the Ethernet frame is then, and the appropriately formatted wireless data packet system Moving through the antennas 2 1 6 and 2 1 8 through the transmission comprising the reverse link 5 。. At the central base station location, the base station processes: 2 U receivers take the RF link frame and The form of the Internet Protocol reformats the packet and forwards the packet through the Internet channel: 2 2 2. The packet is then passed through any number and/or any form such as the Internet 2 The route to the final destination, such as the network file server 2 3 〇. The data can also be in the direction of a forward link 40. From the network file server 2 3 〇 to the computer display 2 丄 2. In this example '- a network originated from the slot machine 203 Internet. 201206095 road agreement package Through the Internet through the Internet 2 2 4 and 'two 2 2 2 and move to the base station processor 2 2 u I Tian's squall line agreement framed and edited the Internet Protocol package. The bran, the rice knife eight main side 匕..., then the packet moves through the antenna 1 6, 2 1 8 until the intended reception The user access unit 2 1 4 δ hai receives the user access to the twisted & early 2 1 4 system decodes the wireless as =, and forwards the packet to the computer device 2 1 that is intended to implement the Internet Protocol layer processing 2. Cry 9 ^ / a computer device 2 1 2 and the file server can be regarded as the completion point of the Internet Protocol. Once a link is established, the battery: The user system can then transfer the data to the file 5 and receive the data from the file server 2 3 个. The circulation data channel 2 5 2 - the dimension is thin, the back chain is 5 3 ° The channel access channel 2 5 1 is used by the household access order 兀 2 4 0 to transmit a message to the base station to process the crying 9 Ο η ” ” to request the circulation data channel to grant them and then the designated The circulation data channel 2 5 2 is carried by the 22 early 214 carrying data to the base station processor. The solution is that a given Internet Protocol layer link can be directly-p. One place has more than one designated flow data to which the user of the two groups is 2 i 〇, the reverse path 5 The system really contains many different forms of logic and the body's RF channel, including an access channel 251, plural

S 19 201206095 道2 5 2。此外,一個維護頻道2 5 3係可以攜帶諸 如同步化及功率控制訊息,以進一步透過該反:鏈路 5 0而提供資訊傳輸。 類似地,該第二群組之使用者係具有一個順向鏈 路4 0,該順向鏈路4〇係包含一個發訊頻道24 .1 ’複數個流通資料頻道2 4 2 — 1,· · · ,2 4 2 —t’及維護頻道2 4 3。該發訊頻道2 4 1係由該 ,地臺處理器2 2 0所使用,以不僅通知該用戶接取 單疋2 1 4順向鏈路流通資料頻道2 5 2係已經分 配,》玄用戶接取單元2 1 4 ,亦通知該用戶接取單元 2 1 4該反向鏈路方向上之被分配的流通資料頻道 2 5 2。然後,於該順向鏈路4 〇上之流通資料頻道 2 ^ 2 1,. . · ,2 4 2 ~ t係被使用於由該基 地置處理盗2 2 〇攜帶資料資訊至該用戶接取單元 2 14此外,維護頻道2 4 3係於該順向鏈路4 〇 ^由該基地臺處理器2 2 0攜帶同步化及功率控制 貝訊至該用戶接取單元2工4。應瞭解的是,典型地 係/、有比發訊頻道2 4 1或者維護頻道2 4 3為多 =流通貪料頻道2 4 1。於該較佳實施例中,該些邏 ^順向鏈路頻道24 1,242,2 4 3,25 1, 5 2及2 5 3係藉由指定每一個偽隨機頻道一個 偽隨機雜訊類道石—么 ' 、k馬因此,該糸統係為一個所謂的分 :夕路接取系统,其中’複數個編碼過之頻道係可以 用相同之射頻頻道。該邏輯或者碼頻道亦可以進一 ⑧ 20 201206095 步於複數個活動的用戶接取單元2 i 4中 戈 者指定。 尺 訊號處理操作之序列典型地係被實施’以編碼個 別的反向鏈路5 0之邏輯頻道51,52及53。於 該反向鏈路方向上,該傳送器係為該用戶接取單元2 1 4之,且該接收器係為該基地臺處理哭2 2 〇。 本發明之較佳實施例係於諸如根據該is_95b標準而 操作之系統之—個分瑪多路接取之數位行動ί話系 統之既有使用者亦係出現於該反向鏈路5 〇上之^ 境中實施。於—個IS_95B標準之系統中,反向鍵路= =夕路接取頻迢訊號係藉由指定非正交偽隨機雜訊 碼而被辨識。 現在請參照第2圖,用於該第一群組之既有使用 1〇之頻道編碼輕序將予以更詳細敘述。該第一 =組使用者包含舉例而言數位分碼多路接取行動電 ;系統之使用者’其係根據上文所述之該標 準而編碼訊號。因此,該個別的頻道係藉由以一個用 :母-個頻道之偽隨機雜訊碼序列而調變該輸入之 =語音訊號而被辨識。明確言之,該頻道編碼程 序係採取代表被傳逆夕:穴 Q 、込之貝訊之之一個輸入數位訊號 ^ 一個正交調變器3 0 4係提供一個同相⑴ ^父(q)訊號路徑至—對乘法器3〇6— q ㈣丑的爲隨機雜訊瑪產生器3 Ο 5係提供 一使用於展頻目的之短的(於此情況下,-個2 15S 19 201206095 道 2 5 2. In addition, a maintenance channel 2 5 3 can carry, for example, synchronization and power control messages to further provide information transmission via the reverse link 50. Similarly, the user of the second group has a forward link 40, and the forward link 4 includes a signaling channel 24.1 'a plurality of circulation data channels 2 4 2 — 1, · · , 2 4 2 —t' and maintain channel 2 4 3. The transmitting channel 2 4 1 is used by the ground station processor 220 to not only notify the user to access the single unit 2 1 4 forward link circulation data channel 2 5 2 system has been allocated, "Xuan user" The access unit 2 1 4 also notifies the user that the access unit 2 1 4 has the assigned circulation data channel 2 5 2 in the reverse link direction. Then, the circulation data channel 2^2 1, . . . , 2 2 2 ~ t on the forward link 4 is used to process the data from the base to the user 2 to carry the information to the user. In addition, the maintenance channel 2 4 3 is connected to the forward link 4, and the base station processor 220 carries the synchronization and power control to the user access unit 2 . It should be understood that the typical system/ is more than the communication channel 2 4 1 or the maintenance channel 2 4 3 is more than the circulation channel 2 4 1 . In the preferred embodiment, the logical forward channel channels 24, 242, 2 4 3, 25 1, 5 2 and 2 5 3 are assigned a pseudo-random noise class by each pseudo-random channel. Dao Shi - 么', k Ma Therefore, the 糸 system is a so-called sub-: 夕路取取 system, in which 'multiple coded channels can use the same RF channel. The logical or code channel can also be entered in a user's access unit 2 i 4 of a plurality of activities. The sequence of the scale signal processing operations is typically implemented 'to encode the logical channels 51, 52 and 53 of the respective reverse link 50. In the direction of the reverse link, the transmitter is the user access unit 2 1 4, and the receiver processes the crying 2 2 为 for the base station. The preferred embodiment of the present invention is for a digital operation such as a multi-channel operation of a system operating according to the is_95b standard. The existing user of the system also appears on the reverse link 5 Implemented in the environment. In a system of the IS_95B standard, the reverse key == sigma access frequency signal is identified by specifying a non-orthogonal pseudo-random noise code. Referring now to Figure 2, the channel sequence for use in the first group will be described in more detail. The first = group of users includes, for example, digitally coded multiple access mobile power; the user of the system' encodes the signal according to the criteria described above. Thus, the individual channel is identified by modulating the input = speech signal with a pseudo-random noise code sequence of: mother-channel. To be clear, the channel encoding program takes an input digital signal that represents the circumstance: acupoint Q and 込 贝 ^ 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 一个 ^ ^ ^ ^ ^ ^ Path to - the multiplier 3 〇 6 - q (four) ugly for the random noise generator 3 Ο 5 series to provide a short use for the purpose of the spread spectrum (in this case, - 2 15

S 21 201206095 —1或者3 2 7 6 7位元)長度的疏门 碼典型地係為與用於第一群"、碼。'此’該短的 頻道相同的瑪。 1 0之母一個邏輯 乘上一變步驟係藉由將該兩個訊號路徑 ,上個額外的長偽隨機碼,而被 (q)訊號。此係由長碼產生哭 至:(1)及 3 0 8 —〗及308— 及長碼乘法器 q斤凡成。该長碼係用於唯一地 ::::該反向鏈路50上之每—個 -㈣常長的瑪,其舉例而言僅每2 4 2 —f :;ΐί二該長碼係以該短竭晶片逮率施加,例 所;位元係被施加至由該短碼調變程序 斤輸=母-個位元,使得進—步之展頻係不產生。 二別的:用者係藉由施加該偽隨機雜 不同的相位偏移至每一個使用者而被辨識。 應瞭解的是,對於該第一群纽之使用 二==其他同步化之步驟。明確言之,於 的,且因此係不需要係被設計成非同步 第3圖係為一個用於第二群組之使用者2工〇 之頻迢編瑪程序之更詳細的圖。該第二群组2 例而言係包含根據-個資料傳輸最佳化之格式而二 碣訊號之無線資料使用者。 該些個別的頻道係藉由一個偽隨機雜訊竭調變 該輸入訊號而破辨識出’該偽隨機雜訊碼係與用於該 201206095 第一群組之使用者1 1 ◦相同之碼序列。然而,如同 可由下文瞭解,於該第二群組21〇中之頻道係由諸 如沃爾什(Walsh )碼之特定正交碼所唯一地辨識出。 日:確:之,用於該第二群組之使用者2 1〇之頻道編 碼程序係採用一個輸入數位訊號4 〇 2,且施加由一 ,,產生11405、沃爾什碼產生器413及長碼 產生裔4 0 7所產生之許多碼。 作為一個第一步驟,一個正交調變器4 〇 4係提 供個同相(!)及正交(q)訊號路徑至—個第一對 ::态4 0 6 -1及4 〇 6-q。該短偽隨機雜訊碼產 裔4 0 5係提供一個短碼,於此範例中為一個使用 中之頻道之每一個之短偽隨機 於展?目的之2 1 5長度碼。因此,該短碼係與使用 於该第一群組1 1 A · 碼相同。 、、於該程序中之一個第二步騾係為施加諸如由該 3什碼產生器4 1 3所產生之-個正交瑪。此係藉 乘法器412-i及412—q施加正交碼於每一 口同相及正父訊號路徑而完成。指定給每一個邏輯頻 迢之正交碼係不同的,且唯一地辨識如此之頻道。、 於4些程序之—個最後步驟之中,一個第二偽隨 ::訊長碼係施加至⑴& (q)訊號路徑。因此, =二碼產生器4 Q 7係轉送該長码至個別的同相乘 :1 0 8 —i及正交乘法器4 〇 8 —q。該長碼係非 辨識該第二群組2 1 0中之每一個使用者。明 201206095 確言之,該碼係可以為使用於唯—地辨識其 組之使用者1 ! 〇之第一群組中之相同長竭之—。因 =舉例而言,其係以與—個短碼晶片速率碼相同之 方式知加’使得該長碼之-個位元係被施加至由 碼:邊程序所輪出之每一個位元。以此方式,所‘於 該第二群組2 1 0中之使用者係呈現出該第一群袓 的-個單-既有使用者。然而,在該:二;: 21〇之使用者係已經被指定唯一的正交沃爾什碼 之^况下,該第二群組2 1 〇之使用者可以被一地 辨識出。 當較佳實施例係實施於一個反向鏈路5 〇上 時,額外的資訊係必須被提供,以維護於該第二群組 2 1 0之不同使用者之間之正交。明確言之一個維 &頻道2 4 3係因而包含於該順向鏈路4 〇之内。該 維,或者“心跳”頻道係提供同步化資訊及/或其 他時序訊號,使得該些遠距單元2 i 4係可以適當地 同步化其之傳輸。該維護頻道係可以為以時間槽分割 的。為了該順向鏈路維護頻道2 4 3之格式化之更多 細節,係可以參照申請中之申請於2 〇 〇丄年2月丄 曰名稱為“使用活動的/備用請求頻道之維護鏈 路,之美國專利申請案第〇9/775,3〇5號, 该案係於此併入作為參考。 應瞭解的是,某些基礎結構係因而可以由該第二 群紐'之使用者2 1 〇及第一群組之使用者1 1 〇所 24 ⑧ 201206095 共享。舉例而言,雖然該些天線2 1 8及1 1 8係顯 示為分離的’第1圖中之基地臺天線實際上可以為一 個共享的天線。類似地,用於該些天線之位置係因而 可以為相同的。此係允許該第二群組之使用者2 1 〇 共旱已座設立且由該既有使用者1 1 〇所使用之設 備及貫體建立之位置。此係大幅簡化用於該新的群組 之使用者2 1 〇之無線基礎結構之配置,舉例而言, 新的位置及新的天線位置係.不需要被建立。 第4圖係為一個類似於第1圖之網路圖。於無線 ’’周=4〇〇之中,一個第一基地臺處理器— 1 及^二基地臺處理器2 2 〇 — 2·(集體稱為2 2 〇) 2’···’213 — 3及手持單元—S 21 201206095 — 1 or 3 2 7 6 7 bits. The length of the sparse code is typically used with the first group " code. 'This' is the same channel as the short channel. A logic of 10 0 is multiplied by a variable step by the (q) signal by the two signal paths, the last extra long pseudo-random code. This is caused by long code crying to: (1) and 3 0 8 — and 308 — and long code multipliers. The long code is used to uniquely:::: every - (four) long-length horse on the reverse link 50, for example, only every 2 4 2 -f :; The short-cut wafer capture rate is applied, for example; the bit system is applied to the short-code modulation program to convert the mother-single bit, so that the progressive spread spectrum system does not occur. Two other: the user is identified by applying the pseudo random random phase offset to each user. It should be understood that the use of the first group of two == other synchronization steps. Specifically, and therefore need not be designed to be asynchronous. Figure 3 is a more detailed diagram of a frequency programming program for the user 2 work of the second group. The second group of 2 cases is a wireless data user that includes a binary signal according to a data transmission optimization format. The individual channels are identifiable by a pseudo-random noise to modify the input signal to identify that the pseudo-random noise code is the same code sequence as the user 1 1 用于 for the 201206095 first group. . However, as can be appreciated below, the channels in the second group 21 are uniquely identified by a particular orthogonal code such as a Walsh code. Day: It is true that the channel coding procedure for the user of the second group uses an input digital signal 4 〇 2, and is applied by one to generate 11405, the Walsh code generator 413 and The long code produces many of the codes generated by the 4 0 7 . As a first step, a quadrature modulator 4 〇4 provides an in-phase (!) and quadrature (q) signal path to a first pair:: state 4 0 6 -1 and 4 〇6-q . The short pseudo-random noise code generator 4 0 5 series provides a short code. In this example, is a short pseudo-random display of each of the channels in use? Purpose 2 1 5 length code. Therefore, the short code system is the same as that used for the first group 1 1 A · code. A second step in the procedure is to apply an orthogonal gamma such as that produced by the sigma generator 4 13 . This is done by multipliers 412-i and 412-q applying orthogonal codes to each of the in-phase and positive-parent signal paths. The orthogonal code assigned to each logical frequency is different and uniquely identifies such a channel. Among the four final steps of the program, a second pseudo-slave code is applied to the (1) & (q) signal path. Therefore, the =2 code generator 4 Q 7 transfers the long code to an individual synchronizing multiplication: 1 0 8 —i and the orthogonal multiplier 4 〇 8 —q. The long code system does not recognize each of the second group 2 10 . Ming 201206095 It is true that the code system can be used for the same group of users in the first group that use it to identify the group. For example, it is known in the same way as a short code wafer rate code such that a bit of the long code is applied to each bit rotated by the code side program. In this way, the user in the second group 210 presents the first-to-one user of the first group. However, in the case where the user of the second:: 21〇 has been assigned a unique orthogonal Walsh code, the user of the second group 2 1 can be recognized by one. When the preferred embodiment is implemented on a reverse link 5, additional information must be provided to maintain orthogonality between different users of the second group 210. It is expressly stated that a dimension & channel 2 4 3 system is thus included in the forward link 4 〇. The dimension, or "heartbeat" channel, provides synchronization information and/or other timing signals such that the remote units 2i 4 can properly synchronize their transmissions. This maintenance channel can be divided by time slots. For more details on the formatting of the forward link maintenance channel 2 4 3, the application can be referred to in the application for the maintenance link of the active/alternate request channel in February 2nd. U.S. Patent Application Serial No. 9/775, the entire disclosure of which is hereby incorporated by reference in its entirety in the entire entire entire entire entire entire entire entire entire entire entire entire entire entire entire entire entire entire entire entire entire entire 1 〇 and the first group of users 1 1 〇 24 8 201206095 shared. For example, although the antennas 2 1 8 and 1 18 are shown as separate 'the base station antenna in Figure 1 actually It can be a shared antenna. Similarly, the position for the antennas can thus be the same. This allows the user of the second group to be set up and by the existing user. 1 1 〇 The equipment used and the location where the body is built. This greatly simplifies the configuration of the wireless infrastructure used by the users of the new group, for example, the new location and the new antenna location. Department. It does not need to be established. Figure 4 is a network similar to Figure 1. Figure. In the wireless ''week=4〇〇, one first base station processor - 1 and ^ two base station processor 2 2 〇 - 2 · (collectively called 2 2 〇) 2'···' 213 — 3 and handheld unit —

係提供接取其他網路(例如網際網路或者公共交換電 話網路),以用於接取終端213 —工 25 201206095 道之調變輕序之域單元。該些基地臺處理器 敗f糸藉由根據條件而選擇性地重新指定反向鏈 忠^ k之時序控制而提供軟性交接操作。於一個較佳 ^例中’該些基地臺處理器2 2 ◦皆提供功率控制 反饋至該些域單元。 繼續參照第7圖’於天線塔218之上係為第一 =時序圖403-1及403- 2 (集體地稱為 —3),該第一及第二時序圖4〇3—1及4〇3 > f係頋不用於與個別基地臺處理器2 2 0通訊之 母個域單元之反向鏈路訊號之相關時序。這些時序 圖4 0 3係顯示為時間上對準之正交反向鏈路頻道 及非時間上對準之正交或非正交頻道之間之差異。如 文所敘述,每一個共旱一個共同反向鏈路頻道之非 既有接取終端2 1 3係具有-個額外的編碼程序,以 加入個唯一的正交碼’以用於區分其之反向鏈路訊 號及使用共同反向鏈路頻道之其他網路裝置之反 鏈路訊號。 為了 4 4之目的,其係假設(丨)該些接取終端2 13係共享一個共同反向鏈路正交頻道及(π)該三 個手持單元1 1 3係於該反向鏈路中使用既有且非 正交之通訊技術。 於該第-時序圖403一i之中,該第一基地臺 处理器2 2 0 - 1係採用一個對準控制器(未示 出),以對準該第一基地臺處理器22〇—丄控制之 ⑧ 26 201206095 接取終端之反向鏈路正交頻 該第-基地臺處理器2 2 0 ^序。於此情況下, 5 - 1及4 2 5 - 2之哕第 係控制表示為4 2 -1及213 一 2之=及第二域單元213 及4 2 0 2之_ 鏈路邏輯頻道4 2 0 — 1 具有時間上對·(亦即,相位 Α “太妯μ,,τ炙路之反向鏈路頻道係被稱 為本地的正父頻這4Ί ΓΪ ^ 5, 〇 ο 〇 , iC)。亦與該第一基地臺處 理U20- 1通訊之第三接 不具有與該第一及第_ 乙丄d d係 斧一接取終端2l3 —工及 3 — 2之反向鏈路邏輯頻道 只通吋間上對準之i之反向 鏈路邏輯頻道^ 取终端213-3係使V之4^5 — 3)。該第三接 便其之反向鏈路頻道4 2 0 — 3由該第二基地臺處理哭ρ 0 m 外一 态J 2 〇 — 2所控制。因此, 用於該弟二域單元2 1 3 — ^ /1 9 η - q r , 〇 3之該反向鏈路邏輯頻 ^ 425-3)之時序係於由該本地的 正交頻道425—1及425-2而來之該第一時 序圖4Q3-1顯示為具有偏移。 於㈣二時序圖4Q3_2之中,與該第二基地 ε把理益2 2 0 — 2通訊之五個無線網裝21 3-1^213-3, 1Ί,, 丄工3 — 1,113 — 2及 1 13 — 3之反向鏈路邏輯頻道42〇 —工一 3 420 4 ’42〇 — 5及420-6係分別由 垂直標記425- 1 ’ 425-3,425-4,4 25 5及425~~6所表示。該第二基地臺處理器The system provides access to other networks (such as the Internet or a public switched telephone network) for accessing the domain unit of the terminal 213. The base station processors provide soft handoff operations by selectively reassigning the timing control of the reverse chain loyalty based on conditions. In a preferred embodiment, the base station processors 2 2 provide power control feedback to the domain units. Continuing to refer to FIG. 7 'above the antenna tower 218 is the first = timing diagrams 403-1 and 402-3 (collectively referred to as -3), the first and second timing diagrams 4〇3 - 1 and 4 〇3 > f is not used for the timing of the reverse link signal of the parent domain unit communicating with the individual base station processor 220. These timing diagrams are shown as differences between time aligned orthogonal reverse link channels and non-time aligned orthogonal or non-orthogonal channels. As described, each non-existing access terminal of the common reverse link channel has an additional coding procedure to add a unique orthogonal code to distinguish it. Reverse link signals and reverse link signals of other network devices that use a common reverse link channel. For the purpose of 4 4, it is assumed that (the) the access terminals 2 13 share a common reverse link orthogonal channel and (π) the three handheld units 1 1 3 are in the reverse link. Use existing and non-orthogonal communication technologies. In the first timing diagram 403i, the first base station processor 2 2 0-1 employs an alignment controller (not shown) to align the first base station processor 22〇.丄Control 8 26 201206095 Pick up the reverse link of the terminal to orthogonalize the base-base station processor 2 2 0 ^ sequence. In this case, the first system control between 5 - 1 and 4 2 5 - 2 is represented as 4 2 -1 and 213 - 2 = and the second domain unit 213 and 4 2 0 2 _ link logical channel 4 2 0 — 1 has a time pair (that is, the phase Α “too μ μ, the reverse link channel of the τ炙 road is called the local positive father frequency. 4Ί 5 ^ 5, 〇ο 〇, iC) The third connection with the first base station processing U20-1 communication does not have the reverse link logical channel of the terminal and the second and the second 丄 丄 斧The reverse link logical channel of the i-aligned i is taken over the terminal 213-3 to make V 4^5 - 3). The third connection has the reverse link channel 4 2 0 - 3 The second base station handles the control of the crying ρ 0 m outer state J 2 〇 2 . Therefore, the reverse link for the second domain unit 2 1 3 — ^ /1 9 η - qr , 〇 3 The timing of the logic frequency 425-3) is shown by the local orthogonal channels 425-1 and 425-2, and the first timing diagram 4Q3-1 is shown as having an offset. (4) The second timing diagram 4Q3_2 In the middle, with the second base ε, the five benefits of the communication 2 2 0 - 2 communication Network installed 21 3-1^213-3, 1Ί,, Completion 3 — 1,113 — 2 and 1 13 — 3 reverse link logical channel 42〇—工一3 420 4 '42〇—5 and 420 The -6 series are represented by vertical marks 425-1' 425-3, 425-4, 4 25 5 and 425~~6. The second base station processor

S 27 201206095 2 2 0 2係控制該筮-社 42 5 — 3)之時序,但不控 弟二接取終端2 1 3 — q及向 正交鏈路420 - - m & 1 0 J夂问 制其他接取終端2 1 q _ 夕吐生 m, — 1及213 — 2之任一個 頻道4 2 0 ( 4 Ρ ς ^ 的,該些反向鏈路邏輯 、— )係於該第二基地臺處理器22 0 — 2處與另一個Λ丄 向鏈路邏輯頻道彼此相位偏 移,如表示於該笔-吐由同y Λ h I。豕弟一&序圖4 0 3 — 2。三個反向鏈 路頻道 4 25 — ΐ、49ς ^ 425~5及425 — 6於該第 二基地堂處理器22〇-2處係於時間上相當近,且 係被稱為“外部的,,正交頻道4 i 5。 該些外部的正交頻道4 1 5係非真正地正交,該 些頻迢係不具有在—共同且反向之鏈路頻道上用於 辨識彼此之唯1正交碼。因此,假如該些外部的玉 ,頻道4 1 5係被對準,則其將㈣第二基地臺處理 器2 2 0 — 2處彼此作不良的介面連結。於一個特別 的情況下,該些基地臺處理器2 2 〇之每一個係可以 支援本地的正交頻道41〇及外部的或者非正交的 頻道4 1 5。此情況係指示非既有及既有之域單元之 組合係能夠使用於相同之單元區域之内。 於現有之正交技術之中,當一個諸如此 殊 端之-(例如,213-3)之域單元係由U:: 基地臺處理器2 2 0— 1之一個單元區域移動至〆 個第二基地堂處理斋2 2 0 — 2之一個單元區域 時,於該反向鏈路中係無軟性交接操作之技術。揭示 28 201206095 於=之反向鏈路軟性交接操作技術係(i)於反向鏈路 I提供。由非既有無線網路裝置2 1 3至複數個基地 堂處理器22〇之通訊,(ii)實施時序及功率控制 ^如下文予以敘述)’及(iii)根據參照第8圖之條 4而協調該複數個基地臺處理器22〇之哪一個係 為用於一個域單元之反向鏈路時序押“ 者。藉由協調複數個基地臺處理器2二2〇之哪—個 係,制-個给定接取終端2 i 3之該反向鏈路頻道 。訏序4、,‘α疋之接取終端2 1 3係能夠由一個單元 :域私動至另一個單兀區域,而不遺失該反向鏈路之 ^結。本發明之主要技術亦係包含—個用於快速的正 父時序對準之技術(亦即’調整詩 共同邏輯頻道之長碼之相位,使得該共同= 係與其他接取終端2"之共同反向鏈路 頻逼在時間上為對準的,或者相互正交的)。 向鏈路頻道之時序控制之該基地臺處 2 Q係確認該域單元之反向鏈路邏輯頻道之 之並::體:移係為共享相同的反向鏈路邏輯頻道 他域之反向鏈路邏輯頻道之時序之一個函數。該 、、心體偏移係以一個偏移命令 人 # ϋ ^ Ο 1 〇 次者偏移訊息之形式被 ^ ^ 1 3。根據該總體偏移資訊,該域 早几仏根據該總體時序偏移而實施該邏輯頻道之— 固=的時序調整。於該粗略的時序調整之後,可以 由該基地臺處理器2 2 0在該反向鏈路邏 % 29 201206095 輯頻道4 2 0之粗略時序調整旦 η* ^ j正 < 俊所冽里之細微的 %序偏移而貫施一項細微的時序調整。 第5圖係為一個包会括_ & μ 匕3钕供使用一個正交頻道社 構之分碼多路接取及南μ ^ ^ 表卢二1 之軟性交接操作之基地 室處理态2 2 Π — 1夕·#τ·^^ι — 鬼圖。該基地臺處理器22 U — 1係透過該天線塔2 1 β +。^18而接收由該域單元1 J及Ζ 1 3而來之反向赫敗相、苦 ,, ^ 〇e _ π韙路頻迢。一個接收由一給 疋的域早凡213而爽夕 Am n /. 向;之一個反向鏈路頻道之接收 时5 0 5係傳送該接收制# 寻、^接收到之訊號至一個正交時序控 中·!益5 1 〇。遠正交時岸批生丨丨。〇「,^上丄 时序控制益510或者均等單元 係確認對於由共享該相π G丄 卞平几 — "相同反向鏈路邏輯頻道之其他 鐵单元而來之反向絲败相、芬 遝路頻迢之一個總體時序偏移5 上!:該總體時序偏移513係可以為-個用於以-旦:令^式傳送至該给定域單元2 1 3之絕對測 L、:可以為一個相對測量值,且以訊息之形式 破傳送回該給定之域嚴 埤早7°213,而該給定之域單元 匕丄d係使用額外的+ . ^ f 貝、卜的氡序以確認該反向鏈路訊號之 ^ ’Μ ’相位調整)。絕對值測量值及相對 測之組合係亦可以被採用。 第6A圖係為且右# ^ ^ 百該弟一基地臺處理器220 — 丄及該弟—基地喜虑:f® 〇>» 室处理态220 — 2之網路之示惫 圖。該些基地臺處理哭〇 n 。。 &理盗2 2 〇係包含個別的對準控制 =1 5。5玄些對準控制器5 1 5係、由該基地臺處理 2 0所使用’以選擇或者控制哪一個基地臺處理 30 201206095 器2 2 〇係控制該些域單 之該時序對準。 13之錢向鏈路4 為了確認哪一個基地臺處理器2 2 元⑴-1之時序對準,該些對;::: 來之他可以计异與由該域單元213-丄接收而 來訊旒相關之測量值(例如,訊號對雜訊比)。 -個給定之對準控制器5工5係可以發出一個 他對準控制器515’以通知其他基地臺處 該相與該給定之對準控制器515相關 相關的基地臺處理器2 2 〇係將控制該域單元2 13—1之該反向鏈路頻道之時序。或者,該給定之 =準控制器515係可以發出一個命令或者訊息至 f一個對準控制器5 1 5,諸如於該第二基地臺處理 益2 2 2 — 2中之該對準控制器5 i 5,以通知該第 一基地室處理器2 2 0 — 2.應該控制該域單元2工 3 - 1之該反向鏈路頻道之時序。其他協商配置係可 以發生於該些對準控制器5工5之間,以決定哪一個 基地臺處理器2 2 0將控制該域單元 準::旦一個基地臺處理器22〇已經二= 經被适擇成控制該反向鏈路頻道之時序,該正交 控制器51〇係被採用於決定一個總體時序偏移,如 上文敘述用於利用該時序控制之交接操作。 域單元2 1 3 — 1之 第6 B圖係為該對準控制器5 1 5係被配置為該 部分之無線網路之一個示意 s 31 201206095 圖於此h況下,係結合於該用戶接取 1之中。或者,該對準控制器5 個人電腦裝置1 , '、可以包含於該 接至今用芦^ 中,或者作為—個電性連 個之獨立單元 接;該用戶接取單元214-1或個人電腦;3 於此配置中,該對準控制器5 213一1虛袒视又r υ货於違域早兀 單元214個命令或者訊息至該用戶接取 u 士 導致該域單元2 1 3 — 1回庫由 邊弟-基地堂處理器2 2 〇— : 理哭?? D — o+al 可弟一基地堂處 TO: 2 〇 2接收而來之時序控制訊號。 =6 C圖係為該對準控制器5 ,控制器⑴中之無線網路4 。丨月a卜5亥對準控制器5 1 5 #可以i立一 個正交時疼;岳’、了/由母 器220 — 1或者莖_甘L 士 基地罝處理 十_ 一者第—基地堂處理器2?n — 9而 來之資訊,以決定哪—個其士 # 制用;基&處理112 20應該控 列用於该域早兀2 1 3 — Ί + 诸夕Rir- L 1之正乂且反向之鏈路頻 運之時序。該對準控制哭 ^ ^ 而決宕访语、t 5 1 5係可以根據許多因素S 27 201206095 2 2 0 2 controls the timing of the 筮-社 42 5 - 3), but does not control the second terminal 2 1 3 - q and the orthogonal link 420 - - m & 1 0 J夂Asking the other access terminals 2 1 q _ 吐 生 m, - 1 and 213 - 2 of any channel 4 2 0 (4 Ρ ς ^, the reverse link logic, -) is tied to the second The base station processor 22 0-2 and the other link link logical channel are phase-shifted from each other, as indicated by the pen-suppression by y Λ h I .豕弟一& Sequence diagram 4 0 3 — 2. The three reverse link channels 4 25 - ΐ, 49 ς ^ 425 ~ 5, and 425 - 6 are fairly close in time to the second base station processor 22 〇 2 and are referred to as "external," Orthogonal channel 4 i 5. The external orthogonal channels 4 1 5 are not really orthogonal, and the frequency systems do not have the only ones for identifying each other on the common and reverse link channels. Orthogonal code. Therefore, if the external jade, channel 4 15 is aligned, it will connect the (4) second base station processor 2 2 2 - 2 to each other as a bad interface. In a special case Each of the base station processors 2 2 can support a local orthogonal channel 41 〇 and an external or non-orthogonal channel 4 1 5 . This indicates that the non-existing and existing domain units are indicated. The combination can be used within the same unit area. Among the existing orthogonal techniques, when a domain unit such as this (for example, 213-3) is composed of U:: base station processor 2 When a unit area of 2 0 - 1 is moved to a unit area of 2 2 0 - 2 in a second base hall, The technique of no soft handover operation in the reverse link. Rev. 28 201206095 The reverse link soft handover operation technology of (i) is provided on the reverse link I. By the non-existing wireless network device 2 1 3 Communication to a plurality of base station processors 22, (ii) implementation timing and power control ^ as described below) and (iii) coordination of the plurality of base station processors 22 in accordance with clause 4 of FIG. Which one is the reverse link timing for one domain unit. By coordinating which of the plurality of base station processors 2, 2, 2, the reverse link channel of the terminal 2 i 3 is given. Step 4, ‘α疋's access terminal 2 1 3 can be one unit: the domain is privately moved to another single-turn area without losing the link of the reverse link. The main technique of the present invention also includes a technique for fast positive parent timing alignment (ie, 'adjusting the phase of the long code of the common logical channel of the poem, so that the common = is common with other access terminals 2" The reverse link frequency is aligned in time or orthogonal to each other). At the base station controlling the timing of the link channel, the Q system confirms the sum of the reverse link logical channels of the domain unit:: body: the mobile system is the reverse of the same reverse link logical channel. A function of the timing of the link logic channel. The heart and body offsets are ^ ^ 1 3 in the form of an offset command person # ϋ ^ Ο 1 〇 second offset message. Based on the overall offset information, the domain implements the timing adjustment of the logical channel of the logical channel a few times according to the overall timing offset. After the coarse timing adjustment, the base station processor 2200 can adjust the coarse timing of the reverse link logic 2 201206095 channel 4 2 0 旦 η * ^ j positive < Subtle %-sequence offsets apply a subtle timing adjustment. Figure 5 is a package that includes _ & μ 匕 3 钕 for the use of an orthogonal channel community of coded multiple access and South μ ^ ^ Table 2 of the soft handover operation of the base room processing state 2 2 Π — 1 夕·#τ·^^ι — Ghost map. The base station processor 22 U-1 transmits through the antenna tower 2 1 β + . ^18 receives the reverse phase, bitter, ^ 〇e _ π 韪 frequency from the domain elements 1 J and Ζ 1 3 . A receiving by a given domain is 213 and the singer Am n /. to a reverse link channel when receiving 5 0 5 transmission of the receiving system # 寻, ^ received signal to an orthogonal Timing control! Benefit 5 1 〇. When it is far orthogonal, the shore is batched. 〇“, ^上丄时控控益510 or equal unit confirms the reverse smash, fen for the other iron units sharing the phase π G丄卞- " identical reverse link logic channel An overall timing offset of the 迢 迢 ! !!: The overall timing offset 513 can be an absolute measurement for transmitting to the given domain unit 2 1 3 by: Can be a relative measurement, and transmitted back to the given domain in the form of a message 7° 213, and the given domain unit 匕丄d uses an additional +. ^ f Confirm the phase adjustment of the reverse link signal. The combination of the absolute value measurement and the relative measurement can also be used. Figure 6A is and right # ^ ^ 百家弟一基地台处理器220 — 丄 该 该 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 基地 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 Alignment control = 15. 5 些 some alignment controller 5 1 5, used by the base station to use '0 to select or control which The base station processing 30 201206095 2 2 〇 control the timing alignment of the domain lists. 13 Money to link 4 In order to confirm which base station processor 2 2 (1)-1 timing alignment, these For ;;:: he can count the measured values related to the signal received by the domain unit 213-丄 (for example, signal-to-noise ratio). - A given alignment controller 5 A base station processor 252' may be issued to notify the other base station that the phase is associated with the given alignment controller 515. The base station processor 2 2 will control the inverse of the domain unit 2 13-1. The timing of the link channel. Alternatively, the given controller 515 can issue a command or message to an alignment controller 5 15 , such as in the second base station processing benefit 2 2 2 2 The alignment controller 5 i 5 is configured to notify the first base station processor 2 2 0 — 2. The timing of the reverse link channel of the domain unit 2 1-3 should be controlled. Other negotiation configurations may be Occurs between the alignment controllers 5 to determine which base station processor 220 will control the Unit quasi:: Once a base station processor 22 has been selected to control the timing of the reverse link channel, the quadrature controller 51 is used to determine an overall timing offset, as above The handover operation for utilizing the timing control is described. The 6th B diagram of the domain unit 2 1 3 - 1 is an indication that the alignment controller 5 1 5 is configured as a wireless network of the portion s 31 201206095 In this case, it is incorporated in the user access 1. Alternatively, the alignment controller 5 personal computer device 1, ', may be included in the connection, or as an electrical connection. a separate unit; the user access unit 214-1 or a personal computer; 3 in this configuration, the alignment controller 5 213 1 1 vain and r υ 于 违 违 违 214 214 214 The message to the user to pick up the u led to the domain unit 2 1 3 - 1 back to the library by the brother-base hall processor 2 2 〇 - : Cry? ? D — o+al can be a base station. TO: 2 〇 2 Received timing control signals. The =6 C picture is the alignment controller 5, the wireless network 4 in the controller (1).丨月 a卜5海 aligned controller 5 1 5 # can i stand an orthogonal time pain; Yue ', / by the mother 220 - 1 or stem _ Gan L Shi base 罝 processing ten _ one of the first base The information from the church processor 2?n-9 is used to determine which one is the use of the system. The base & processing 112 20 should be used for the domain early 2 1 3 — Ί + 夕 夕 Rir- L The timing of the 1 and the reverse link frequency. The alignment control is crying ^ ^ and the embarrassing visitor, t 5 1 5 series can be based on many factors

、疋該項決疋’該此田冬W 理器2 ? C二素係堵於每一個基地臺處 °° 2 J 〇處之5亥反向絲 對# H q R /鏈路訊唬之訊號對雜訊比。該 哪以使用命令或者訊息,以指示 —°。a20將控制該域單元213 1之該反向鏈路之時序。於体 Φ ^ A L , ^ _ 斤於任—情況下,該被選擇 出之基地臺處理器22η在τ U係可以發出一個命令或者 32 201206095 訊息至該域單元2丄3 —丄, 2 0 ^ ^ X 乂通知基地臺處理器2 ^控制該正父及反向之鍵路頻道之時序。庫 的疋,該對準控制器5 i 5 '、 θ#咖y J 』以瞭解不同之觀點, 心::::控制器2 2 〇將控制該反向鏈 之選擇,以最大化該些基 2 0之間之差異之效益。 乙 係為根據本發明之分碑多路接取正交反 交接方法之流程圖。於此範例中,該; 一基地堂處理哭乐 η π 1係執行一個第一程序7 二該接取終端213係執行 5。在基地臺處理器程序7 〇 ^ 3 始之後,該基地臺處理哭程戽7 驟7 0 5之開 …接收由該接取二:2730^^ 路訊號。於該接取終端程序二3二來之-個反向鏈 .π ^ 啼私序735開始之後之步驟7 ”中,該接取終端213係於步帮7 4 5中二: =鏈路頻道上傳送—個與其他接取、 反向鍵路訊號相同之具有唯-的正交狀反向鏈路 該基地室處理器程序7 0 〇係於步輝7工〇中 15中,該基地臺處理^序至7步=二=驟7 反向鏈路訊號中辨識屬於/〇〇係決疋疋否於該 接取終端2"之正交反向鍵路群組之 中之其他接取終端2 W之:相同接取終端群組 3圖。該些長碼而非該=長;:!相,如參照第2及 ▼ 知·疋且正交之諸如沃爾 201206095 什碼之碼係與該基地臺處理器程序7 0 0在時間上 對準。當該些長碼係同相時,該反向鏈路訊號之該唯 一且用於辨識之碼係相互正交。 假如於該反向鏈路訊號中之長碼係與於相同之 相互正交反向鏈路群組中之其他接取终端2 i 3之 其他反向鏈路訊號之長碼同相(亦即,時間上對準), 則該基地臺處理器程序7 〇 〇係結束於步驟7 3 0。假如於該反向鏈路訊號中之長碼係與於相同之相 互正交反向鏈路群組中之其他接取終端2丄 他反向鏈路訊號之長碼不同相,則該基地臺處理器程 序7 0 0係持績至步驟7 2 〇 ’其中,該總體時序偏 移之決定係由該正交時序控制器5工〇所實施,如同 上文參照第5圖之敘述。 »玄基地$處理裔程序7 〇 〇係進行至步驟7 2 5 ’於該步驟中’該基地臺處理器2 2 〇係以一個命 令或者訊息之形式傳送該總體時序偏移至該接取終 知2 1 3。於步騾750中,該接取終端程序73 5 係接收該總體時序偏移,且㈣該反向鏈路訊號之時 序。該接取終端程序7 3 5係結束於㈣7 5 5,且 該基,臺處理器程序7 0 0係結束於步驟7 3 〇。 第^及8B圖係為當第一基地臺處理器220 —1及,二基地臺處理器2 2 〇 — 2與該接取終端 2 1 3交互作用時之流程圖。該第一基地臺處理器2 2 0 — 1係執行一個控制該接取終端2工3之該反 ⑧ 34 201206095 :鏈dC8 0 0。第二基地臺處理器2 2 之時序之處理的程序8 0 2。該接取4 能夠二其;3 3。該程序8 3 3係 與沾旦一、十於1玄反向鏈路訊號以粗略的量及細 接收調整’以及根據由該基地臺處理器22〇 接收而來之功率準位反饋而調整功率準位。 器2=取?端2i3係傳送由該第-基地臺處理 1及該第二基地臺處理器22 0 〇 ^ 接收之訊號(步帮8 3 6 )。/此;Π2所 =端τ Λ理器”0 — 1先前係已經被該接 m選擇出以控制該反向鏈路訊號之時 ,該弟一基地臺處理器22〇 — =端213而來之該反向鍵路正交訊= :〇3)’該些反向鏈路正交訊號係 向鏈路頻道之其他反向鍵路訊號或者與由其他使用 相同的反向鏈路頻道之接取終端2丄3而來之里他 ,向,路訊號對準。於步竭δ 〇 6中,該第一基地臺 ::益2 2 〇 — 1係決定是否由該接取終端2 1 3 ==係符合一個時序條件或者標準。假如該訊 號係不付5該時序條件或者標準,則程序8 〇 〇係決 定反饋回該接取終端2工3以使該訊號與使用相同 碼之其他訊對準之總體時序偏移。於步帮8 3 9 中,反饋係由該接取終端213所接收。假如該訊號 35 1 201206095 :…該時序條件或者標準,則程序 乂騾8 0 9,其中,該程序8 〇 〇係決=行至 二的時序偏移係有需要。假如有需要,、;::個細 〇係傳送给該接取終端213哪一個传二序80 偏移及哪-個係於裎序8 3 3之步時序 =…3所接收。假如不需要 則该程序8 0 0係進行至步驟δΐ5。切序偏移, 於步鐵8 1 5中,兮:筮一其认* + 1俜決定〜山 地堂處理器2 2〇 — 丄:决疋疋否由該接取終端2 功率準位應該祜锢敕^ ^寻込之訊諕之 第:正 於步驟8 1 5中1 弟一基地量處理器22〇一2亦 致該接取線媸y 心疋货具應,玄導 一 、’、2 1 3之一個功率準位調整。於上述任 ? Γ該功率準位偏移係於該順向鏈路中被傳送 至该接取终端2 1 3。 ,如不南要功率準位調整,則參照該第一基地臺 :理姦程序8 〇 〇及該第二基地臺處理器程序8 〇 2 :個別的程序係進行至步驟8工8,其中,一項關 =是,時序控制軟性交接操作應該被起始化之決定 係被只^。枯序控制款性交接操作係可以根據下列條 件之一個集合而被起始化: ' (a)個替代路徑之測量值係超過一個用於一預 先指定之期間之臨限值; 、(b)一個替代路徑之測量值係於一指定之期間超 過相對於目前之路徑之一個臨限值; 36 201206095 (C)目前選擇之路徑係下降至一個絕對值之下丨及 (d)候選的路徑係超過一個絕對測量值,其中,診 測量值係可以為下列之一或多個: 、 (a) 功率; (b) 訊號對雜訊比; (0功率之變異值; (d) 訊就對雜訊比之變異值;或者 (e) 兩個路徑之相對比值功率。 假如時序控制交接操作之起始化已經被起動, 於步騾82 1巾,該基地臺處理器220 —丄係更新 其=基地臺處理器及該基地臺控制器丄23。該接取 終j 2 1 3亦可以被告知該時序控制交接操作。假如 該時序控制係尚未被軟性交接,則該些程序8 〇 〇及 8 〇 2係進行至步驟8 2 4,於步騾8 2 4中,萬— 另一個基地臺處理器2 2 〇、基地臺控制器丄 者接,終端213將控制該反向鏈路訊號之時序= 傳运個命令或者訊息至該基地臺處理器22〇 者接受該時序控制之決定係被實施。假如該基 程糸釋放或者接受時序控制之責任,則該些 0及802係進行至步驟830,以 李 統之作業參數;否,卜該些程序δ〇〇及8〇2 = 步驟8 〇 3,以接收由該接取終端2工3而來 I訊就。 由忒接取終端2 1 3所執行之程序8 3 3係接 £ 37 201206095 收於步驟839中之;^ + 述。首先,假如未接收二饋/理該反饋如下文所 該程序8 3 3係作迴圈::反饋’狀此實施例中, 如反饋被接收,則兮】庠:3 9中寺待反饋。假 θ 、j °亥程序係進行至步騾8 4 2,以決 定是否-個粗略時序調整命令或者訊息已經被接 收。假如-個粗略時序調整命令或者訊息係已經被接 收’則該粗略時序調整係於步驟845中實施。库瞭 解的是’該粗略時序調整可以為-個絕對的或者相對 的測量,如上文所述。 於步驟848中,該接取終端2 1 3係決定是否 一個細微的時序調整命令或者訊息係已經被接收。假 如一個細微的時序調整命令或者訊息係已經被接 則於㈣8 5 1中實施細微時序調整。應瞭解的 疋,邊細微時序調整典型地係為一個差動的命令或者 ,息。在該細微時序調整之S,該程序8 3 3係決定 疋否個功率準位調整命令或者訊息係已經被接 收。假如一個功率準位調整命令或者訊息係已經被接 收’則於步帮8 5 7中,該接取終端2 1 3係調整該 功率準位。 在對於時序或者功率作調整之後,於步驟8 6 0 中°玄程序8 3 3係更新該接取終端2 1 3之操作參 數。在更新系統參數之後,該程序8 3 3係於步驟8 3 9中重複’等待由一或多個基地臺處理器2 2〇而 來之反饋。 ⑧ 38 201206095 第9a及9B圖係為分別由該基地臺處理器2 2 2及接取終端2 1 3所執行之程序9 〇 〇及9 2 0 流程圖,以用於調整由該接取終端2 1 3所傳送之反 向鏈路訊號之功率準位。參照由該基地臺處理器2 2 〇所執行之程序9 Q Q,該程序9 ◦ 0係開始於步驟 9 。於步騾9 1 〇中,該基地臺處理器220係 決疋是否導致該接取終端2 1 3改變於步驟9工〇 中反向鏈路訊號之功率準位。假如 路訊號準位,則只辟及 人义汉问鍵 饋係以一個命令或者訊息之形式被 傳达至該接取終端2 1 3。該基地臺處理器2 於程序9 0 0中結束於步驟915。 to22〇# 由該接取終端213係開始於步 反饋係於步驟93〇中 目,二 1 旦 行至步騾q u 則該程序9 2 0係進 订主4 9 3 5,於步騾9 3 5 地臺處理器2 2 〇係請求一個 :否所有基 係被實施。假如所有基地臺處_卞決定 功率準位增加,_程序92(;H〇2求一個 0:於步辱9 4 〇中,該接取終端2H二驟9 4 個最低增加反饋—夕 13係增加與一 位。假如並非所有基;I:處向鏈路訊號之功率準 準位增加,則於步驟9 4 5中^20和求一個功率 地臺處理器2 2 〇係正請求項:於是否任何基 係被實施。假如至少 走力〒+位減少之决定 —功率準位減少,列於Q =里时2 2 〇係正請求 幻於步驟9 5 0中,該接取終端2 39 1 201206095 1 3係減少與一個最低減少反饋一樣多之一個功率 準位。該程序9 2 0係於步驟9 5 5結束,或者可= 僅迴圈回到步驟9 3 0,以等待接收一個功率準位反 饋。 雖然該正交及非正交基地臺之功率控制係被維 護,但是命令或者測量值係可以透過—個順向鏈路而 被傳送至該用戶基地傳送器(亦即接取終端2工 3)。由每一個基地臺處理器22〇而來之該功率控 制命令係可以根據是否一個訊號品質測量值係於^ 一個個別的基地臺處理器2 2 0處被達到而定。該訊 號品質測量值係可以為一個位元錯誤率,訊號對雜訊 比’接收之功率或者干擾密度Ec/丨〇。假設該測量值 係滿足,則一個減少傳輸功率之命令係被傳送出。因 為該接取終端2 1 3係接收由該兩個基地臺處理哭 2 2 0而來之命令,通常其係將接收衝突的命令。^ 此情況產生時,假如一個降低功率之命令產生,則哕 接取終端2 1 3係遵從該降低功率之命令。此係可以 使用一個互斥或(exclusive_0R)之函數而實施,·舉 例而言,只有在兩個基地臺處理器2 2 〇皆命令提高 功率之情況下,一個提高功率之動作係產生。假如有 一個基地臺處理器2 2 0係命令降低功率,則一個降 低功率之動作係產生。此對於複數個位元之命令亦^ 相同,其中,功率上之最小的增加量或者最大之蜮少 量係被遵從。 201206095 雖然本發明係已絲夂 予以顯示;Λ 發明之較佳實施例而 ·’"、’' "以,蟪習該項技術者應瞭解的是,在 偏離由後附申嗜直女丨时 疋在不 下,許多於形式上 二七月之“之 即上之改叆係可以被實施。 【圖式簡單說明】 C - 圖式部分 由示於後附圖式之本發明 細敘述,本發明之上诫β甘从权仓只施例的更詳 成顯明的,並中,,似的、特色及優點將變 指干相件符號係於不同的圖式中 而些圖式係不需要比例化及強調, 而疋頰不本發.明之原理。 改。同 、第1圖係為一個提供正交及非正交 通訊系统之方塊圖; …、、,泉 第2圖係為一個由第i圖之 之電路的方塊圖; 接取、,端所採用 第3圖係為一個進一步包含—個 2圖的電路之方機圖,該 咨之弟 接料端之-個正交鏈路係用於在具有其他 塊s弟二圖係為第1圖之該無線通訊系统的-個方 塊圖,該恶線通訊系統係具有口方 交鏈路之域; 扪便用正父及非正 第5圖係為第4圖之一個 方塊圖,节m 個基地[處理器之-個 ㈣忒基地量處理器係具有一個正固 益,以控制於該正交鏈路上之接取終端之時序;控制 201206095 、弟6A圖係為具有一個位於該基地臺處理器内之 對準控制益之第4圖的網路之一個網路圖; 第6B圖係為具有一個位於該域單元内之對準控 制器之第4圖的網路之一個網路圖; : 第6 C圖係為具有一個位於一個基地臺控制器内 之對準控制森之第4圖的網路之一個網路圖; 第7圖係為一個可以由第4圖之該基地終端臺 及接取終端所使用以使訊號相互正交之處理哭 程圖; /瓜 第8A及8B圖係為可以由在第4圖之多單元環 境中之基地終端臺及接取終端所使用以用於軟性交 接操作之處理器之流程圖;及 ^第9A及9B圖係為可以由在第i圖之基地終端 堂及接取終端所使用以用於功率控制之處理器之流 程圖。 m ” 【主要元件符號說明】 10 40 50 51,52 53 110 113_1,113-2 及 113·3 113-k 分碼多路接取通訊系統 順向鏈路 反向鏈路 邏輯頻道 維護頻道 弟一群I且之使用者 手持單元 車輛中之行動電話 ⑧ 42 201206095 £ 113 用戶單元 118 基地臺天線 120 基地收發器臺 123 基地臺控制器 124 公共交換電話網路 141 發訊頻道 142 流通貢料頻道 144 邏輯頻道 151 接取頻道 152 流通貢料頻道 154 邏輯頻道 210 第二群組之使用者 212-1 個人電腦裝置 212-2 個人電腦裝置 212-h 個人電腦裝置 212-1 個人電腦裝置 213 接取终端 213-1,213-2,213-3 接取终端 214-1 遠距用戶接取單元 214-2 遠距用戶接取單元 214-h 遠距用戶接取單元 214-1 遠距用戶接取單元 216-1 結合之天線 216-2 結合之天線 43 201206095 216-h 結合之天線 216-1 結合之天線 218 基地臺天線 220 基地臺處理器 220-1 第一基地臺處理器 220-2 第二基地臺處理器 222 網際網路閘道器 224 網際網路 230 網路檔案伺服器 240 用戶接取單元 241 發訊頻道 242-1,242-t 流通資料頻道 243 維護頻道 251 接取頻道 252-1,252-t 流通資料頻道 252 及 253 邏輯順向鏈路頻道 302 輸入數位訊號 304 正交調變器 305 偽隨機雜訊碼產生器 306-i 及 306-q 乘法器 307 長碼產生器 308-i 及 308-q 長碼乘法器 400 無線網路 402 輸入數位訊號 44 ⑧ 201206095 404 405 406-i 及 406_q 407 408-i 408-q 410 413 415 正交調變器 短碼產生器 第一對乘法器 長碼產生器 同相乘法器 正交乘法器 本地的正交頻道 沃爾什碼產生器 外部的正交頻道 420-1 420-2 420-3 420-4 420-5 420-6 425-1 及 425-2 425-1 、 425-5 及 505 510 513 反向鏈路邏輯頻道 反向鏈路邏輯頻道 反向鏈路邏輯頻道 反向鏈路邏輯頻道 反向鏈路邏輯頻道 反向鏈路邏輯頻道 本地的正交頻道 425-6反向鏈路頻道 接收器 正交時序控制器 總體時序偏移 對準控制器 45 515疋 疋 疋 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该 该Signal to noise ratio. Where to use a command or message to indicate -°. A20 will control the timing of the reverse link of the domain unit 2131. In the case of the body Φ ^ AL , ^ _ _ in the case of the case - the selected base station processor 22n can issue a command or 32 201206095 message to the domain unit 2 丄 3 - 丄, 2 0 ^ in the τ U system ^ X 乂 informs the base station processor 2 to control the timing of the positive and negative key channels. The library's 疋, the alignment controller 5 i 5 ', θ #咖 y J 』 to understand the different points of view, the heart:::: controller 2 2 〇 will control the selection of the reverse chain to maximize these The benefit of the difference between the bases of 20. System B is a flow chart of the method for extracting orthogonal orthogonal handover in accordance with the present invention. In this example, the base station handles the crying η π 1 system to perform a first program 7 and the access terminal 213 performs 5 . After the base station processor program 7 〇 ^ 3 begins, the base station processes the crying process 7 steps 7 0 5 ... receiving the second: 2730 ^ ^ road signal. In the step 7 of the reverse terminal .π ^ 啼 private sequence 735, the access terminal 213 is connected to the step 7 4 5: = link channel Up-transmitting - the same as the other access, reverse link signals with a unique - orthogonal reverse link. The base station processor program 7 0 is in the step 15 of the 7th step, the base station Processing sequence to 7 steps = two = step 7 In the reverse link signal, identify the other access terminals in the orthogonal reverse link group of the access terminal 2" 2 W: The same access terminal group 3 picture. The long code instead of the = long;:! phase, such as refer to the 2nd and ▼ know 疋 and orthogonal such as the code of the 201206095 code code and The base station processor program 700 is aligned in time. When the long codes are in phase, the unique and identified codes of the reverse link signals are orthogonal to each other. The long code in the road signal is in phase with the long code of the other reverse link signals of the other access terminals 2 i 3 in the same mutually orthogonal reverse link group (ie, temporally aligned) Then, the base station processor program 7 ends in step 730. If the long code in the reverse link signal is in the same mutual offset group as the other If the terminal 2 has different length codes of the reverse link signal, the base station processor program 700 is maintained to step 7 2 〇', wherein the overall timing offset is determined by the orthogonal timing control. The device 5 is implemented as described above with reference to Figure 5. »Xuan base $ handler program 7 〇〇 proceeds to step 7 2 5 'In this step' the base station processor 2 2 A command or message form transmits the overall timing offset to the access termination 2 1 3. In step 750, the access terminal program 73 5 receives the overall timing offset, and (4) the reverse link The timing of the signal. The access terminal program 7 3 5 ends at (4) 7 5 5, and the base, station processor program 700 ends in step 7 3 第. The ^ and 8B diagrams are when the first base station The flow when the processor 220-1 and the two base station processor 2 2 交互 2 interact with the access terminal 2 1 3 The first base station processor 2 2 0 - 1 performs a process of controlling the reverse terminal of the access terminal 2 3 3 201206095: chain dC8 0 0. The processing of the timing of the second base station processor 2 2 Program 8 0 2. The access 4 can be two; 3 3. The program 8 3 3 is related to the dilute one, ten to one Xu reverse link signal with a rough amount and fine reception adjustment 'and according to the base The processor 22 adjusts the power level by receiving the power level feedback. The device 2=the terminal 2i3 is transmitted by the first base station processing 1 and the second base station processor 22 0 〇^ Signal (step 8 3 6). / Π 2 = terminal τ processor "0 - 1 when the previous system has been selected by the connection m to control the reverse link signal, the younger base station processor 22 〇 - = end 213 The reverse link orthogonal signal = : 〇 3) 'The reverse link orthogonal signals are connected to other reverse link signals of the link channel or to the same reverse link channel used by other Take the terminal 2丄3 and come to him, to the road signal. In the step δ 〇6, the first base station::Yi 2 2 〇-1 determines whether the terminal 2 1 3 == is in accordance with a timing condition or standard. If the signal does not pay the timing condition or standard, then the procedure 8 determines to feedback back to the access terminal 2 to make the signal and other signals using the same code. The overall timing offset of the alignment. In the step 8 3 9 , the feedback is received by the access terminal 213. If the signal 35 1 201206095: ... the timing condition or standard, the program 乂骡 8 0 9 , the program 8 〇〇 = = line to two timing offset system is needed. If necessary, ;:: fine transmission The receiving terminal 213 transmits the second sequence 80 offset and which one is received in the step sequence of the sequence 8 3 3 = 3. 3. If not, the program 800 performs the process to the step δ ΐ 5. Offset, in the step of the iron 8 1 5, 兮: 筮 其 其 + + + + + + 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山 山^ ^Finding the 諕 諕 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第 第A power level adjustment of 3 is performed. The power level offset is transmitted to the access terminal 2 1 3 in the forward link. If the power level adjustment is not performed in the south, the reference is made. The first base station: the traitor program 8 〇〇 and the second base station processor program 8 〇 2: the individual program system proceeds to step 8 work 8, where one off = yes, the timing control soft handover operation should The decision to be initialized is only ^. The sequence control system can be initialized according to a set of the following conditions: ' (a) the measured value of the alternative path More than one threshold for a pre-specified period; (b) a measurement of an alternate path for a specified period exceeding a threshold relative to the current path; 36 201206095 (C) currently selected The path system drops below an absolute value and (d) the candidate path system exceeds an absolute measurement, wherein the diagnostic measurement can be one or more of the following: (a) power; (b) signal pair Noise ratio; (0 power variation value; (d) the variance value of the noise ratio; or (e) the relative ratio power of the two paths. If the initialization of the timing control handover operation has been initiated, the base station processor 220 updates the base station processor and the base station controller 丄23. The access terminal j 2 1 3 can also be informed of the timing control handover operation. If the timing control system has not been softly handed over, then the programs 8 8 and 8 〇 2 are carried out to step 8 2 4, in step 8 2 4, 10,000 - another base station processor 2 2 〇, base After the controller is connected, the terminal 213 will control the timing of the reverse link signal = the command or message is transmitted to the base station processor 22 and the decision to accept the timing control is implemented. If the base 糸 is released or accepts responsibility for timing control, then the 0 and 802 lines proceed to step 830 to determine the operating parameters of Li Tong; otherwise, the programs δ 〇〇 and 8 〇 2 = step 8 〇 3 Receiving I from the access terminal 2 to the I message. The program executed by the terminal 2 1 3 is connected to the terminal 38 3, and the program is received in step 839; First, if the feedback is not received, the feedback is as follows: The feedback is as follows: In the embodiment, if the feedback is received, then 庠: 3: 3 9 Temple to be fed back. False θ, j ° Hai proceed to step 8 4 2 to determine if a rough timing adjustment command or message has been received. The coarse timing adjustment is implemented in step 845 if a coarse timing adjustment command or message has been received. The library understands that 'this coarse timing adjustment can be an absolute or relative measurement, as described above. In step 848, the access terminal 2 1 3 determines whether a subtle timing adjustment command or message has been received. If a subtle timing adjustment command or message has been received, fine timing adjustments are implemented in (4) 8 5 1 . It should be understood that the fine timing adjustment is typically a differential command or message. In the fine timing adjustment S, the program determines whether a power level adjustment command or a message system has been received. If a power level adjustment command or message has been received, then in the step 855, the access terminal 2 1 3 adjusts the power level. After adjusting for timing or power, the operating parameters of the access terminal 2 1 3 are updated in step 8 6 0. After updating the system parameters, the program 803 repeats in step 829 to wait for feedback from one or more base station processors 2 2 . 8 38 201206095 Figures 9a and 9B are flowcharts of procedures 9 〇〇 and 902 executed by the base station processor 2 2 2 and the access terminal 2 1 3, respectively, for adjustment by the access terminal 2 1 3 The power level of the reverse link signal transmitted. Referring to the program 9 Q Q executed by the base station processor 2 2, the program 9 ◦ 0 starts at step 9. In step 11, the base station processor 220 determines whether the access terminal 2 1 3 changes the power level of the reverse link signal in the step 9 work. If the road signal is in the right position, then only the person and the user are sent to the access terminal 2 1 3 in the form of a command or message. The base station processor 2 ends in step 915 in the program 900. To22〇# From the access terminal 213, the step feedback is in step 93, and the second step is to step 骡qu. Then the program 9 2 0 is subscribed to the main 4 9 3 5 in step 9 3 5 The base station processor 2 2 requests one: No all base systems are implemented. If all the base stations _ 卞 determine the power level to increase, _ program 92 (; H 〇 2 seeking a 0: in the humiliation 9 4 〇, the receiving terminal 2H two steps 9 4 minimum increase feedback - Xi 13 series Add one bit. If not all bases; I: increase the power level of the link signal, then in step 9 4 5 and ask for a power ground processor 2 2 Whether any basis is implemented. If at least the force 〒 + bit is reduced - the power level is reduced, when listed in Q = 2 2 〇 is requesting the illusion in step 950, the access terminal 2 39 1 201206095 1 3 reduces the power level as much as a minimum reduction feedback. The program 9 2 0 ends at step 9.5, or can = loop back only to step 9 3 0, waiting to receive a power level Bit feedback. Although the power control of the orthogonal and non-orthogonal base stations is maintained, commands or measured values can be transmitted to the subscriber base transmitter via a forward link (ie, the access terminal 2 3) The power control command from each base station processor 22 can Depending on whether a signal quality measurement is achieved at an individual base station processor 220. The signal quality measurement can be a bit error rate, signal-to-noise ratio than 'received power or Interference density Ec/丨〇. Assuming that the measured value is satisfied, a command to reduce the transmission power is transmitted. Because the receiving terminal 2 1 3 receives the crying 2 2 0 from the two base stations. The command, usually the system will receive the conflicting command. ^ When this happens, if a command to reduce power is generated, then the terminal 2 1 3 follows the command to reduce the power. This system can use a mutual exclusion or ( Exclusive_0R) is implemented as a function, for example, only when two base station processors 2 2 command to increase power, an action to increase power is generated. If there is a base station processor 2 2 0 system The command reduces power, and a power reduction action is generated. This is the same for a plurality of bits, where the minimum increase in power or the maximum amount is 201206095 Although the present invention has been shown in the drawings; 较佳 the preferred embodiment of the invention, '", '' ", the person who knows the skill of the art should understand that When you are a straight girl, you can't keep up. Many of the changes in the form of July and July can be implemented. [Simple diagram of the diagram] C - The diagram is partly by the invention shown in the following figure. In the above description, the more detailed, explicit, and similar features, and advantages of the 诫β甘 from the vesting of the vestibule will be changed to the symbol of the dry phase and the different schemas. The system does not need to be proportional and emphasized, but the cheeks are not the same. change. The same figure is the block diagram of the orthogonal and non-orthogonal communication system; the second picture is a block diagram of the circuit of the i-th figure; Figure 3 is a square diagram of a circuit further including a 2 diagram, and the orthogonal link of the protocol is used to have the other diagrams and the second diagram is the first diagram. a block diagram of the wireless communication system, the bad line communication system has a domain of the mouth intersection link; 扪 用 正 正 及 及 及 及 及 及 及 及 及 及 及 及 及 及 及 正 正 正 m m m m 个 个 个 个- (4) 忒 base quantity processor has a positive solid profit to control the timing of the access terminal on the orthogonal link; control 201206095, brother 6A picture has a located in the base station processor Aligning a network diagram of the network of Figure 4 of the Control Benefit; Figure 6B is a network diagram of the network having Figure 4 of the alignment controller located within the domain unit; Figure C is a network with a map of Figure 4 located in a base station controller. The network diagram; Figure 7 is a processing crying diagram that can be used by the base terminal station and the access terminal of Figure 4 to make the signals orthogonal to each other; / Gua 8A and 8B diagrams can be Figure 4 is a flow chart of the base terminal station and the access terminal used in the multi-unit environment for the soft handover operation; and ^9A and 9B are diagrams which can be used in the base terminal of the i-th diagram And a flow chart of the processor used by the terminal for power control. m ” [Main component symbol description] 10 40 50 51,52 53 110 113_1,113-2 and 113·3 113-k code division multi-channel communication system forward link reverse link logic channel maintenance channel brother group Mobile phone in user's handheld unit vehicle 8 42 201206095 £ 113 User unit 118 base station antenna 120 base transceiver station 123 base station controller 124 public switched telephone network 141 communication channel 142 circulation tribute channel 144 logic Channel 151 access channel 152 circulation tribute channel 154 logical channel 210 second group user 212-1 personal computer device 212-2 personal computer device 212-h personal computer device 212-1 personal computer device 213 access terminal 213 -1, 213-2, 213-3 access terminal 214-1 remote user access unit 214-2 remote user access unit 214-h remote user access unit 214-1 remote user access unit 216-1 combined Antenna 216-2 combined antenna 43 201206095 216-h combined antenna 216-1 combined antenna 218 base station antenna 220 base station processor 220-1 first base station processor 220-2 second The ground station processor 222 Internet gateway 224 Internet 230 network file server 240 user access unit 241 communication channel 242-1, 242-t circulation data channel 243 maintenance channel 251 access channel 252-1, 252-t Circulating data channels 252 and 253 logical forward link channel 302 input digital signal 304 quadrature modulator 305 pseudo random noise code generator 306-i and 306-q multiplier 307 long code generator 308-i and 308- q Long code multiplier 400 Wireless network 402 Input digital signal 44 8 201206095 404 405 406-i and 406_q 407 408-i 408-q 410 413 415 Quadrature modulator short code generator First pair multiplier long code generation Orthogonal channel multiplier local orthogonal channel Walsh code generator external orthogonal channel 420-1 420-2 420-3 420-4 420-5 420-6 425-1 and 425- 2 425-1 , 425-5 , and 505 510 513 Reverse Link Logical Channel Reverse Link Logical Channel Reverse Link Logical Channel Reverse Link Logical Channel Reverse Link Logical Channel Reverse Link Logical Channel Local Orthogonal channel 425-6 reverse link channel receiver is positive The timing controller overall timing offset alignment controller 45515

Claims (1)

201206095 七、申請專利範圍: L無線用戶方法,包括: 在—紐交射傳送_封包= 倾給減個基站的 屯路,其中該封包資料是藉由使用 ^ 碼而被傳送,兮千“ /又碼以及絲訊(PN) 個命令,其中該雷 聯的一功率準位 個合合,η::,稱更經配置_找複數個基站接收複數 路更經配置用以調整與雖包資料的傳輪相關 複數個基站中任’:應該接收到的複數個命令,其中在來自該 少的hT* — 基㈣任_命令指出在該功轉位上的一減 卜二,5亥功率準位被降低,其中在來自該複數個基站中至 站岐少—命令指出在該功率位準上的—增純沒有其他 該功率準位被提 土 Λ运指出在功率命令上的一減少的情況下, 高0 2·—種方法,包括: 由無線用戶單元在一軟性交接中傳送一封包資料給複數個 基站’其巾該封包資料是藉由使用至少-正交碼以及-偽雜訊(ΡΝ) 碼而被傳送; 由該無線用戶單元從該複數個基站接收複數個命令; 由該用戶單元調整與該封包資料的傳輸相關聯的一功率準 位’以回應該接收到的複數個命令,其中在來自該複數個基站中 任一個基站的任一命令指出在該功率準位上的一減少的情況下, 5玄功率準位被降低,其中在來自該複數個基站中至少一基站的至 少一命令指出在該功率位準上的一增加且沒有其他基站發送指出 在功率命令上的一減少的情況下,該功率準位被提高。 3. —種無線用戶單元,包括: 46 ⑧ 201206095 經配置用以在-軟性交接中傳送一封包資料给一至小 基=以及-第二基站的電路,其中該封包倾.由使^至少一 ,碼碼而被傳送’其中該電路更經配置用以 =少I第—基站接收—第—命令,以及從至少—第二基站接收 =弟一 Α,其中來自該至少—第—基站的該命令是複數個位 儿,其中該複數個位几指出複數個功率準位的其中之一,其中該 電路更經配置用以膽與該封包㈣的傳輸相_的―功率準 位,以回應該接收朗第-命令以及第二命令,其巾該功率準位 疋仗該第^ 卩令或該弟一命令衍生的一最低功率準位。 4. 一種方法,包括: 由一無線用戶單元在一軟性交接中傳送一封包資料給一至少 =第-基站以及-第二基站的至少其中之―,其中該封包資料是 藉由使用至少一正交碼以及一偽雜訊(pN)碼而被傳送; 由該無線用戶單元從至少一第一基站接收一第一命令,以及 处至y弟一基站接收一弟二命令,其中來自該至少一第一基站 的該命令是複數個位元,其中該複數個位元指出複數個功率準位 的其中之一;以及 由該無線用戶單元調整與該封包資料的傳輸相關聯的一功率 準位,以回應該接收到的第一命令以及第二命令,其中該功率準 位是從該第一命令或該第二命令衍生的一最低功率準位。201206095 VII. Scope of application for patents: L wireless user method, including: In------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------ The code and the PN command, wherein the power level of the ray is combined, η::, said to be more configured _ find a plurality of base stations to receive the complex path is more configured to adjust and package data The pass-through is related to any of a plurality of base stations': a plurality of commands that should be received, wherein in the hT*-based (four) _ command from the lesser, the command is indicated on the work-transfer position, and the power is 5 The bit is reduced, wherein the station is degraded from the plurality of base stations - the command indicates that the power level is not increased by the other power level and the power command indicates a decrease in the power command. Next, a high 0 2 - method includes: transmitting, by the wireless subscriber unit, a packet of information to a plurality of base stations in a soft handover, wherein the packet data is obtained by using at least an orthogonal code and a pseudo-noise ( ΡΝ) code is transmitted; Receiving, by the wireless subscriber unit, a plurality of commands from the plurality of base stations; adjusting, by the subscriber unit, a power level associated with transmission of the packet data to return a plurality of commands that should be received, wherein the plurality of commands are received Any command of any one of the base stations indicates that in the case of a decrease in the power level, the 5 power level is lowered, wherein at least one command from at least one of the plurality of base stations indicates the power An increase in level and no other base station transmission indicates a decrease in power command, the power level is increased. 3. A type of wireless subscriber unit, including: 46 8 201206095 configured to be in-soft Transmitting a packet of data to a circuit of a small base = and - a second base station, wherein the packet is tilted by at least one, a code code is transmitted 'where the circuit is further configured to use less = first base station Receiving - the first command, and receiving from at least - the second base station = the first one, wherein the command from the at least - the first base station is a plurality of bits, wherein the plural The bit indicates one of a plurality of power levels, wherein the circuit is further configured to use a power level of the transmission phase of the packet (4) to receive the Rand-Command and the second command. The power level is a minimum power level derived from the first command or the command of the brother. 4. A method comprising: transmitting, by a wireless subscriber unit, a packet of information in a soft handover to at least = At least one of the first base station and the second base station, wherein the packet data is transmitted by using at least one orthogonal code and a pseudo noise (pN) code; from the wireless subscriber unit from at least a first Receiving, by the base station, a first command, and receiving a second command from the base station, wherein the command from the at least one first base station is a plurality of bits, wherein the plurality of bits indicate a plurality of power levels One of; and the wireless subscriber unit adjusts a power level associated with the transmission of the packet data to echo the received first command and the second command, wherein the power level is from the first Order or the second order derivative of a minimum power level.
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