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    • 1. 发明申请
    • Sleep mode for wireless communication device during out of service operation
    • 无线通信设备在停止运行时的休眠模式
    • US20070207841A1
    • 2007-09-06
    • US11283100
    • 2006-03-06
    • Messay AmergaBhupesh UmattVineet Mittal
    • Messay AmergaBhupesh UmattVineet Mittal
    • H04B1/38
    • H04W52/287H04W52/0229Y02D70/1222Y02D70/1242
    • The disclosure is directed to techniques for performing service signal searches with reduced power consumption when a wireless communication device is operating out of service. The techniques include placing the wireless communication device in a “deep sleep” mode when the wireless communication device is not in service. When operating in the deep sleep mode, the wireless communication device reduces power consumption by not looking for paging signals or searching for service signals. The wireless communication device then may periodically enter a wake-up period during which power consumption is increased to perform signal searches in one or more frequency bands. The wireless communication device returns to the deep sleep mode when the signal searches are unsuccessful.
    • 本公开涉及当无线通信设备运行停止服务时,以降低的功率消耗执行服务信号搜索的技术。 这些技术包括当无线通信设备不在服务时将无线通信设备置于“深度睡眠”模式。 当在深度睡眠模式下操作时,无线通信设备通过不寻找寻呼信号或搜索服务信号来降低功耗。 然后,无线通信设备可以周期性地进入唤醒周期,在该唤醒周期期间增加功耗以在一个或多个频带中执行信号搜索。 当信号搜索不成功时,无线通信设备返回深度睡眠模式。
    • 2. 发明申请
    • System search to detect for a wireless communication network in a crowded frequency band
    • 系统搜索在拥挤的频带中检测无线通信网络
    • US20070042775A1
    • 2007-02-22
    • US11283115
    • 2005-11-17
    • Bhupesh UmattMessay AmergaVineet Mittal
    • Bhupesh UmattMessay AmergaVineet Mittal
    • H04Q7/20
    • H04W48/16
    • Techniques for efficiently performing system search to obtain service from a wireless system as quickly as possible are described. A terminal initially looks for service from a first (e.g., W-CDMA) system. The terminal identifies network(s) in the first system from which service was received in the past and performs acquisition on each network to look for service. If service is not found for the first system, then the terminal performs a search for a second (e.g., GSM) system. If service is found on the second system, then the terminal obtains service from the second system and avoids a frequency scan for the first system. Otherwise, the terminal performs a frequency scan for the first system using the search results for the second system. The terminal may obtain a list of RF channels detected for the second system and may omit these RF channels and possibly some other RF channels around these RF channels from the frequency scan.
    • 描述了用于有效地执行系统搜索以尽可能快地从无线系统获得服务的技术。 终端首先从第一(例如W-CDMA)系统寻找服务。 终端识别过去接收服务的第一系统中的网络,并在每个网络上执行获取以寻找服务。 如果没有为第一系统找到服务,则终端执行对第二(例如,GSM)系统的搜索。 如果在第二系统上找到服务,则终端从第二系统获得服务,并避免对第一系统进行频率扫描。 否则,终端使用第二系统的搜索结果对第一系统进行频率扫描。 终端可以获得针对第二系统检测到的RF信道的列表,并且可以从频率扫描中省略这些RF信道以及可能的这些RF信道周围的一些其它RF信道。
    • 3. 发明授权
    • Sleep mode for wireless communication device during out of service operation
    • 无线通信设备在停止运行时的休眠模式
    • US08527014B2
    • 2013-09-03
    • US11283100
    • 2006-03-06
    • Messay AmergaBhupesh UmattVineet Mittal
    • Messay AmergaBhupesh UmattVineet Mittal
    • H04M1/00
    • H04W52/287H04W52/0229Y02D70/1222Y02D70/1242
    • The disclosure is directed to techniques for performing service signal searches with reduced power consumption when a wireless communication device is operating out of service. The techniques include placing the wireless communication device in a “deep sleep” mode when the wireless communication device is not in service. When operating in the deep sleep mode, the wireless communication device reduces power consumption by not looking for paging signals or searching for service signals. The wireless communication device then may periodically enter a wake-up period during which power consumption is increased to perform signal searches in one or more frequency bands. The wireless communication device returns to the deep sleep mode when the signal searches are unsuccessful.
    • 本公开涉及当无线通信设备运行停止服务时,以降低的功率消耗执行服务信号搜索的技术。 这些技术包括当无线通信设备不在服务时将无线通信设备置于“深度睡眠”模式。 当在深度睡眠模式下操作时,无线通信设备通过不寻找寻呼信号或搜索服务信号来降低功耗。 然后,无线通信设备可以周期性地进入唤醒周期,在该唤醒周期期间增加功耗以在一个或多个频带中执行信号搜索。 当信号搜索不成功时,无线通信设备返回深度睡眠模式。
    • 5. 发明授权
    • System search to detect for a wireless communication network in a crowded frequency band
    • 系统搜索在拥挤的频带中检测无线通信网络
    • US08045981B2
    • 2011-10-25
    • US11283115
    • 2005-11-17
    • Bhupesh Manoharlal UmattMessay AmergaVineet Mittal
    • Bhupesh Manoharlal UmattMessay AmergaVineet Mittal
    • H04W4/00
    • H04W48/16
    • Techniques for efficiently performing system search to obtain service from a wireless system as quickly as possible are described. A terminal initially looks for service from a first (e.g., W-CDMA) system. The terminal identifies network(s) in the first system from which service was received in the past and performs acquisition on each network to look for service. If service is not found for the first system, then the terminal performs a search for a second (e.g., GSM) system. If service is found on the second system, then the terminal obtains service from the second system and avoids a frequency scan for the first system. Otherwise, the terminal performs a frequency scan for the first system using the search results for the second system. The terminal may obtain a list of RF channels detected for the second system and may omit these RF channels and possibly some other RF channels around these RF channels from the frequency scan.
    • 描述了用于有效地执行系统搜索以尽可能快地从无线系统获得服务的技术。 终端首先从第一(例如W-CDMA)系统寻找服务。 终端识别过去接收服务的第一系统中的网络,并在每个网络上执行获取以寻找服务。 如果没有为第一系统找到服务,则终端执行对第二(例如,GSM)系统的搜索。 如果在第二系统上找到服务,则终端从第二系统获得服务,并避免对第一系统进行频率扫描。 否则,终端使用第二系统的搜索结果对第一系统执行频率扫描。 终端可以获得针对第二系统检测到的RF信道的列表,并且可以从频率扫描中省略这些RF信道以及可能的这些RF信道周围的一些其它RF信道。
    • 8. 发明申请
    • SYSTEM FRAME NUMBER (SFN) EVALUATOR
    • 系统帧号(SFN)评估器
    • US20080056422A1
    • 2008-03-06
    • US11468263
    • 2006-08-29
    • Anil S. RaoChandra KumarGurdeep SinghKiran ChikkappaMessay AmergaMaheedhar GollamudiSudarshan Keshava
    • Anil S. RaoChandra KumarGurdeep SinghKiran ChikkappaMessay AmergaMaheedhar GollamudiSudarshan Keshava
    • H04L7/00
    • H04W52/029H04W76/27H04W76/28Y02D70/24
    • An access terminal (102) reacquires a system frame number (SFN) when a difference between a continuous counter elapsed time (220) and a calculated elapsed time (222) exceeds a threshold. The continuous counter elapsed time (220) is generated by a continuous counter (122) remaining active during a sleep state of the access terminal (102) and the calculated elapsed time (222) is based on a SFN derived from a counter value generated by a discontinuous counter (124) that is deactivated during the sleep state. In one aspect, the continuous counter (122) may be clocked by a continuous clock (118) during a sleep mode and the discontinuous counter (124) may be clocked by a faster clock (120) that is deactivated during the sleep mode. During reactivation after the sleep mode, the discontinuous counter (120) is set, at the counter set time, to a reset counter value (126) corresponding to an SFN indicated by the continuous counter (122).
    • 当连续计数器经过时间(220)和计算出的经过时间(222)之间的差超过阈值时,接入终端(102)重新获取系统帧号(SFN)。 连续计数器经过时间(220)由在接入终端(102)的休眠状态期间保持活动的连续计数器(122)生成,并且所计算的经过时间(222)基于从由 在休眠状态期间停用的不连续计数器(124)。 在一个方面,连续计数器(122)可以在休眠模式期间由连续时钟(118)计时,并且不连续计数器(124)可以由在睡眠模式期间被去激活的更快的时钟(120)来计时。 在休眠模式之后的再激活期间,不连续计数器(120)在计数器设定时间被设置为对应于由连续计数器(122)指示的SFN的复位计数器值(126)。
    • 9. 发明申请
    • Efficient utilization of transmission gaps for cell measurements
    • 有效利用传输间隙进行细胞测量
    • US20070207824A1
    • 2007-09-06
    • US11367498
    • 2006-03-02
    • Supratik BhattacharjeeMessay AmergaBrian DongGurdeep Singh
    • Supratik BhattacharjeeMessay AmergaBrian DongGurdeep Singh
    • H04B7/00
    • H04W24/10
    • A terminal communicates with a first wireless network and obtains a list of cells in a second wireless network to measure. The terminal operates in a compressed mode and receives multiple transmission gap pattern sequences for different measurement purposes, e.g., RSSI measurements, BSIC identification, and BSIC re-confirmation. The terminal utilizes each transmission gap for its designated purpose or an alternate purpose. For each transmission gap, the designated purpose for the transmission gap is ascertained, and whether the transmission gap is usable for an alternate purpose is also determined based on at least one criterion. The transmission gap is used for the alternate purpose if the at least one criterion is satisfied and is used for the designated purpose otherwise. For example, a transmission gap designated for RSSI measurement may be used for BSIC identification, a transmission gap designed for BSIC identification or BSIC re-confirmation may be used for RSSI measurement, and so on.
    • 终端与第一无线网络进行通信,并获得第二无线网络中的小区列表以进行测量。 终端以压缩模式操作并且接收用于不同测量目的的多个传输间隙模式序列,例如RSSI测量,BSIC标识和BSIC重新确认。 终端利用每个传输间隙用于其指定目的或替代目的。 对于每个传输间隙,确定传输间隙的指定目的,并且传输间隙是否可用于替代目的也基于至少一个标准来确定。 如果满足至少一个标准并且用于指定目的,则传输间隙用于替代目的。 例如,指定用于RSSI测量的传输间隙可以用于BSIC标识,为BSIC标识设计的传输间隙或BSIC重新确认可以用于RSSI测量,等等。