Abstract: Intelligent thermal and power management in a wireless communications device in a wireless communications system (WCS) is disclosed. In a non-limiting example, the wireless communications device can be a base station (e.g., eNB) in the WCS. The wireless communications device includes a number of sensor circuits each configured to perform a sensory measurement (e.g., temperature measurement) in a specific circuit or at a specific location of the wireless communications device. A control circuit is provided in the wireless communications device support intelligent thermal and power management in the wireless communications device. Specifically, the control circuit determines that the sensory measurement is above an abnormal threshold(s) and performs one or more corrective actions accordingly to reduce the sensory measurement to a desirable threshold.

Abstract: Intelligent thermal and power management in a wireless communications device in a wireless communications system (WCS) is disclosed. In a non-limiting example, the wireless communications device can be a base station (e.g., eNB) in the WCS. The wireless communications device includes a number of sensor circuits each configured to perform a sensory measurement (e.g., temperature measurement) in a specific circuit or at a specific location of the wireless communications device. A control circuit is provided in the wireless communications device support intelligent thermal and power management in the wireless communications device. Specifically, the control circuit determines that the sensory measurement is above an abnormal threshold(s) and performs one or more corrective actions accordingly to reduce the sensory measurement to a desirable threshold.

Abstract: Dynamic power saving in a wireless device in a wireless communications system (WCS) is disclosed. The WCS includes a wireless device(s), such as a fifth-generation (5G) or a 5G new-radio (NR) base station (eNB), configured to communicate downlink and uplink communications signals in a coverage cell. In embodiments disclosed herein, the wireless device(s) can determine whether a power-saving condition is met in the coverage cell, and opportunistically operate in a power-saving mode when the power-saving condition is met. By opportunistically operating in the power-saving mode based on the power-saving condition, it is possible to reduce power consumption in the wireless device(s) without sacrificing user experience in the coverage cell.

Abstract: Implementing a live wireless communication system configuration from a virtual wireless communication system design using an original equipment manufacturer (OEM) specific software system in a real wireless communication system is disclosed herein. In exemplary aspects disclosed herein, the OEM specific software system enables a designer to create, save, import, modify and/or preconfigure a virtual wireless communication system in a virtual wireless communication system configuration file(s) using OEM specific software tools resident in the real wireless communication system. The OEM specific software tools could include functionality such as the ability to incorporate and enforce OEM design constraints of the real wireless communication system. The configuration file(s) can then be subsequently implemented to modify and/or configure live equipment of a real wireless communication system.

Abstract: Implementing a live wireless communication system configuration from a virtual wireless communication system design using an original equipment manufacturer (OEM) specific software system in a real wireless communication system is disclosed herein. In exemplary aspects disclosed herein, the OEM specific software system enables a designer to create, save, import, modify and/or preconfigure a virtual wireless communication system in a virtual wireless communication system configuration file(s) using OEM specific software tools resident in the real wireless communication system. The OEM specific software tools could include functionality such as the ability to incorporate and enforce OEM design constraints of the real wireless communication system. The configuration file(s) can then be subsequently implemented to modify and/or configure live equipment of a real wireless communication system.

Abstract: Implementing a live wireless communication system configuration from a virtual wireless communication system design using an original equipment manufacturer (OEM) specific software system in a real wireless communication system is disclosed herein. In exemplary aspects disclosed herein, the OEM specific software system enables a designer to create, save, import, modify and/or preconfigure a virtual wireless communication system in a virtual wireless communication system configuration file(s) using OEM specific software tools resident in the real wireless communication system. The OEM specific software tools could include functionality such as the ability to incorporate and enforce OEM design constraints of the real wireless communication system. The configuration file(s) can then be subsequently implemented to modify and/or configure live equipment of a real wireless communication system.

Abstract: Implementing a live wireless communication system configuration from a virtual wireless communication system design using an original equipment manufacturer (OEM) specific software system in a real wireless communication system is disclosed herein. In exemplary aspects disclosed herein, the OEM specific software system enables a designer to create, save, import, modify and/or preconfigure a virtual wireless communication system in a virtual wireless communication system configuration file(s) using OEM specific software tools resident in the real wireless communication system. The OEM specific software tools could include functionality such as the ability to incorporate and enforce OEM design constraints of the real wireless communication system. The configuration file(s) can then be subsequently implemented to modify and/or configure live equipment of a real wireless communication system.

Abstract: Implementing a live distributed antenna system (DAS) configuration from a virtual DAS design using an original equipment manufacturer (OEM) specific software system in a real DAS is disclosed herein. In exemplary aspects disclosed herein, the OEM specific software system enables a designer to create, save, import, modify and/or preconfigure a virtual DAS in a virtual DAS configuration file(s) using OEM specific software tools resident in the real DAS. The OEM specific software tools could include functionality such as the ability to incorporate and enforce OEM design constraints of the real DAS. The configuration file(s) can then be subsequently implemented to modify and/or configure live equipment of a real DAS. The OEM specific software tools and local execution of the virtual DAS facilitates, improves, and optimizes DAS design and execution, and ensures that the real DAS substantially matches the DAS design.

Abstract: Implementing a live distributed antenna system (DAS) configuration from a virtual DAS design using an original equipment manufacturer (OEM) specific software system in a real DAS is disclosed herein. In exemplary aspects disclosed herein, the OEM specific software system enables a designer to create, save, import, modify and/or preconfigure a virtual DAS in a virtual DAS configuration file(s) using OEM specific software tools resident in the real DAS. The OEM specific software tools could include functionality such as the ability to incorporate and enforce OEM design constraints of the real DAS. The configuration file(s) can then be subsequently implemented to modify and/or configure live equipment of a real DAS. The OEM specific software tools and local execution of the virtual DAS facilitates, improves, and optimizes DAS design and execution, and ensures that the real DAS substantially matches the DAS design.