Abstract: Techniques (e.g., apparatus, method, machine-readable medium, chipset, etc.) to effect scenario analysis. Included is a determining of a power-affecting operational setting based on at least one operating condition of a device, the at least one operating condition of the device to be an operating condition of the device while the device is communicatively coupled to another device; and a setting of a first operational setting of the device based on the determined power-affecting operational setting.

Abstract: Logic may allocate time slots in a schedule with consideration of thermal dissipation capacities of non-PCP devices. Logic may determine the failure to use a full time slot allocation by a non-PCP device when the non-PCP device has more data to transmit. Logic may determine an adjustment for a schedule based upon duty cycle information provided by a non-PCP device. Logic may receive an indication of a duty cycle. Logic may determine an adjustment to a schedule based upon entrance of the non-PCP device into a power save mode during an incomplete communication with time remaining in the allocated time slot. Logic may determine a duty cycle based upon a thermal measurement. Logic may request a reduced duty cycle based upon a risk of reaching an overheat limit for a non-PCP device. And logic may request an increase in the duty cycle in response to favorable thermal characteristics.

Abstract: Techniques (e.g., apparatus, method, machine-readable medium, chipset, etc.) to effect scenario analysis. Included is a determining of a power-affecting operational setting based on at least one operating condition of a device, the at least one operating condition of the device to be an operating condition of the device while the device is communicatively coupled to another device; and a setting of a first operational setting of the device based on the determined power-affecting operational setting.

Abstract: Some demonstrative embodiments include apparatuses, devices, systems and/or methods for controlling an antenna scheme of one or more antennas. For example, a controller may be configured to control an antenna scheme of one or more antennas of a mobile device for wireless communication based on a position of a lid of the mobile device relative to a base of the mobile device.

Abstract: Certain embodiments herein relate to dynamic allocation of power budgets for wireless modules that may be integrated onto a wireless combo module. An individual power budget for each wireless module may be modified based on the performance of the wireless module such that wireless modules that may benefit from additional power consumption may receive additional power budget from other wireless modules that may be consuming less power than currently allocated. In this way, power budgets may be cooperatively shared among wireless modules to facilitate optimized wireless communications. Various techniques may be used to configure a wireless module to operate within or at certain power values, including adjusting a transmission speed and/or a time interval for sending backoffs to attain a desired power consumption.

Abstract: Some demonstrative embodiments include apparatuses, systems, devices and/or methods of wireless communication during a power save state. For example, a wireless network interface may be configured to interface between a wireless communication device and a wireless network. The wireless network interface may include a controller to receive an indication of a power save state of the wireless communication device, and to generate an Information Element (IE) including Transmit (Tx) filter setup information defining allowed frames, which are allowed to be transmitted to the wireless communication device during the power save state; and a transmitter to transmit the IE via the wireless network.

Abstract: Some demonstrative embodiments include apparatuses, systems, devices and/or methods of wireless communication during a power save state. For example, a wireless network interface may be configured to interface between a wireless communication device and a wireless network. The wireless network interface may include a controller to receive an indication of a power save state of the wireless communication device, and to generate an Information Element (IE) including Transmit (Tx) filter setup information defining allowed frames, which are allowed to be transmitted to the wireless communication device during the power save state; and a transmitter to transmit the IE via the wireless network.

Abstract: Logic may allocate time slots in a schedule with consideration of thermal dissipation capacities of non-PCP devices. Logic may determine the failure to use a full time slot allocation by a non-PCP device when the non-PCP device has more data to transmit. Logic may determine an adjustment for a schedule based upon duty cycle information provided by a non-PCP device. Logic may receive an indication of a duty cycle. Logic may determine an adjustment to a schedule based upon entrance of the non-PCP device into a power save mode during an incomplete communication with time remaining in the allocated time slot. Logic may determine a duty cycle based upon a thermal measurement. Logic may request a reduced duty cycle based upon a risk of reaching an overheat limit for a non-PCP device. And logic may request an increase in the duty cycle in response to favorable thermal characteristics.

Abstract: Certain embodiments herein relate to dynamic allocation of power budgets for wireless modules that may be integrated onto a wireless combo module. An individual power budget for each wireless module may be modified based on the performance of the wireless module such that wireless modules that may benefit from additional power consumption may receive additional power budget from other wireless modules that may be consuming less power than currently allocated. In this way, power budgets may be cooperatively shared among wireless modules to facilitate optimized wireless communications. Various techniques may be used to configure a wireless module to operate within or at certain power values, including adjusting a transmission speed and/or a time interval for sending backoffs to attain a desired power consumption.

Abstract: Some demonstrative embodiments include devices, systems and/or methods of wireless communication discovery. For example, a first wireless communication device may include a wireless communication unit to discover a second wireless communication device according to an asymmetric discovery process, in which the wireless communication unit is to operate in only one first state selected from a searching state and a listening state, while the second wireless communication device is to operate in only one second state selected from the searching state and the listening state.

Abstract: Some demonstrative embodiments include apparatuses, devices, systems and/or methods for controlling an antenna scheme of one or more antennas. For example, a controller may be configured to control an antenna scheme of one or more antennas of a mobile device for wireless communication based on a position of a lid of the mobile device relative to a base of the mobile device.

Abstract: Some demonstrative embodiments include devices, systems and/or methods of wireless communication discovery. For example, a first wireless communication device may include a wireless communication unit to discover a second wireless communication device according to an asymmetric discovery process, in which the wireless communication unit is to operate in only one first state selected from a searching state and a listening state, while the second wireless communication device is to operate in only one second state selected from the searching state and the listening state.