Promotion of kernel.lnx.4.4-161211.

- qcom,bcl-framework-interface: If this property is defined, then the BCL uses

		the BCL framework for monitoring battery voltage and current.

		When this property is defined, the 'qcom,high-threshold-uamp',

		'qcom,low-threshold-uamp', 'qcom,mitigation-freq-khz',

		'qcom,vph-high-threshold-uv', 'qcom,vph-low-threshold-uv' and

		'qcom,thermal-handle' properties should be defined in the

		'qcom,ibat-monitor' node.

		'qcom,low-threshold-uamp', 'qcom,vph-high-threshold-uv',

		'qcom,vph-low-threshold-uv' and 'qcom,thermal-handle' properties

		should be defined in the 'qcom,ibat-monitor' node.

- qcom,bcl-hotplug-list = <hotplug-phandle-list>: List of phandles to the cores

		that are to be hotplugged, when battery current limit condition

		is reached.

- qcom,bcl-soc-hotplug-list: List of phandles to the cores that are to be hotplugged,

		when battery SOC limit condition is reached.

- qcom,bcl-freq-control-list: List of phandles to the cores that are to be frequency

                mitigated when BCL condition is reached.

- qcom,bcl-freq-control-list: This optional property takes list of phandles to the

		cores that are to be frequency mitigated when BCL condition is

		reached. When this property is defined, 'qcom,mitigation-freq-khz'

		and 'qcom,thermal-handle' should be defined in the

		'qcom,ibat-monitor' node.

- qcom,bcl-no-bms: This is an optional node for BCL IAVAIL monitor mode.

		If this property is defined, BCL IAVAIL monitor gets rbat value

		from power supply battery module instead of bms module.

		which the BCL driver should cap the maximum frequency.

	* qcom,low-threshold-uamp: The battery current, in microampere, below

		which the BCL driver should clear the CPU frequency mitigation.

	* qcom,mitigation-freq-khz: The maximum frequency value the BCL driver

		should mitigate the CPUS's with. This frequency shouldn't be

		less than the minimum frequency request that the kernel thermal

		monitor driver places during vdd restriction.

	* qcom,mitigation-freq-khz: This optional property defines the maximum

		frequency value the BCL driver should mitigate the CPUS's with.

		This property is valid only if 'qcom,bcl-freq-control-list' is

		defined in bcl parent node. This frequency shouldn't be less than

		the minimum frequency request that the kernel thermal monitor

		driver places during vdd restriction.

	* qcom,ibat-channel: The ADC hardware's Ibat channel number.

	* qcom,uv-to-ua-numerator: The conversion parameter required for converting

		the voltage measure from ADC hardware to current value.

		used by BCL driver to get the minimum frequency request that the

		thermal driver places during vdd restriction. This frequency

		value will be the lowest max frequency value the BCL driver can

		request.

		request. This property is valid only if 'qcom,bcl-freq-control-list'

		is defined in bcl parent node.

	* qcom,soc-low-threshold: The battery SOC percentage threshold below which

		mitigation needs to be applied.

						  "dma-grant";

			};

		};

		bcl@4200 {

			compatible = "qcom,msm-bcl-lmh";

			reg = <0x4200 0xff>,

				<0x4300 0xff>;

			reg-names = "fg_user_adc",

					"fg_lmh";

			interrupts = <0x0 0x42 0x0 IRQ_TYPE_NONE>,

					<0x0 0x42 0x2 IRQ_TYPE_NONE>;

			interrupt-names = "bcl-high-ibat-int",

					"bcl-low-vbat-int";

			qcom,vbat-polling-delay-ms = <100>;

			qcom,ibat-polling-delay-ms = <100>;

		};

	};

	qcom,pmfalcon@1 {

&i2c_7 {

	status = "okay";

	qcom,smb138x@8 {

	smb138x: qcom,smb138x@8 {

		compatible = "qcom,i2c-pmic";

		reg = <0x8>;

		#address-cells = <2>;

		#size-cells = <0>;

		#address-cells = <1>;

		#size-cells = <1>;

		interrupt-parent = <&spmi_bus>;

		interrupts = <0x0 0xd1 0x0 IRQ_TYPE_LEVEL_LOW>;

		interrupt_names = "smb138x";

			#address-cells = <1>;

			#size-cells = <0>;

			#io-channel-cells = <1>;

			interrupt-parent = <&smb138x>;

			interrupts = <0x36 0x0 IRQ_TYPE_EDGE_BOTH>;

			interrupt-names = "eoc";

			compatible = "qcom,smb138x-parallel-slave";

			qcom,pmic-revid = <&smb138x_revid>;

			reg = <0x1000 0x700>;

			#address-cells = <1>;

			#size-cells = <1>;

			interrupt-parent = <&smb138x>;

			io-channels = <&smb138x_tadc 2>,

				      <&smb138x_tadc 12>,

				      <&smb138x_tadc 3>;

			io-channel-names = "charger_temp",

					   "charger_temp_max",

					   "batt_i";

			qcom,chgr-misc@1600 {

				reg = <0x1600 0x100>;

				interrupts = <0x16 0x1 IRQ_TYPE_EDGE_RISING>;

				interrupt-names = "wdog-bark";

			};

		};

	};

};

			<0x2 216>, /* tsens1_upper_lower_int	*/

			<0x34 275>, /* qmp_usb3_lfps_rxterm_irq_cx	*/

			<0x57 358>, /*  spmi_periph_irq[0]	*/

			<0x4f 379>, /* usb2phy_intr	*/

			<0x4f 379>, /* usb2phy_intr: qusb2phy_dmse_hv	*/

			<0x51 379>, /* usb2phy_intr: qusb2phy_dpse_hv	*/

			<0x50 384>, /* sp_rmb_sp2soc_irq	*/

			<0xff 16>, /* APC0_qgicQTmrHypPhysIrptReq	*/

			<0xff 17>, /* APC3_qgicQTmrSecPhysIrptReq	*/

		      <0x10b4000 0x800>;

		reg-names = "dcc-base", "dcc-ram-base";

		clocks = <&clock_rpmcc GCC_DCC_AHB_CLK>;

		clocks = <&clock_gcc GCC_DCC_AHB_CLK>;

		clock-names = "dcc_clk";

	};