spell: Update atm90e32.rst

components/sensor/atm90e32.rst

@@ -67,7 +67,7 @@ Configuration variables:
 
 - **phase_b** (*Optional*): The configuration options for the 2nd phase. Same options as 1st phase.
 - **phase_c** (*Optional*): The configuration options for the 3rd phase. Same options as 1st phase.
-- **frequency** (*Optional*): Use the frequenycy value calculated by the meter. All options from
+- **frequency** (*Optional*): Use the frequency value calculated by the meter. All options from
   :ref:`Sensor <config-sensor>`.
 - **peak_current_signed** (*Optional*, boolean): Control the peak current output as signed or absolute. Defaults to ``false``.
 - **chip_temperature** (*Optional*): Use the chip temperature value. All options from
@@ -155,7 +155,7 @@ Active Energy
 The ATM90E32 chip has a high-precision built-in ability to count the amount of consumed energy on a per-phase basis.
 For each phase both the Forward and Reverse active energy is counted in watt-hours.
 Forward Active Energy is used to count consumed energy, whereas Reverse Active Energy is used to count exported energy
-(e.g. with solar pv installations).
+(e.g. with solar PV installations).
 The counters are reset every time a given active energy value is read from the ATM90E32 chip.
 
 Current implementation targets users who retrieve the energy values with a regular interval and store them in
@@ -179,24 +179,24 @@ a time-series-database, e.g. InfluxDB.
             id: ct1RAWattHours
             state_topic: ${disp_name}/ct1/reverse_active_energy
 
-If the power, power_factor, reactive_power, forward_active_energy, or reverse_active_energy configuraion variables
+If the power, power_factor, reactive_power, forward_active_energy, or reverse_active_energy configuration variables
 are used, care must be taken to ensure that the line ATM90E32's voltage is from is the same phase as the current
 transformer is installed on.  This is significant in split-phase or multi phase installations.  On a house with 240
-split-phase wiring (very common in the US), one simple test is to reverse the orentation of the current transformer
+split-phase wiring (very common in the US), one simple test is to reverse the orientation of the current transformer
 on a line. If the power factor doesn't change sign, it is likely that the voltage fed to the ATM90E32 is from the other
 phase.
 
-The CircuitSetup Expandable 6 channel board can easilly handle this situation by cutting the jumpers JP12/13 to
-allow a seperate VA2 to be input on the J3 pads. Make sure that current taps connected to CT 1-3 are on the phase
+The CircuitSetup Expandable 6 channel board can easily handle this situation by cutting the jumpers JP12/13 to
+allow a separate VA2 to be input on the J3 pads. Make sure that current taps connected to CT 1-3 are on the phase
 from which VA is fed (the barrel jack) and the taps connected to CT3-6 are on the phase from which VA2 is fed. See
 the CicuitSetup repo for more details on this.
 
-If a mulit board stack is being used, remember to cut JP12/13 on all boards and to feed VA2 to each board. VA is
+If a multi board stack is being used, remember to cut JP12/13 on all boards and to feed VA2 to each board. VA is
 fed to all boards through the stacking headers. Another detail is that each voltage transformer needs to have the
 same polarity; getting this backwards will be just like having it on the wrong phase.
 
-Note that the current measurement is the RMS value so is always positive. They only way to determine directon is to
-look at the power factor. If there are only largly resistive loads and no power sources, (PF almost 1), it is simpler
+Note that the current measurement is the RMS value so is always positive. They only way to determine direction is to
+look at the power factor. If there are only largely resistive loads and no power sources, (PF almost 1), it is simpler
 to just create a template sensor that computes power from Irms*Vrms and ignore all these details. On the other
 hand, one might be surprised how reactive some loads are and the CirciuitSetup designs are able to
 handle these situations well.
@@ -468,7 +468,7 @@ Harmonic Power
 
 Harmonic power in AC systems refers to deviations from the ideal sinusoidal waveform, caused by multiples of the
 fundamental frequency. It results from non-linear loads and can lead to issues like voltage distortion, equipment
-overheating, and misoperation of protective devices. The ATM90E32 can output advanced harmonic power measurements
+overheating, and miss operation of protective devices. The ATM90E32 can output advanced harmonic power measurements
 providing important analysis data for monitoring power anomalies on the bus.
 
 **Harmonic Power Example:**
@@ -503,8 +503,8 @@ Peak Current
 
 Peak current in AC systems refers to the maximum value of the alternating current waveform. It signifies the highest
 magnitude reached during each cycle of the sinusoidal waveform. Peak current is relevant for sizing components and
-assessing the capacity of electrical equipment in the system. This advanced measurement is avaiable from the ATM90E32.
-Peak current can be displayed in signed or unsigned format using a bolean parameter which spans all phases.
+assessing the capacity of electrical equipment in the system. This advanced measurement is available from the ATM90E32.
+Peak current can be displayed in signed or unsigned format using a boolean parameter which spans all phases.
 The default is false which is unsigned.
 
 **Peak Current Example:**