Motorized blind actuator wand
Systems and methods for controlling a motorized wand in order to operate at least one set of blinds is disclosed herein. Certain embodiments include a motorized wand having features to enable manual or remote control of slats or louvres to at least one set of blinds, wherein a user may program specific actions through a software or app-based device. In other aspects, a user may switch between manual and automatic operation of the wand through specified, simple steps.
1. A motorized wand for controlling opening and closing of at least one set of blinds, comprising:
a tubular housing;
a printed circuit board assembly, a geared motor, a current sensor, and an encoder that are within the tubular housing;
a spindle coupling component; and
an antirotating element placed (i) into and over one end opening of the tubular housing and (ii) between the spindle coupling component and the tubular housing, the antirotating element having a rotatable protruding tab that extends outward away from a surface of the tubular housing and is configured to be rotated into a lock position that locks the wand to a bracket,
wherein the printed circuit board assembly is configured to:
use the encoder to determine a position of slats or louvers of the at least one set of blinds; and
dynamically control a torque of the geared motor by using the current sensor and a shut-off current threshold to (i) adjust an amount of current delivered to the geared motor and (ii) shut off the geared motor, wherein the geared motor is shut off in response to the amount of current reaching the shut-off current threshold.
2. The wand of claim 1 , wherein the wand comprises an end cap that has a battery spring coil and is located at another end of the tubular housing opposite the one end opening.
3. The wand of claim 1 , wherein the adjustment of the amount of current is based on size and weight parameters of the slats or louvers of the at least one set of blinds.
4. The wand of claim 1 , wherein the wand comprises a temperature sensor within the tubular housing, and wherein the printed circuit board assembly is further configured to:
detect, using the temperature sensor within the tubular housing, a predetermined temperature of an environment of the wand; and
perform a preset action based on the detection of the predetermined temperature.
5. The wand of claim 1 , wherein the wand comprises a light sensor within the tubular housing, and wherein the printed circuit board assembly is further configured to:
detect, using the light sensor within the tubular housing, a predetermined amount of light in an environment of the wand; and
perform a preset action based on the detection of the predetermined amount of light.
6. The wand of claim 1 , wherein the wand comprises a movement sensor within the tubular housing, and the printed circuit board assembly is further configured to:
detect, using the movement sensor within the tubular housing, manual use of the wand; and
perform a reset operation of the wand based on the detection of the manual use.
7. The wand of claim 6 , wherein the movement sensor comprises one or more accelerometer or gyroscope components.
8. A motorized wand for controlling opening and closing of at least one set of blinds, comprising:
a tubular housing;
a printed circuit board assembly, a geared motor, and an encoder that are within the tubular housing; and
an antirotating element at one end of the tubular housing, the antirotating element having a rotatable protruding tab that extends outward away from a surface of the tubular housing and is configured to be rotated into a lock position that locks the wand to a bracket,
wherein the printed circuit board assembly is configured to:
use the encoder to determine a position of slats or louvers of the at least one set of blinds; and
control an adjustment of an amount of current delivered to the geared motor.
9. The wand of claim 8 , wherein controlling the amount of current comprises dynamically controlling a torque of the geared motor by using a current sensor and a shut-off current threshold to (i) adjust the amount of current delivered to the geared motor and (ii) shut off the geared motor, wherein the geared motor is shut off based on the amount of current reaching the shut-off current threshold.
10. The wand of claim 8 , wherein the wand comprises an end cap that has a battery spring coil and is located at another end of the tubular housing opposite the one end opening.
11. The wand of claim 8 , wherein the adjustment of the amount of current is based on size and weight parameters of the slats or louvers of the at least one set of blinds.
12. The wand of claim 8 , wherein the wand comprises a temperature sensor within the tubular housing, and wherein the printed circuit board assembly is further configured to:
detect, using the temperature sensor within the tubular housing, a predetermined temperature of an environment of the wand; and
perform a preset action based on the detection of the predetermined temperature.
13. The wand of claim 8 , wherein the wand comprises a light sensor within the tubular housing, and wherein the printed circuit board assembly is further configured to:
detect, using the light sensor within the tubular housing, a predetermined amount of light in an environment of the wand; and
perform a preset action based on the detection of the predetermined amount of light.
14. The wand of claim 8 , wherein the wand comprises a movement sensor within the tubular housing, and the printed circuit board assembly is further configured to:
detect, using the movement sensor within the tubular housing, manual use of the wand; and
perform a reset operation of the wand based on the detection of the manual use.
15. The wand of claim 14 , wherein the movement sensor comprises one or more accelerometer or gyroscope components.
16. A motorized wand for controlling opening and closing of at least one set of blinds, comprising:
a tubular housing;
a printed circuit board assembly, a geared motor, a current sensor, and an encoder that are within the tubular housing; and
an antirotating element at one end of the tubular housing, the antirotating element having a protruding tab that extends outward away from a surface of the tubular housing and that is configured to lock the wand to one or more components,
wherein the printed circuit board assembly is configured to:
use the encoder to determine a position of slats or louvers of the at least one set of blinds; and
dynamically control a torque of the geared motor by using the current sensor and a shut-off current threshold to (i) adjust an amount of current delivered to the geared motor and (ii) shut off the geared motor, wherein the geared motor is shut off based on the amount of current reaching the shut-off current threshold.
17. The wand of claim 16 , wherein the wand comprises a temperature sensor within the tubular housing, and wherein the printed circuit board assembly is further configured to:
detect, using the temperature sensor within the tubular housing, a predetermined temperature of an environment of the wand; and
perform a preset action based on the detection of the predetermined temperature.
18. The wand of claim 16 , wherein the wand comprises a light sensor within the tubular housing, and wherein the printed circuit board assembly is further configured to:
detect, using the light sensor within the tubular housing, a predetermined amount of light in an environment of the wand; and
perform a preset action based on the detection of the predetermined amount of light.
19. The wand of claim 16 , wherein the wand comprises a movement sensor within the tubular housing, and the printed circuit board assembly is further configured to:
detect, using the movement sensor within the tubular housing, manual use of the wand; and
perform a reset operation of the wand based on the detection of the manual use.
20. The wand of claim 19 , wherein the movement sensor comprises one or more accelerometer or gyroscope components.