Methods and systems are described for conserving energy used by an energy consuming device. In certain embodiments, an energy conservation system can be configured to deliver energy to the energy consuming device for a period, followed by a period where energy delivery is dampened and/or cut. By cyc
Methods and systems are described for conserving energy used by an energy consuming device. In certain embodiments, an energy conservation system can be configured to deliver energy to the energy consuming device for a period, followed by a period where energy delivery is dampened and/or cut. By cycling the delivery of energy in this fashion, the energy conservation can achieve a pulsed efficiency.
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1. A computer-implemented method of conserving energy used by a device, the computer-implemented method comprising: receiving, by a computer system, as an input to an energy controller a first function comprising a first work output of a device over a time period;processing, by a processor of the co
1. A computer-implemented method of conserving energy used by a device, the computer-implemented method comprising: receiving, by a computer system, as an input to an energy controller a first function comprising a first work output of a device over a time period;processing, by a processor of the computer system, the first function into a second function comprising a second work output of the device over the time period;wherein the second function has a plurality of regions of equal or increased work output relative to the first work output;wherein the second function has a plurality of regions of decreased work output relative to the first work output;wherein, when the device outputs work equal to the second work output over the time period, the device consumes less energy than the device would consume if the device outputted work equal to the first work output over the time period;wherein the second function comprises cyclical oscillations between the plurality of regions of equal or increased work output and the plurality of regions of decreased work output that comprise a same waveform;wherein the device performs substantially the same amount of work under the second work output over the time period as the device would perform under the first work output over the time period; anddirecting, by the computer system, the device to output work according to the second work output over the time period;wherein the computer system comprises the processor and an electronic storage medium. 2. The method of claim 1, further comprising supplementing an output of the device with output generated by a generator while the device outputs work according to the second work output. 3. The method of claim 1, further comprising processing the second function for smoothness. 4. The method of claim 1, wherein the device comprises at least one of a display screen, a computer, an electronic device, an appliance, an air conditioning system, a heating system, a pump system, and a light emitter. 5. The method of claim 1, wherein the processing of the first function into the second function comprises application of a transform T, such that F2(n)=T F1(n), where F2 is the second function;F1 is the first function; andn is an ordered index number of an nth discrete sample, where nε{0, 1, 2, . . . ∞}; andwherein T comprises ke−2πiΩ(n-d)−Z, where k is a scalar;e is an exponential;i is the imaginary number √{square root over (−1)};Ω is a frequency of cycles per sample interval;Z is a constant; andd is a delay constant. 6. The method of claim 1, wherein the processing of the first function into the second function comprises application of a transform T, such that F2(n)=T+F1(n), where F2 is the second function;F1 is the first function; andn is an ordered index number of an nth discrete sample, where nε{0, 1, 2, . . . ∞}; andwherein T comprises a02+∑j=1∞[ajcos(j2πΩn)+bjsin(j2πΩn)], where j is an ordered index number, where jε{0, 1, 2, . . . ∞};aj is a series of real numbers;a0 is a real number,bj is a series of real numbers; andΩ is a frequency in cycles per sample interval. 7. The method of claim 1, wherein the processing of the first function into the second function comprises application of a transform T, such that F2(n)=T+F1(n), where F2 is the second function;F1 is the first function; andn is an ordered index number of an nth discrete sample, where nε{0, 1, 2, . . . ∞}; andwherein T comprises {q,whenn=s1r,whenn=s2, where q is a scalar;r is a scalar different from q;s1 is a first set of samples of n; ands2 is a second set of samples of n different from s1. 8. The method of claim 7, wherein the weighted average of F2(n) over s1+s2 is approximately equal to the weighted average of F1(n) over s1+s2. 9. The method of claim 7, wherein members of the first set of samples alternate with members of the second set of samples. 10. The method of claim 7, wherein q is greater than or equal to 0 and r is less than 0. 11. The method of claim 7, wherein q is greater than 0 and r is less than or equal to 0. 12. The method of claim 7, wherein q is greater than 0 and r is less than 0. 13. The method of claim 1, wherein the same waveform comprises a square wave. 14. A computer-implemented control system comprising: a processing module that couples to a device, the processing module configured to: receive, by a computer system, a first function comprising a first work output of the device over a time period;process, by the computer system, the first function into a second function comprising a second work output of the device over the time period, wherein the second function has a plurality of regions of equal or increased work output and a plurality of regions of decreased work output, relative to the first work output;wherein, when the device outputs work equal to the second work output over the time period, the device consumes less energy than the device would have consumed if the device outputted work equal to the first work output over the time period;wherein the second function comprises cyclical oscillations between the plurality of regions of equal or increased output and the plurality of regions of decreased work output that comprise a same waveform;wherein the device performs substantially the same amount of work under the second work output over the time period as the device would perform under the first work output over the time period; andoutput, by the computer system, the second function such that the device outputs work according to the second work output over the time period;wherein the computer system comprises a computer processor configured to execute modules and an electronic storage medium configured to store the modules. 15. The control system of claim 14, further comprising an override switch configured to allow a user to select an override of the energy savings. 16. The control system of claim 14, wherein the device comprises at least one of a display screen, a computer, an electronic device, an appliance, an air conditioning system, a heating system, a pump system, and a light emitter. 17. The control system of claim 14, wherein the processing of the first function into the second function comprises application of a transform T, such that F2(n)=T F1(n), where F2 is the second function;F1 is the first function; andn is an ordered index number of an nth discrete sample, where nε{0, 1, 2, . . . ∞}; andwherein T comprises ke−2πiΩ(n-d)−Z, where k is a scalar;e is an exponential;i is the imaginary number √{square root over (−1)};Ω is a frequency of cycles per sample interval;Z is a scalar; andd is a delay scalar. 18. The control system of claim 14, wherein the processing of the first function into the second function comprises application of a transform T, such that F2(n)=T+F1(n), where F2 is the second function;F1 is the first function; andn is an ordered index number of an nth discrete sample, where nε{0, 1, 2, . . . ∞}; andwherein T comprises a02+∑j=1∞[ajcos(j2πΩn)+bjsin(j2πΩn)], where j is an ordered index number, where jε{0, 1, 2, . . . ∞};aj is a series of real numbers;a0 is a real number,bj is a series of real numbers; andΩ is a frequency in cycles per sample interval. 19. The control system of claim 14, wherein the processing of the first function into the second function comprises application of a transform T, such that F2(n)=T+F1(n), where F2 is the second function;F1 is the first function; andn is an ordered index number of an nth discrete sample, where nε{0, 1, 2, . . . ∞}; andwherein T comprises {q,whenn=s1r,whenn=s2, where q is a scalar;r is a scalar different from q;s1 is a first set of samples of n; ands2 is a second set of samples of n different from s1. 20. A computer-implemented method of conserving energy used by a device, the computer-implemented method comprising: receiving, by a computer system, as an input to an energy controller a first function comprising a first work output of a device over a time period;using a computer-executable instruction, processing, by the computer system, the first function into a second function comprising a second work output of the device over the time period;wherein the second function has a plurality of regions of equal or increased work output relative to the first work output;wherein the second function has a plurality of regions of decreased work output relative to the first work output;wherein, when the device outputs work equal to the second work output over the time period, the device consumes less energy than the device would have consumed if the device outputted work equal to the first work output over the time period;wherein the second function comprises cyclical oscillations between the plurality of regions of equal or increased work output and the plurality of regions of decreased work output that comprise a same waveform;wherein the device performs substantially the same amount of work under the second work output over the time period as the device would perform under the first work output over the time period; anddirecting, by the computer system, the device to output work according to the second work output over the time period;wherein the computer system comprises a computer processor and an electronic storage medium configured to store the computer-executable instruction.
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