Method and apparatus for optimal resource allocation based on contribution margin ratio

1. A method for distributing energy resources in a distributed energy resource system, the method comprising:

receiving information about the amount of available energy resources from each of one or more providers;

receiving information about the amount of required energy resources from each of one or more consumers;

assessing a contribution margin ratio for each of the one or more consumers;

calculating an energy resource allocation amount for each of the one or more consumers based on the assessed contribution margin ratio; and

distributing energy resources to each of the one or more consumers based on the calculated energy resource allocation amount.

2. The method according to claim 1 , wherein the contribution margin ratio of one consumer is a ratio of a contribution margin of the consumer to a total contribution margin of the one or more consumers.

3. The method according to claim 2 , wherein the contribution margin of the consumer is determined based on at least one of the amount of energy resources provided by the consumer, the amount of energy resources used by another consumer among the energy resources provided by the consumer, distances between the consumer and the one or more providers, or a distance between the consumer and another consumer.

4. The method according to claim 3 , wherein the calculation of an energy resource allocation amount comprises calculating the energy resource allocation amount for each of the one or more consumers, the energy resource allocation amount maximizing satisfaction levels of all of the one or more consumers.

5. The method according to claim 1 , wherein a satisfaction level of an i th consumer among the one or more consumers is calculated by

U

i

⁡

(

E

i

)

=

ζ

i

1

ω

⁢

log

⁡

(

1

+

E

i

ωτ

i

)

where U i (E i ) represents the satisfaction level of the i th consumer when the i th consumer receives as much energy resources as E i , M i η represents a contribution margin of the i th consumer, η represents a weight factor, and r i represents the amount of energy resources requested by the i th consumer.

6. The method according to claim 5 , wherein if the calculated energy resource allocation amount for the i th consumer is E i *, and 0<E i *<r i , E i *=δM i η −r i and δ is a predetermined value.

7. The method according to claim 6 , wherein if E i *≥r i , an optimal energy resource allocation amount for the i th consumer is r i .

8. The method according to claim 1 , wherein a satisfaction level of an i th consumer among the one or more consumers is calculated by

U

i

⁡

(

E

i

)

=

ζ

i

1

ω

⁢

log

⁡

(

1

+

E

i

ωτ

i

)

where U i (E i ) represents the satisfaction level of the i th consumer when the i th consumer receives as much energy resources as E i , ζ i 1/ω represents a contribution margin of the i th consumer, determined in consideration of an adjacent proximity level of the i th consumer, ω represents a weight factor based on a distance between the i th consumer and another consumer, and τ i represents the amount of energy resources requested by the i th consumer.

9. The method according to claim 8 , wherein if the calculated energy resource allocation amount for the i th consumer is E i *, and 0<E i *<τ i , E i *=ζ i 1/ω /v−ωτ i and v is a predetermined value.

10. The method according to claim 9 , wherein if E i *τ i , an optimal energy resource allocation amount for the i th consumer is τ i .