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A fuel processing system for converting a logistical fuel and air into a liquid product comprising methanol. One such system comprises a fuel injection system configured to combine a logistical fuel and ambient air to produce a logistical fuel and air mixture, a synthesis gas production system confi

A fuel processing system for converting a logistical fuel and air into a liquid product comprising methanol. One such system comprises a fuel injection system configured to combine a logistical fuel and ambient air to produce a logistical fuel and air mixture, a synthesis gas production system configured to convert the logistical fuel and air mixture to synthesis gas, and a methanol synthesis system configured to convert the synthesis gas to a crude methanol liquid. Related methods are additionally disclosed.

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1. A fuel processing system, comprising: a fuel injection system configured to combine ambient air and a logistical fuel to produce a logistical fuel and air mixture;a reactor positioned downstream of the fuel injection system and configured to convert the logistical fuel and air mixture to synthesi

1. A fuel processing system, comprising: a fuel injection system configured to combine ambient air and a logistical fuel to produce a logistical fuel and air mixture;a reactor positioned downstream of the fuel injection system and configured to convert the logistical fuel and air mixture to synthesis gas, the reactor selected from the group consisting of a catalytic partial oxidation reactor, a thermal partial oxidation reactor, and an autothermal reactor;a recuperative heat exchanger positioned downstream of the reactor and configured to cool the synthesis gas produced by the reactor with the ambient air of the fuel injection system to produce a cooled synthesis gas;a water gas shift reactor positioned downstream of the recuperative heat exchanger and configured to treat the cooled synthesis gas to produce additional carbon monoxide; anda methanol synthesis system positioned and configured to convert the cooled, treated synthesis gas to a crude methanol liquid. 2. The fuel processing system of claim 1, further comprising a methanol refining system positioned downstream of the methanol synthesis system and configured to process the crude methanol liquid to produce a liquid comprising methanol. 3. The fuel processing system of claim 2, wherein the methanol refining system comprises a single distillation column. 4. The fuel processing system of claim 2, wherein the methanol refining system comprises: a first distillation column; anda second distillation column located along a flow path of a liquid distillate of the first distillation column. 5. The fuel processing system of claim 1, further comprising a methanol storage and delivery system positioned downstream of the methanol refining system and configured to store the liquid comprising methanol and a water supply comprising a water purification unit and to produce a liquid product comprising methanol. 6. The fuel processing system of claim 1, wherein the reactor comprises a catalytic partial oxidation reactor, and further comprising a desulfurization unit positioned upstream of the catalytic partial oxidation reactor and configured to remove at least a portion of sulfur from the logistical fuel and air mixture. 7. The fuel processing system of claim 6, further comprising another desulfurization unit positioned downstream of the catalytic partial oxidation reactor and upstream of the water gas shift reactor. 8. The fuel processing system of claim 1, wherein the reactor comprises a thermal partial oxidation reactor, and further comprising a desulfurization unit positioned downstream of the recuperative heat exchanger and upstream of the water gas shift reactor and configured to remove at least a portion of sulfur from the cooled synthesis gas. 9. The fuel processing system of claim 1, wherein the methanol synthesis system comprises: a heat exchanger configured and positioned to further cool the cooled, treated synthesis gas;a methanol synthesis reactor located downstream of the heat exchanger and configured to produce methanol from the further cooled, treated synthesis gas;a condensing unit located downstream of the methanol synthesis reactor; anda liquid collection unit located downstream of the condensing unit. 10. The fuel processing system of claim 9, wherein the methanol synthesis system further comprises at least one additional methanol synthesis reactor located downstream of the liquid collection unit. 11. The fuel processing system of claim 9, wherein the methanol synthesis reactor comprises a liquid phase catalyst therein. 12. The fuel processing system of claim 9, wherein the methanol synthesis reactor exhibits a single pass conversion efficiency of greater than about 40%. 13. The fuel processing system of claim 9, wherein the methanol synthesis system is configured to receive the cooled, treated synthesis gas produced by the Water gas shift reactor and to receive additional synthesis gas produced by a biomass gasification system. 14. The fuel processing system of claim 1, wherein the fuel injection system comprises a fuel injector configured to produce the logistical fuel and air mixture, the logistical fuel and air mixture comprising droplets of liquid logistical fuel dispersed in air. 15. The fuel processing system of claim 1, wherein the fuel injection system comprises: a pump configured to increase the pressure of the logistical fuel to produce pressurized logistical fuel;a compressor configured to increase the pressure of the ambient air to produce pressurized air; anda fuel injector configured to combine the pressurized logistical fuel and the pressurized air to produce the logistical fuel and air mixture. 16. The fuel processing system of claim 1, wherein the reactor comprises an autothermal reactor, and further comprising a desulfurization unit positioned upstream of the autothermal reactor and configured to remove at least a portion of sulfur from the logistical fuel and air mixture to form a desulfurized logistical fuel and air mixture. 17. The fuel processing system of claim 1, wherein at least one of the fuel injection system, the reactor, the water gas shift reactor, and the methanol synthesis system is located on and attached to a platform configured for transporting the at least one of the fuel injection system, the synthesis gas production system, and the methanol synthesis system. 18. The fuel processing system of claim 1, wherein the fuel processing system is sized and configured to produce between about 1.0 liters per hour of a liquid product comprising methanol and about 50 liters per hour of the liquid product. 19. The fuel processing system of claim 1, further comprising the logistical fuel, the logistical fuel selected from the group consisting of Jet-A, JP-4, and JP-5. 20. The fuel processing system of claim 1, wherein the fuel injection system comprises a fuel injector positioned downstream of the recuperative heat exchanger, the fuel injector configured to combine heated ambient air from the recuperative heat exchanger and the logistical fuel to produce the logistical fuel and air mixture. 21. A method of manufacturing a liquid product comprising methanol, the method comprising: combining ambient air and a logistical fuel in a fuel injection system to produce a logistical fuel and air mixture;converting the logistical fuel and air mixture into synthesis gas in a reactor positioned downstream of the fuel injection system, the reactor selected from the group consisting of a catalytic partial oxidation reactor, a thermal partial oxidation reactor, and an autothermal reactor;cooling the synthesis gas produced by the reactor in a recuperative heat exchanger with the ambient air of the fuel injection system to produce a cooled synthesis gas;treating the cooled synthesis gas in a water gas shift reactor positioned downstream of the recuperative heat exchanger to produce additional carbon monoxide;converting the cooled, treated synthesis gas to a crude methanol liquid in a methanol synthesis system;processing the crude methanol liquid to produce a purified methanol liquid; anddirecting at least the purified methanol liquid into a dispensing valve to generate the liquid product comprising methanol and water. 22. The method of claim 21, wherein converting the logistical fuel and air mixture into synthesis gas in a reactor positioned downstream of the fuel injection system comprises: desulfurizing the logistical fuel and air mixture to produce an at least substantially desulfurized logistical fuel/air mixture; andreforming the at least substantially desulfurized logistical fuel/air mixture in a catalytic partial oxidation reactor to produce the synthesis gas comprising hydrogen and carbon monoxide. 23. The method of claim 21, further comprising: desulfurizing the cooled synthesis gas in a desulfurization unit; andprocessing the cooled synthesis gas in the water gas shift reactor after desulfurizing the cooled synthesis gas. 24. The method of claim 21, wherein converting the cooled, treated synthesis gas to a crude methanol liquid in a methanol synthesis system comprises: further cooling the cooled, treated synthesis gas in a heat exchanger;reacting the further cooled, treated synthesis gas in a methanol synthesis reactor to produce a crude methanol stream;reducing the temperature of the crude methanol stream to produce a cooled crude methanol stream; anddelivering the cooled crude methanol stream into a liquid collection unit. 25. The method of claim 21, further comprising reacting at least one gaseous component of the cooled crude methanol stream in at least one additional methanol synthesis reactor. 26. The method of claim 21, wherein processing the crude methanol liquid to produce the purified methanol liquid comprises purifying the crude methanol liquid in a single distillation column. 27. The method of claim 21, wherein processing the crude methanol liquid to produce the purified methanol liquid comprises separating at least some components of the crude methanol liquid having a boiling point lower than methanol in a first distillation column and separating at least some components of the crude methanol liquid having a boiling point higher than methanol in a second distillation column. 28. The method of claim 21, wherein directing at least the purified methanol liquid into a dispensing valve to generate the liquid product comprises combining the purified methanol liquid with water at a location upstream of the dispensing valve. 29. The method of claim 28, wherein directing at least the purified methanol liquid into a dispensing valve to generate the liquid product comprising methanol and water comprises producing the liquid product comprising a methanol concentration within a range of from about 0.1 M to about 7.0 M.