WTI and the Changing Dynamics of Global Crude Oil

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The new storage and pipeline infrastructure in the United States is so significant that it is likely to have a transformational impact on the crude oil market for years to come. These changes are likely to spur more trading in U.S. domestic grades and will magnify the role of WTI as a global benchmark.

The catalyst for this transformation has been the sharp rise in U.S. oil production, and more recently, the lifting of the export ban on U.S. crude that occurred at the end of 2015. In order for the U.S. to turn itself from a net crude importer to exporter, several key pipelines had to be reversed. At the same time, oil refiners and storage operators along the Gulf Coast set about increasing the amount of available storage capacity. A number of new terminals are in the process of being built along the U.S. Gulf Coast to handle the rising number of ships arriving to load crude destined for the international markets. These infrastructure changes will transform the U.S. into the marginal supplier of the world rather than a regional supplier. This will allow producers to take advantage of arbitrage opportunities that present themselves beyond U.S. shores.

U.S. Crude Oil Production Proves Resilient

U.S. crude oil production has risen substantially from 5.1 million barrels per day (b/d) in January 2009 to 8.811 million b/d in October 2016, after its most recent peak of 9.55 million b/d in March 2016. U.S. oil producers have proved resilient in adapting to the lower oil price environment, defying expectations for significant production declines. However, output has not been unaffected, and since April 2015, output in the U.S. has fallen by around 800,000 b/d (October 2016), according to the Energy Information Administration (EIA).

U.S. drillers have had to be proactive at managing their costs to adapt to the lower oil price environment. With lower costs, some U.S. producers are able to continue producing when oil prices are much lower than had previously been envisaged.

The lifting of the export ban has created new opportunities for U.S. producers. This means that in countries outside of North America, U.S. crudes are able to compete alongside crudes from Europe and Asia. Houston is fast becoming a major export hub, and the infrastructure is being constructed and altered to accommodate higher export volumes. Traders will benefi from increased operational fl xibility to seek out arbitrage opportunities in the global oil markets.

Wood Mackenzie have forecast the longer-term outlook for supply in the United States, and according to their analysis, supply is expected to remain healthy for years to come. Based on the chart below, total crude supply that is already slated for commercial production is expected to plateau at around 12 million b/d during the period of 2025 to 2030. This would imply a supply gain of around four million b/d from 2017 to 2025.

Chart 1: U.S. Crude Oil Supply Forecast Remains Extremely Robust

Oil production in the non-conventional “tight” oil areas are a focus for U.S drillers, and production volumes are expected to remain robust going forward. “Tight” oil refers to the crude oil produced from shale, sandstone and limestone formations, as typically found in the Permian Basin, Bakken, and Eagle Ford areas. The Permian Basin includes the Wolfcamp and Bone Spring areas. Crude oil production from the onshore conventional areas have declined, but this is replaced by tight oil production from the Permian Basin, Eagle Ford, and Bakken. Chart 1 clearly shows the switch from conventional oil to non-conventional tight oil through 2035.

The WTI-Brent spread has become a true indicator of value for the U.S. crude exporters. With the spread trading between $1 and $2 per barrel discount to Brent, traders say that increased volumes of WTI linked crude oils may flow to countries outside of the US and Canada. Part of this is due to the relatively low cost of freight with traders able to benefit from the ability to offer a US bound cargo and a now a US origin crude oil export cargo as a single transaction to a ship owner. Without US crude oil exports being permissible, ship owners were previously only able to pick up US bound cargoes and struggled to find any return cargoes leaving their vessels out of place for subsequent voyages. Shipowners now have the choice of a back-haul crude oil cargo or a refined product cargo as the US exports both. This tended to result in higher freight costs to a charterer due to the lack of economies of scale (for the ship owner).

Further, the recent expansion of the Panama Canal allows for enhanced shipping alternatives for cargoes to transit from the U.S. Gulf to the Far East. The significant discounts for WTI compared to Brent from the past are unlikely to re-appear as any mispricing would be quickly re-aligned through a rise in U.S. crude exports, which was not the case in the past when U.S. crude remained non-exportable.

The WTI-Brent spread, when measured as a percentage of flat price, has changed significantly since 2012. Previously, when WTI was trading at a $28 per barrel discount to Brent, this represented around 23% of the flat price crude value. Currently, the WTI is trading between $1.00 and $1.50 discount to Brent, or 3% of the flat price. Volumes of WTI- Brent Futures and Options remain strong, and traders see the value in the spread as the true measure of the viability of U.S. exports.

Chart 2: WTI-Brent Arbitrage Price Narrows as U.S. Crude Oil Export Ban is Lifted

U.S. Exports Are Increasing

The lifting of the U.S. export ban has seen the volume of U.S. crude sold beyond North America rise noticeably. The volumes of U.S. exports will largely depend on the value of the WTI-Brent spread, and therefore volumes will be volatile when measured on a month-by-month basis. According to EIA data, the volume of crude oil sold to non-Canadian destinations averaged nearly 200,000 b/d over the January through August 2016 period, up substantially from 40,000 b/d in 2015. In October 2016, which is the latest data available, U.S. crude exports rose to 491,000 b/d.

Crude oil exports from PADD 3, which encompasses the U.S. Gulf Coast region, rose to a record high of 410,000 b/d in August 2016, surpassing the previous peak recorded in October 2015.

Chart 3: U.S. Crude Oil Exports by district (PADD)

Expansion of Crude Oil Infrastructure In The U.S. Gulf Coast

The U.S Gulf Coast comprises approximately 55% of the U.S. crude oil storage capacity, while Cushing comprises 13%. In recent years, storage capacity has seen an increase to accommodate the growing crude oil production. Moreover, commercial companies have continued to make investments in expanding their infrastructure portfolios.

The infrastructure investment in the U.S. Gulf Coast has transformed WTI into a waterborne crude, with extensive export capacity. The Seaway Pipeline links Cushing, Oklahoma to the Houston export market, with 850,000 b/d capacity. The Transcanada Marketlink Pipeline provides additional capacity of 700,000 b/d from Cushing to Houston. Further, the Magellan BridgeTex and Longhorn Pipelines carry up to 475,000 b/d from Midland, Texas to Houston. In addition, the Dakota Access Pipeline will provide additional capacity of around 450,000 b/d delivering Bakken crude oil to Houston when completed in 2017. All in all, the Houston market has become export- focused, with a terminal network with storage capacity of 65 million barrels and an additional 20 million barrels of storage capacity projected to come into service in 2017.

In Louisiana, the Louisiana Offshore Oil Port (LOOP) is planning to transform itself into a dual-use terminal that will handle both exports and imports. LOOP is expected to allow Ultra-Large Crude Carriers (ULCC’s) and Very-Large Crude Carriers (VLCC’s) to load for export starting in 2018. Currently, LOOP can only handle in-bound crude oil tankers offloading crude oil for the refineries along the Gulf Coast. In addition, LOOP operates 70 million barrels of storage capacity, with additional tankage under construction.

Chart 4: Change in U.S. working crude oil storage capacity (Sept 2011 – March 2016 in millions of barrels)

NYMEX WTI Futures Volumes Outpace Brent Futures

Volumes on the NYMEX Light Sweet Crude Oil Futures contract (“WTI futures”) have been strong, in part reflecting the higher levels of volatility in both crude oil and refined products. The total volume of WTI futures when compared to Brent futures has been rising sharply, and the gap between the two contracts has been widening.

According to exchange data, the total volume of NYMEX WTI Futures traded for year-to-date (through December 31 2016) was 1.1 million contracts per day compared to 785,000 lots per day in ICE Brent Futures. Over the full-year 2015, WTI average daily volume was 800,000 lots per day, and Brent average daily volume was 685,000 lots per day. Year on year growth in WTI Futures is around 36%.

Chart 5: NYMEX WTI vs. ICE Brent Futures: 30-Day Average Daily Volume

Brent Production in Decline

As the crude oil supply picture continues to strengthen, the opposite would appear to be happening in the North Sea, where production output is set to decline sharply as producers struggle to contain the effects of the falling oil price.

The longer term viability of the North Sea is being called into question with producers either selling assets or cutting back on capital expenditures, which will curtail output in future years. Economists are predicting that North Sea output could decline sharply from 2017 onwards as the lower price environment puts pressure on the production outlook.

In our analysis of the Wood Mackenzie upstream data, the decline of the Brent, Forties, Oseberg and Ekofisk (BFOE) fields from 2020 onwards is expected to be significant. Based on their data, production is expected to fall from the current 850,000 b/d to under 600,000 b/d by 2023 which is less than one cargo of crude oil per day. This assumes that no changes to the number of crudes in BFOE complex are made before then.

Chart 6: Production Profile for the North Sea – 2016 to 2035 (in b/d)

Leading price reporting agency Platts (a division of S&P Global Inc.) has been making changes to the cash BFOE mechanism (or forward Brent market) and Dated Brent benchmarks by widening the delivery window from 15- days to month ahead. This increases the number of physical cargoes that can be delivered into the Dated Brent assessment. However, they (Platts) are continuing to look at possible solutions to address the issue of falling output in the North Sea and how to maintain stability in the Dated Brent benchmark in the years ahead. Platts have considered adding new grades into BFOE, but this is likely to alter the quality of Brent, and further modifications may be required to deal with the changing quality. Platts is considering the addition of a Norwegian crude oil stream called Troll2 which is classified as Light Sweet. This crude, if formally adopted by the market, could be potentially added to the basket of crude oils, referred to as BFOE, that make up Platts Dated Brent. This is the first possible addition to BFOE since 2007.

Dated Brent-related Derivatives Remain A Focus

In the Brent futures complex, in addition to the monthly Brent futures, there are also Dated Brent futures contracts, which traders use to hedge specific shorter-term exposure to physical Dated Brent. These futures contracts are a mixture of interrelated monthly and weekly futures contracts and form part of the overall Brent complex.

The suite of Dated Brent futures contracts provide a critical component for traders hedging Dated Brent risk on a shorter or longer term basis. The cleared volume of Dated Brent futures contracts has risen steadily over the past four years. According to exchange data, overall cleared volumes of Dated Brent futures were around 26,000 lots per day in 2016, up from 8,000 lots per day in 2013.

Chart 7: Dated Brent-related Futures: Cleared Average Daily Volumes (ADV)

As a result of these changing dynamics, NYMEX WTI has re-established its position as the premier pricing reference and is well placed to fulfil its role as the main crude price reference in the Atlantic Basin, as the supplies of WTI and other linked crudes (to WTI) begin to displace other light sweet crude streams. European and Asian refiners have been offered U.S. crude oil on a WTI-related pricing basis which will help to cement the role of WTI in the global crude oil marketplace.

Summary

The rise in importance of the U.S. crude market comes at a challenging time for crude oil markets in Europe. In the North Sea, as oil producers battle to maintain output in a lower oil price environment, U.S. drillers would appear to have a much more flexible cost base on which to adjust to different levels of price. Given the rise in U.S. production over the past five years, the role of WTI as the price reference for the marginal barrel of oil has increased significantly, and consequently, WTI has become the price leader again.

One potential opportunity could be that global markets adopt more WTI based pricing into their crude oil contracts. The lifting of the U.S. export ban has had a significant impact on global oil flows, and will lead to greater market efficiencies as companies look to gain arbitrage opportunities with the improved logistics of free trade. As a result, WTI has fully re-gained its status as the leading indicator for price discovery in the crude oil market.

If you have any questions send a message or contact me

Regards,
Peter Knight Advisor

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Are Crude Oil & Natural Gas Prices Linked?

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All examples in this report are hypothetical interpretations of situations and are used for explanation purposes only. The views in this report reflect solely those of the authors and not necessarily those of CME Group or its affiliated institutions. This report and the information herein should not be considered investment advice or the results of actual market experience.

Crude oil and natural gas are major fuels in the global energy mix. Their price linkage has been examined by many economists and industry observers due to its implications on broad swaths of the market including trading strategies, investment decisions, energy policy, and portfolio optimization.

Crude oil and natural gas prices have historically moved in tandem as a result of the linkage between the two commodities on the supply and demand sides. But their price relationship reached an inflection point after 2008 and they have since decoupled. The article discusses how the price relationship between crude oil and natural gas has evolved over time and the economic mechanisms behind their linkage from the supply and demand prospectives.

Figure 1

Chart Source: CME Group

Resource Competition

From the supply side, the crude oil and natural gas price linkage is mainly driven by the direct competition for drilling resources at the wellhead. Natural gas can be produced from three types of wells: associated, non-associated, and condensate wells. The associated wells produce primarily oil with natural gas as a by-product. The non-associated wells refer to the wells that produce just natural gas, sometimes with just a small amount of oil. The condensate wells produce natural gas along with natural gas liquids (NGLs). The economics of non-associated gas fields are different from the economics of associated gas fields as the development of the latter depend on the dynamics of the oil market.

Since most Exploration & Production companies produce both natural gas and oil, they have to make a decision related the allocation of capital and resources to the exploration and development of either commodity based on the return on investment. With respect to natural gas extracted from an oil rig, an increase in crude oil prices may likely lead to an increase in associated gas production which would likely exert downward pressure on natural gas prices.

On the other hand, an increase in crude oil prices may lead to increase oil drilling which would decrease natural gas drilling, potentially leading to higher natural gas prices. The price signal between the two commodities is a catalyst that can prompt suppliers to produce one fuel source instead of the other in order to maximize profits. To some extent, the oil-natural gas price relationship depends on the source of the natural gas.

Fuel Substitution

Some refined fuels produced from crude oil are competitive substitutes to natural gas. Residual fuel oil competes directly with natural gas in the electric power generation and industrial sectors. An increase in crude oil prices would likely encourage the substitution of natural gas for petroleum products, which would increase natural gas demand and then prices. This substitution effect is sometimes referred to as “burner-tip parity”. This implies that natural gas prices converge with the price of the competing fuel at the burner tip or at the final destination on a BTU-equivalent basis. Any increase in crude oil prices motivates end-users to substitute natural gas for petroleum products in consumption where possible. This in turn increases natural gas demand and hence prices.

Figure 2

Chart Source: CME Group

Crude-Gas Ratio

The industry has traditionally relied on the crude-gas ratio to measure the relative value of both commodities. Since 2000, this ratio has fluctuated between 3:1 and 54:1 which is different from the theoretical ratio of 6:1 based on the thermal parity also known as the Btu ratio. This ratio is derived from the fact that one barrel of oil is equivalent to 5.85 MMBtu. This implies that if the market prices of the two fuels were equal based on their energy content, the ratio of crude oil prices to natural gas prices would be approximately 6. As depicted in Figure 2, the ratio averaged 8 from 2000- 2007, then started to increase at the end of 2008 in response to the significant decline of crude oil prices during the recession. Afterwards, the ratio started to recover, reaching 27 in 2009, and continued to climb to reach a record 54 in 2012, due to the drastic increase in the oil price and decline in the natural gas price. During this period, the increase in the oil price was largely a result of the unstable political climate caused by the Arab Spring.

Meanwhile, natural gas prices weakened as production from the northeast Marcellus shale play started rising. The crude-gas ratio remained strong until 2014, which encouraged drilling for oil instead of natural gas. Concurrently, weak natural gas prices favorably impacted NGL economics by encouraging producers to switch to drilling more profitable NGL-rich wells. This led to the expansion of the processing industry which invested in infrastructure. From the demand side, end-users shifted their fuel preference to natural gas in order to cut costs. This shift in fuel preference is reflected through the growing trend of natural gas electricity consumption as illustrated in Figure 3.

Figure 3

Chart Source: EIA

The economic factors linking natural gas and crude oil markets through substitution and competition effects would suggest they are connected through a long-run relationship. As shown in Figure 1, crude oil and natural gas prices predominantly moved in synchronization prior to 2008 except for some periods in which natural gas prices spiked and moved independently of crude oil.

These price shocks were attributed to commodity-specific events as shown in Figure 4 & 5. In particular, natural gas is more prone to short-term price shocks and supply imbalances due to seasonality, storage dynamics, and weather-related events, which tend to increase the volatility and cause disequilibria to the short run oil and gas linkage. For example, in 2005 hurricanes Katrina and Rita caused a supply disruption that triggered a significant spike in natural gas prices, while the impact on oil prices was not significant. On the other hand, oil has a more geopolitical dimension and responds to global events. For example, following global economic expansion, oil prices rose to reach $145/bbl. In July 2008 then collapsed to below $40/bbl. because of the credit crunch and recession.

Figure 4

Figure 5

Chart Source: CME Group

The price relationship between natural gas and crude oil underwent a shift whereby natural gas prices strayed from oil prices following 2008. This apparent departure from the norm may have been attributed to the changes that affected the substitution and competition linkage between natural gas and crude oil.

For the past decade, the demand for residual oil for electricity production has contracted significantly for various reasons including: (1) the retirement of ageing petroleum generation assets, (2) the surge of new gas-fired combined cycle capacity turbines which have enhanced efficiency, (3) increased usage of natural gas in power generation due to low natural gas prices, and (4) environmental concerns which rise from high sulfur content of residual oil. These factors suggest that displacement due to gas-to-oil switching is a shrinking factor in determining the price relationship between natural gas and crude oil in terms of demand.

With respect to changes in the supply side, the Permian Basin in West Texas and New Mexico is at the center of the relationship between natural gas and oil production via associated gas. The production of both commodities has been experiencing soaring growth due to the lower breakeven costs and vast acreage that the basin offers. Permian associated gas is estimated at approximately 7 billion cubic feet (Bcf). Major players, including ExxonMobil, are spending billions of dollars to expand the infrastructure in the Permian because of its favorable drilling and production economics. The build-out in oil drilling and production is expected to stimulate an increase in associated gas. Although associated gas is an important component of US natural gas supply, the impact of this link has been relatively muted by strong supply from other shale plays specifically Marcellus/Utica, which has contributed to downward pressure and weak gas prices. Therefore, shale production has proved extremely important in the decoupling of oil and gas prices.

Conclusion

Natural gas and crude oil are both extremely important to the U.S. economy. The energy arbitrage between the two fuel sources was a significant determinant of their long-term price relationship, which in the past was relatively stable. The recent shale revolution has redefined the supply structure of the two fuel sources and has led to the decoupling of oil and gas prices. This fundamental shift is likely to prevail in the foreseeable future, unless the supply-induced downward pressure on gas prices is alleviated by a significant increase in exports of U.S. natural gas in the form of liquefied natural gas (LNG).

If you have any questions send a message or contact me

Regards,
Peter Knight Advisor

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Surging U.S. Domestic Crude Grades Market

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Executive Summary

The U.S. domestic crude oil grades market has been transformed from an opaque and regional market into a vibrant and international marketplace with active participation from Europe and Asia.  This transformation has been driven by rising U.S. crude exports, surging domestic production, and new pipeline infrastructure.  

Further, the liquidity of the WTI Cushing benchmark has spurred impressive growth in the spread trading activity for the U.S. crude oil grades, and helps to ensure better price discovery in setting the basis differential for the grades market. The WTI benchmark at Cushing provides a reliable anchor as the flat price reference for the crude oil grades, and allows for more reliability in the price mechanism based on active spread trading.

Market Overview

The four key futures contracts for the U.S. domestic crude oil grades are financially settled based on crude oil price assessments published by Argus Media.  These cleared futures contracts provide the hedging tools for managing arbitrage risk between the U.S. and global markets.   Table 1 shows the current liquidity information for the crude oil grade spread futures contracts trading at CME Group.

Table 1: The four key CME Domestic Crude Oil Grade futures contracts (Spread vs. WTI Cushing)

Product Name Commodity Code Type Average Daily Volume  (in barrels) Open Interest (in barrels)
WTI Midland (Argus) vs. WTI Trade Month Futures WTT Spread Futures 2,500,000 179,500,000
WTI Houston (Argus) vs. WTI Trade Month Futures HTT Spread Futures 2,650,000 133,400,000
Argus LLS vs. WTI (Argus) Trade Month Futures E5 Spread Futures 1,2850,000 50,400,000
Mars (Argus) vs. WTI Trade Month Futures YV Spread Futures 1,320,000 22,000,000

Average daily volume is for the 6-month period Jan 2018 through June 2018; Open Interest is as of 07/11/2018.

To help understand the growing significance of the U.S. domestic grades market and its impact on the international market, an overview of each of the four major crude oil grade benchmarks is provided below.

Figure 1: U.S. Domestic Crude Oil Grade Benchmarks

Table 2: Quality specifications for the four key U.S. Crude Grade Benchmarks

Product Name API Gravity Sulfur Content (%) Category
Light Louisiana Sweet (LLS) 38.5 0.39 Light Sweet
WTI Houston 44.0 0.45 Light Sweet
WTI Midland 44.0 0.45 Light Sweet
Mars 28.0 1.93 Medium Sour

Overview of the WTI Houston Market

There is an active physical crude oil trading center based in Houston, Texas, which is a major hub for storage and pipelines with direct connectivity to the Cushing, Midland, and U.S. Gulf Coast markets.  There is active trading in light sweet WTI type crude oil (also referred to as domestic sweet).  The WTI crude oil stream in Houston is a fungible blend of domestic light sweet streams with quality parameters of 44 degrees API gravity maximum and 0.45% sulfur maximum, which are slightly lighter than the WTI specifications in Cushing.

The Houston physical delivery mechanism is comprised of a network of nearly a dozen pipelines and 10 storage terminals.  There are substantial pipeline inflows of WTI-type crude oil to Houston from four major hubs:   1) from Cushing via the Seaway and the Transcanada MarketLink Pipelines; 2) from Midland, Texas via the BridgeTex Pipeline and the Longhorn Pipeline; 3) from the Eagle Ford area in Texas via the Enterprise Pipeline and the Kinder Morgan Pipeline; and 4) from the Bakken production region in North Dakota via the Dakota Access Pipeline (DAPL).

The Argus assessment for WTI Houston crude oil is based on delivery at the Magellan terminal in East Houston, which is a key hub for delivery of WTI-type crude oil.  The cash market liquidity is vibrant, and market participation is deep, with 20 to 30 market participants.

Based on feedback from industry sources, the recent pipeline flows of WTI-type crude oil inbound to Houston is in the range of 3.0 million barrels per day (b/d).   The capacity of each pipeline is presented in Table 3 below.

Table 3: Crude Oil Pipelines In-bound to Houston (Barrels/Day)

Incoming Pipelines Capacity Owner
Seaway Pipeline (from Cushing) 850,000 Enterprise/Enbridge
MarketLink Pipeline (from Cushing) 700,000 TransCanada
Dakota Access Pipeline (DAPL) 520,000 Energy Transfer Partners
BridgeTex Pipeline (from Midland, TX) 350,000 Magellan
Longhorn Pipeline (from Midland, TX) 250,000 Magellan
Enterprise Eagle Ford Pipeline 350,000 Enterprise
Kinder Morgan Pipeline (from Eagle Ford) 250,000 Kinder Morgan

TOTAL In-Bound Pipeline Capacity: 3.3 Million Barrels/Day

Overview of the WTI Midland Market

There is an active physical crude oil trading center based in Midland, Texas, which is a major hub for storage and pipelines with direct connectivity to the Cushing and U.S. Gulf Coast markets.  There is active trading in light sweet WTI-type crude oil at Midland.  Further, there are substantial pipeline flows of WTI-type crude oil from Midland, Texas to Cushing and Houston.  Two major pipelines carry crude oil from Midland to Cushing:  the Basin Pipeline and the Centurion Pipeline, with total capacity of 650,00 b/d.  In addition, there are two pipelines operated by Magellan that provide access to the Gulf Coast market in Houston with takeaway capacity of 600,000 b/d.  Figure 2 shows the pipeline systems between Midland, Cushing and Houston.

The major challenge for the Midland trading hub has been providing additional takeaway pipeline capacity to keep pace with the rapid rise in crude oil production in the Permian Basin.  There are plans for new pipeline capacity to transport oil outbound from the Midland trading hub, but in the short-term, the infrastructure has lagged behind the ramping production, and consequently, the crude oil at the Midland hub has been discounted.  As the export market continues to expand, the oil industry has responded with logistical solutions to ensure the crude oil producers in the Permian Basin will have access to the Gulf Coast market.

Figure 2: Crude Oil Pipelines connecting Midland to Cushing and Houston

Overview of the LLS Market

The LLS grade is traded at its hub in St. James, Louisiana, which consists of storage facilities and major pipelines for distribution from the Gulf Coast to refineries in Louisiana. There are significant new developments in Louisiana that will impact logistics around the LLS market. First, Marathon Pipe Line LLC has begun work on the reversal of the Capline system, and the pipeline system has terminated northbound shipments from St. James. As a result, the Capline is no longer available as an outlet for the LLS crude oil flow to refineries in the Midwest.

When the Capline is finally reversed in 2022, the line will provide access to Bakken and Canadian crude oil to flow southbound from Patoka to the Gulf Coast in direct competition with LLS. The shutdown of Capline has significantly altered the logistics in the LLS market, as market participants seek out additional outlets for LLS in Louisiana and in the export market.

Second, the LOOP facility has completed work to load export vessels from its deep-water port that will allow for loading of LLS onto VLCC vessels with capacity of 2 to 4 million barrels. This will provide access for LLS to be exported to the global marketplace, and provide new arbitrage opportunities for the LLS benchmark.

Figure 3: Capline Pipeline System

Source:  Capline Pipeline

Light sweet crude oil production from Louisiana and Texas accounts for a significant portion of the LLS-quality crude that is blended and traded in St James, LA.   Light sweet crude produced in the Eagle Ford and Permian regions in Texas is frequently shipped via pipeline and barge to the hub in St. James, and blended into the LLS stream.  There is direct pipeline connectivity from Houston to St. James via the Shell Zydeco Pipeline (also called the Ho-Ho Pipeline) with capacity of 375,000 barrels per day as shown in 4 below.  In addition, light sweet crude oil is delivered by barge from Houston and Corpus Christi to the terminals in St. James for blending into the LLS stream.

Figure 4: Shell Zydeco (Ho-Ho) pipeline

Overview of the Mars Market

The Mars market represents spot trade of Mars Blend crude oil which is deliverable at the LOOP facilities in Clovelly, Louisiana.  As mentioned above, there are significant developments in Louisiana that will impact the Mars market.  First, the LOOP facility has begun loading export vessels from its deep-water port that will allow for loading of Mars onto VLCC vessels with capacity of 2 to 4 million barrels.  This will provide direct access for Mars to be exported to the global marketplace, and provide new arbitrage opportunities for the Mars benchmark.

In addition, as discussed above, Marathon Pipe Line LLC has begun work on the reversal of the Capline system. Previously, Mars flowed northbound to Midwest refineries via Capline, but the pipeline flows have been terminated. After the reversal is complete, the Capline will provide southbound access to Bakken and heavy Canadian crude oil to flow to the Gulf Coast in direct competition with Mars. This pipeline reversal has significantly altered the logistics in the Mars market, and as a result Mars has become a key export grade from the LOOP terminal.

The Mars Pipeline System1,2 originates approximately 130 miles offshore in the Deepwater Mississippi Canyon and terminates in salt dome caverns in Clovelly, Louisiana as shown in Figure 6.  The System transports offshore crude oil from the Mississippi Canyon area, including the Olympus platform as well as the Medusa and Ursa pipelines, and from the Green Canyon and Walker Ridge areas via the Amberjack pipeline connection3. It has a capacity of up to 600,000 barrels per day.

Figure 5: Mars Pipeline System

The Mars System Pipeline:

Gathers from producers in: Mississippi Canyon

Gathers from pipelines: Ursa, Medusa, and Amberjack

Delivers to terminals: Chevron’s Fourchon Terminal and LOOP Clovelly Terminal

Delivers to pipelines: Clovelly to Houma, Clovelly to Norco, LOCAP, and Chevron’s Fourchon to Empire pipeline

In conjunction with the Mars Pipeline System, the Mars infrastructure network consists of a storage cavern with capacity of eight million barrels at the LOOP Clovelly Terminal.  This cavern and its interconnection to other LOOP facilities provide a flexible market link to the Gulf Coast pipeline network.

According to Argus, the Mars oil stream is a light sour crude oil with quality parameters of 28 degrees API gravity maximum and 1.93% sulfur maximum.  Market participants in the Gulf Coast sour crude oil cash market include 30 to 40 companies.

Gulf Coast Production Growth

U.S. Gulf Coast (PADD 3) region is the major tight/shale oil production area, accounting for 40% of overall U.S. production in 2018.   Driven by reduced drilling costs and higher efficiency, shale plays have increased production significantly since 2010.   The Eagle Ford shale formation is located in South Texas from the US-Mexico border north of Laredo in a narrow band extending northeast for several hundred miles to north of Houston.  Permian Basin shale spans west Texas and southwest part of New Mexico.  Both shale plays are among the most prolific oil production areas.  Figure 6 shows the two shale regions in PADD 3.

Figure 6: U.S. Shale Regions

Source:  EIA Drilling Productivity Report

U.S. crude oil production has nearly doubled from 5.1 million barrels per day (b/d) in January 2009 to 10.9 million b/d in June 2018.   In its latest short-term energy outlook, the U.S. Energy Information Administration (EIA) predicts oil production to hit a new record high in 2019 of 11.8 million b/d. According to the EIA, most of the growth in U.S. crude oil production is WTI type crude oil with API gravity between 40 and 45 degrees.  This is significant for the WTI benchmark, as it underscores the similarity in quality between the new oil production and the WTI pricing reference.

Figure 7: U.S. Crude Oil Production

Source: EIA

Increasing Crude Oil Exports

U.S. crude oil exports more than tripled in June 2018 compared to one year ago,  to average 2.4 million b/d. The growth in exports has been transformative for the U.S. crude oil market.  Houston has become a major export hub, and new infrastructure has been constructed to process the growing export volumes.  These infrastructure changes have transformed the U.S. into the marginal supplier of oil to the world.

The growth in U.S. crude oil exports has been balanced and diverse, with strong participation from Asian countries.  As figure 8 shows, China has been the second largest buyer after Canada of U.S. crude oil exports. The broad participation indicates a well-developed export market that spans both Europe and Asia.  As U.S. oil exports gain deeper penetration in the global oil markets, the U.S. crude oil grades will continue to expand their importance as key price references in the international marketplace.

Figure 8: U.S. Crude Oil Exports by Country of Destination

Source: EIA

A Look Ahead

The U.S. domestic crude oil grades market has been transformed into a vibrant and international marketplace with active participation from Europe and Asia.  This transformation has been driven by rising U.S. crude exports, surging domestic production, and new pipeline infrastructure.  With rising exports, the Gulf Coast grades are accessing the global marketplace, and competing directly with Atlantic Basin and West African crude oil grades.

Further, the liquidity of the WTI Cushing benchmark has driven impressive growth in the spread trading activity for the U.S. crude oil grades, and this ensures better price discovery in setting the basis differential for the grades market.  The WTI benchmark at Cushing provides a reliable anchor as the flat price reference for the crude oil grades, and allows for more reliability in the price mechanism based on active spread trading.

Currently, oil market participants are pricing U.S. oil exports based primarily on the assessment of WTI at Houston, which is quoted as a differential to the WTI benchmark price at Cushing.  This WTI pricing differential is highly liquid, and reflects the location basis between Cushing and the export hub in Houston.  The WTI benchmark at Cushing provides the flat price reference for the WTI priced at Houston.  In addition, the liquidity of the WTI benchmark at Cushing helps to enhance the accuracy and the transparency of the basis differential for WTI at Houston where exports are priced.

The oil industry faces infrastructure challenges to keep pace with the surging U.S. shale oil production.  In the short-term, the crude oil at the Midland trading hub has been discounted, but the industry is responding with logistical solutions to provide access to the U.S. Gulf Coast market.  In addition, there are significant changes coming in Louisiana that will impact the LLS and Mars markets.  The ability to export from the LOOP facility is a game-changer that will provide direct access to the global marketplace, and provide new arbitrage opportunities for the LLS and Mars benchmarks.  In addition, the planned reversal of the Capline system in 2022 will allow crude oil to flow southbound to the Gulf Coast in direct competition with LLS and Mars.  This pipeline reversal will significantly alter the logistics in the LLS and Mars markets, and will impact the pricing of these benchmarks.

In summary, the U.S. domestic crude oil grades are competing in the global marketplace, and have become important price references in the international market.  The cleared CME crude oil grade futures contracts provide the hedging tools for managing arbitrage risk between the U.S. and global markets.

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Peter Knight Advisor

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U.S. the Largest Crude Oil Producer

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Back in the late 1960s and early 70s, the United States was the largest producer of crude oil in the world—pumping nearly 10 million barrels a day. In the three or four decades that followed, production dropped by nearly half. During this time, Russia and Saudi Arabia became the largest producers.

However, after extensive advances in drilling technology, such as horizontal drilling and hydraulic fracturing (fracking), U.S. producers were able to extract vastly greater output from wells and shale rock formations. In light of this, the U.S. has seen a resurrection in the energy patch, with production nearing 11 million barrels per day (see chart below). In fact, the Energy Information Administration (EIA) recently estimated that the United States likely overtook both Russia and Saudi Arabia to again become the largest producer of crude oil. Much of that light sweet crude oil comes from the Permian basin in Texas (and New Mexico).

Moreover, this energy renaissance will have a major impact on CME Group’s West Texas Intermediate (WTI) Crude Oil contract. Already the premier global benchmark in energy, WTI Crude futures will play an even greater role in the energy landscape as a result of the U.S production resurgence. Producers, users and traders in WTI futures and options will have 11 million reasons a day to trade this key energy benchmark—which is among the most liquid futures contracts in the world, in terms of volume and open interest, and has excellent liquidity in non-U.S. time zones as well.

Source: EIA and CME Group Energy BLM

U.S. Crude Oil Production Since 1920

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Peter Knight Advisor

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A Look into the Refining Process

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Refined petroleum products are fuels distilled from crude oil and other liquids (lease condensates, liquefied gases). After crude oil is removed from the ground, it is sent to a refinery where different parts of the crude oil are separated into useable petroleum products.

Source: CME Group

Some examples of petroleum products include gasoline, distillates such as diesel fuel, heating oil, and jet fuel, fuel oil, petrochemical feedstocks, waxes, lubricating oils, and asphalt.

Most refineries focus on producing transportation fuels, the largest use category for petroleum products. In 2016, approximately 50% of all refinery output in the U.S. was gasoline; distillate fuels (mostly ULSD, or Ultra-Low Sulfur Diesel) represented the second largest category at close to 30%.

Other uses of petroleum products include heating, paving roads, generating electricity and as feedstocks for petrochemical and plastics production. LNG is the liquefied form of natural gas.

How Does a Simple Refinery Operate?

All refineries have three basic steps: separation, conversion and treatment. During the separation process, the liquids and vapors separate into petroleum components called factions based on their weight and boiling point in distillation units. Heavy factions such as asphalt and residual fuel oil separate lower down in the distillation unit while the lighter fractions such as gasoline and naphtha vaporize and rise to the top.

Following distillation, heavy fuels can be processed further through cracking, alkylation and reforming to obtain higher-value products.

The final step in the refining process is to bring products up to pipeline and market standards through blending and treating. For instance, refineries and blenders combine gasoline blending components and ethanol to obtain finished retail gasoline.

Source: EIA

Trading Refined Products

NYMEX RBOB Gasoline futures and NY Harbor ULSD futures contracts represent the world’s largest and most liquid refined products markets.

RBOB Gasoline futures, the global benchmark for gasoline, traded at an average of more than 180,000 contracts per day in 2016. Refiners both in the United States and internationally follow RBOB futures prices and both commercial and non-commercial market participants hedge their exposure to gasoline price fluctuations by trading RBOB Gasoline futures contract.

NYMEX NY Harbor ULSD futures traded at an average of more than 156,000 contracts in 2016. It is the distillate fuel benchmark, through which traders manage their price risk in ULSD and associated distillate products such as jet fuel, heating oil and gasoil.

Hedging Risk Using Refined Products Futures and Options

The primary risk that traders seek to hedge is called the basis risk, which is the difference between the spot, or physical, market price of a commodity and its future price. There are other types of basis risk in energy markets, which include price differences between time, quality and location of a certain product.

Companies that are significantly exposed to the price of a particular commodity may choose to manage basis risk through buying or selling futures. The benefits of using exchange-traded futures and options contracts include:

  • Pre-defined and standardized terms and conditions, so there is no uncertainty about the underlying product
  • Price and trade on a transparent platform that is available to all market participants
  • Deep liquidity with many buyers and sellers participating in the market at competitive prices
  • Limited counter-party credit risk through centralized clearing

Who Trades Refined Products Futures?

Referred to as commercial participants or hedgers, airlines, retail fuel distributors (such as gas stations) and refiners are examples of companies that engage in various types of hedging as part of cost control and risk mitigation.

Non-commercial participants include banks, money managers and funds. These traders generally do not possess significant physical assets in the underlying markets but seek to gain exposure to price volatility as part of a broader trading strategy.

Refiners in particular are most concerned about hedging the difference between their input costs and output prices. Refiners’ profits are tied directly to the spread, or difference, between the price of crude oil and the prices of refined products — gasoline and distillates (diesel and jet fuel). This spread is referred to as a crack spread.

If you have any questions send a message or contact me

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Peter Knight Advisor

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Learn about the 1:1 Crack Spread

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In the petroleum industry, refinery executives are most concerned about hedging the difference between their input costs and output prices. Refiners’ profits are tied directly to the spread, or difference, between the price of crude oil and the prices of refined products: gasoline and distillates (diesel and jet fuel).

This spread is referred to as a crack spread due to the refining process that cracks crude oil into its major refined products.

The Role of the Crack Spread

A petroleum refiner, like most manufacturers, is caught between two markets: the raw materials he needs to purchase and the finished products he offers for sale. The price of crude oil and its principal refined products are often independently subject to variables of supply, demand, production economics, environmental regulations and other factors. As such, refiners and non-integrated marketers can be at enormous risk when the price of crude oil rises while the prices of the refined products remain stable or decline.

Such a situation can severely narrow the crack spread, which represents the profit margin a refiner realizes when he procures crude oil while simultaneously selling the refined products into a competitive market. Because refiners are on both sides of the market at once, their exposure to market risk can be greater than that incurred by companies who simply sell crude oil, or sell products to the wholesale and retail markets.

In addition to covering the operational and fixed costs of operating the refinery, refiners desire to achieve a rate of return on invested assets. Because refiners can reliably predict their costs, other than crude oil, an uncertain crack spread can considerably cloud understanding of their true financial exposure.

Further, the investor community may use crack spread trades as a hedge against a refining company’s equity value. Other professional traders may consider using crack spreads as a directional trade as part of their energy portfolio, with the added benefit of its low margins (the crack spread trade receives a substantial spread credit for margining purposes). Together with other indicators, such as crude oil inventories and refinery utilization rates, shifts in crack spreads or refining margins can help investors get a better sense of where some companies,  and the oil market, may be headed in the near te

Did you know: There are several ways to manage the price risk associated with operating a refinery. Because a refinery’s output varies according to the configuration of the plant, its crude slate, and its need to serve the seasonal product demands of the market, there are various types of crack spreads to help refiners hedge various ratios of crude and refined products. Each refining company must assess its particular position and develop a crack spread futures market strategy compatible with its specific cash market operation.Simple 1:1 Crack Spread

The most common type of crack spread is the simple 1:1 crack spread, which represents the refinery profit margin between the refined products (gasoline or diesel) and crude oil. The crack spread, the theoretical refining margin, is executed by selling the refined products futures and buying crude oil futures, thereby locking in the differential between the refined products and crude oil.

The crack spread is quoted in dollars per barrel; since crude oil is quoted in dollars per barrel and the refined products are quoted in cents per gallon, diesel and gasoline prices must be converted to dollars per barrel by multiplying the cents-per-gallon price by 42 (there are 42 gallons in a barrel).

If the refined product value is higher than the price of the crude oil, the cracking margin is positive. Conversely, if the refined product value is less than that of crude oil, then the gross cracking margin is negative.

When refiners look to hedge their crack spread risk, they are typically naturally long the crack spread as they continuously buy crude oil and sell refined products. If refiners expect crude oil prices to hold steady, or rise somewhat, while products prices fall (a declining crack spread), the refiners would sell the crack; that is, they would sell Gasoline or Diesel (ULSD) futures and buy Crude Oil futures. Whether a hedger is selling the crack or buying the crack reflects what is done on the product side of the spread, traditionally, the premium side of the spread.

CME Group offers a Crack Spread Conversion Calculator

Example of 1:1 Crack Spread

In January, a refiner reviews his crude oil acquisition strategy and his potential gasoline margins for the spring. He sees that gasoline prices are strong, and plans a two-month crude-to-gasoline spread strategy that will allow him to lock in his margins. In January, the spread between April crude oil futures at $50.00 per barrel and May RBOB gasoline futures at $1.60 per gallon or $67.20 per barrel, presents what the refiner believes to be a favorable 1-to-1 crack spread of $17.20 per barrel.

Typically, refiners purchase crude oil for processing in a particular month and sell the refined products one month later.

The refiner decides to sell the crack spread by selling RBOB Gasoline futures and buying Crude Oil futures, thereby locking in the $17.20 per barrel crack spread value. He executes this by selling May RBOB Gasoline futures at $1.60 per gallon or $67.20 per barrel, and buying April Crude Oil futures at $50.00 per barrel.

Two months later, in March, we see prices have risen.

The refiner now purchases the crude oil at $60.00 per barrel in the cash market for refining into products. At the same time, he also sells gasoline from his existing stock in the cash market for $1.75 per gallon, or $73.50 per barrel. His crack spread value in the cash market has declined since January, and is now $13.50 per barrel

Since the futures market reflects the cash market, April Crude Oil futures are also selling at $60.00 per barrel in March — $10 more than when he purchased them. May RBOB Gasoline futures are also trading higher at $1.75 per gallon or $73.50 per barrel.

To complete the crack spread transaction, the refiner buys back the crack spread by first repurchasing the Gasoline futures he sold in January, and he also sells back the Crude Oil futures. The refiner locks in a $3.70 per barrel profit on this crack spread futures trade.

The refiner has successfully locked in a crack spread of $17.20. The futures gain of $3.70 is added to the cash market cracking margin of $13.50.

Had the refiner been un-hedged, his cracking margin would have been limited to the $13.50 gain he had in the cash market. Instead, combined with the futures gain, his final net cracking margin with the hedge is $17.20 — the favorable margin he originally sought in January.

If you have any questions send a message or contact me

Regards,
Peter Knight Advisor

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The Importance of Cushing, Oklahoma

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NYMEX Light Sweet Crude Delivery Location: Cushing Oklahoma

Cushing, Oklahoma is the delivery location for the NYMEX benchmark Light Sweet Crude Oil futures contract.

Light Sweet Crude Oil futures contract specifies delivery of a common stream of light sweet crude U.S. oil grades, which are referred to as WTI or Domestic Sweet crude oil.

The Cushing physical delivery mechanism is a network of nearly two dozen pipelines and 15 storage terminals, several with major pipeline manifolds. Cushing is called The Pipeline Crossroads of the World.

Storage Capacity

This vibrant hub has 90 million barrels of storage capacity where commercial companies are active participants in the market. The storage capacity has grown dramatically over the past few years and now accounts for 13% of total U.S. oil storage.

Crude oil inventory levels reached a record high of 69 million barrels in storage in early 2017.

Transporting Oil

Cushing’s inbound and outbound pipeline capacity is well over 6.5 million barrels daily.

It is interconnected to multiple pipelines, each capable of transporting hundreds of thousands of barrels of oil daily.

Significant investments in infrastructure, along with increased U.S.  oil production, and the repeal of the oil export ban have strengthened the role of WTI as the leading global benchmark.

As U.S. oil production continues to increase, Cushing will play an even greater role in the global petroleum landscape.

If you have any questions send a message or contact me

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Peter Knight Advisor

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Understanding Henry Hub

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As the delivery point for Henry Hub Natural Gas futures, the Henry Hub, located in Erath, Louisiana, is a nexus of several natural gas interconnections.

Here you will find interstate and intrastate pipelines, as well as other related infrastructure. Because of this level of interconnection, Henry Hub offers natural gas shippers and marketers ready access to pipelines serving markets across the entire United States.

The commercial relevance of Henry Hub is the result of its strategic location and logistical infrastructure.

When local markets across the United States price their natural gas, they tend to do so based off a differential to Henry Hub. This differential accounts for regional market conditions, transportation costs and available transmission capacity between locations.

A Closer Look at Henry Hub

Henry Hub is owned and operated by Sabine Pipe Line LLC and its affiliates. They are a full-service header system which offers various receipt and delivery capability, hub management services and an extensive interconnection to one of the most important U.S. pipeline structures.

Through its transportation program, Sabine provides transportation services for both the Henry Hub and Sabine’s mainline. This allows a shipper to transfer gas from one pipeline to another.

The Sabine Pipeline

The Sabine Pipeline is a bidirectional mainline pipeline that stretches from Port Arthur, Texas, to the Henry Hub. It is an interstate pipeline that is certified as an open-access gas transporter, and it is directly connected to four industrial consumers and one producer.

Henry Hub is interconnected to eight pipelines and three intrastate pipelines. These pipelines are part of the highly integrated U.S. transmission grid.

Location

When we look at regional production, we begin to see the importance of this location.

Monthly average natural gas production in Texas has been approximately 637,021 million cubic feet monthly since January 2014. This represents 27% of U.S. marketed production, making Texas the state with the highest natural gas production.

Louisiana produced a monthly average of 155,481 million cubic feet monthly from January 2014 through November 2016. This represents 7% of U.S. marketed production.

Storage Facilities

Henry Hub also has a direct connection to storage facilities, including Jefferson Island, Acadian and Sorrento.

These facilities are salt-dome caverns characterized by high deliverability and high cycling rate, which allow for several withdrawal and injection cycles each year.

As you can see Henry hub is situated in the Southwest region of the United States, which has one of the most developed and extensive pipeline networks in the country.

This allows natural gas to be moved from supply basins and exported to major consumption markets.

Given the physical and logistical attributes of Henry Hub, it is easy to see why this location has become the pricing benchmark for the natural gas market.

If you have any questions send a message or contact me

Regards,
Peter Knight Advisor

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Understanding Natural Gas Risk Management Spreads & Storage

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Managing Natural Gas Risk

Calendar spread risk management is one of the key issues in trading natural gas in North America.

Seasons

Natural gas prices show clear seasonality broken into two main seasons: winter, or withdrawal season, and summer, injection season. Winter in the United States generally ranges from November to March; summer is from April to October. During the summer season, gas demand decreases while production continues, resulting in excess natural gas that can be stored. During the winter season, gas consumption peaks as a result of increased heating demand from residential end-users, the industrial sector and utilities. As a result of unpredictable winter demand, winter natural gas futures generally trade at a premium to the summer futures.

Two examples of natural gas calendar spreads could be a summer-winter spread using the averages of the summer and winter months and a March-April spread, when winter demand slows and moves into the summer injection season. Natural gas storage facilities offer physical optionality to balance supply and demand in the gas market. Natural gas providers have the option to inject excessive gas production into underground storage facilities.

Example One

A gas marketer has entered into a contract to sell to a gas utility firm 50,000 MMBtu for December delivery at Henry Hub, Louisiana for a fixed price $3.319 per MMBtu. This marketer decides to hedge his physical volume risk so he buys 50,000 MMBtu from a producer for June delivery at Henry Hub for a fixed price of $3.095 per MMBtu. Essentially, this marketer has bought the June and December calendar spread for $0.224 per MMBtu with long June Natural Gas and short December Natural Gas at Henry Hub.

One approach to balance his price risk is to use a storage facility as a way to move forward his June long position. The marketer injects 50,000 MMBtu gas into the underground storage in June and withdrawals it in December for the sale position with overall storage cost of $0.12 per MMBtu and overall financing cost of $0.10 per MMBtu. As a result, this marketer makes $0.004 per MMBtu after the storage and financing costs.

Example Two

Another alternative approach would be using financial instruments to hedge the calendar spread risk. The marketer sells 50,000 MMBtu or five Henry Hub June futures contracts and buys 50,000 MMBtu or five Henry Hub December futures contracts. With June futures priced at $3.105 and December futures priced at $3.305, this marketer effectively sold the June-December calendar spread for $0.2. Overall this marketer is able to unwind his positions and make $0.224-$0.2=$0.024 profit with financial instruments.

Summary

Calendar spread risk management is a key issue for some participants in the Natural Gas market. We have just demonstrated one way futures could be utilized to manage that risk.

If you have any questions send a message or contact me

Regards,
Peter Knight Advisor

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Understanding Supply and Demand: Natural Gas

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Natural gas production in the United States has been rising steadily since 2011. Over 90% of the increase in domestic natural gas production has happened in the seven most prolific shale formation regions, with the largest increases coming from Marcellus. While the states within those shale regions produce the highest volumes of natural gas, there is a broad area of production across the majority of the United States.

Gas storage levels also plays a key role when looking at supply side. Natural gas in storage provides a valuable cushion to meet peak demand. During periods of lower demand, surplus can be injected into storage facilities. The natural gas storage infrastructure can be utilized to accommodate sudden rises or falls in demand, up to a certain point.

Overall, natural gas supply is characterized as being quite responsive to a relatively wide range of prices. However, restrictions of the existing infrastructure impact additional flows, rendering the supply curve very inelastic even when prices are high. On the demand side, overall economic growth, weather and competing fuel prices affect gas demand. Here is a general breakdown of the demand of natural gas across the some of the main sectors.

Demand of Natural Gas

When it comes to electrical power generation, natural gas power burn has been increasing due to low gas prices relative to coal. The second largest sector is within industrial usage. Natural gas is used as raw material to produce fertilizer, chemicals, and hydrogen.

Residential and commercial sector utilize gas as a fuel for heating or cooling purposes. Natural gas suppliers are usually insulated from short-term fluctuations through existing tariffs. The transportation sector accounts for a small amount of natural gas used as vehicle fuel from liquefied natural gas or LNG.

Over the last few years, the United States has seen the development of new LNG exporting terminals, mostly in the gulf coast region. The demand for natural gas for LNG export to international markets is expected to rise significantly.

Natural Gas and Weather

Gas demand has a high price-sensitivity to changes in weather. Weather pattern changes are the primary contributor to gas price volatility. Gas prices also show a clear seasonal pattern with higher prices in fall and winter months in response to higher demand for heating. And lower prices the spring and summer months as demand drops.

Summary

When traders look at the supply and demand for natural gas in the United States, there are a variety of variables that impact the product, distribution, and use of this product throughout the year.

If you have any questions send a message or contact me

Regards,
Peter Knight Advisor

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