ICT Rejection Block Explained: Bodies, Wicks and Entries

A long upper wick catches your attention, but selling every candle with that appearance quickly becomes an inconsistent method. Some wicks form during continuation, some during temporary pauses, and others near important liquidity references. The useful question is what the wick represents within the surrounding price sequence, and which exact prices should define an area for a later return.

ICT rejection blocks provide a way to study that area using both candle bodies and wick extremes. The construction can involve one candle or a cluster of candles around a swing. Its boundaries do not necessarily come from the same candle, and price can return beyond the body reference without exceeding the original wick extreme.

This guide explains that distinction with complete EUR/USD measurements, an entry model that waits for a return and recross, and explicit trade-risk calculations. All chart prices and trade sequences are hypothetical teaching examples. They are designed to make the rules reproducible, not to represent live recommendations, verified historical trades, or a guaranteed response from institutional participants.

1. What is an ICT rejection block?

The concept is explained in ICT’s Month 4 rejection-block lesson. Its distinctive measurement compares body prices with wick extremes around a swing. A bearish formation uses the highest open or close and the highest high. The bullish formation reverses that construction using the lowest open or close and the lowest low.

The direction of the candle’s body does not determine whether it can contribute a boundary. A red candle can contain the highest open in a swing-high cluster, while a green candle can contain the lowest open in a swing-low cluster. Measure the actual open, high, low, and close rather than selecting only the candles whose colour matches your intended trade.

In the ICT framework, a return beyond the body reference is interpreted as a possible liquidity interaction followed by rejection. That is a hypothesis about price delivery. The candle chart itself shows recorded prices, not a complete list of resting orders or the motives of the participants who traded at those prices.

A rejection block is therefore best treated as a defined interval with a formation time. Once the source formation is complete, you can mark its boundaries and observe what happens on a later visit. Without a fixed source formation, the zone can expand or shrink whenever a new wick appears, making the historical examples much easier to fit than the live decisions.

The core idea differs from describing any long-wick candle as a reversal signal. The area must be related to a relevant swing and a directional narrative. A long wick in the middle of an unstructured range may be observable, but its appearance alone does not establish a useful target, a defensible stop, or a reason to expect continuation in your chosen direction.

2. Why bodies and wicks matter in an ICT liquidity narrative

A candle body records the interval between its opening and closing prices. A wick records an extreme reached outside that body during the candle’s formation. When several candles form a swing, those observations can show that price repeatedly visited a region beyond the most extreme body prices without the same body expansion persisting there.

That information is limited but useful. Opens and closes are samples taken at timeframe boundaries, not a volume-weighted assessment of where the market accepted value. Long wicks do not prove that institutions rejected a precise price. They provide a location to investigate alongside the higher-timeframe narrative, subsequent displacement, and the intended liquidity objective.

For a bearish idea, identify why a rally into the swing-high area deserves attention. It might be a return into a higher-timeframe bearish area or an approach toward a premarked liquidity reference. For a bullish idea, explain the corresponding lower area and upside objective. The daily-bias framework helps organise this context without treating the bias as a prediction that must come true.

One useful distinction is between exceeding a body boundary and exceeding a wick extreme. Price can trade above the highest body reference of a swing while remaining below its highest wick. A model that only recognises fresh wick highs would overlook that event. Conversely, a body-boundary breach should not be described as a sweep of the old wick high when that high was never reached.

Use exact wording in your journal. “Price entered the prior upper-wick interval” describes one observation. “Price exceeded the previous swing high” describes another. Their outcomes may differ, so they should be recorded separately. The liquidity-sweep guide can help you define the particular reference involved.

The interpretation can also fail. Price may return into the interval, establish new body prices there, and continue beyond the original extreme. Your model needs a rule for that possibility before entry. A marked rejection block is an area to test, not a claim that every subsequent trade inside it must reverse.

3. How to calculate rejection-block boundaries across several candles

For each candle, its upper body price is the larger of its open and close. Its lower body price is the smaller. In a bearish source cluster, take the highest upper body price across the selected candles and pair it with their highest high. In a bullish cluster, take the lowest lower body price and pair it with their lowest low.

Written as a calculation, the bearish interval is maximum of all opens and closes to maximum of all highs. The bullish interval is minimum of all lows to minimum of all opens and closes. The selected set of candles matters as much as the arithmetic, so define the source swing before measuring it.

Across this three-candle swing-high cluster, the highest wick is 1.09318, supplied by Candle 1. The highest body price is 1.09264, supplied by Candle 2’s close. The bearish rejection block therefore runs from 1.09264 to 1.09318. Its width is 1.09318 − 1.09264 = 0.00054, or 5.4 pips.

Its midpoint is (1.09264 + 1.09318) ÷ 2 = 1.09291. That midpoint is a geometric reference. It is not an average institutional entry, a volume measure, or the entry used in the worked short below. Keeping the midpoint distinct from the chosen trigger prevents a chart annotation from quietly becoming a trading rule.

Why selecting only the highest-wick candle can change the zone

If you used only Candle 1’s upper body price, you would draw the lower boundary at 1.09243 rather than 1.09264. The resulting interval would be 7.5 pips wide, instead of 5.4. That is a different measurement. It includes prices inside the body envelope of the selected cluster, rather than isolating the interval above the cluster’s highest body reference.

A one-candle rejection-block model is still possible when one candle is deliberately the entire source formation. The error is switching between a single-candle and a cluster measurement after seeing which boundary would have produced a better trade. Record which construction you use and keep it stable throughout the evaluation.

The purple interval represents prices that the source wicks actually reached. It is not an empty price range simply because the candle bodies sit below it. This is one reason a rejection block should not be treated as interchangeable with a fair value gap, which uses a different three-candle relationship.

4. How to identify a usable formation without hindsight

Choose the context timeframe and execution timeframe before looking for an entry. For the teaching model here, the rejection cluster consists of three completed five-minute candles around a relevant swing. The three-candle rule is a fixed operational choice for these examples, not a universal requirement of every rejection-block method.

1. Identify the location. Mark the higher-timeframe area or liquidity reference that makes the developing swing relevant. Avoid searching all visible wicks for whichever later reaction looks most impressive.
2. Select the completed source cluster. Record its beginning and ending timestamps. Read the actual open, high, low, and close values from the same instrument and data feed.
3. Calculate the two boundaries. Use the relevant body extreme across the entire selected cluster, together with the matching wick extreme. Save the original values.
4. Wait for departure. This guide requires a completed close through a premarked internal swing away from the zone before a return becomes eligible. The extra condition is an entry-model filter, not part of the arithmetic defining the block.
5. Observe a later return. Check whether price enters the interval while remaining inside its original outer wick boundary. A return into the box is an observation; the selected entry rule determines when an order can be placed.
6. Record the decision before the outcome. Write entry, stop, target, expiry, and cancellation conditions before revealing later candles in replay.

Freezing the source cluster is essential. In the worked short, the later retest candle closes inside the rejection interval. If you add that retest candle to the source cluster, it changes the highest body reference and therefore changes the original block. The source and the retest are different events and must stay separate.

Keep candle-close confirmation honest. If your departure condition requires a completed five-minute candle, the order cannot be credited with information that only became available at that candle’s close. Similarly, a swing indicator using future bars should be logged at its actual confirmation time, not backdated to the plotted pivot.

Feed consistency also matters. A tiny wick difference can vary between brokers or between bid, ask, and midpoint charts. Use one quote convention for the source measurements and state how orders are evaluated against executable prices. A drawing accurate to five decimals is not necessarily accurate to the trading conditions of a different feed.

5. Rejection block versus order block, FVG, and mitigation block

The order-block guide explains how a source candle is selected within its own narrative. The FVG guide explains the separate gap geometry. Either concept may overlap a rejection interval, but overlap does not make their boundaries identical.

The recently covered mitigation block depends on a failure swing and an opposing break through an intervening swing. A rejection block can be measured from the source body’s relationship to its wicks. Our execution model still asks for a departure and later return, but that added filter should not be confused with redefining the source as a mitigation block.

A session-open sequence may also fit an ICT Judas-swing narrative. The session label does not tell you which open or close defines the body boundary. Measure the rejection block independently and evaluate whether the timing supports the specific plan you are testing.

A candle’s resemblance to a familiar named candlestick pattern contributes less precision than the actual source values. This guide therefore uses OHLC measurements and a liquidity narrative rather than treating a candle silhouette as a self-contained signal. The same appearance can occur at very different locations and under very different execution conditions.

6. How to trade a rejection block using a return and recross

There are several possible entry methods, and they should be tested separately. One is a direct limit order at the body boundary after the source is confirmed. Another waits for price to enter the wick interval and then cross back through the body boundary. The worked examples here use the second approach with an entry stop order.

For the bearish model, first require price to depart below a premarked internal swing. Then wait for a later completed retest candle that trades above the body’s upper boundary, remains below the original wick high, and closes inside the rejection interval. After that close, a sell stop can be placed slightly below the body boundary, provided it has not already been crossed before the order is placed.

This order sells on a subsequent downward crossing. It does not sell automatically at the retest high. The retest candle must leave the market above the planned trigger when the order becomes available; otherwise, the example’s entry procedure has already been missed and needs reassessment rather than a fictional earlier fill.

The bullish model reverses the sequence. Price departs upward, later trades below the lowest body reference while staying above the original wick low, and closes inside the interval. A buy stop is then placed slightly above the body boundary for a later upward crossing. The original wick extreme supplies a reference for the protective stop.

The entry stop and the protective stop have different jobs. The first opens the position if the trigger is reached. The second attempts to limit the loss after entry. The broker’s trigger convention, spread, minimum order distance, and available order types must support the plan. A stop entry may fill worse than the trigger during fast movement.

This guide cancels an unfilled plan if price breaks the original wick extreme before entry, reaches the intended target before the order fills, or runs beyond the chosen session expiry. After a fill, the original protective stop and target govern the hypothetical trade. Adding a discretionary exit requires a separately defined management rule.

The market-structure-shift guide can help define the departure condition, while confirmation versus aggressive entries explains the trade-off between earlier fills and additional evidence. Waiting can improve clarity while also reducing the number of filled trades; neither effect establishes a profitable edge by itself.

7. Complete bearish EUR/USD worked example

Assume a hypothetical winter London session, with times shown in Ghana GMT. The three source candles in the earlier table complete by 7:50 AM. They define a bearish rejection block from 1.09264 to 1.09318. Before the trade develops, your bearish plan identifies an internal low at 1.09186 and a lower liquidity objective at 1.09031.

At 8:05 AM, a completed five-minute candle closes at 1.09174, below the internal low. That supplies the departure condition used by this model. At 8:20 AM, a later retest candle reaches 1.09300 and closes at 1.09282. Its high remains 1.8 pips below the original wick extreme, while its close sits above the body’s boundary.

Immediately after that retest candle closes, the plan places a sell stop at 1.09262, 0.2 pip below the body boundary. Assume the next candle crosses down through the trigger and fills the order. The protective stop is 1.09334, 1.6 pips above the original wick high. The target is 1.09046, 1.5 pips before the premarked lower liquidity reference.

The small trigger and stop allowances are explicit teaching choices. They are not universal buffers suitable for all spreads or broker order-distance requirements. If your platform cannot accept these distances, recalculate the plan using valid prices or skip the setup.

Calculate the gross and cost-adjusted reward-to-risk ratio

For EUR/USD, one pip is 0.00010. Price risk is 1.09334 − 1.09262 = 0.00072, or 7.2 pips. Planned reward is 1.09262 − 1.09046 = 0.00216, or 21.6 pips. Reward divided by risk is 21.6 ÷ 7.2 = 3.00, giving a gross 1:3 risk-to-reward ratio.

Assume a hypothetical total round-trip cost of 0.9 pip relative to the chart-reference prices, combining spread and commission, with no additional slippage in this numerical illustration. Estimated stop loss becomes 7.2 + 0.9 = 8.1 pips. Estimated target proceeds become 21.6 − 0.9 = 20.7 pips. Cost-adjusted reward-to-risk is 20.7 ÷ 8.1 = 2.56, or approximately 1:2.56.

If the recorded entry and exit already use actual bid and ask fills, spread is embedded and should not be added a second time. Replace the allowance with the real commission and measured execution cost. Both the entry stop and protective stop can experience slippage, so the planned ratio is an estimate rather than a guaranteed realised payoff.

For a hypothetical USD 3,500 account and a chosen 0.4% risk budget, the budget is 3,500 × 0.004 = USD 14. Assuming a 100,000-unit standard EUR/USD lot worth USD 10 per pip, size is 14 ÷ (8.1 × 10) = 0.1728 standard lots. Rounding down to 0.17 lots gives an estimated stop loss of 8.1 × 10 × 0.17 = USD 13.77 and target proceeds of 20.7 × 10 × 0.17 = USD 35.19. Check actual contract specifications and account-currency conversion.

What counts as a failed or missed trade?

If price exceeds 1.09318 before the sell stop fills, the unfilled setup is cancelled under this model. If the entry fills first and the protective stop is then reached, the trade is a loss. A later decline does not erase that loss. If price never supplies the required retest close and subsequent trigger crossing, there is no filled trade.

A five-minute candle containing both the entry and protective-stop prices may not reveal which was reached first. Use sufficiently detailed execution data when evaluating that event, or classify the result as ambiguous under a predefined rule. Do not assume the favourable path because the candle eventually closed in the intended direction.

8. Bullish rejection-block example

Now consider a separate hypothetical swing-low cluster. Its lowest wick is 1.08217, while the lowest open or close across the selected candles is 1.08271. The bullish rejection block runs from 1.08217 to 1.08271. Its width is 1.08271 − 1.08217 = 5.4 pips, and its midpoint is 1.08244.

Price departs upward with a completed five-minute close at 1.08344, above a premarked internal high at 1.08328. A later retest reaches 1.08239, still above the original wick low, and closes inside the interval at 1.08252. The source formation remains frozen; this retest candle is not added to it.

After the retest closes, the model places a buy stop at 1.08273, 0.2 pip above the body boundary. Assume a later upward crossing fills it. The protective stop is 1.08201, and the target is 1.08471, 1.5 pips before an upper liquidity reference at 1.08486.

Risk is 1.08273 − 1.08201 = 0.00072, or 7.2 pips. Reward is 1.08471 − 1.08273 = 0.00198, or 19.8 pips. Gross reward-to-risk is 19.8 ÷ 7.2 = 2.75, giving 1:2.75. Under the same 0.9-pip cost assumption, estimated loss is 8.1 pips and target proceeds are 19.8 − 0.9 = 18.9 pips. Cost-adjusted reward-to-risk is 18.9 ÷ 8.1 = 2.33, approximately 1:2.33.

The target follows the available objective rather than being pushed farther away to display exactly 3R. This is a different payoff from the bearish example, despite an equal nominal stop distance. A completed pattern is not automatically a trade worth taking; your tested minimum target-space and cost rules still apply.

9. Ghana session timing and execution checks

Ghana uses GMT all year. For commonly used ICT windows anchored to New York time, the London Kill Zone is 7 to 10 AM Ghana time during US winter, and the New York Kill Zone is noon to 3 PM. When US daylight saving is active, those same 2 to 5 AM and 7 to 10 AM New York windows convert to 6 to 9 AM and 11 AM to 2 PM in Ghana.

The New York Midnight Open occurs at 5 AM Ghana time in winter and 4 AM in summer. These conversions follow the published Ghana time-zone rules and New York clock changes. A schedule anchored to London local time follows London’s clock calendar, which can differ around transition weeks.

The worked short uses winter timing explicitly. Label each chart with its timezone and date so that a broker’s server clock does not shift the source or retest candles into a different observation window. The London Kill Zone guide explains how session preparation fits into a broader ICT routine.

Check scheduled announcements, current spread, and platform order requirements before activating a stop-entry plan. A fast news move can cross both the trigger and the intended protective level with poor fills. The CFTC forex customer advisory explains how leverage and dealer execution conditions affect risk. Its regulatory details concern US markets and should not be read as Ghana-specific legal guidance.

10. How to test rejection blocks without selecting only attractive wicks

Define the source-cluster rule, the location filter, and the departure condition before replaying a continuous sample. Then record every qualifying formation, including those that never receive a return or that fail before an entry becomes eligible. A folder containing only dramatic rejection screenshots cannot reveal how selective the method was in real time.

Keep separate records for formation quality and trade performance. A zone may produce a visible reaction without offering your required retest close and recross. A filled trade may lose before a much larger move later develops. Measuring the eventual direction of price is not the same as measuring the actual entry model.

For each candidate, record the source timestamps, both boundaries, the departure close, retest extreme, retest close, order-placement time, trigger fill, stop, target, expiry, and costs. That level of detail makes it possible to detect a common replay error: assigning an order to a price crossing that occurred before the order could have existed.

Compare alternatives one at a time. A single-candle source and a multi-candle source are different constructions. A limit entry and a stop-entry recross are different execution methods. Adding an FVG overlap or an intermarket condition changes the selection again. Combining all these changes in one comparison makes it difficult to determine what improved or worsened the results.

Report net expectancy, drawdown, fill rate, ambiguous-bar frequency, and sample size alongside win rate. Preserve the original rules for a later evaluation period rather than continually adjusting them to the most recent loss. The goal is a decision process you can audit, including its limitations, rather than a chart-marking technique that can explain every past turning point.

11. Frequently asked questions about ICT rejection blocks

Build rejection-block practice around precise source boundaries and an entry rule that could actually have been executed. Continue with order blocks, fair value gaps, market structure shifts, mitigation blocks, and the London Kill Zone to connect the wick interval with the rest of your ICT trading framework.