Why German Soldiers Said British Artillery Gave Them Almost No Warning!

For an infantry soldier on a Second World War battlefield, incoming artillery normally gave some warning. Not much, but some. A trained ear could hear the report of the gun firing, the distant crack or boom, depending on caliber and distance, and use the interval between that sound and the shell’s arrival to judge how much time remained.

If the shell was coming from a long way off, there might be several seconds. If the battery was closer, less. Experienced soldiers learned to read these intervals. They learned what different trajectories sounded like, the low, flat whir of a direct fire weapon, the higher, steeper fall of heavier howitzers.

They listened for the whistle of incoming rounds. They developed over time a specific hearing that kept them alive. German infantry accounts from multiple theaters and multiple campaigns document a specific quality of British artillery that disrupted this system. Rounds arriving with less warning than they had been trained to expect.

Not no warning in any absolute sense. The physics of shell travel still gave some seconds, but less warning, and specifically less warning at first round than any previous experience had prepared them for. If the specific technical and doctrinal story of how Britain built an artillery system capable of this, and what the German testimony tells us about its effect, is why you’re here, the like and subscribe genuinely help this channel reach the right audience.

What the German accounts were describing had a specific cause. This video is the reconstruction of that cause. To understand why British artillery was feared for the speed of its effects, it is necessary to understand how conventional artillery fire control worked, and what the normal process gave the target.

Traditional artillery for most of the 19th and early 20th centuries worked through a process of registration. Before a battery could fire accurately at a target, it needed to know precisely where its shells were going. Atmospheric conditions, barrel wear, charge temperature, exact gun position, all of these varied in ways that affected the shell’s trajectory.

The standard method of addressing this uncertainty was to fire ranging rounds, deliberate shots to see where they landed with corrections applied until the fall of shot was sufficiently close to the target. This process was essential for accuracy. It was also from the target’s perspective a warning system.

A ranging round landing in your vicinity announced that an artillery battery had identified your position and was adjusting its fire onto you. An experienced soldier who heard a ranging round landing, even at some distance, knew that more rounds were coming, that the next ones might be closer, and that now was the time to move.

The time between the first ranging round and the accurate fire that followed could be minutes, in some cases more. The battery was adjusting. The target was getting warning. The outcome was an adversarial process in which both sides were doing their jobs. The gunners adjusting their fire, the infantry getting ready to move or dig in or find cover.

This process was not a flaw in the artillery system. It was an inherent feature of how artillery worked within the physics of long-range ballistic fire. The variables that affected a shell’s trajectory, atmospheric conditions, barrel wear, charge temperature, the specific geography between gun and target, could only be corrected by observing where the shot landed and adjusting from there.

Ranging was necessary, and ranging was, unavoidably, a warning. What varied between armies was not whether ranging was necessary in principle, but how it was addressed in practice, and whether any army could find a reliable way to calculate the required data so accurately that ranging rounds were unnecessary.

The specific innovation that made British artillery so feared was the elimination of this process, or rather, its replacement with a method that achieved first round accuracy without providing the warning that ranging rounds gave. What is remarkable about this achievement is how it was accomplished. Not through any single dramatic technological leap, but through the systematic accumulation of precision in every element of the artillery system simultaneously.

Survey, meteorology, communications, mathematics, each element improved enough produced the result. Understanding what improved enough meant in each of these elements is the forensic work this video is doing. The British solution to the ranging round problem was predicted shooting, the calculation of firing data that would achieve first round accuracy without any registration fire.

For a predicted shoot to work, the gun crew needed to know precisely where their gun was. Not approximately, precisely in the coordinate system that related their position to the target. They needed to know the condition of the barrel, how much it had worn, how that wear affected the shell’s velocity as it left the muzzle.

They needed to know the meteorological conditions, wind speed and direction at various heights, air temperature and density, the specific atmospheric profile through which the shell would travel. They needed to know the weight and condition of the propellant charges, and they needed to know all of these things accurately enough that the calculation made from them produced a shell landing within the target area on the first shot.

Each of these requirements sounds straightforward. Each of them, in practice, required specific investment and specific organizational capability. The gun’s position had to be determined by trained surveyors with precise instruments. The meteorological data had to be gathered and processed at regular intervals and distributed to gun positions.

The barrel condition had to be tracked and its effect on muzzle velocity recorded. The propellant charges had to be tested and their actual performance documented. What Britain invested in, particularly through the 1930s and the early years of the war, was the infrastructure for all of this simultaneously. Not as glamorous as new guns or new tanks, not as visible as more artillery regiments, but as consequential for what the artillery system could actually deliver on the battlefield.

The investment was also cumulative in a way that made it difficult to point to any single decision as the turning point. The survey capability improved year by year. The meteorological service became more sophisticated. The number 19 wireless set enabled communications that would have been impossible with earlier equipment.

The training system for forward observation officers became more systematic and more demanding. No single improvement transformed the system. The accumulation of improvements across all elements simultaneously produced the transformation. By 1942 and 43, the British artillery predicted shoot was sufficiently refined that first round accuracy, not always, not in all conditions, but regularly enough to be relied upon as the doctrinal approach, was achievable.

The German soldier in his slit trench who had been trained to listen for ranging rounds and use them as warning now faced an artillery system that was not sending ranging rounds. The first thing he heard from a British battery might be the burst of an accurate shell among his position. The survey requirement for predicted shooting, the need to know precisely where each gun was in a coordinate system that related it to the map and to potential targets, was the foundation on which everything else depended. Survey,

in military terms, meant the precise measurement of position using the same techniques as civilian land survey, triangulation, base measurement, angle measurement, and the careful accumulation of accurate positions that could then be communicated and used. The British Army had invested in survey capability in the Royal Artillery through the interwar years, and this investment paid operational dividends from very early in the war.

A battery that knew its precise position related to an accurate map and to a common coordinate system used by the whole of the artillery arm could share its firing data with other batteries. It could receive a target coordinate from a forward observer and calculate without ranging the elevation and bearing at which to lay its guns.

Its shells would arrive where calculated rather than where the ground had been marked by ranging rounds. The survey problem also extended to the target. A forward observer calling for fire on a target needed to be able to specify that target’s position precisely enough for the calculation to work. This required either direct observation from a position whose own coordinates were known or measurement from that position to the target.

The training of forward observation officers the officers who went forward with the infantry to call in artillery fire included the skills for this position determination under field conditions. The survey network itself required constant maintenance. As units moved, advancing, withdrawing, occupying new positions the survey data had to be extended into the new operational area.

This was the work of specialist survey sections that accompanied artillery headquarters, quietly extending the network of precisely known positions that underpinned the entire system. Their work was invisible in the conventional sense of military achievement. It was nonetheless what made predicted shooting possible in an area the British Army had not previously occupied.

The system was not perfect in any individual instance. Errors in the survey chain, imprecision in observer positioning, unexpected atmospheric conditions all of these could cause shells to land away from the calculated point. But by 1942 and 1943, the accumulated experience and the refined procedures produced a system whose predicted shooting was reliable enough to base doctrine on.

At the halfway mark of this investigation, a genuine question. If anyone watching has a family connection to Royal Artillery units from the Second World War, to forward observation officers, or to the survey and meteorological sections that made the predicted shoot system work, I genuinely like to hear about it in the comments.

The technical story is better documented than the human story behind it. The predicted shoot, however accurate the calculation, could only work if the information could be communicated quickly enough from the observer at the front to the gun line behind. In the First World War, this had been a persistent problem.

Telephone cables were cut by shell fire, runner communication was too slow, and the artillery’s ability to respond rapidly to the infantry’s needs had been seriously constrained. The introduction of reliable portable wireless sets, the number 19 wireless set became the standard for British armored and artillery communication from 1941, changed this fundamentally.

A forward observation officer at the forward edge of the battle with a wireless set in working order had a direct voice link to the battery behind him. He could observe, he could calculate his correction, and he could speak it to the guns within seconds of seeing the target. The speed of fire from the FOO’s call to rounds arriving fell dramatically with reliable wireless.

In practice, a call from a trained FOO to a battery that was ready to fire could result in rounds arriving in under 2 minutes, in some cases faster. The figure varied by circumstances, by the type of target being called for, and by the state of readiness of the battery, but the principle was consistent. British artillery could respond to a call for fire much faster than the German forces it was engaging had been trained to expect.

The FOO’s training was itself significant. These were not simply radio operators forwarding requests. They were qualified artillery officers trained in gunnery and survey who could observe a target, determine its precise grid reference, assess the fire needed, call for it, observe the fall of shot, and correct from the first round to achieve the desired effect.

Their professionalism was part of what made the system work. The speed of first round fire was one dimension of British artillery that German soldiers found alarming. The concentration of fire was another. British artillery command system used a set of designations for different levels of fire concentration that were remarkable in the speed with which they could be achieved.

A Mike target required the engagement of all guns in a battery, typically eight guns of the same caliber firing together on a single target. A Uncle target brought all batteries of a regiment, perhaps 24 guns. A Victor target brought all divisional artillery, potentially 100 or more guns, onto a single point simultaneously.

These targets could be ordered by an observer in the field who called not for a specific battery, but for a level of response. If the target warranted a Victor, the observer called Victor, and the divisional artillery staff coordinated the response. In a trained formation with all the technical prerequisites in place, the survey network, the meteorological data, the communications, a Victor target could be on the ground within a few minutes of being called.

For a German unit whose position had been identified by a British observer, this meant the possibility of a very large amount of fire arriving very quickly without warning from ranging rounds from multiple directions simultaneously. The suppression of a target by a Mike or Victor shoot was not what ranging-based fire could achieve.

It was categorically different in its effect because of the concentration and the speed. German after-action reports from multiple campaigns note specifically the speed at which British artillery concentrations arrived. Not just that they were heavy, the weight of British artillery fire was something German units expected by 1942, but that the time between the identification of a target and the arrival of rounds was shorter than German doctrine predicted it should be.

The specific German doctrinal expectation was based on their own artillery systems capabilities. A capable system with skilled artillerists, but one that had made somewhat different choices about the balance between accuracy, speed, and weight. The German system was capable of heavy fire and accurate fire, but the specific investment in the infrastructure for predicted shooting had been made differently.

The comparison that German artillerists made when they had opportunity to analyze what British batteries were doing was of a system that had prioritized the elimination of the ranging requirement with a consistency and a reliability they found impressive. The word stonk, a British slang term for a concentrated artillery bombardment applied at short notice, captures something specific about how British artillery was used that German testimony consistently reflects.

A stonk was not a prepared fire plan. Prepared fire plans existed and were used. The carefully coordinated artillery programs that supported major offensives with specific guns assigned to specific targets at specific times. A stonk was something different. A rapid concentrated response to a target of opportunity brought down quickly enough to catch the target before it could disperse or take effective cover.

The stonk was possible because the technical infrastructure, the survey, the meteorology, the communications, the trained FOOs, meant that a battery or a regiment could engage a new target with accurate fire very quickly. A German mortar team that set up in a field and began engaging British infantry would, if observed, receive a call for a stonk.

The stonk might be a battery shoot, might be a regimental shoot. The target would receive heavy fire accurately delivered within minutes of being observed. The word itself entered British military slang with a specificity that reflects its operational significance. To be stonked described a particular and unwelcome experience.

German reports from Normandy repeatedly described British infantry operations being closely supported by artillery that responded faster than German doctrine had accounted for. What those reports were describing was, in British parlance, getting stonked. The experience left a consistent impression in German accounts that is specific enough to constitute a doctrinal observation in its own right.

The German testimony about British artillery gathered from after-action reports, prisoner interrogations, post-war ETHINT interviews, and the memoirs of German commanders is extensive and consistent in its specific observations. The most frequently recurring element is the speed of the fire, not the weight.

By 1942 and 1943, German units expected heavy British artillery, but the rapidity of accurate fire arriving on a position that had just been identified. German accounts describe exposing a unit, having it observed, and then receiving accurate fire more quickly than the doctrine they had been trained on predicted was possible. The specific German term that appears in some accounts, translated variously as fire sorcery or instantaneous fire, reflected a genuine professional puzzlement about what the British were doing technically.

German artillerists who were captured and interrogated sometimes expressed specific curiosity about the survey and meteorological system they knew must underlie the accuracy they were observing. They had understood the principle of predicted shooting. They had not expected its execution to be this reliable. Rommel’s accounts from North Africa note British artillery as a specific and growing concern from the latter part of 1941 and through 42.

His staff’s analysis of British capabilities consistently identified artillery and specifically the speed and accuracy of British concentrations as the most dangerous British capability in open desert fighting. The Normandy campaign produced particularly rich German testimony about British artillery.

The post-war ETHINT interviews with German commanders repeatedly identified Allied artillery, specifically British fire control, as the dominant factor in the fighting. Several senior German commanders stated directly that the ability to move through the Normandy bridgehead against Allied forces was primarily a problem of surviving and suppressing artillery, and that British artillery was specifically harder to deal with than they had expected.

The two theaters where German testimony about British artillery is most extensively documented provide different dimensions of the same story. In North Africa, the progression from the early desert campaigns, where both sides’ artillery was relatively mobile, and the predicted shoot system was still being refined, through the Second Battle of El Alamein, shows a British artillery arm that was becoming steadily more effective.

The opening barrage at Alamein, over a thousand guns, coordinated precisely, delivered without registration, became one of the defining images of the war’s turning point. For the German and Italian units in those positions, the barrage was not simply overwhelming in weight. It arrived without the warning that traditional gunnery would have provided.

German accounts from Alamein describe the psychological shock of the barrage as well as its physical effect. This was not only because it was heavy, large artillery bombardments had been experienced on both sides before. It was because the combination of weight, accuracy, and the absence of preliminary ranging created something the German infantry had no efficient response to.

Move before the barrage? But there was no warning. Stay in position? The accuracy meant the positions were hit. The choice, forced by the technical superiority of the British fire control system, was between inadequate options. In Normandy, the terrain was different, the bocage, the hedgerows, the close country.

But the artillery problem for German units was similar in its essentials. British forward observers in the densely vegetated country developed specific techniques for calling fire, and the speed of British artillery response meant that any German unit that exposed itself to British observation quickly became a target.

German accounts from Normandy describe the difficulty of movement in daylight, not primarily because of Allied air power, though that was significant, but because any movement, observed or suspected, could bring accurate artillery fire within minutes. The specific combination of the bocage terrain and the British artillery system created conditions that German commanders found extremely difficult to manage.

The close country gave cover from observation, in theory. In practice, British observation extended into German positions through forward observers and aerial observation, but the cover the bocage provided was less complete than it appeared. A German column moving along a bocage track that was observed, even momentarily, would receive fire within minutes.

The track would be registered, any subsequent use of it would bring immediate response. The effect was to constrain German movement to an extent that German commanders found more limiting than they had anticipated when they saw the terrain. The human cost of what the German accounts describe is worth pausing on.

The technical system that produced the effect German soldiers found so alarming, the predicted shoot, the survey network, the trained FOOs, was expensive to create and sustain. But the cost of the system was in resources and training. The cost of the alternative, artillery that warned its targets, was measured in the lives of the infantry the artillery was supposed to be supporting.

The investment in the predictive system was, in the clearest possible way, an investment in protecting the infantry. The German testimony is the record of that protection working. The German testimony about British artillery giving almost no warning is not testimony about German weakness or incompetence. It is testimony about a specific British technical and doctrinal achievement that took years to develop, required systematic investment in unglamorous capabilities, survey equipment, meteorological stations, wireless sets, trained specialists, and

produced an artillery arm that was, by the middle years of the war, operating at a level of sophistication that its opponents found specifically difficult to deal with. The predicted shoot eliminated the ranging round and with it the warning that ranging rounds provided. This was not a single innovation, but the cumulative result of improvements across multiple elements of the system simultaneously.

No single element was sufficient alone. The survey without the meteorology was not enough. The meteorology without the communications was not enough. The communications without the trained FOOs was not enough. The system worked because all of these elements were developed together to a standard of reliability that made predicted first round accuracy routine rather than exceptional.

The specific fear that German accounts document, the speed of accurate British fire, the absence of warning, the rapidity with which a stonk could be brought down on a newly identified target, was the experience of encountering a system that had been built correctly. The Royal Artillery’s investment in the technical foundations of accurate predicted fire was what produced that system.

The German testimony is the measure of its effectiveness. The code word for this video is stonk. Leave it in the comments if you’ve watched to the end. It tells me who stays all the way through, and that information shapes what this channel makes next. Thank you for the time. Subscribing, if you haven’t, would mean a great deal.