rws_centerfireriflecartridges.pdf

RIFLE CARTRIDGES

Quality is decisive

Customized projectiles

Compromises are not allowed when it

the development of a product right to the

RWS is the world‘s

test barrels. The spe-

comes to the quality of ammunition. The

final visual inspection in Quality Assur-

only major producer

cialist weapon trade is

shooter‘s safety takes top priority in both

ance. All components, from the ignition

of rifle cartridges who

development and production. Although all

cap over the case and propellant right

offers bullets for hunting purposes of its own manufacture

regulations contained in the weapons code

to the projectile, pass through a perma-

exclusively. More than nine different hunting projectiles and

fications. The above are the most important ones of the many

are binding on every producer of ammuni-

nently monitored production process.

numerous other types for military, police, industrial and sports

process steps necessary to create the special RWS projectiles.

tion, certain quality differences are clearly

supplied with nothing but bullets, which have satisfied the strict RWS-internal speci-

Perfectly matched to each other, the

applications are available, which no doubt makes RWS the

We have been masters at these procedures for generations.

apparent in practice. This applies particularly to cheap

components are then assembled/filled and subjected to

supplier with the widest spectrum of projectiles altogether.

Nothing enjoys a higher priority with us than your success

brands, where it is only logical that some areas are sub-

a series of strictly specified quality inspection procedures.

Latest production methods guarantee highest dimensional

when you are out hunting.

ject to big savings. RWS, on the other hand, resolutely fol-

More than 100 production steps are required before a car-

accuracy and impeccable surface characteristics. The jacket is

lows the high-grade route here, from the original idea in

tridge is released for delivery.

What are the particular characteristics of rws projectiles?

drawn and cut to length several times, and one or two lead cores are pressed in, depending on the type of bullet. Grooves

• Outstanding precision

and other features are produced to suit the specific projectile.

• Optimally stretched trajectory

A last dimensional and visual inspection follows after the pro-

• Energy output in the body adapted to the weight of the

jectile is calibrated. Random samples are taken daily from

Cup

1st draw

2nd draw

Cutting

Prepressing Head pressing Necking and Turning of rim perforating and length

game

each production lot to check the precision. The projectiles are

• Readiness for deformation appropriate to the firing distance

loaded into to cartridges and thoroughly tested from different

• Short escape distances

It‘s the perfect mixture that makes the difference

How do we achieve the high quality level of our RWS cases?

• at 10% excess pressure in especially prepared test barrels

All assembly stages from

nied by electronic as well as

After the bands are punched this starts already with the dra-

with partly inadmissible head spaces of 0.2 mm and 0.4 mm.

the insertion of the ignition

visual inspections. Detailed

wing of the cups. RWS cases are drawn in three stages, anne-

These head spaces are to simulate worn weapons, which

cap over the lacquering of

aled after each draw, pickled, rinsed and subjected to further

exist on the market.

the ring gap, filling of the

measures increasing the quality. The effect is a specific course

• At 30% excess pressure in test barrels produced to CIP spe-

in the hardness of the brass case and an increased resistance

cifications.

to exceptional strains. After the first cutting operation the

Here we have developed a test programme, which extends far

cases are pressed, the mouth of the case is annealed once

beyond what is required by the law. Even competitors describe

testing of the chambering Anvil-type ignition

Nitrocellulose powder

Projectile

Case

ability (by gauge) and auto-

propellant, placing of the projectile right to the adjustment of

matic weighing of each cartridge prior to packing complete

the cartridge length and crimping of the bullet are accompa-

these inspections.

more; the case is pickled, rinsed and saponified. Next, the

this procedure as a merciless testing method, which reliably

case mouth and shoulder are necked, the ignition channel is

reveals possible existing nonconformities in the propellant case.

Gelatine is the ballistic target medium, which

draw exact conclusions on the energy output

perforated, the rim is turned and the case cut to length again.

Rifle cartridge cases must withstand most extreme gas pressu-

comes nearest to the density ratio of muscular

Annealing of the case mouth takes place once more before

res of up to 7,000 bar. It is not for nothing that experts refer

tissue. This makes the material perfectly suit-

the case undergoes a 100% dimensional and visual inspec-

to them as the shooter‘s life insurance. We have developed

able for developing and testing projectiles, so that scientists

of rays are evaluated. A curve results, from which the transfer

tion. Random samples are taken from each lot before produc-

this probably most demanding test of the industry to ensure

can optimally simulate the effect in the body of the animal.

of energy into the body can be deduced. On the next pages

tion progresses. These samples are assembled/filled to com-

that you are always on the safe side. A case, which passes our

The test firings provide information on the energy transfer

you will see the results of the different special RWS projec-

plete cartridges and subjected to extreme excess strains:

quality inspection, is of a special format, it is an RWS!

behaviour of a bullet. The course of the tear length permits to

tiles (.30 calibre) fired at blocks of gelatine.

2

in the body. After firing the block of gelatine is Firing onto the gelatine block

3

sliced and the tear lengths visible in the form

“Impressive performance, 91% to 97% resid-

Penetrates deeply

ual bullet weight, perfect for hunting at normal and long distances”

Evolution bullet

from „Patronen im Test“, Asmo Talvikunnas and Henrik Olbert, DWJ, 12/2005 Simulated wound channel in gelatine block

.30-06 EVO 11,9 g .308 Win. EVO 11,9 g • Impressive penetration – even with bone hits!

• Excellent precision

The advantage in effect of the Evolution bullet is very impressive with shots hitting bone, especially in heavier game: Upon contact with the game body, the deformation process is reliably initiated by the new Rapid-X-Tip®. The Evolution® bullet emits enough energy at the entry side to trigger the required shock effect. Classic softpoint bullets fragment when hitting stronger bones and therefore have less residual energy for penetration and exiting. The Evolution® bullet remains essentially mass stable. This ensures that the required pe­netration is achieved even after bone contact and provides a high chance of a clean exit (see graphic below).

The Evolution bullet is characterised by its good ballistic precision. This is a result of its many new features including the friction reducing nickel plating of the cartridge jacket and the ballistically optimised calotte of the bullet. The aerodynamic geometry of the Evolution® allows a longer trajectory and ensures higher shock energy even at longer distances.

®

• Venison preservation – almost 100% residual weight due to Power Bonding

With the Evolution bullet fragmentation is reduced to a minimum. By special bonding of the lead core with the Tombak jacket (Power Bonding), the Evolution® cartridge achieves a residual weight of nearly 100% and therefore ensures impressive venison preservation.

®

“A very precise projectile for all middle Euro-

THE SPECIAL QUALITIES AT A GLANCE: • Impressive penetration – even with bone hits!

• Wenison preservation – almost 100% residual weight due to power bonding • Excellent precision • Barrel protection

pean game with a special adequacy for game weighing from 50 kg upwards (dressed carcass).

Most probably also a perfect choice for driven hunts for wildboar and deer, with plenty of power for all sizes of game, delivering a suf-

• Flexible application options • The deformation process is quick and reliably initiated by the new Rapid-X-Tip®

ficient blood trail…

The precision produced from all guns in use (Merkel-Bergstutzen, Blaser R 93 Varmint,

• Barrel protection

Blaser BBF 95) is outstanding… Exit holes

Many hunting cartridges cause high transverse stress in the barrel due to their rigid jacket construction. This is not a problem with the new Evolution® bullet thanks to the design of the flexible calotte. The bullet’s smooth nickel cover reduces deposits in the barrel to a minimum.

were consistent, even with diagonal shots at game over 50 kg (dressed carcass) … The bigenough exit holes dependably yielded ample blood” Frank Heil, Journalist for leading hunting magazines

®

• Flexible application options

Due to its unique construction the Evolution® bullet delivers consistent deformation at all shooting distances and on all types of game. Its extraordinary penetration is extremely effective on larger and heavier game.

.30-06 EVO 11,9 g .300 Win. Mag. EVO 11,9 g Increasing jacket wall thickness

“Out of 5 roebucks shot at the heart 4 went straight down and just one buck ran about 20 m.

Exit holes showed a diameter of 2 to 3 times

Lead core with precise hardness

the caliber. Even with hits on bone no destructive performance was noticed.Two wild boars of

Bullet core bonded with jacket

Circular sharp edge

20 kg each were prompt kills without noticeably wasting venison.”

Björn Ebeling, Wild und Hund, No 23/2005

POWER BONDED Crimp groove

Nickel plated Tombak jacket

Bullet tail with ballistic calotte

EVOLUTION

Residual body of projectile

4

5

Handles anything

8 mm S HMK, 12.1 g “... The HMK behaves exactly in the way

Twin-core bullet (DK)

intended by its design, as a partially bursting Simulated wound channel in gelatine block

projectile. The tip bursts quickly by releasing frag-

Tombac jacket The twin-core projectile consists of two lead cores

THE SPECIAL QUALITIES AT A GLANCE:

of different hardness and a jacket of tombac. For

• Good and safe reaction of the game to the shot

the separation from the softer tip core, the harder

• Extremely short escape distances

tail core is provided with an additional tough

• The sharp rim resulting from the design guaran-

tombac jacket. The weight ratio of the cores is

tees the desired hair at the location of impact

50:50. A tail groove located in the rear section of

• Optimal energy transfer in the first half of the

the projectile reliably bonds the tail core to the outer jacket. A second groove in the front section forms the sharp rim (hair at location of impact)

cylinder. The bullet produces best references also Softer tip core

• Only minor devaluation

ing point for the front jacket of the bullet. This is an

of the venison

From “68 rifle projectiles and how they act in the animal‘s body”

Sharp rim and predetermined breaking point

• A reliable bullet exit hole guarantees sufficient

and is at the same time the predetermined break-

from big-game hunters.”

Inner jacket of tombac

body blood

ments, while the rest acts as a stable penetrating

Longer projectile cylinder

(Hunt & Nature, issue 5/1999)

Tail constriction

important aspect for the tearing-off of the otherwise hindering bullet flares. The design results in a

RWS twin-core (DK), 165 gr.

Harder tail core

straight shot channel, which causes the important bullet exit hole.

“In line with the underlying philosophy, the front part of the projectile bursts while releasing the

Residual body of projectile

appropriate fragments.The rear part remains intact as a penetrator. Good shooting reports on red deer

Acts quickly

are to hand.”

From “68 rifle projectiles and how they act in the

H-jacket bullet (H-Mantel)

animal‘s body” Simulated wound channel in gelatine block

(Hunt & Nature, issue 5/1999)

Hollow tip of copper Special about this bullet is its famous H-groove, a

THE SPECIAL QUALITIES AT A GLANCE:

predetermined breaking point in the shape of a

• Limited fragmentation due to the H-shaped con-

constriction in the middle of the jacket. It assists the separation of the two projectile cores and is, along with other factors, responsible for the bullet‘s dual

“...Approx. 75 % of the shot animals lay at

striction

the location of hit or within a minimal distance

• The tail part is slightly deformed upset in its diameter and thus provides an exit hole reliably

effective system: the front part bursts very quickly

• The venison is destroyed to a minor degree only

after the impact in the game, produces strong frag-

• Quick death of the animal from shock

Tip core

after a short death flight. Even at greater firing distances the projectile provided the desired effect

ments and transfers much energy. The cylindrical

H-shaped constriction with deformation and separation of the front part

tail part separates at the H-groove, penetrates the body even if bones of strong animals are hit, and

of the bullet. There was hardly any haematoma

provides the desired exit hole.

Tombac-plated steel jacket

formation.

Tail core The projectile‘s good precision is impressive. ..“ Norbert Klups, freelance journalist for Residual body of projectile

6

leading hunting magazines

7

Hits ideally

„... In summer I choose the ID Classic for roe-

ID Classic bullet

bucks and also for the foxes. Where we live we

Simulated wound channel in gelatine block The basic idea of the ID Classic is to ideally com-

THE SPECIAL QUALITIES AT A GLANCE:

bine the „width and depth effect“ in the target.

• The sharp rim punches a distinct, circular bullet

This was achieved by uniting two lead cores of dif-

entry hole and provides the desired hair at the

ferent hardness: the soft front part in the shape of

location of the impact

a plug reaches into the rear, hard and heavier part.

This “marriage of lead” is enclosed by a jacket

• The front core bursts and releases fragments to a • The harder rear core with its funnel-shaped recess

towards the rear. The torpedo tail with its bigger

mushrooms and as a rule provides the sought

base area (by one third) improves the external-

bullet exit hole

The rear core of the ID Classic projectile is more

my repeater I succeeded already several times in

Softer tip core

bagging more than one young wild boar from the Nickel-plated steel jacket

limited degree

of soft steel, which becomes gradually thicker

ballistic behaviour thanks to higher flight stability.

get an ever increasing number of sows and with

horde. At these game weights the ID Classic of Sharp rim calibre 7x64 bans the shot animal on the spot.

• The necked tail limits the tearing off of the jacket flares

laid out for readiness to mushroom and energy

• IDEAL for hunting light

transfer in the body of the animal, which makes

to medium-sized game

Harder tail core

There is always a bullet exit hole and if the young Tail constriction boar happens to go a few metres into any thicket I

the bullet particularly suitable for cloven-hoofed game of light to medium weight.

find sufficient blood even by the eye.“

Torpedo shaped tail Residual body of projectile

Hans Heinlein, hunter and farmer

Extra hard

„...I have been using the UNI Classic bullet in

UNI Classic bullet

calibre .30-06 Springfield in my 98 for years, Simulated wound channel in gelatine block with growing enthusiasm. What I particularly like

The UNI Classic bullet was developed as a comple-

THE SPECIAL QUALITIES AT A GLANCE:

tion to the ID-Classic - especially suitable for hunt-

• The sharp rim punches a distinct, circular bullet entry

ing medium to big game.

hole and provides the desired hair at the location of

The harder and heavier tail core of the UNI Clas-

the impact

sic reaches with its tip into the soft part at the front. As a result the projectile tends somewhat less to mushroom, while its penetration force is increased. The torpedo shaped tail with its

Softer tip core

about it is the very good effect on red deer and wild

Nickel-plated steel jacket

boars. This is especially evident also when leadSharp rim

• The front core bursts and releases fragments to a limited degree

ing guests to strong stags, in the repeat or finishing

• The harder rear core tends to retain its shape and reliably provides the desired bullet exit hole

bigger base area (by one third) improves the

• The venison is destroyed to a minor extent only

external-ballistic behaviour thanks to higher

• UNIVERSALLY applicable for hunting heavy game up

Harder and heavier tail core

Tail constriction shot. The shot game reacts clearly. The bullet exit

to dangerous game

flight stability.

hole provides ample blood at the location of the hit

and on the escape trail...“ Torpedo shaped tail Ulrich Maushake,

Residual body of projectile

8

Federal Forestry Office, Grafenwöhr

9

Mushrooming

Philosophy or science

Cone-point bullet KS THE SPECIAL QUALITIES AT A GLANCE: • Exceptionally high precision thanks to the long projectile guidance • Low fragmentation • The groove in the tail area of the bullet stops thedeformation and ensures a compact residual-size body with a high exit probability

Typical cone shape

Lead core

Tombac jacket Long projectile cylinder

Tail constriction

Which projectile is the best?

To hunters with hounds, in turn, the guaranteed bullet exit

To this seemingly simple question there is no universally valid

hole and the presence of evidence such as hair at the loca-

answer because the general conditions to be considered are

tion of impact are an absolute necessity. Many of these crite-

too divergent. Aspects from the type of game, distance, cali-

ria are difficult to harmonize and some are starkly contrasting.

bre, barrel length, altitude, etc. right to the personal prefer-

This means that one must come to a compromise with every

ences of the hunter need to be taken into account. While pre-

projectile. The question of the optimal bullet is a very subjec-

cision is of utmost importance to some, others are frequently

tive matter. This is why RWS offers a wide spectrum of projec-

hunting close to the border of their shoot and therefore rely

tiles, especially designed to meet the different priorities of the

on short escape distances of the animals. Yet others attach

users. The chart below is intended to assist you in the search

greatest importance to a minimal destruction of the venison.

for your ideal bullet for the case on hand.

Residual body of projectile

Simply good Soft-point bullet T-Mantel THE SPECIAL QUALITIES AT A GLANCE: • Rapid expansion even on small game • Very good price/performance ratio • Well suited for shooting at targets and for pratice.

Round or pointed tip of projectile

Lead core

Tombac-plated steel jacket

Residual body of projectile

10

Precision

Very good

Very good

Very good

Good

Good

Very good

Good

Escape distance

Short

Very short

Very short

Very short

Short

Short

Short

Penetration

Very high

High

Medium

High

High

High

Medium

Shock effect

High

Very high

Very high

Very high

High

High

High

Exit hole

Certain

As a rule

Certain

As a rule

Certain

As a rule

As a rule

Hair at location of impact

Yes

Yes

No

Yes

Yes

No

No

Destruction of venison

Very little

Little

Varying

Varying

Little

Little

Varying

11

Barrel length V2) mm BC- Value 1) E

Bullet Order No.:

Fundamentals of ballistics

xis

of

t

50m 100m

150m

200m 250m 300m

MRD 3)

50 m 100 m 150 m 200 m 250 m 300 m

Application range

.22 Hornet MJ 3,0 g

600

V[m/s]

740

642

552

472

403

351

316

⊕

100 m

+0,5

⊕

- 8,7

-28,5

-63,6

211 63 67

0,140

E[J]

821

618

457

334

244

185

150

MRD

134 m

+2,4

+3,7

-3,1

-21,0

-54,3

TMS 3,0 g

600

V[m/s]

740

650

566

490

423

369

330

⊕

100 m

+0,4

⊕

-8,2

-26,7

-59,1

211 63 75

0,152

E[J]

821

634

481

360

268

204

163

MRD

136 m

+2,3

+3,8

-2,5

-19,1

-49,7

-118,6

-107,5

-109,7

-98,4

VMS 3,0 g

600

V[m/s]

740

650

566

490

423

369

330

⊕

100 m

+0,4

⊕

-8,2

-26,7

-59,1

-109,7

211 63 83

0,152

E[J]

821

634

481

360

268

204

163

MRD

136 m

+2,3

+3,8

-2,5

-19,1

-49,7

-98,4

Target and Target

.222 Rem.

re

he

0m

bo

MRD (GEE)

a

TMS 3,24 g

600

V[m/s]

211 64 05

0,186

E[J]

MJ 3,4 g

600

V[m/s]

231 26 35

0,183

E[J]

970

882

800

722

649

580

516

⊕

100 m

-0,9

⊕

-2,9

-10,6

-24,2

1524

1260

1037

844

682

545

431

MRD

181 m

+1,1

+4,0

+ 3,1

-2,6

-14,1

-45,1

-33,0 -43,9



985

895

810

730

655

584

519

⊕

100 m

-1,0

⊕

-2,8

-10,2

-23,4

1649

1362

1115

906

729

580

458

MRD

183 m

1,0

4,0

3,2

-2,2

-13,5

-32,0

Target

and Target

.223 Rem.

Line of sight 5 cm

TMS 3,6 g

600

V[m/s]

211 64 72

0,207

E[J]

990

910

834

762

694

629

568

⊕

100 m

- 1,0

⊕

-2,5

-9,3

-21,2

-39,4

1764

1491

1252

1045

867

712

581

MRD

189 m

+1,0

+4,0

+3,5

-1,3

-11,2

-27,4



and Target

5,6 x 50 Magnum Trajectory curve

TMS 4,1 g

600

V[m/s]

211 64 99

0,240

E[J]

920

854

791

731

673

618

566

⊕

100 m

-0,8

⊕

-3,1

-10,8

-24,0

-43,7

1735

1495

1283

1095

929

783

657

MRD

180 m

+1,2

+4,0

+2,9

-2,8

-13,9

-31,6

 

5,6 x 50 R Magnum TMS 3,24 g

600

V[m/s]

1070

975

887

804

726

653

583

⊕

100 m

-1,2

⊕

-1,9

-7,7

-18,1

-34,3

211 68 47

0,186

E[J]

1855

1540

1275

1047

854

691

551

MRD

201 m

+0,8

+4,0

+4,0

+0,3

-8,1

-22,4

 

TMS 3,6 g

600

V[m/s]

1000

919

843

770

702

637

575

⊕

100 m

-1,0

⊕

-2,4

-9,0

-20,6

-38,3

211 64 48

0,207

E[J]

1800

1520

1279

1067

887

730

595

MRD

191 m

+1,0

+4,0

+3,6

-1,0

-10,6

-26,3

 

TMS 4,1 g

600

V[m/s]

211 65 02

0,240

E[J]

TMS 4,6 g

600

V[m/s]

870

808

211 68 63

0,248

E[J]

1741

1502

KS 4,8 g

600

V[m/s]

1040

973

909

849

791

211 67 15

0,260

E[J]

2596

2272

1983

1730

1502

KS 6,2 g

600

V[m/s]

211 68 12

0,294

E[J]

900

835

773

713

656

602

551

⊕

100 m

-0,7

⊕

-3,4

-11,6

-25,6

-46,4

1661

1429

1225

1042

882

743

622

MRD

175 m

+1,3

+4,0

+2,6

-3,7

-15,6

-34,4

 

749

693

639

587

538

⊕

100 m

-0,6

⊕

-3,8

-12,7

-27,6

-49,7

1290

1105

939

793

666

MRD

170 m

+1,4

+4,0

+2,2

-4,7

-17,6

-37,7

 

735

681

⊕

100 m

-1,2

⊕

- 1,8

-7,0

-16,1

-29,7

1297

1113

MRD 206 m

+0,7

+3,8

+4,0

+0,7

-6,5

-18,2

5,6 x 52 R DETERMINING THE BALLISTIC DATA

bres it is generally 600 mm. The velocity (V) is quoted in m/s

The ballistic data quoted for RWS rifle cartridges do not rep-

(metres per second), and this at distances of 0, 50, 100, 150,

resent absolute values. They are average data gathered from

200, 250 and 300 m. With standard cartridges the velocity

numerous measurements with weapons of different makes.

decreases or increases by 10 - 15 m/s if the weapon‘s barrel

Unavoidable dimensional tolerances in weapon and cartridge

length is 50 mm shorter or longer, respectively, than the

manufacture can influence the data to a minor and different

stated length. In the case of high-performance cartridges this

barrel length to a greater extent. These firing results from all

value can fluctuate by up to 20 m/s. The telescopic sight is in

cartridges have been collected under identical test conditions

principle mounted in such a way that the distance between

TMS 6,5 g

600

V[m/s]

in the ballistic laboratories and evaluated by means of the

the line of sight and the axis of the bore is 5 cm. The positive

211 68 71

0,371

E[J]

5,6 x 57



.243 Win.

latest software. The figures stated in the ballistic data are gen-

values mean high shot, the negative ones low shot. To deter-

6,5 x 54 Mannl. Sch.

erally applying to a horizontal shot fired at 0 m altitude, i.e. at

mine the position of the point of impact it is recommended

TMR 10,3 g

450

V [m/s]

sea level.

to fire at least three shots.

211 70 37

0,315

E [J]

955

899

846

795

745

697

651

⊕

100 m

-1,0

⊕

-2,5

-8,8

-19,6

-35,4

2827

2505

2219

1959

1721

1506

1314

MRD

191 m

+1,0

+3,9

+3,4

-1,0

-9,9

-23,8

 

730

692

⊕

100 m

-1,0

⊕

-2,5

-8,7

-19,0

-34,0

MRD

193 m

+1,0

+3,9

+3,4

-0,8

-9,3

-22,3

 

 

935

891

849

808

768

2841

2580

2343

2122

1917

670

628

587

548

512

2312

2031

1775

1547

1350

1732 1556

⊕

100 m

0,6

⊕

-7,8

-23,7

-49,0

-85,2

1172 1024

MRD

140 m

2,6

4,0

-1,7

-15,7

-39,0

-73,2

⊕

100 m

-0,8

⊕

-3,1

-10,4

-22,5

-39,8

MRD

182 m

+1,2

+4,0

+2,9

-2,4

-12,5

-27,8

 

⊕

100 m

-0,7

⊕

-3,5

-11,6

-25,1

MRD

175 m

+1,3

+4,0

+2,6

-3,6

-15,0

-44,7

-32,6



⊕

100 m

-1,1

⊕

-2,1

-7,8

-17,8

-32,7

MRD 200 m

+0,8

+3,9

+3,8

0

- 8,0

-21,0

  

-35,7

-23,8









477

446

6,5 x 55 STRUCTURE AND INTERPRETATION OF THE CHARTS FROM

THE MOST RECOMMENDED DISTANCE (MRD)

KS 8,2 g

650

V[m/s]

885

842

800

759

720

682

645

PAGE 20

The MRD is the point at which the projectile‘s trajectory inter-

211 70 02

0,361

E[J]

3211

2907

2624

2362

2125

1907

1706

The ballistic coefficient (BC) describes the projectile-related

sects the line of sight the second time. Hereby the projectile

DK 9,1 g

740

V[m/s]

635

593

influences on the delay of the projectile caused by the air

is not allowed to depart from the line of sight by more than 4

211 69 95

0,305

E[J]

resistance, i.e. it is a measure for the bullet‘s ability to over-

cm. In the depicted example this means that the aiming point

come the air resistance. This delay depends on the projec-

does not have to be altered in case of a distance of up to

TMS 6,0 g

600

V[m/s]

1010

943

880

819

761

211 70 61

0,255

E[J]

3060

2668

2323

2012

1737

870

820

771

724

679

3444

3059

2705

2385

2098

tile‘s shape, mass and velocity, and also on the air density.

209 m. It allows the hunter to concentrate on the game and

KS 7,0 g

600

V[m/s]

945

892

841

792

745

sighting-in is possible at 100 m all the same. In the case of a

211 70 10

0,308

E[J]

3126

2785

2475

2195

1943

weight. The energy values are stated in Joule (J), and this for

7 x 64 at this distance, for example, the weapon would need

KS 8,2 g

600

V[m/s]

the distances from 0 to 300 m.

to have a high shot of 4 cm to guarantee a spot shot (MRD).

211 70 96

0,361

E[J]

DK 9,1 g

600

V[m/s]

231 43 52

0,305

E[J]

TRAJECTORY CURVE

tance between centre of telescopic sight and barrel axis) is

Next to the information on the cartridge, the barrel length

assumed to be 5 cm. If the actual sight height deviates from

Animal pictogram:

is stated. In the case of high-performance cartridges such as

this value, the MRD will alter as well. In this case the gun-

Scoring:

the 7 x 64, this is 650 mm. For the other rifle cartridge cali-

smith should sight-in anew.

1)

Capercaillie



827

786

746

707

2804

2533

2282

2049

653

⊕

100 m

-1,0

⊕

-2,5

-9,0

-19,8

1715 1506

MRD

191 m

+1,0

+4,0

+3,4

-1,0

-9,9

669

⊕

100 m

-0,7

⊕

-3,3

-11,0

-23,5

MRD

179 m

+1,3

+4,0

+2,8

-2,9

-13,5

-41,6

-29,5

⊕

100 m

-0,4

⊕

-4,4

-14,3

-30,5

-53,8

MRD

164 m

+1,6

+4,0

+1,6

-6,3

-20,4

700

656 632

1835 1638

810

762

715

670

627

585

545

2985

2642

2326

2042

1789

1557

1351

Fox

Roe deer

Wild boars

Red deer

Moose

Suitable  Conditionally suitable

Highly suitable

BC = Ballistic Coefficient –

870 3103

706

1495 1279

2)

V = Velocity, E = Energy –

3)

MRD = Most Recommended Distance

The stated application ranges are a recommendation without commitment or intention to substitute personal experience.

12



6,5 x 57

The energy is calculated from the velocity and the projectile‘s

In the calculations of the ballistic charts the sight height (dis-

1835 1600

13

Buffalo

-41,8

Bullet Order No.:

Barrel length V2) mm BC- Value 1) E

0m

50m 100m

150m

200m 250m 300m

MRD 3)

50 m 100 m 150 m 200 m 250 m 300 m

Application range

6,5 x 57 R 600

V[m/s]

211 71 34

0,255

E[J]

KS 7,0 g

600

V[m/s]

211 70 29

0,308

E[J]

KS 8,2 g

600

V[m/s]

211 71 50

0,361

E[J]

DK 9,1 g

600

V[m/s]

211 71 18

0,305

E[J]

985

920

857

798

741

2911

2539

2203

1910

1647

870

820

772

725

680

2649

2353

2086

1840

1618

⊕

100 m

-1,0

⊕

-2,3

-8,5

-19,1

-35,0

1412 1206

MRD

194 m

+0,9

+3,9

+3,6

-0,6

-9,3

-23,2

637

⊕

100 m

-0,7

⊕

-3,4

-11,6

-25,0

-44,5

MRD

176 m

+1,3

+4,0

+2,6

-3,5

-14,9

-32,4

⊕

100 m

-0,5

⊕

-3,8

-12,4

-26,4

-46,4

MRD

172 m

+1,5

+4,0

+2,3

-4,3

-16,3

-34,3

686

634 595

1420 1239

835

793

753

714

676

639

603

2859

2578

2325

2090

1874

1674

1491

775

728

682

639

596

556

518

⊕

100 m

-0,2

⊕

-5,1

-16,2

-34,3

-60,3

2733

2411

2116

1858

1616

1407

1221

MRD

157 m

+1,8

+4,0

+0,9

-8,2

-24,2

-48,2

930

885

842

800

760

720

682

⊕

100 m

-0,9

⊕

-2,5

-8,9

-19,5

-34,9

2125 1907

MRD

190 m

+1,0

+3,9

+3,3

-1,2

-9,9

-23,3

669

⊕

100 m

-0,7

⊕

-3,3

-11,0

-23,5

-41,6

MRD

180 m

+1,3

+4,0

+2,8

-2,9

-13,5

-29,5

  













6,5 x 65 RWS 650

V[m/s]

211 69 79

0,361

E[J]

3546

3211

2907

2624

2368

  

 

6,5 x 65 R RWS 650

V[/s]

870

827

786

746

707

211 69 87

0,361

E[J]

3103

2804

2533

2282

2049

632

1835 1638

6,5 x 68 TMS 6,0 g

650

V[m/s]

1150

1076

1005

939

876

815

758

211 71 85

0,255

E[J]

3968

3473

3030

2645

2302

1993

1724

KS 8,2 g

650

V[m/s]

746

707

211 72 15

0,361

E[J]

TMS 9,4 g

650

V[m/s]

211 86 29

0,346

E[J]

EVO 10,3 g

650

V[m/s]

231 65 30

0,399

E[J]

KS 10,5 g

650

V[m/s]

211 85 05

0,381

E[J]

ID Classic 11,5 g

650

V[m/s]

211 84 91

0,356

E[J]

ID Classic 10,5 g

650

V[m/s]

211 74 01

0,325

E[J]

650

V[m/s]

960

914

870

827

786

3779

3425

3103

2804

2533

965

914

865

818

772

728

686

3911

3509

3143

2810

2503

2226

1977

955

895

837

782

729

678

630

3831

3364

2942

2568

2232

895

849

805

763

721

3885

3496

3143

2824

2521

2282 2049

211 84 40

0,325

E[J]

HMK 8,4 g

650

V[m/s]

211 72 90

0,272

E[J]

KS 9,7 g

650

V[m/s]

211 72 82

0,345

E[J]

1931 1667 681

643

2249 2005

600

V[m/s]

231 57 50

0,345

E[J]

955

907

861

817

774

4423

3990

3595

3237

2906

732

692

2599 2322

KS 8,0 g

600

V[m/s]

0,290

E[J]

ID Classic 10,5 g

600

V[m/s]

211 85 13

0,325

E[J]

HMK 11,2 g

600

V[m/s]

211 73 20

0,383

E[J]

900

846

794

744

695

3240

2863

2522

2214

1932

800

755

711

669

629

3360

2993

2654

2350

2077

649

604

1685 1459 589

551

1821 1594

770

732

696

661

626

593

561

3320

3001

2713

2447

2195

1969

1762

600

V[m/s]

211 74 44

0,290

E[J]

890

836

785

735

687

641

596

3168

2796

2465

2161

1888

1644

1421

522

479

TMR 9,0 g

600

V[m/s]

211 74 87

0,255

E[J]

DK 10,0 g

600

V[m/s]

790

747

705

665

626

212 33 71

0,338

E[J]

3121

2790

2485

2211

1959

KS 10,5 g

600

V[m/s]

211 85 48

0,381

E[J]

ID Classic 10,5 g

600

V[m/s]

211 85 64

0,325

E[J]

HMK 11,2 g

600

V[m/s]

211 74 36

0,383

E[J]

ID Classic 11,5 g

600

V[m/s]

211 85 72

0,356

E[J]

Capercaillie

Highly suitable

BC = Ballistic Coefficient –

2)

780

724

670

618

569

2738

2359

2020

1719

1457

780

742

705

669

635

3194

2890

2609

2350

2117

780

736

693

651

611

3194

2844

2521

2225

1960

750

713

677

642

609

3150

2847

2567

2308

2077

1226 1032 588

552

1729 1524 601

568

1896 1694

E[J]

KS 10,5 g

650

V[m/s]

211 84 75

0,381

E[J]

+0,2

+3,3

+4,0

+1,9

-3,5

-12,5

⊕

100 m

-1,0

⊕

-2,2

-8,0

-17,8

-32,0

MRD

197 m

+0,9

+3,9

+3,6

-0,3

-8,1

-20,4

   

ID Classic 10,5 g

650

V[m/s]

⊕

100 m

-1,0

⊕

-2,3

-8,2

-18,2

-32,9

211 85 80

0,325

E[J]

HMK 11,2 g

650

V[m/s]

0,383

E[J]

 

MRD

196 m

+0,9

+3,9

+3,6

-0,4

-8,5

-21,2

   

⊕

100 m

-1,0

⊕

-2,5

-9,1

-20,3

-36,9

MRD

190 m

+1,0

+4,0

+3,4

-1,2

-10,4

-25,0

   

211 75 17 TMR 11,2 g

650

V[m/s]

⊕

100 m

-0,8

⊕

-3,0

-10,2

-22,1

-39,4

211 75 41

0,301

E[J]

MRD

183 m

+1,2

+4,0

+3,0

-2,2

-12,2

-27,4

ID Classic 11,5 g

650

V[m/s]

211 85 99

0,356

E[J]

⊕

100 m

-1,0

⊕

-2,3

-8,3

-18,4

-33,0

MRD

195 m

+0,9

+3,9

+3,5

-0,5

-8,7

-21,4

⊕

100 m

-0,8

⊕

-3,1

-10,7

-23,3

-41,8

MRD

181 m

+1,2

+4,0

+2,9

-2,6

-13,3

-29,7

⊕

100 m

-0,3

⊕

-4,5

-14,5

-30,7

-54,1

MRD

163 m

+1,7

+4,0

+1,5

-6,5

-20,7

-42,0

⊕

100 m

-0,2

⊕

-4,9

-15,3

-32,1

-55,8

MRD

159 m

+1,8

+4,0

+1,1

-7,4

-22,2

-43,9

⊕

100 m

-0,7

⊕

-3,2

-11,0

-24,1

-43,1

MRD

179 m

+1,3

+4,0

+2,8

-3,0

-14,0

-30,9

⊕

100 m

-0,2

⊕

-5,3

-17,1

-36,5

-65,0

MRD

154 m

+1,9

+4,0

+0,7

-9,1

-26,5

-53,0

⊕

100 m

-0,3

⊕

- 4,6

-14,8

-31,3

-54,9

MRD

161 m

+1,7

+4,0

+1,4

-6,8

-21,3

-42,9

⊕

100 m

-0,3

⊕

-4,7

-14,8

-31,1

-54,1

MRD

161 m

+1,7

+4,0

+1,3

-6,9

-21,2

-42,3

-0,2

⊕

-4,9

-15,6

-32,9

-57,7

159 m

+1,8

+4,0

+1,2

-7,5

-22,8

-45,6

576

⊕

100 m

-0,1

⊕

-5,3

-16,5

-34,4

-59,6

MRD

156 m

+1,9

+4,0

+0,8

-8,5

-24,3

-47,5

710

672

635

598

563

530

⊕

100 m

-0,1

⊕

- 5,4

-16,8

-35,2

-61,3

2899

2597

2319

2056

1823

1615

MRD

155 m

+2,0

+4,0

+0,7

- 8,8

-25,1

-49,2

Wild boars

V[m/s]

0,399

221 m

750

Roe deer

650

231 54 31

MRD

3234

Fox

EVO 10,3 g

-22,5

100 m

544

E[J]

-11,8

MRD

1858 1657

V[m/s]

0,338

-4,8

⊕

536

650

211 85 56

-1,0

1718 1508

572

DK 10,0 g ⊕

   

   

 

    

7 x 57 R KS 8,0 g

V[m/s] E[J]

-1,4

7 x 57 211 73 39

650 0,290

100 m

.270 WSM KS 9,7 g

KS 8,0 g 211 75 68

⊕

.270 Win.

1)

150m

200m 250m 300m

MRD 3)

50 m 100 m 150 m 200 m 250 m 300 m

Application range

970

922

876

831

788

4422

3995

3607

3246

2918

895

855

817

780

743

4125

3765

3438

3133

2843

930

888

847

807

768

4541

4140

3766

3419

3097

890

846

803

762

722

4555

4115

3708

3339

2997

746

705

2616 2336 708

674

2582 2340 730

694

2798 2529 683

646

2682 2400

⊕

100 m

-1,1

⊕

-2,1

-7,8

-17,5

-31,6

MRD

199 m

+0,9

+3,9

+3,7

-0,1

-7,8

-19,9

⊕

100 m

-0,8

⊕

-2,9

-9,7

-21,1

-37,3

GEE

185 m

+1,1

+3,9

+3,0

-1,9

-11,3

-25,6

⊕

100 m

-0,9

⊕

-2,5

-8,7

-19,1

-34,2

MRD

191 m

+1,0

+3,9

+3,3

-1,0

-9,5

-22,6

⊕

100 m

-0,8

⊕

-3,0

-10,3

-22,2

-39,5

MRD

183 m

+1,2

+4,0

+3,0

-2,2

-12,2

-27,4

⊕

100 m

-0,6

⊕

-3,7

-12,2

-26,1

-46,3

MRD

173 m

+1,4

+4,0

+2,4

-4,1

-16,0

-34,2

⊕

100 m

-1,0

⊕

-2,3

-8,4

-18,8

-34,2

MRD

196 m

+1,0

+4,0

+3,7

-0,4

-8,8

-22,1

⊕

100 m

- 0,8

⊕

-3,1

-10,6

-23,0

-40,9

MRD

181 m

+1,3

+4,0

+2,9

-2,6

-13,0

-28,8

   

⊕

100 m

-0,8

⊕

-3,0

-10,3

-22,1

-39,0



MRD

182 m

+1,2

+4,0

+2,9

-2,4

-12,2

-27,2

⊕

100 m

-0,8

⊕

-3,1

-10,4

-22,4

-39,6

182 m

+1,2

+4,0

+2,9

-2,4

-12,4

-27,7

  

MRD ⊕

100 m

-0,7

⊕

-3,2

-11,0

-23,7

-42,2

MRD

179 m

+1,3

+4,0

+ 2,8

-2,9

-13,7

-30,2



  









850

803

758

714

672

3793

3385

3016

2676

2371

631

592

2090 1840



 



7 x 64

KS 8,2 g

Animal pictogram:

50m 100m

.280 Rem.

KS 8,2 g

Scoring:

0m

7 mm Rem. Magnum

TMS 6,0 g

TMS 8,4 g

Barrel length V2) mm BC- Value 1) E

Bullet Order No.:

Red deer

Moose

Buffalo

     

  

 

  

  

  

KS 8,0 g

600

V[m/s]

211 76 30

0,290

E[J]

DK 10,0 g

600

V[m/s]

212 33 63

0,338

E[J]

EVO 10,3 g

650

V[m/s]

231 54 32

0,399

E[J]

KS 10,5 g

600

V[m/s]

211 84 83

0,381

E[J]

ID Classic 10,5 g

600

V[m/s]

211 86 02

0,325

E[J]

HMK 11,2 g

600

V[m/s]

211 75 92

0,383

E[J]

TMR 11,2 g

600

V[m/s]

211 76 22

0,301

E[J]

ID Classic 11,5 g

600

V[m/s]

211 86 10

0,356

E[J]

Animal pictogram: Scoring:

V = Velocity, E = Energy –

1)

MRD = Most Recommended Distance

The stated application ranges are a recommendation without commitment or intention to substitute personal experience.

14

913

858

806

755

706

659

3334

2945

2599

2280

1994

1737

669

630

885

839

794

751

709

3916

3520

3152

2820

2513

880

841

803

766

730

3988

3642

3321

3022

2744

880

839

800

761

724

4066

3696

3360

3040

2752

880

832

786

742

698

4066

3634

3243

2890

2558

850

810

772

734

698

4046

3674

3338

3017

2728

800

751

705

659

616

3584

3158

2783

2432

2125

2238 1985 695

661

2488 2250 687

652

2478 2232 657

616

2266 1992 662

628

2454 2209 574

534

1845 1597

850

807

766

726

687

649

612

4154

3745

3374

3031

2714

2422

2154

674

628

⊕

100 m

-0,6

⊕

-3,5

-11,5

-24,6

-43,3

MRD

176 m

+1,4

+4,0

+2,6

-3,5

-14,5

-31,2

⊕

100 m

-0,3

⊕

-4,6

-14,9

-31,7

-55,9

MRD

161 m

+1,7

+4,0

+1,4

-6,9

-21,7

-43,9

⊕

100 m

-0,6

⊕

-3,6

-11,8

-25,2

-44,5

MRD

175 m

+1,4

+4,0

+2,5

-3,7

-15,1

-32,4

  



   

   

 

     



   

7 x 65 R

Suitable  Conditionally suitable 3)

970 3764

Capercaillie



875

821

770

721

3063

2696

2372

2079

865

820

776

733

692

3741

3362

3011

2686

2394

⊕

100 m

-0,9

⊕

-2,8

-9,6

-21,3

-38,3

1817 1578

MRD

186 m

+1,1

+4,0

+3,2

-1,7

-11,4

-26,5

652

⊕

100 m

-0,7

⊕

-3,4

-11,4

-24,5

-43,4

2126 1879

MRD

177 m

+1,3

+4,0

+2,6

-3,3

-14,4

-31,3

⊕

100 m

-0,7

⊕

-3,2

-10,8

-23,2

-40,8

MRD

180 m

+1,3

+4,0

+2,8

-2,8

-13,2

-28,8

613

865

826

789

752

717

682

649

3853

3514

3206

2912

2648

2395

2169

860

820

781

743

706

670

635

⊕

100 m

-0,7

⊕

-3,4

-11,2

-23,9

-42,1

3883

3530

3202

2898

2617

2357

2117

MRD

178 m

+1,3

+4,0

+2,7

-3,1

-13,8

-30,0

⊕

100 m

-0,7

⊕

-3,4

-11,3

-24,5

-43,5

MRD

177 m

+1,3

+4,0

+2,7

-3,3

-14,4

-31,3

⊕

100 m

-0,5

⊕

-3,8

-12,4

-26,3

-46,1

MRD

172 m

+1,5

+4,0

+2,3

-4,3

-16,2

-34,0

⊕

100 m

-0,1

⊕

-5,2

-16,6

-35,0

-61,6

MRD

156 m

+1,9

+4,0

+0,8

-8,5

-24,9

-49,5

⊕

100 m

-0,5

⊕

-4,0

-13,1

-27,8

-48,9

MRD

168 m

+1,5

+4,0

+2,0

-5,1

-17,9

-36,9

870

823

777

733

690

648

608

3974

3556

3170

2821

2500

2204

1941

645

611

830

791

753

716

680

3858

3504

3175

2871

2589

770

722

677

633

590

3320

2919

2567

2244

1949

2330 2091 549

511

1688 1462

820

778

738

698

660

623

587

3866

3480

3132

2801

2505

2232

1981

Fox

Roe deer

Wild boars

Red deer

Moose

Suitable  Conditionally suitable

Highly suitable

BC = Ballistic Coefficient –

930 3460

2)

V = Velocity, E = Energy –

3)

MRD = Most Recommended Distance

The stated application ranges are a recommendation without commitment or intention to substitute personal experience.

15

Buffalo

  

   



     

   

     

   

    

Barrel length V2) mm BC- Value 1) E

Bullet Order No.:

0m

50m 100m

150m

200m 250m 300m

MRD 3)

50 m 100 m 150 m 200 m 250 m 300 m

FS 8,4 g

650

V[m/s]

231 37 11

0,238

E (J)

KS 9,7 g

600

V[m/s]

211 77 03

0,298

E[J]

ID Classic 9,7 g

600

V[m/s]

211 77 11

0,303

E[J]

DK 10,7 g

600

V[m/s]

211 79 08

0,293

E[J]

KS 10,7 g

600

V[m/s]

211 77 89

0,329

E[J]

MS 10,9 g

650

V[m/s]

211 84 24

0,480

E[J]

HMK 11,7 g

600

V[m/s]

211 76 65

0,356

E[J]

UNI Classic 11,7 g

600

V[m/s]

211 91 96

0,350

E[J]

EVO 11,9 g

600

V[m/s]

231 54 34

0,366

E[J]

MS 12,3 g

.308 Win. EVO 11,9 g 231 72 10

650

V[m/s]

0,550

E[J]

895

827

763

703

647

3364

2873

2445

2076

1758

V[m/s]

0,366

E[J]

600

V[m/s]

545

⊕

100 m

-0,7

⊕

-3,5

-12

-26,4

-47,7

MRD

175 m

1,3

4

2,5

-3,9

-16,3

-35,6

870

818

769

721

675

630

587

⊕

100 m

-0,7

⊕

-3,5

-11,7

-25,3

-45,2

3671

3245

2868

2521

2210

1925

1671

MRD

175 m

+1,4

+4,0

+2,6

-3,6

-15,2

-33,0

634

591

⊕

100 m

-0,7

⊕

-3,5

-11,7

-25,2

-44,8

MRD

176 m

+1,4

+4,0

+ 2,6

-3,6

-15,1

-32,7

870

819

770

723

678

3671

3253

2876

2535

2229

1949 1694

820

769

721

674

628

585

543

3597

3164

2781

2430

2110

1831

1577

820

775

731

689

648

609

570

3597

3213

2859

2540

2246

1984

1738

800

769

739

710

681

653

626

3488

3223

2976

2747

2527

2324

2136

780

739

700

662

625

589

555

3559

3195

2867

2564

2285

780

739

699

660

622

586

551

3559

3195

2858

2548

2263

2009

1776

775

736

697

660

625

3574

3223

2891

2592

2324

750

724

699

674

650

3459

3224

3005

2794

2598

Silver Selection 600

594

1482 1248

2029 1802

590

557

2071 1846 626

603

2410 2236

⊕

100 m

-0,4

⊕

-4,3

-14,0

-30,0

-53,2

MRD

165 m

+1,6

+4,0

+1,8

-5,9

-19,9

-41,0

⊕

100 m

-0,5

⊕

-4,1

-13,6

-28,6

-50,4

MRD

167 m

+1,6

+4,0

+1,9

-5,4

-18,5

-38,3

⊕

100 m

-0,4

⊕

-4,1

-13,0

-27,2

-47,2

MRD

169 m

+1,6

+4,0

+2,0

-4,9

-17,1

-35,1

⊕

100 m

-0,3

⊕

-4,8

-15,1

-31,8

-55,5

MRD

160 m

+1,7

+4,0

+1,2

-7,2

-21,8

-43,6

⊕

100 m

-0,3

⊕

-4,8

-15,2

-32,0

-55,9

MRD

160 m

+1,8

+4,0

+1,3

-7,1

-21,9

-43,8

⊕⊕

100 m

-0,2

⊕⊕

-4,8

-15,3

-32,0

-55,9

MRD

159 m

+1,8

+4,0

+1,1

-7,4

-22,1

-43,9

⊕

100 m

-0,2

⊕

-4,9

-15,1

-31,2

-53,5

MRD

159 m

+1,8

+4,0

+1,1

-7,1

-21,2

-41,6

dependent upon weight

  

  

KS 9,7 g 211 77 70

0,298

E[J]

ID Classic 9,7 g

600

V[m/s]

211 77 97

0,303

E[J]

KS 10,7 g

600

V[m/s]

211 78 00

0,329

E[J]

DK 10,7 g

600

V[m/s]

211 78 51

0,293

E[J]

HMK 11,7 g

600

V[m/s]

211 77 38

0,356

E[J]

UNI Classic 11,7 g

600

V[m/s]

211 92 18

0,350

E[J]

EVO 11,9 g

600

V[m/s]

231 54 35

0,366

E[J]

KS 13,0 g

600

V[m/s]

211 78 19

0,356

E[J]

UNI Classic 13,0 g

600

V[m/s]

231 47 03

0,380

E[J]

EVO 11,9 g 231 72 11

50m 100m

150m

200m 250m 300m

MRD 3)

50 m 100 m 150 m 200 m 250 m 300 m

Application range

   

   

-54,1

2128 1899

MRD

161 m

+1,7

+4,0

+1,3

-6,8

-21,1

-42,2

663

⊕

100 m

-0,8

⊕

-3,0

-10,2

-22,3

-40,1

MRD

183 m

+1,2

+4,0

+3,0

-2,3

-12,4

-28,2

⊕

100 m

-0,8

⊕

-2,9

-10,1

-22,2

-39,8

MRD

184 m

+1,2

+4,0

+3,1

-2,1

-12,2

-27,8

   

⊕

100 m

-0,7

⊕

-3,4

-11,3

-24,4

-43,2

MRD

177 m

+1,3

+4,0

+2,7

-3,2

-14,3

-31,1

⊕

100 m

-0,7

⊕

-3,5

-11,8

-25,6

-45,6

MRD

175 m

+1,4

+4,0

+2,5

-3,7

-15,4

-33,5

3667

3302

2974

2663

2384

910

857

806

757

709

4016

3562

3151

2779

2438

910

858

807

759

712

4016

3570

3159

2794

2459

870

823

778

734

692

4049

3624

3238

2882

2562

870

818

767

718

671

626

583

4049

3580

3147

2758

2409

2097

1818



V[m/s]

0,366

E[J]

2132 1858 667

623

2158 1882 651

611

2267 1997

840

798

757

717

678

640

604

⊕

100 m

-0,6

⊕

-3,7

-12,2

-26,1

-45,9

4128

3725

3352

3007

2689

2396

2134

MRD

172 m

+1,4

+4,0

+2,3

-4,2

-16,0

-33,8

⊕

100 m

-0,6

⊕

-3,7

-12,3

-26,2

-46,2

MRD

172 m

+1,4

+4,0

+2,3

-4,2

-16,2

-34,1

⊕

100 m

-0,6

⊕

-3,8

-12,3

-26,3

-46,2

MRD

171 m

+1,4

+4,0

+2,2

-4,4

-16,3

-34,2

⊕

100 m

0

⊕

-5,7

-17,8

-37,1

-64,4

MRD

152 m

+2,0

+4,0

+0,3

-9,8

-27,1

-52,4

⊕

100 m

-0,3

⊕

-4,5

-14,3

-30,1

-52,5

MRD

163 m

+1,7

+4,0

+1,5

-6,3

-20,1

-40,4

840

797

755

715

675

637

600

4128

3716

3335

2991

2665

2374

2106

835

794

754

715

678

641

606

4148

3751

3383

3042

2735

2445

2185

735

696

658

621

585

551

518

3511

3149

2814

2507

2224

1973

1744

790

752

714

678

643

609

576

4057

3676

3314

2988

2687

2411

2157

Silver Selection 600

619

600

V[m/s]

231 61 40

0,366

E[J]

KS 13,0 g

600

V[m/s]

211 78 43

0,356

E[J]

EVO 11,9 g

650

V[m/s]



231 57 41

0,366

E[J]



KS 10,7 g

650

V[m/s]

211 76 49

0,329

E[J]

DK 10,7 g

650

V[m/s]

211 78 78

0,293

E[J]

UNI Classic 11,7 g

650

V[m/s]

211 76 57

0,350

E[J]

EVO 11,9 g

650

V[m/s]

231 54 33

0,366



   

845

803

763

724

686

4248

3837

3464

3119

2800

650

614

2514 2243

⊕

100 m

-0,6

⊕⊕

- 3,6

-11,9

-25,5

-44,8

MRD

173 m

+1,4

+4,0

+2,3

-4,0

-15,5

-32,9

  

E[J]

EVO 11,9 g

Target

-31,0

565

V[m/s]

0,293

V[m/s]

-14,7

598

600

211 78 94

E[J]

   

- 4,6

633

DK 10,7 g

EVO 11,9 g

650

231 72 12

0,366

V[m/s]

E[J]

783

735

2973

2620

688

643

2296 2005

⊕

100 m

-0,9

⊕

-2,6

-9,2

-20,4

-36,7

MRD

189 m

+1,0

+4,0

+3,3

-1,3

-10,5

-24,9

900

846

795

745

697

651

607

⊕

100 m

-0,8

⊕

-3,1

-10,6

-23,2

-41,7

4334

3829

3381

2969

2599

2267

1971

MRD

181 m

+1,2

+4,0

+3,0

-2,6

-13,1

-29,5

654

617

⊕

100 m

-0,7

⊕

-3,4

-11,5

-24,6

-43,5

MRD

176 m

+1,4

+4,0

+2,6

-3,4

-14,5

-31,4

⊕

100 m

-0,6

⊕

-3,5

-11,7

-25,0

-44,1

MRD

174 m

+1,4

+4,0

+2,4

-3,8

-15,1

-32,2

860

816

774

733

693

4327

3895

3505

3143

2809

850

808

768

729

691

4299

3885

3509

3162

2841

2502 2227 654

618

2545 2272

800

759

719

680

643

606

572

⊕

100 m

-0,4

⊕

-4,4

-14,1

-29,7

-52,1

4160

3745

3360

3006

2687

2387

2127

MRD

164 m

+1,7

+4,0

+1,7

-6,0

-19,6

-40,0

722

685

⊕

100 m

-0,9

⊕

-2,5

-8,9

-19,4

-34,7

MRD

192 m

+1,0

+4,0

+3,4

-0,9

-9,5

-22,8

⊕

100 m

-1,0

⊕

-2,2

-8,0

-17,9

-32,3

MRD

198 m

+0,9

+3,9

+3,7

-0,2

-8,1

-20,5



 



    

   

    

 

600

V[m/s]

0,288

E[J]

DK 11,7 g

600

V[m/s]

212 34 95

0,282

E[J]

   

HMK 12,1 g

600

V[m/s]

211 79 16

0,326

E[J]

   

TMR 12,7 g

600

V[m/s]

211 79 32

0,288

E[J]

   

ID Classic 12,8 g

600

V[m/s]

211 92 26

0,360

E[J]

EVO 13,0 g

600

V[m/s]

231 62 01

0,350

E[J]

DK 11,7 g

600

V[m/s]

212 35 09

0,282

E[J]

HMK 12,1 g

600

V[m/s]

211 79 83

0,326

E[J]

TMR 12,7 g

600

V[m/s]

211 80 09

0,288

E[J]

ID Classic 12,8 g

600

V[m/s]

211 92 34

0,360

E[J]

EVO 13,0 g

600

V[m/s]

231 62 00

0,350

E[J]

DK 11,7 g

600

V[m/s]

211 81 30

0,282

E[J]

   

 



886

843

802

762

4671

4228

3827

3455

3102 2792

   

970

920

871

824

779

5034

4528

4059

3633

3247

970

913

859

807

757

5034

4460

3948

3484

3066

940

894

849

805

763

5169

4676

4217

3791

3406

930

886

843

802

762

5146

4671

4228

3827

3455

940

896

852

811

770

5257

4777

4319

3913

3528

735

693

2890 2569 709

662

2689 2345 723

683

3058 2729 722

685

3102 2792

⊕

100 m

-1,0

⊕

-2,3

-8,4

-18,7

-34,0

MRD

194 m

+0,9

+3,9

+3,5

-0,6

-9,1

-22,4

⊕

100 m

-1,0

⊕

- 2,4

-8,7

-19,1

-34,3

MRD

192 m

+1,0

+3,9

+3,4

-0,9

-9,4

-22,6

⊕⊕

100 m

-0,9

⊕⊕

- 2,5

-8,9

-19,4

-34,7

MRD

192 m

+1,0

+4,0

+3,4

-0,9

-9,5

-22,8

⊕

100 m

-1,0

⊕⊕

- 2,4

-8,6

-18,8

-33,7

3179 2857

MRD

194 m

+1,0

+3,9

+3,5

-0,7

-9,0

-21,9

489

731

693



 



 



 





 









  

705

658

612

569

528

3156

2749

2378

2056

1770

⊕

100 m

+0,3

⊕

-6,9

-21,4

-44,7

-78,4

1518 1297

MRD

144 m

+2,4

+4,0

-0,9

-13,4

-34,7

-66,3

577

⊕

100 m

-0,4

⊕

-4,4

-14,3

-30,5

-54,1

MRD

164 m

+1,6

+4,0

+1,6

-6,2

-20,5

-42,1

⊕

100 m

-0,5

⊕

-4,2

-13,5

-28,7

-50,6

MRD

167 m

+1,6

+4,0

+1,9

-5,5

-18,7

-38,5

⊕

100 m

-0,3

⊕

-4,7

-15,2

-32,3

-57,2

MRD

160 m

+1,7

+4,0

+1,3

-7,2

-22,3

-45,1

452

 



8 x 57 JS 820

767

717

668

622

3934

3441

3007

2610

2263

820

774

730

688

647

4068

3624

3224

2864

2533

534

1948 1668 607

568

2229 1952

800

749

700

653

608

565

524

4064

3562

3112

2708

2347

2027

1744

800

759

720

681

644

608

573

⊕

100 m

-0,4

⊕

-4,4

-14,0

-29,6

-51,9

4096

3687

3318

2968

2654

2366

2101

MRD

164 m

+1,6

+4,0

+1,6

-6,0

-19,6

-39,8

544

511

⊕

100 m

0,1

⊕

-5,9

-18,2

-37,9

-65,9

GEE

151 m

+2,1

+4,0

+0,2

-10,2

-27,8

-53,8

⊕

100 m

-0,1

⊕

-5,6

-17,6

-37,3

-65,8

MRD

153 m

+2,0

+4,0

+0,5

-9,6

-27,2

-53,7

⊕

100 m

-0,2

⊕

-5,1

-16,1

-33,9

-59,4

MRD

157 m

+1,8

+4,0

+1,0

-8,1

-23,8

-47,3

⊕

100 m

+0,1

⊕

-6,2

-19,5

-41,0

-72,0

MRD

148 m

+2,2

+4,0

-0,1

-11,4

-30,9

-59,8

730

690

652

615

579

3464

3095

2763

2458

2179

1924 1697

   

    



   

   

8 x 57 JRS

   

   

930 5146

8 x 57 JR 

211 78 86



833 3365

Silver Selection E[J]

TMR 12,7 g

  

886 3807

.300 Win. Mag.

.300 Win. Mag.

  

940 4285

.300 WSM

⊕⊕

669

E[J]

600

Target

-0,3

707

V[m/s]

0,298

0,350

  

100 m

745

600

211 78 27

211 78 35

⊕

785

KS 9,7 g

UNI Classic 11,7 g

  

.30 - 06

.30-06

0m

.30 R Blaser

.308 Win.

211 84 32

Barrel length V2) mm BC- Value 1) E

Bullet Order No.:

Application range



760

710

661

615

570

3379

2949

2556

2213

1901

770

726

684

643

603

3587

3189

2831

2501

2200

730

682

636

591

548

3384

2954

2569

2218

1907

528

488

1631 1393 565

528

1931 1687 509

471

1645 1409

750

711

673

636

600

565

532

⊕

100 m

-0,1

⊕

-5,4

-16,8

-35,0

-61,0

3600

3235

2899

2589

2304

2043

1811

MRD

155 m

+1,9

+4,0

+0,7

-8,7

-25,0

-49,0

536

503

⊕

100 m

+0,2

⊕

-6,1

-18,9

-39,3

-68,2

GEE

149 m

+2,2

+4,0

-0,1

-10,9

-29,3

-56,2

⊕

100 m

-0,5

⊕

-4,1

-13,5

-29,0

-51,7

MRD

167 m

+1,5

+4,0

+1,9

-5,5

-19,0

-39,6

720

680

642

606

570

3370

3006

2679

2387

2112

1867 1645

  

     

   

   

8 x 60 S

Animal pictogram: Scoring: 1)

Capercaillie

Highly suitable

BC = Ballistic Coefficient –

2)

Fox

Roe deer

Wild boars

Red deer

Moose

Buffalo

Animal pictogram:

Suitable  Conditionally suitable

Scoring:

V = Velocity, E = Energy –

1)

3)

MRD = Most Recommended Distance

The stated application ranges are a recommendation without commitment or intention to substitute personal experience.

16

Capercaillie



782

731

682

634

589

546

3577

3126

2721

2351

2029

1744

Fox

Roe deer

Wild boars

Red deer

Moose

Suitable  Conditionally suitable

Highly suitable

BC = Ballistic Coefficient –

835 4079

2)

V = Velocity, E = Energy –

3)

MRD = Most Recommended Distance

The stated application ranges are a recommendation without commitment or intention to substitute personal experience.

17

Buffalo



 



Bullet Order No.:

Barrel length V2) mm BC- Value 1) E

0m

50m 100m

150m

200m 250m 300m

MRD 3)

50 m 100 m 150 m 200 m 250 m 300 m

Application range

8 x 68 S KS 11,7 g

650

V[m/s]

211 81 49

0,310

E[J]

DK 11,7 g

650

V[m/s]

212 35 17

0,282

E[J]

HMK 12,1 g

650

V[m/s]

211 81 14

0,326

E[J]

EVO 13,0 g

650

V[m/s]

231 65 22

0,350

E[J]

KS 14,5 g

650

V[m/s]

211 81 22

0,343

E[J]

990

936

884

833

785

5734

5125

4572

4059

3605

945

887

832

779

728

5224

4603

4050

3550

3100

970

919

870

823

777

5692

5110

4579

4098

3653

915

869

825

783

741

5442

4909

4424

3985

3569

870

825

782

739

699

5488

4935

4434

3959

3542

738

693

3186 2809 679

632

2697 2337 733

690

3251 2880 701

662

3194 2849 659

621

3149 2796

⊕

100 m

-1,1

⊕

-2,0

-7,6

-17,2

-31,3

MRD 202 m

+0,9

+4,0

+3,9

+0,3

-7,3

-19,4

⊕

100 m

-0,9

⊕

-2,6

-9,3

-20,6

-37,2

MRD

190 m

+1,1

+4,0

+3,4

-1,3

-10,6

-25,2

⊕

100 m

-1,0

⊕

-2,2

-8,0

-17,9

-32,4

MRD

199 m

+0,9

+4,0

+3,7

-0,1

- 8,0

-20,5

⊕

100 m

-0,9

⊕

-2,7

-9,5

-20,7

-36,9

GEE

187 m

+1,1

+3,9

+3,2

-1,6 - 10,9

-25,1

⊕⊕

100 m

-0,7

⊕⊕

-3,3

-11,1

-24,0

-42,5

MRD

178 m

+1,3

+4,0

+2,7

-3,1

-13,9

-30,4

⊕

100 m

-0,3

⊕

-4,8

-15,6

-33,4

-59,5

MRD

160 m

+1,7

+4,0

+1,2

-7,6

-23,3

-47,4

⊕

100 m

-0,3

⊕

-4,5

-14,6

-30,9

-54,4

MRD

162 m

+1,7

+4,0

+1,5

-6,5

-20,8

-42,4

⊕

100 m

-0,3

⊕

-4,7

-14,9

-31,3

-54,6

MRD

161 m

+1,8

+4,0

+1,4

-6,8

-21,2

-42,5

⊕

100 m

+0,4

⊕

-7,0

-21,6

-45,0

-78,5

MRD

144 m

+2,4

+3,5

-1,0

-13,6

-34,9

-66,4

⊕⊕

100 m

-0,0

⊕

-5,7

-17,6

-36,3

-62,8

MRD

152 m

+2,0

+4,0

+0,3

-9,6

-26,4

-50,8

⊕

100 m

-0,1

⊕

-5,2

-16,3

-33,7

-57,9

MRD

156 m

+2,0

+4,0

+0,8

-8,2

-23,6

-45,8

   

   

   

       

9,3 x 62 DK 14,6 g

600

V[m/s]

211 81 65

0,266

E[J]

KS 16,0 g

600

V[m/s]

800

754

710

667

626

211 81 81

0,320

E[J]

5120

4548

4033

3559

3135

HMK 16,7 g

600

V[m/s]

211 82 03

0,372

E[J]

TMR 18,5 g

600

V[m/s]

211 82 11

0,309

E[J]

EVO 18,8 g

600

V[m/s]

231 54 36

0,400

E[J]

UNI Classic 19,0 g

600

V[m/s]

211 92 42

0,465

E[J]

9,3 x 62 EVO 18,8 g

800

745

693

642

594

4672

4052

3506

3009

2576

780

741

703

667

631

5080

4585

4127

3715

3325

695

651

609

569

530

4468

3920

3431

2995

2598

730

695

661

628

597

5009

4540

4107

3707

3350

740

710

680

651

623

5202

4789

4393

4026

3687

Silver Selection

547 586

548

2747 2402 597

563

2976 2647 494

459

2257 1949 566

536

3011 2701 596

569

3375 3076

⊕

100 m

0,0

⊕⊕

- 5,4

-16,9

-35,1

-60,7

GEE

154 m

+2,0

+4,0

+0,6

-8,9

-25,1

-48,7

⊕

100 m

-0,8

⊕

-3,2

-11,1

-24,3

-43,7

MRD

179 m

+1,2

+4,0

+2,8

-3

-14,2

-31,7

608

⊕

100 m

-0,3

⊕

- 4,4

-13,8

-28,9

-50,0

3843

3512

MRD

165 m

+1,7

+4,0

+1,7

-5,8

-18,8

-37,9

381

347

322

⊕

100 m

+1,7

⊕

-12,6

-38,6

-81,5

-144

907

753

648

MRD

118 m

+3,0

+2,6

-8,6

-33,4

-75,0

-136,7

600

V[m/s]

740

705

671

638

605

0,400

E[J]

5147

4672

4232

3826

3441

DK 14,6 g

650

V[m/s]

900

841

785

730

678

211 81 73

0,266

E[J]

5913

5163

4498

3890

3356

UNI Classic 19,0 g

650

V[m/s]

785

754

723

693

664

636

211 92 50

0,465

E[J]

5854

5401

4966

4562

4189

KTM 12,5 g

1800

V[m/s]

615

542

476

425

211 82 46

ohne

E[J]

2364

1836

1416

1129

231 72 15

504

2184 1854

574

544

3097 2782



 

 

 



  

  

580

2879 2456

600

V[m/s]

0,266

E[J]

KS 16,0 g

600

V[m/s]

211 82 97

0,320

E[J]

HMK 16,7

600

V[m/s]

211 82 62

0,372

E[J]

TMR 18,5 g

600

V[m/s]

211 82 70

0,309

E[J]

EVO 18,8 g

600

V[m/s]

231 54 37

0,400

E[J]

UNI Classic 19,0 g

600

V[m/s]

0,465

E[J]

600

V[m/s]

0,400

E[J]

211 92 77

9,3 x 74 R EVO 18,8 g 231 72 16

785

731

679

629

581

536

493

⊕

100 m

-0,2

⊕

-5,1

-16,5

-35,2

-62,4

4498

3901

3366

2888

2464

2097

1774

MRD

157 m

+1,8

+4,0

+0,9

-8,4

-25,1

-50,3

750

706

663

622

582

545

509

⊕

100 m

0

⊕

-5,6

-17,5

-36,7

-64,1

4500

3987

3517

3095

2710

MRD

154 m

+2,0

+4,1

+0,6

-9,3

-26,4

-51,8

750

712

675

639

605

⊕

100 m

-0,1

⊕

-5,3

-16,6

-34,7

-60,3

4697

4233

3804

3409

3056

MRD

155 m

+1,9

+4,0

+0,7

-8,7

-24,7

-48,3

695

651

609

569

530

⊕

100 m

+0,4

⊕

-7,0

-21,6

-45,0

-78,5

4468

3920

3431

2995

2598

700

666

633

601

570

4606

4169

3766

3395

3054

695

666

637

610

582

4589

4214

3855

3535

3218

710

676

642

610

579

4739

4296

3874

3498

3151

Silver Selection

2376 2073

6,5x57 R

9,1

140

6,5x65 RWS 6,5x65 R RWS 6,5x68 .270 Win. .270 WSM 7x57 7x57 R

      



571

539

2722 2426 494

459

2257 1949 540

511

2741 2455 556

531

2937 2679

548

519

2823 2532

MRD

144 m

+2,4

+4,0

-1,0

-13,6

-34,9

-66,4

⊕

100 m

+0,3

⊕

-6,4

-19,6

-40,4

-69,5

MRD

147 m

+2,3

+4,0

-0,4

-11,6

-30,4

-57,6

⊕

100 m

+0,3

⊕

-6,3

-19,2

-39,4

-67,5

MRD

148 m

+2,3

+4,0

-0,3

-11,2

-29,4

-55,5

⊕

100 m

+0,2

⊕⊕

- 6,1

-18,9

-39,0

-67,2

MRD

148 m

+2,2

+3,9

- 0,3

-11,0

-29,1

-55,5

 

 

 



  

  





  

.375 H&H Magnum KS 19,4 g

650

V[m/s]

211 84 59

0,403

E[J]

VMR 19,4 g

650

V[m/s]

211 84 67

0,290

E[J]

UNI Classic 19,5 g

650

V[m/s]

211 83 78

0,334

E[J]

790

754

719

684

651

6054

5515

5015

4538

4111

790

740

692

645

601

6054

5312

4645

4035

3504

790

746

704

664

624

6085

5426

4832

4299

3796

705

664

625

587

551

6461

5732

5078

4479

3947

705

665

627

590

555

6461

5749

5111

4525

4004

⊕

100 m

-0,3

⊕

-4,4

-14,1

-29,5

-51,4

3717 3342

MRD

164 m

+1,7

+4,0

+1,7

-6,0

-19,4

-39,3

558

⊕

100 m

-0,3

⊕

-4,9

-15,7

-33,3

-58,8

MRD

159 m

+1,8

+4,0

+1,2

-7,6

-23,2

-46,7

⊕

100 m

-0,3

⊕

-4,7

-14,9

-31,4

-55,2

MRD

161 m

+1,7

+4,0

+1,3

-7,0

-21,6

-43,3

⊕

100 m

0,3

⊕

-6,6

-20,3

-42,1

-73,2

619

587 518

3020 2603 586

549

3348 2939

    



   

  

.404 Rimless TMR 26,0 g

650

V [m/s]

211 93 31

0,335

E [J]

VM 26,0 g

650

V [m/s]

211 93 58

0,344

E [J]

516

483

3461 3033 520

488

3515 3096

MRD

146 m

2,3

4,0

-0,6

-12,3

-32,1

-61,2

⊕

100 m

0,3

⊕

-6,5

-20,1

-41,7

-72,4

MRD

146 m

2,3

4,0

-0,6

-12,2

-31,8

-60,5

18

 

gr



  

g

140 140

9,3 x 74 R DK 14,6 g

gr

9,1 9,1

9,3 x 72 R

211 81 57

g

5,6x52 R 5,6x57 .243 Win. 6,5x54 Mannl. Sch. 6,5x55 6,5x57

9,3 x 64 628

Weight .22 Hornet .222 Rem. .223 Rem. 5,6x50 Mag. 5,6x50 R Mag.



10,0 10,0

154 154

g

gr

8,4

130

11,2 11,2

173 173

g

7mm Rem. Mag. .280 Rem. 7x64

10,3

159

10,3

159

10,0

154

11,2

173

7x65 R

10,3

159

10,0

154

11,2

173

.308 Win

11,9

184

10,7

165

11,7

180

10,5 10,5 11,5 11,5 10,5 10,5 11,5 10,5 11,5 9,7

.30-06

11,9

184

10,7

165

11,7

180

9,7

.30 R Blaser

11,9

184

10,7

.300 WSM .300 Win. Mag. 8x57 JR 8x57 JS 8x57 JRS 8x60 S 8x68 S

11,9 11,9

184 184

13,0 13,0

201 201

13,0

201

18,8

291

18,8

291

9,3x62 9,3x64 9,3x74 R .375 H & H Mag. .404 Rimless

10,0

154

gr

162 162 177 177 162 162 177 162 177 150 150

g

gr

11,7

180

11,7 13,0

180 201

165

11,7

180

10,7

165

11,7

180

11,7 11,7 11,7 11,7

180 180 180 180

12,1 12,1

187 187

12,1

187

14,6 14,6 14,6

225

16,7

258

225

16,7

258

12,8 12,8

* Softpoint roundnose projectile or softpoint pointed projectile depending on the calibre. See ballistic charts.

19

g

gr

4,8 6,2

74 96

8,2 7,0 8,2 7,0 8,2 8,2 8,2 8,2 9,7 9,7 8,0 8,0 10,5 10,5

127 108 127 108 127 127 127 127 150 150 123 123 162 162

8,0 10,5 8,0 10,5 9,7 10,7 9,7 10,7 13,0 9,7 13,0

123 162 123 162 150 165 150 165 201 150 201

10,7

165

198 198

19,0 19,0 19,0 19,5

293 293 293 301

11,7 14,5 16,0

180 224 247

16,0 19,4

247 300

g 3,0 3,24 3,6 4,1 3,24 3,6 4,1 4,6

gr 46 50 55 63 50 55 63 71

6,5 10,3

100 159

6,0

93

6,0

93

6,0 8,4

93 130

9,0

139

9,4

145

11,2

173

11,2

173

12,7 12,7 12,7

196 196 196

18,5

285

18,5

285

26,0

401

Fu

rth

er

inf

W or

OR

ma

tio

LD

na

tw

NO

ww .rw

VE

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Performance, Innovation, Emotion

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Groundbreaking innovation and performance exceed the highest standards to produce this unique cartridge. Even under the most extreme conditions: whether ice or desert, taiga or forest or day or night – there is no hunting situation that the Silver Selection cannot master.

Further information at www.rws-ammunition.com RWS - The ammunition counts.

RUAG Ammotec GmbH, FĂźrth, Germany - 231 31 08 - 08/09 - 12.500

Available in the following calibres: .308 Win., .30-06, .300 Win. Mag., 9,3x62 and 9,3x74R.