kcherry497/dyno-blast-4b-rag huggingface dataset:
NONEL® MS 1.1B (Tech Info), page 1 of 2

100 Blue 325 White 600 Gray
 APPLICATION RECOMMENDATIONS
 125 Orange 350 Green 700 Lt Blue • For detailed application recommendations, ALWAYS request a copy of Dyno Nobel’s
 Product Manual: NONEL® and PRIMACORD® from your Dyno Nobel representative.
 150 Purple 375 White 800 Red • ALWAYS use the plastic J-hook when using a detonating cord trunkline to initiate a
 NONEL MS unit. A minimum 3 g/m (15 gr/ft) detonating cord qualified for surface use
 is required for use with the J-hook.
 175 Gray 400 Blue 900 Tan
 • ALWAYS make sure the shock tube is connected to the J-hook and leads back to the
 hole collar at right angles to the detonating cord trunkline.
 200 Lt Blue 425 White 1000 Green

Hazardous Shipping Description
 • Detonator assemblies, nonelectric, 1.1B, UN 0360 PG II

Product Disclaimer: Please see reverse side.
Blasting Definitions (EEG Guide), page 1 of 5

Airblast: The airborne shock wave or acoustic transient generated by an explosion.

Backbreak: Rock broken beyond the limits of the last row of blastholes. Same as overbreak.

Blast Area: The area of the blast within the influence of flying rock, gases, and concussion.

Blaster-In-Charge: The blaster who is in charge of and responsible for the design, loading and firing of a blast at a specific job site.

Blast Site: The area where explosive material is handled during loading of blastholes including 50 feet in all directions from the perimeter formed by loaded blastholes.

Blasting Agent: A mixture intended for blasting that cannot be detonated with a No. 8 detonator when unconfined and has very little probability of detonation under normal conditions in transport.

Blasting Log: A written record of information about a specific blast as may be required by law.

Bootleg: The end of a blasthole remaining when the explosion does not break the rock completely.

Booster An explosive charge in the initiation sequence between the initiator and main charge.

Borehole: Pressure The pressure which the gasses of detonation exert on the borehole wall.

Burden: The linear dimension between the blasthole and the nearest free face.

Critical Diameter The minimum diameter for propagation of a stable detonation.
TITAN® BLASTLITE® — Tech Info (Tech Info), page 2 of 2

Recommendations Safe handling, transportation and storage
Priming Requirements – TITAN BlastLite blends are booster sensitive and a
minimum 400g cast booster is recommended. Smaller booster types may reduce First Aid – You can find detailed first aid information on the relevant Dyno
the performance of the explosive. Additional boosters should be used when the Nobel Material Safety Data Sheet. Refer to www.dynonobel.com for more
column height exceeds 10 to 15 metres, or where there is risk of column information if required. disruption. For specific priming requirements please contact your Dyno Nobel
representative. Safety - All explosives are classified as dangerous goods and can cause
 personal injury and damage to property if used incorrectly. Sleep Time - Under normal conditions in dry, stemmed blastholes, TITAN
BlastLite blends may be slept for a period of up to two (2) weeks. The sleep time Transportation and Storage - All explosives must be handled, transported and
may be limited to the recommended sleep time of the initiating system. For stored in accordance with all relevant regulations. Stock should be rotated
applications where unusual or specific conditions exist please consult your local such that older product is used first. Dyno Nobel representative.
Gold Mine Expands Pattern for 11% Cost Reduction Using DIFFERENTIAL ENERGY (Case Study), page 1 of 2

CASE STUDY

GOLD MINE EXPANDS PATTERN AT A GLANCE
FOR 11% COST REDUCTION
USING DIFFERENTIAL ENERGY™ 11% REDUCTION IN
 DRILLING COST
PRIMACORD® — SDS (SDS), page 4 of 7

PRODUCT NAME DETONATING CORD

9.1 Information on basic physical and chemical properties
 Appearance CORD WITH WHITE POWDER CORE
 Odour ODOURLESS
 Flammability EXPLOSIVE
 Flash point NOT RELEVANT
 Boiling point NOT AVAILABLE
 Melting point 140°C (PETN)
 Evaporation rate NOT AVAILABLE
 pH NOT AVAILABLE
 Vapour density NOT AVAILABLE
 Relative density 1.76
 Solubility (water) INSOLUBLE
 Vapour pressure NOT AVAILABLE
 Upper explosion limit NOT RELEVANT
 Lower explosion limit NOT RELEVANT
 Partition coefficient NOT AVAILABLE
 Autoignition temperature NOT AVAILABLE
 Decomposition temperature NOT AVAILABLE
 Viscosity NOT AVAILABLE
 Explosive properties EXPLOSIVE
 Oxidising properties NOT AVAILABLE
 Odour threshold NOT AVAILABLE

10. STABILITY AND REACTIVITY
10.1 Reactivity
Carefully review all information provided in sections 10.2 to 10.6.

10.2 Chemical stability
Explosive material. Detonation may occur from impact, friction, or excessive heating.

10.3 Possibility of hazardous reactions
Polymerization will not occur.

10.4 Conditions to avoid
Avoid shock, friction, heavy impact, heat, sparks, open flames and other ignition sources.

10.5 Incompatible materials
Incompatible with oxidising agents (e.g. hypochlorites), combustible materials, acids (e.g. nitric acid), mechanical shock and heat or
ignition sources.
CARBON DIOXIDE LIQUID (Tech Info), page 1 of 1

ydrogen Sulfide by volume, ppm ≤ 0.1
 • Frequently check the oxygen level if working in an area where carbon dioxide has
 Methane by volume, ppm ≤ 20 the potential to be present in high concentration. Nitric Oxide by volume, ppm ≤ 2.5 • The Compressed Gas Association (www.cganet.com) has thoroughly addressed
 Nitrogen Dioxide by volume, ppm ≤ 2.5 transportation, storage and handling of carbon dioxide in available publications. Sulfur Dioxide by volume, ppm ≤1 - AV-7 Characteristics and Safe Handling of Carbon Dioxide
 Water by volume, ppm ≤ 20 - G-6 Carbon Dioxide
 - G-6.1 Standard for Insulated Carbon Dioxide Systems at Customer Sites
 Weight @ 50oF lbs/gallon 9.48
 - G-6.2 Commodity Specifications for Carbon Dioxide
 - P-1 Safe Handling of Compressed Gases in Containers
 Hazardous Shipping Description
 • Trailers must be marked with the words ”Carbon Dioxide Refrigerated • SB-2 Oxygen-Deficient Atmospheres
 Liquid”. The trailer must have a Nonflammable Gas placard (hazard • CGA Handbook of Compressed Gases, Forth Edition
 classification 2.2) on both sides and both ends. The shipment further
 may be marked with international transportation number UN 1013 • P-27 Recommended Hose Management Practice for Uninsulated Stainless Steel
 to identify it as carbon dioxide which may be incorporated into the Cryogenic Cargo Tank Hose
 placard.
TITAN® 2000 Matrix Blends — Tech Info (Tech Info), page 2 of 6

PRODUCT SELECTION GUIDE SAFE HANDLING, TRANSPORTATION, &
• The Product Blend Selection Table should be used to STORAGE
 determine available product types to suit the blasthole • First Aid - You can find detailed first aid information on
 conditions. the relevant Dyno Nobel Safety Data Sheet. Refer to
• TITAN 2000 matrix blends may be slept for a maximum www.dynonobel.com.au for more information if
 of 21 days. In challenging blast hole conditions, such as required. high dynamic water exposure, reduction of sleep times • Safety - All explosives are classified as dangerous goods
 should be considered. and may cause personal injury and damage to property
• Where increased risk of post blast fume is evident, a risk if used incorrectly. assessment considering ground type & blasting • Transportation & Storage - All explosives must be
 conditions is recommended, and specific product & use handled, transported & stored in accordance with
 conditions may apply. In non-reactive ground, relevant regulations. TITAN 2000 emulsion matrix has a
 specialised fume products, such as Titan 9000 or Titan recommended shelf life of three (3) months when
 9000xero, are available. For assistance with products for transported & stored under ideal conditions. If storage
 high fume risk areas, contact your Dyno Nobel for longer duration is required, please consult your local
 representative.
DYNOMIX™ WR (EEG Guide), page 1 of 1

DYNOMIX™ WR

DYNOMIX WR es un explosivo pre mezclado, granulado, con resistencia al agua limitada, que utiliza una mezcla especial de ingredientes para revestir la superficie de los gránulos ANFO. Ese revestimiento ayuda a bloquear la penetración de agua y permite la detonación en barrenos humedos. En algunas situaciones, DYNOMIX WR puede llenar el espacio entre el ANFO regular y los explosivos empaquetados, y está disponible en sacos de varios tipos y tamaños.

Hoja de Datos Técnicos

HDS
Increased Productivity Through Improved Blast Design (Case Study), page 2 of 2

CASE STUDY
ANFO — Tech Info (Tech Info), page 1 of 2

ANFO Technical
Prilled Ammonium Nitrate Information

Properties
 Poured Blow Loaded

Density (g/cm3) 1 0.82 0.95

Min Diameter (mm) 75 25

Energy (MJ/kg) 2 3.7 3.7
 Typical VOD (m/s) 3 2500 – 4500 2000 – 4000
Trench Blasting Guide (Guide), page 19 of 20

Weights of Various Solid Materials

 Weight Weight Loose Weight
 lbs/ft3 lbs/yd3 lbs/yd3

Basalt 180-185 4860-5075 —
Bauxite 100-160 2700-4325 2020-3240
Diabase 160-185 4200-5075 —
Dolomite 175-180 4725-4860 —
Granite 170 4500 3000-2520
Gypsum 145-205 3915-5535 —
Limestone, massive/hard 160 4200 —
Limestone, seamy/punky 150 4000 2680
Limestone 120-145 3240-3920 2400-2900
Sandstone 155 4140 2980-2610
Shale, riprap 150-175 4050-4725 —
Traprock 185 5075 3400

 Speciﬁc Swell Percent Suggested
 Gravity Factor of Swell Dynamite*

Basalt 2.8-3.0 — — Unimax
Bauxite 1.6-2.5 .75 33 Unimax
Diabase 2.6-3.0 — — Unimax
Dolomite 2.8-2.9 — — Unimax
Granite 2.7 .67-.56 50-80 Unimax
Gypsum 2.3-3.3 — — Unigel
Limestone, massive/hard 2.6 .60-.57 67-75 Unimax
Limestone, seamy/punky 2.4 .67 50 Unigel
Limestone 1.9-2.1 .74 35 Unigel
Sandstone 2.5 .72-.63 40-60 Unigel
Shale, riprap 2.4-2.8 .75 33 Unigel
Traprock 3.0 .67 50 Unimax
* Use Dynomax Pro where water saturated conditions exist, regard-
less of rock type, to minimize the risk of propogation.
SANFOLD® — SDS (SDS), page 7 of 7

Report status This document has been compiled by RMT on behalf of the manufacturer, importer or supplier of the
 product and serves as their Safety Data Sheet ('SDS').
 It is based on information concerning the product which has been provided to RMT by the
 manufacturer, importer or supplier or obtained from third party sources and is believed to represent
 the current state of knowledge as to the appropriate safety and handling precautions for the product
 at the time of issue. Further clarification regarding any aspect of the product should be obtained
 directly from the manufacturer, importer or supplier.
 While RMT has taken all due care to include accurate and up-to-date information in this SDS, it does
 not provide any warranty as to accuracy or completeness. As far as lawfully possible, RMT accepts
 no liability for any loss, injury or damage (including consequential loss) which may be suffered or
 incurred by any person as a consequence of their reliance on the information contained in this SDS.

Prepared by Risk Management Technologies
 5 Ventnor Ave, West Perth
 Western Australia 6005
 Phone: +61 8 9322 1711
 Fax: +61 8 9322 1794
 Email: info@rmtglobal.com
 Web: www.rmtglobal.com

[ End of SDS ]

SDS Date: 13 Mar 2026
 Page 7 of 7
 Revision No: 1.3
DIFFERENTIAL ENERGY® improves Fragmentation by 53% (Case Study), page 2 of 3

Figure 1: Parameters for blast no. 2014-08

Graph 1: Distribution of fines from 0.08mm to 31.5mm

In blast 2014-12, the drilling parameter was retained and
the loading level was much the same: 0.90kg/m3 for blast
2014-08 and 0.92kg/m3 for blast 2014-12. The use of
two-segment differential energy allowed the average load
density of 1.2g/cc to be maintained in the hole (see Figure
2: bottom segment 1.26g/cc and upper segment 1.15 g/
cc).

After blasting, an improvement in the 0.08mm passing
level was observed, from 10.8% to 6.5% (see Figure 2). Figure 2: Parameters for blast no. 2014-12
DYNOMINER® PROFILE™ Underground Delivery Equipment — Tech Info (Tech Info), page 2 of 2

®

DynoMiner™ Profile Technical
 Information
Ammonium Nitrate — SDS (SDS), page 3 of 7

PRODUCT NAME AMMONIUM NITRATE

5.2 Special hazards arising from the substance or mixture
Non flammable - oxidising agent. Supports combustion and may cause fire/explosion in contact with incompatible substances, strong
acids, reducing agents, combustibles and flammables. May evolve nitrogen oxides, ammonium nitrate fumes and water when heated
to decomposition.

5.3 Advice for firefighters
Evacuate area and contact emergency services. Toxic gases may be evolved in a fire situation. Remain upwind and notify those
downwind of hazard. Wear full protective equipment including Self Contained Breathing Apparatus (SCBA) when combating fire. Use
waterfog to cool intact containers and nearby storage areas. May explode from heat, pressure, friction or shock.

5.4 Hazchem code
1Y
1 Coarse Water Spray.
Y Risk of violent reaction or explosion. Wear full fire kit and breathing apparatus. Contain spill and run-off.

6. ACCIDENTAL RELEASE MEASURES
6.1 Personal precautions, protective equipment and emergency procedures
Wear Personal Protective Equipment (PPE) as detailed in section 8 of the SDS. Clear area of all unprotected personnel. Contact
emergency services where appropriate.

6.2 Environmental precautions
Prevent product from entering drains and waterways.
Increasing Tunnel Advance Rates at Procon Forrest Kerr (Case Study), page 1 of 2

One solution was to evaluate the DigiShot® electronic Initially a smaller 5 x 6m relief tunnel was conventionally
initiation system in order to provide greater detonator blasted in the top middle section of the larger tunnel
accuracy and delay timing flexibility to help increase excavation. advance rates. While the detonator cost per unit is greater,
the overall per meter of advance cost was reduced with
less over break, increased advance rates, and fewer PROJECT GOALS
booted holes to drill around. INCREASE TUNNEL ADVANCE RATE
 The principal goal was to demonstrate DigiShot initiation
 could be construction miner friendly and efficient to
 BACKGROUND improve the overall advance rate of the underground
 tunnel. Faster advance rates would also result in overall
HYDROELECTRIC TUNNEL PROJECT lower operating costs and help the project better meet
Procon is responsible for executing all the underground project timelines. rock works for AltaGas’s Forrest Kerr project, a 195 MW
run-of-river hydroelectric project. The project is located in
British Columbia, approximately 1,000 km northwest of
Vancouver.
PRIMALINE® SMS (SDS), page 3 of 14

Safety Data Sheet
According to: 1907/2006/EC (REACH), 1272/2008/EC (CLP), and OSHA GHS
Trade Name: Detonator with Detonating Cord

 Dangerous components:
 CAS: 78-11-5 pentaerythritol tetranitrate (PETN)
 EINECS: 201-084-3
 Index number: 603-035-00-5 Unst. Expl., H200
 CAS: 7778-74-7 potassium perchlorate
 EINECS: 231-912-9
 Ox. Sol. 1, H271
 Index number: 017-008-00-5
 Acute Tox. 4, H302
Additional Information: For the listed ingredients, the identity and exact percentages are being withheld as a trade secret.
For the wording of the listed risk phrases refer to section 16.

SDS# 1123 Date: 05/01/2025 Page 3 of 10
DynoConsult® Pit Pushback Gives Mine Access to $1 Billion of Ore (Case Study), page 2 of 3

PROJECT GOALS PRODUCTS/
 TECHNOLOGY &
LOWER COSTS WITHOUT SACRIFICING PERFORMANCE SERVICES USED
The two principal goals for the project were to minimize vibrations and
eliminate flyrock. Fragmentation of the rock was of lesser importance to
the mine provided the two primary goals were met.
 DYNOCONSULT
The mine identified four structures of concern for vibration control. The
two most sensitive structures were a public highway that was within 250
feet of the blast site and a sewage treatment plant that was within 800
feet. TITAN DIFFERENTIAL
 ENERGY
The primary concern regarding the highway was flyrock. At the sewage
treatment plant, the mine wanted to keep blast vibrations under 19 mm/s.

DIGISHOT
TECHNOLOGY APPLIED
DYNOCONSULT BLAST DESIGNS WITH TITAN EMULSION
AND DIGISHOT DETONATORS
DynoConsult used a variety of tools to properly design the blast to ensure there was no flyrock and vibrations were kept
to a minimum. Unmanned aerial vehicle (UAV) surveys of the blast areas were conducted to provide a 3D representation of
the free faces and bench surface. The 3D point cloud produced by these surveys was used to measure the shape of the
free faces. Once the shape of the free faces was quantified, the team was able to establish proper placement of the crest
holes and develop a custom explosive load for each blasthole.
SITE MIXED SYSTEM™ (SMS™) (SDS), page 2 of 12

Safety Data Sheet
 ssssSSherrSheetSSh
Label Elements
GHS-US Labeling

eeSheet
Hazard Pictograms (GHS-US) :

GHS03 GHS07 GHS08

Signal Word (GHS-US) : Danger
Hazard Statements (GHS-US) : H272 - May intensify fire; oxidizer
 H302 - Harmful if swallowed
 H304 – May be fatal if swallowed and enters airways
 H315 - Causes skin irritation
 H320 – Causes eye irritation
 H351 - Suspected of causing cancer
 H373 - May cause damage to organs through prolonged or repeated
 exposure
NONEL® EZ DET® 1.1B (SDS), page 13 of 19

SECTION 13: DISPOSAL CONSIDERATIONS
Waste treatment methods
Recommendation: Must not be disposed together with household garbage. Do not allow product to reach sewage
system. Damaged materials pose a danger to anyone in the immediate area; consult experts for disposal of damaged
products.
The user of this material has the responsibility to dispose of unused material, residues and containers in compliance with
all relevant local, state and federal laws and regulations regarding treatment, storage and disposal for hazardous and
nonhazardous wastes. Residual materials should be treated as hazardous.
Uncleaned packaging:
Recommendation: Disposal must be made according to official regulations.

SECTION 14: TRANSPORT INFORMATION
UN-Number
DOT, ADR, IMDG: UN0360
IATA: FORBIDDEN
UN proper shipping name
DOT, IMDG: DETONATOR ASSEMBLIES, NON-ELECTRIC
ADR: 0360 DETONATOR ASSEMBLIES, NON-ELECTRIC
SDS# 1122 Date: 05/01/2025 Page 13/19
Blast design terminology and formulas (EEG Guide), page 1 of 1

Hole length (L) =
BH + SD

Charge length (C) =
L – SL

Blast volume (V) =
B x S x BH x N

Blasted tonnes (T) =
V x Density of rock in t/m3

Volume of blasthole (Vb) =
π x D 2 /4000 x L

Mass of explosive per hole (kg) =
Volume of hole length charged x Explosive density

PF (kg/m 3 ) =
Total explosives in the blast/blast volume

PF (kg/t) =
Total explosives in the blast/blasted tonnes

RWS =
AWS of explosive/AWS of ANFO x 100

RBS =
(RWS explosive x explosive density)/(ANFO density)

Energy factor =
PF x RWS

Vertical length of angled holes =
Measured hole length x cos ∝

∝ = Angle subtended from the vertical by the inclined hole
Π  = 3.1416 (ratio of the circumference of a circle to its diameter)
AWS = Absolute weight strength
B = Drilled burden (m)
BH = Bench height (m)
C = Explosive column height or charge length (m)
D = Hole diameter in millimetres
L = Hole length (m)
N = Number of holes in a blast
PF = Powder factor
RBS = Relative bulk strength
RWS = Relative weight strength
S = Drilled spacing (m)
SD = Subdrill (m)
SL = Stemming length (m)
T = Blasted tonnes
V = Blast volume (m3)
DIFFERENTIAL ENERGY® applied to improve fragmentation (Case Study), page 1 of 2

CASE STUDY

DIFFERENTIAL ENERGY™ APPLIED TO IMPROVE
FRAGMENTATION
 PROJECT SUMMARY RESULTS
OPTIMIZING FRAGMENTATION TO IMPROVE IMPROVEMENT IN FRAGMENTATION AND
FOR DOWNSTREAM OPERATIONS REDUCTION IN POWDER FACTOR
This limestone quarry in the Laurentian region in Quebec, Following the trial shot, a fragmentation analysis using
Canada uses a 1070G blend-like product, with an average WipWare tools was conducted to quantify changes, if any,
density of 1.20 g/cc, for most of its operation. A pattern of in order to compare the 2 products; ∆E vs 1070G blend.
3.96 x 4.27 m, on 102 mm diameter, 2.1 m stemming, 0.15 Based on numerous picture analysis, it was determined
to 0.3 m of subdrill, bench height varies from 10.7 to 17 m that ∆E helped to increase coarser material (150-500 mm)
yields somewhat satisfactory results. by 3%, while reducing the fines by 1.1%, as the client
 requested. Furthermore, it was determined the ∆E helped
The client would like to improve the fragmentation by reduce the explosive load per meter of blast hole by 5%.
reducing fines and getting more material in the 150 to 500
mm size. Moreover, a different supplier is servicing the pit
since its opening, more than a few decades ago.

TECHNOLOGY APPLIED
DIFFERENTIAL ENERGY APPLIED TO IMPROVE
FRAGMENTATION
Dyno Nobel proposed conducting a trial shot using its
DIFFERENTIAL ENERGY product; ∆E.
Centralised Blasting systems - An approach to safety, functionality and cycle efficiency (Case Study), page 2 of 2

To guarantee robust communication, Ethernet was chosen as The system is easy to use with a shallow learning curve, which
the primary communication medium, rather than conventional in turn supports blast crew acceptance. Within weeks, the shot
modems or RF Leaky Feeder. To ensure a robust installation, crews were capable of operating the system without any
the blast equipment was permanently installed, powered supervision. directly from mains with battery backup capability. This
 As BlastWeb continuously scans the installation, this allows
utilisation of permanently installed equipment eliminated blast
 operators in Mine Control to progressively identify which areas
delays as the nature of portable equipment makes them more
 are available for blasting end of shift. This transparency of
susceptible to damage during transport or failures due to
 when headings are connected assisted Mine Control is
poorly maintained batteries. Primary fire lines were specified
 assessing blasting schedules in real time. to withstand normal abuse in underground mining environment. In the six months prior to the implementation of BlastWeb, an
After the initial infrastructure planning phase; installation,
 analysis of the blasting data showed that out of 961 blasts, 52
commissioning and training was completed within a month. headings misfired, a 5.4% misfire rate.
PRIMACORD® (SDS), page 4 of 12

Safety Data Sheet
According to: 1907/2006/EC (REACH), 1272/2008/EC (CLP), and OSHA GHS
Trade Name: Detonating Cord

SECTION 3 – COMPOSITION/INFORMATION ON INGREDIENTS
3.1 Mixtures
Description: Mixture of substances listed below with nonhazardous additions.
Dangerous Components:
CAS: 78-11-5 pentaerythritol tetranitrate (PETN)
EINECS: 201-084-3 E R3
Index number: 603-035-00-5 Unst. Expl., H200
Additional Information: For the listed ingredients, the identity and exact percentages are being withheld as a trade secret.
For the wording of the listed risk phrases refer to section 16.
Explosives Engineers' Guide (Guide), page 4 of 13

Dynamite in Paper Tube Shell with NG Vapor Barrier Dynamite in Paper Shell

Presplitting Dynamite in Paper Tube Shell with Plastic Coupler

Emulsion in Paper Shell
 Emulsion in Plastic Chub

Emulsion in Plastic Chub Seismic Charge in Plastic Shell

Density Diameter(s) Energy Energy Velocity Velocity Water Usage
D y na mit e g/cc inches cal/g cal/cc ft/sec m/sec Resistance Code
 (AWS) (ABS)

UNIGEL® 1.30 1¼ to 3 955 1,240 14,100 4,300 Good D,G,U
 UNIMAX® 1.51 1 to 3 1,055 1,510 19,700 6,000 Excellent D,G,U
 DYNOMAX™ PRO 1.45 1¼ to 3 1,055 1,510 19,700 6,000 Excellent D,G,RS
 Z POWDER 1.37 1¼ 965 1,351 16,400 5,000 Excellent D,U,P
 STONECUTTER® 1.02 ⅞ to 2 842 859 4,820 1,470 Poor D,PS
 DYNOSPLIT® D 1.40 ¾ to 1 995 1,440 8,900 2,700 Good D,PS,U
 DYNOSPLIT D1 0.95 ⅞ 990 1,230 9,800 3,000 Good D,PS,U

E m u ls io n Density
 g/cc
 Diameter(s)
 inches
 Energy
 cal/g
 Energy
 cal/cc
 Velocity
 ft/sec
 Velocity
 m/sec
 Water
 Resistance
 Usage
 Code
 (AWS) (ABS)