kcherry497/dyno-blast-4b-rag huggingface dataset:
TROJAN® SPARTAN® SR (Tech Info), page 2 of 2

Product Disclaimer: Dyno Nobel Inc. and its subsidiaries disclaim any warranties with respect to this product, the safety or suitability thereof, or the results to be obtained, whether express or implied, INCLUDING WITHOUT
LIMITATION, ANY IMPLIED WARRANTY OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE AND/OR OTHER WARRANTY. Buyers and users assume all risk, responsibility and liability whatsoever from any and
all injuries (including death), losses, or damages to persons or property arising from the use of this product. Under no circumstances shall Dyno Nobel Inc. or any of its subsidiaries be liable for special, consequential or
incidental damages or for anticipated loss of profits.
Blast Design Changes to Accommodate Poor Geology (EEG Guide), page 1 of 1

This Granite Quarry in the Carolinas had poor geology, resulting in excessive back-break and requiring either paired holes, reduced front row spacing or angle holes and was further complicated by neighboring homes within 750 fee of the shot area. Previous shots were resulting in concerns from neighbors and peak particle velocity values approaching the NC DNR limit. After the changes made by DynoConsult seismic results were excellent, with a significant reduction in recorded peak particle velocity and all channels showing a frequency spectra about 70 Hz. Back-break was reduced and the overall breakage was good. No complaints were received on this blast.

Blast Design Changes to Accommodate Poor Geology
SCORPION™ — Tech Info (Tech Info), page 2 of 2

®

Scorpion Technical
 Information

Features and Benefits Packaging
NONEL® and PRIMACORD® Product Manual (Guide), page 56 of 87

Instant Firing with PRIMACORD and PRIMALINE Trunklines

Today, very few detonat-
 ing cord blasts are fired
 instantaneously. Should
 instant firing be required,
 unreel the detonating
 cord trunkline so that
 it lies across the tops
 of the holes to be fired.
 The trunkline layout
 should be designed so
 the detonation can reach
 each hole from two
 directions; this is espe-
 cially important when Figure 74 - Three rows of staggered holes hooked up for instant shoot-
 delay techniques are ing using a three-trunkline system. Note the three trunkline crossties.

employed.

In multiple-row blasts, at least three sets of crossties should be provided, one
 at each end and one near the center of the row (Figure 74). In very long blasts,
 more crossties should be used. Care should be taken to see that the entire
 trunkline is free of loops or kinks, which could cause cut-offs. After laying out the
 trunkline, connect the downlines to it, using the appropriate knot connection (see
 page 41). Ensure the downline is at a 90° angle with the trunkline at each hole

Delay Firing With PRIMACORD and PRIMALINE Trunklines
Historia (EEG Guide), page 2 of 9

1865- Alfred Nobel, fundador de las compañías que establecieron la base de Dyno Nobel, inventa la primera tapa de explosión.

1867 – Alfred Nobel inventa la dinamita, otro gran paso en la seguridad y eficiencia de los explosivos.

1876 – Comienza la producción de nitrocelulosa como Nitroglycerin Compagniet (primera compañía de Alfred Nobel y precursora de Nitro Nobel, ahora parte de Dyno Nobel Europa).

1936  – Un cable de detonación confiable, flexible, fácil de usar y recubierto en fibra textil, Primacord®, es desarrollado por Ensign-Bickford Company.

1956 – El Dr. Melvin Cook es pionero en explosivos de mezcla pastosa (con base de agua) en IRECO. Posteriormente se incorpora a Dyno Nobel.

Década de 1960 – IRECO (Dyno Nobel) desarrolla el revolucionario sistema del camión bomba de mezcla en el sitio inerte hasta la mezcla (SMS™) para explosivos con mezcla pastosa y productos empacados de diámetro pequeño.

1973 – El sistema de iniciación no eléctrica NONEL® es inventado por Per Anders Persson en Nitro Nobel – posteriormente Dyno Nobel.

1980 – Dyno Nobel comercializa emulsiones empacadas y a granel, otro tipo de explosivo con base de agua.

Décadas de 1980 y 1990 – Desarrollo continuo de sistemas de iniciación no eléctrica en Ensign-Bickford Company y Dyno Nobel.
TROJAN® GEOPRIME® (Tech Info), page 2 of 2

Product Disclaimer: Dyno Nobel Inc. and its subsidiaries disclaim any warranties with respect to this product, the safety or suitability thereof, or the results to be obtained, whether express or implied, INCLUDING WITHOUT
LIMITATION, ANY IMPLIED WARRANTY OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE AND/OR OTHER WARRANTY. Buyers and users assume all risk, responsibility and liability whatsoever from any and
all injuries (including death), losses, or damages to persons or property arising from the use of this product. Under no circumstances shall Dyno Nobel Inc. or any of its subsidiaries be liable for special, consequential or
incidental damages or for anticipated loss of profits.
NONEL® STARTER™ — SDS (SDS), page 9 of 10

PRODUCT NAME NONEL® NON-ELECTRIC DETONATORS

15. REGULATORY INFORMATION
15.1 Safety, health and environmental regulations/legislation specific for the substance or mixture
Poison schedule Classified as a Schedule 6 (S6) Standard for the Uniform Scheduling of Medicines and Poisons (SUSMP).
Classifications Safe Work Australia criteria is based on the Globally Harmonised System (GHS) of Classification and
 Labelling of Chemicals (GHS Revision 7).
Inventory listings AUSTRALIA: AIIC (Australian Inventory of Industrial Chemicals)
 All components are listed on AIIC, or are exempt.

16. OTHER INFORMATION
Additional information DISCLAIMER: The information provided herein concern explosive products which should only be
 handled by persons having the appropriate technical expertise, training, and licence(s). The result is
 largely dependent upon the conditions of storage, transportation and use.
ANFO — SDS (SDS), page 4 of 7

10.5 Incompatible materials
May detonate if heated strongly or exposed to severe shock. Incompatible (explosively) with acids (e.g. nitric acid), metal powders,
combustible materials, alkalis (e.g. sodium hydroxide), oxidising agents (e.g. hypochlorites), chloride salts, sulphur, urea, nitrites and
reducing agents.

10.6 Hazardous decomposition products
May evolve toxic gases (carbon/ nitrogen oxides, nitric acid, ammonia, hydrocarbons) when heated to decomposition.

11. TOXICOLOGICAL INFORMATION

SDS Date: 13 Mar 2026
 Page 4 of 7
 Revision No: 1.4
Delay Pattern Guide 2025.pdf (Guide), page 29 of 38

29

ST FREE FACE
 AR

25 25 25 25 25 25 25
 T

0 25 50 75 100 125 150 175
 42
 FREE FACE

25 25 25 25 25 25 25
 67 92 117 142 167 192 217 242
 42

25 25 25 25 25 25 25
 134 159 184 209 234 259 284 309

6440 S Millrock Dr, STE 150
 Salt Lake City, UT 84121
 NONEL® EZ DET® NONEL® EZTL®
 1
 000 Sequential Time Movement Direction
 00
Always and Nevers (Guide), page 3 of 8

e carbono garder tendu. ALWAYS spray the muckpile with water in accordance with federal, state and generadas en voladuras subterráneas confinadas como las usadas para abrir
local laws and regulations. TOUJOURS suivre les recommandations du fabricant pour couper et connecter
 pozos, trincheras o zanjas, se desplazarán por el subsuelo y se acumularán
 le principal tube de choc d’entrées. ALWAYS avoid conditions that might cause explosive materials to burn rather en espacios subterráneos cercanos y cerrados como son los sótanos y las
than detonate. alcantarillas o túneles de acceso al subsuelo. TOUJOURS déconnecter les raccords à retardement extérieurs avant de manier
 SIEMPRE cumpla con las leyes y normas federales, estatales y locales un daté d’allumage. NEVER enter a recently blasted trench or an enclosed space without checking for referentes a los niveles de gases considerados seguros antes de reingresar al TOUJOURS proteger les reccords à retardement extérieurs contre toute source
toxic gasses such as carbon monoxide. área de la voladura. d’énergie involontaire, telle que: collision avec des chutes de pierre, collision
NEVER use explosive materials that appear deteriorated or damaged.
Development optimisation leads to reduced overbreak and cycle efficiencies (Case Study), page 2 of 2

lication of Dyno Nobel’s electronic detonators was a
  Decrease in cycle times of 13% resulting in an increase
major enabler of the development optimisation process. The
 in development productivity. precision timing of the detonators has mitigated “delay
scatter”, while the combination of timing flexibility and
accuracy has resulted in consistent and repeatable blasting
outcomes.

Remote initiation of development headings from the surface
was achieved with a Blast Control Unit (BCU) which
eliminates any potential risk to personnel during firing times
and greatly improves firing reliability.

Photogrammetry analysis was used to capture 3D images
from which volumes of post fired faces can be calculated to
determine under/overbreak and confirm the benefits of the
introduced optimised elements.

Value Added
HEADING
DYNO® TX (Tech Info), page 1 of 2

uld be no
 closer than 0.75 m (30 in). Hole spacing for 65 mm (2½ in ) diameter product should
 be no closer than 0.9 m (36 in). When delaying charges with minimum spacing, use
 a
 All Dyno Nobel Inc. energy and gas volume values are calculated using PRODET™ the delay intervals no greater than 25 milliseconds between adjacent charges. computer code developed by Dyno Nobel Inc. for its exclusive use. Other computer
 codes may give different values. • ALWAYS ensure continuous column loading of cartridges. Where column separation
 b
 ANFO = 1.00 @ 0.82 g/cc is likely, use additional primers. c
 Unconfined @ 50 mm (2 in) diameter
 d
 Approved for underground use as IME Fume Class 1 / Natural Resources Canada
 Fume Class 1 in chub/PMP package only.

Hazardous Shipping Description
 • Explosive, Blasting, Type E, 1.1D, UN 0241 II

Product Disclaimer: Please see reverse side.
TROJAN® SPARTAN® SR (Tech Info), page 2 of 2

TECHNICAL DATA SHEET
TROJAN® SPARTAN® SR™ PRODUCT DESCRIPTION - continued
 TROJAN SPARTAN SR cast boosters are formulated from the
Shock Resistant Cast Booster highest quality PETN and other high explosive materials ensuring reliability, consistency
 and durability in all blasting environments. The fluorescent yellow container makes the TROJAN SPARTAN booster more visible on
 the blast site and reduces the possibility of misplaced charges. Properties Cont. APPLICATION RECOMMENDATIONS
 Packaging • NEVER force the detonator into the through-tunnel, the detonator-well or otherwise
 attempt to clear these areas if obstructed. If the through-tunnel or detonator-well
 does not accommodate the detonator, do not use the booster. Notify your Dyno
 Gross Nobel representative. Unit Weight Unit Dimensions
 Case Weight/Case
 • ALWAYS use a detonator with a minimum length of 8.89 cm (3.5 in). The detonator
 Quantity well length is 10.2 cm (4.0 in). Length Diameter
 g oz kg lbs
 cm in cm in • Extremely low temperatures do not affect the performance of cast boosters with
 commercial detonators. Low temperatures do affect detonators and detonating
 150 5.5 11.9 4.7 3.6 1.4 95 18.9 41.8 cord. Be certain your initiation system is suitable for your application in extremely
 low temperatures.
DYNOSTART™ — Tech Info (Tech Info), page 2 of 2

®

DynoStart™ DS2 Technical
 Information
Waste Oil fuel blends deliver cost reduction (Case Study), page 2 of 2

Waste Oil Fuel Blends Deliver a Fuel Oil
 Cost Reduction for Bulk Explosive

Integrated 3G/4G remote HMI monitoring with a very stable and
 Project Goals robust processing platform allows for rapid assessment of
 processed waste oil quality and quantity.
FIRELINE 17/80 PETN PLASTIC (Tech Info), page 2 of 2

Application Recommendations +2%; 152m spools may contain as many as 3 pieces, totally 152 m, with a
• This product is not recommended for exposure to well bore fluids. minimum splice/piece length of 8 m (25 ft).
• ALWAYS cut FIRELINE 17/80 PETN PLASTIC detonating cord with a sharp knife.
•N EVER attempt to cut FIRELINE 17/80 PETN PLASTIC detonating cord with a blow
 from a sharp or blunt object, such as an axe, pipe wrench, or rock.
• NEVER saw FIRELINE 17/80 PETN PLASTIC detonating cord; it may explode and
kill or injure.
•N EVER cut detonating cord with devices that produce metal-to-metal contact, such
 as scissors, wire cutters, crimpers or similar instruments.

Case Dimensions
 28 x 28 x 40 cm 11 x 11 x 15 ¾ in

ADDITIONAL INFORMATION – Visit dynonobel.com for Brochures and Case Studies related to this product.
FIRELINE 13/60 HMX LS (Tech Info), page 1 of 2

TECHNICAL DATA SHEET
FIRELINE® 13/60 HMX LS
Oil Field Detonating Cord
 SDS Nylon
 Properties #1121 Jacket
 Explosive Core Load 13 g/m (60 gr/ft) nominal
 LS
 Braid
 11.5 g/m (54 gr/ft) minimum
 HMX
 Detonation Velocity 6800 m/s (22,304ft/s) nominal
 6400 m/s (20,992 ft/s) minimum
 Product Description
 Shrinkage 1% maximum @ 163°C (325°F) in 24 hrs FIRELINE 13/60 HMX LS is designed to be used with a tubing or wireline conveyed
 Jacket Thickness 0.254 mm (0.010 in) nominal perforating system used within time and temperature limits (see graph below). This
 Dimensions 4.62 mm (0.182 in) nominal product has been successfully used in carrier-based perforating systems within HMX
 time and temperature operating ranges (see graph) where the jacket is protected from

+0.20 mm (0.008 in)
 pressure and/or fluids. Nylon jacket limitations will not normally permit this product to
 Lap Joint Sensitive Yes be used in exposed applications within HMX application ranges.
 Product Code A574010
 Cord Components HMX explosive core (white) Temperature Range
 The temperatures listed are maximum values. DO NOT EXCEED.
 Shrink resistant braid (yellow/gold)
 Nylon jacket (green) 204 (400)
 204
 • Temperature resistance is based upon the manufacturer’s laboratory 177 (350) (400) 191 191
 (375) 177
 tests in air, at ambient pressure only. (375) 177
 163 163
 149 (300) (350) (350)
DIFFERENTIAL ENERGY® in Surface Gold Mining (Case Study), page 1 of 2

the average density of each segment in the hole
Measured results confirmed that significant value in was respectively 1.26, 1.22, and 1.09g/cc. productivity, cost and blast performance were delivered. The mine reduced its overall powder factor by 18%,
realized an 8% increase in shovel productivity in both
waste and ore, and in the case of ore, experienced no
reduction in crusher throughput. Additionally, they
completely eliminated visible NOx after blast fumes in
even the wettest areas of the pit.

BACKGROUND
NEWEST TECHNOLOGY OR DIRECT
REPLACEMENT
The mine’s existing fleet of bulk delivery equipment was
ready for replacement. It was an opportune time for mine
management to evaluate upgrading equipment with Dyno
Nobel’s DIFFERENTIAL ENERGY technology against
direct replacement of old delivery equipment.

Over the past 10 years or more, the mine has been
using Dyno Nobel TITAN 2050G (chemically sensitized
Heavy ANFO) and TITAN 2070G (chemically sensitized
repumpable emulsion ANFO blend). Production drill holes
at the mine are 40 feet deep with a 6 ¾ inch diameter.
Burden and spacing varied depending upon geology
which was primarily Breccia and Precambrian.
Explosives Engineers' Guide (Guide), page 8 of 13

ominal Time Tag Nominal Time Tag St ar t er & Lead Li ne
 (msec) Color (msec) Color
 NONEL® Starter is a spool of shock tube that is fac-
 0 Orange 325 White tory-assembled to a nonelectric detonator. Available
 25 Red 350 Green in 200, 500 or 1,000 foot lengths. 50 Tan 375 White NONEL® Lead Line consists of a 2,500 foot spooled
 length of shock tube without a detonator. When initi-
 75 Green 400 Blue ated, the shock tube propagates a low energy signal
 100 Blue 425 White to the detonator at a rate of 6,500 ft/second. 125 Orange 450 Orange
 150 Purple 475 White
 175 Gray 500 Purple
 200 Lt Blue 525 White
 225 White 600 Gray
 250 Red 700 Lt Blue
 275 White 800 Red
 300 Tan 900 Tan
 1,000 Green Starter

NONEL® Nonelectric Initiation
TITAN® 7000 — Tech Info (Tech Info), page 1 of 2

Description RBS (1.05g/cm3) 5 1.01
TITAN® 7000 gassed emulsion is water resistant and designed to be pumped from
 RBS (1.15g/cm3) 5 1.11
a bulk underground delivery truck. The TITAN 7000 system uses the specialised
‘charging vehicle’ for applications in up and down-holes. The truck is equipped RBS (1.25g/cm3) 5 1.20
with a dedicated boom and patented hose retraction unit. Typical Velocities of Detonation
Advantages Product Hole Diameter (mm) Density (g/cm3) Booster VoD (m/s)
The TITAN 7000 emulsion has been specifically formulated to provide excellent
up-hole retention. The emulsion has been developed for blast holes with TITAN 7000G 102 mm 1.10 400HDP 5000 5
diameters of 35-102mm and up to 30m in length. TITAN 7000 emulsion can be
 NOTES:
loaded to variable densities of 0.8 – 1.25g/cc for tailoring to specific geological 1. In hole density is dependant on hole depth and loading rate. conditions. 2. All Dyno Nobel energy values are calculated using a proprietary Dyno Nobel thermodynamic code – Prodet. Other
 programs may give different values. 3. Water resistance is determined using laboratory testing methods. 4. Under normal conditions in dry, stemmed, non-reactive (pyritic) blast holes, TITAN 7000G may be slept for a period
 of up to 30 days. The sleep time may be limited to the recommended sleep time of the initiating system.
DIGISHOT® ELECTRONIC INITIATION SYSTEM 1.1B (Tech Info), page 2 of 2

TECHNICAL DATA SHEET
DIGISHOT® UNIQUE FEATURES
 • The location and delay is stored in the detonators non-
Electronic Initiation System volatile memory. The delay can now be assigned at the hole or after assigning only
 the location. The DigiShot Electronic Initiation System automatically checks the
 functionality of the detonator while concurrently assigning the detonator location
Case Dimensions and/or delay. 40.5 x 29.25 x 28.5 cm 16 x 11.5 x 11.25 in • CE4 Tagger is a unique, light-weight, blaster-friendly hand-held tool used to assign
 the borehole / DigiShot detonator and delay location with minimal key strokes. The
 Tagger can be used to test an individual detonator, part of the pattern or the entire
 circuit prior to leaving the bench. The Tagger, together with the CE4 Ranger, enables
 initiation of the blast from a point of safety. Easy-to-follow screen menus lead the
Hookup Diagram blaster through all on-bench and firing operations
 • The CE4 Ranger automatically detects and tests all DigiShot detonator connected to
 the surface wire. For added security, the CE4 Ranger is password protected, requires
 a specific BlastCard that uses an encryption code as well as a fire command to fire
 the blast. • The connectors are all rugged and water resistant.
Explosives Engineers' Guide (Guide), page 4 of 13

0 1.22 3 to 7 650 800 19,000 5,800 Excellent B,G
 BLASTGEL 1070 1.27 4 to 7 730 935 18,000 5,500 Excellent B,G
 A NF O
 DYNOMIX™ 0.82 50 lb. bag 880 720 12,800 3,900 None B,G,U
 DYNOMIX WR 0.87 50 lb. bag 880 748 11,350 3,460 Limited B,G,U
 S e is m ic Density
 g/cc
 Diameter(s)
 inches
 Calories Gas
 per Gram Volume
 Velocity
 ft/sec
 Velocity
 m/sec
 Detonation
 Pressure Kbars
 Usage
 Code
 ®
 GEOPRIME dBX 1.70 1½ to 2¼ 1,880 20.5 23,950 7,300 227 D,S
 GEOPRIME 1.63 2¼ 1,500 27.9 24,600 7,500 230 D,S
 VIBROGEL® 1.43 1 to 2.4 1,250 26.0 20,000 6,100 133 D,S
 SEISPRO® 1.18 1.4 to 2.4 1,000 35.5 19,350 5,900 103 D,S
 Usage Codes D = Detonator Sensitive B = Booster Sensitive G = General Purpose PS = Presplitting
 P = Permissible U = OK for underground Use RD = Resistant to Dead-Pressing
 RS = Resistant to Sympathetic Detonation SL = Use with Swedish Loader S = Seismic Energy Source

Relative Weight Strength (RWS) and Relative Bulk Strength (RBS) can be calculated based on ANFO = 1.00 @ density of 0.82 g/cc
Energy cal/g = Absolute Weight Strength Energy cal/cc = Absolute Bulk Strength

Packaged Explosives
Delay Pattern Guide 2025.pdf (Guide), page 5 of 38

5

 FREE FACE
 ST
 AR
 T

 17
 0 17 51 85 119 153 187 221
 FREE FACE

 17 17 17 17 17 17 17 17
 17 17 17 17 17

 17
 34 68 102 136 170 204 238 255

 6440 S Millrock Dr, STE 150
 Salt Lake City, UT 84121
 Telephone: +1 800 473 2675 000 Sequential Time 00 NONEL® EZTL® Delay Time (ms) Movement Direction 1
 dynonobel.com
 1
DYNO NOBEL INC. and its subsidiaries and affiliates disclaim
any warranties with respect to their products and the information APPLICATIONS SURFACE DELAYS NOTES
presented herein, the safety or suitability thereof, or the results to
be obtained, whether express or implied, INCLUDING WITHOUT
LIMITATION, ANY IMPLIED WARRANTY OF MERCHANTABILITY Quarry or construction 17 ms
OR FITNESS FOR A PARTICULAR PURPOSE AND/OR ANY OTHER
WARRANTY. Buyers and users assume all risk, responsibility and
liability whatsoever from any and all injuries (including death), losses, LIMITATIONS IN-HOLE DELAYS
or damages to persons or property arising from their use of the
products. Under no circumstances shall DYNO NOBEL INC. or any
 Infinite in length, 2 rows deep Same delay period in each hole. Suggested
of its subsidiaries or affiliates be liable for special, consequential or
incidental damages or for anticipated loss of profits. in-hole delay: 500 ms
Centralized Blasting – Increasing Production by Eliminating Downtime Before and During Blasting (EEG Guide), page 1 of 1

BlastWeb™ is a centralised blasting system that is specifically designed for use in underground mining operations and allows reliable remote initiation of development, production and stope blasting from a safe and controlled location on the surface.

Centralised blasting systems An approach to safety functionality and efficiency
MIXED ACID (SDS), page 11 of 14

Safety Data Sheet
U.S. - Oregon - Permissible Exposure Limits - TWAs
RTK - U.S. - Pennsylvania - RTK (Right to Know) - Environmental Hazard List
RTK - U.S. - Pennsylvania - RTK (Right to Know) List
U.S. - Rhode Island - Air Toxics - Acceptable Ambient Levels - 1-Hour
U.S. - South Carolina - Toxic Air Pollutants - Maximum Allowable Concentrations
U.S. - South Carolina - Toxic Air Pollutants - Pollutant Categories
U.S. - Tennessee - Occupational Exposure Limits - STELs
U.S. - Tennessee - Occupational Exposure Limits - TWAs
U.S. - Texas - Effects Screening Levels - Long Term
U.S. - Texas - Effects Screening Levels - Short Term
U.S. - Vermont - Permissible Exposure Limits - STELs
U.S. - Vermont - Permissible Exposure Limits - TWAs
U.S. - Washington - Permissible Exposure Limits - STELs
U.S. - Washington - Permissible Exposure Limits - TWAs
U.S. - Wisconsin - Hazardous Air Contaminants - All Sources - Emissions From Stack Heights 25 Feet to Less Than 40
Feet
U.S. - Wisconsin - Hazardous Air Contaminants - All Sources - Emissions From Stack Heights 40 Feet to Less Than 75
Feet
U.S. - Wisconsin - Hazardous Air Contaminants - All Sources - Emissions From Stack Heights 75 Feet or Greater
U.S. - Wisconsin - Hazardous Air Contaminants - All Sources - Emissions From Stack Heights Less Than 25 Feet
U.S.
TITAN® 1000 (Tech Info), page 1 of 2

TECHNICAL DATA SHEET
TITAN® 1000 PRODUCT DESCRIPTION
 TITAN 1000 is an unsensitized, repumpable, bulk emulsion
Unsensitized Bulk Emulsion Matrix matrix specifically formulated for augered mixing with bulk ANFO to manufacture TITAN
 1000 Heavy ANFO blends. TITAN 1000 Heavy ANFO blends with 50% or less emulsion
 are booster sensitive and provide excellent blasting performance in surface blasting
 SDS applications where boreholes are dry or dewatered before loading. The emulsion
 Properties #1052
 percentage of TITAN 1000 Heavy ANFO blends can vary from 5% to 50% to best match
 specific blasting requirements. Refer to the data table at right for the physical properties
 of typical TITAN 1000 Heavy ANFO explosive blends.