kcherry497/dyno-blast-4b-rag huggingface dataset:
NONEL® & Primacord® Product Manual (Guide), page 29 of 85

5. Cut the shock tube from the spool and
 cover its end with a vinyl end protec-
 tor. Cover the cut end remaining on the
 spool with a vinyl end protector (Figure 25)
 and remove the spool from the blast site.
 6. When the blaster in charge is ready to fire
 the blast, remove the vinyl end protector
 and insert the Lead Line into the starter of
 choice. Dyno Nobel recommends periodic
 cleaning of the shock tube starter to ensure
 dust, carbon, etc. don’t hinder its safe opera- Figure 25 - Cut end of Lead Line
 covered with vinyl end protector
 tion. Follow the manufacturer’s instructions to prevent moisture contamina-
 to clean and operate the starter. tion.

Figure 26 - Incorrect insertion of shock tube into splice. On
 the left, the splice has been shortened, and on the right the
 splice has been bent. Both situations could lead to a mis-
 fires, which may kill or injure.

A lways keep the vinyl end pro-
 tector on the open end of Lead
 Line shock tube. Moisture in the
 A lways keep the splice and cut
 ends of the shock tube dry and
 free of dirt and other debris when
 tube may cause misfire. splicing Lead Line. Foreign mate-

A lways make a clean, square
 cut with a sharp knife or razor
 blade when trimming shock tube
 rial in the shock tube or splice may
 cause a misfire, which may kill or
 injure.

A
 products for splicing. lways connect shock tube
DynoMiner Advance (EEG Guide), page 1 of 1

The DynoMiner Advance is an air powered system designed to load TITAN 6100 gas sensitised bulk emulsion into development headings in an underground mine.  The unit incorporates a work platform on the top level where the contol panel is located.  Storage for boosters and detonators is provided.  The unit is required to be lifted by an IT.

Technical Information
DEF (DIESEL EXHAUST FLUID) (SDS), page 3 of 7

Safety Data Sheet
 Precautionary Measures Fire: Exercise caution when fighting any chemical fire. Under fire conditions, hazardous fumes
 will be present.
 Firefighting Instructions: Use water spray or fog for cooling exposed containers.
 Protection During Firefighting: Do not enter fire area without proper protective equipment, including respiratory
 protection.
 Hazardous Combustion Products: Ammonia. Nitrogen oxides.
 Reference to Other Sections: Refer to section 9 for flammability properties.
Electronic wins Blast-Off (Case Study), page 1 of 2

METALS CASE STUDY

Electronic Wins Blast-Off
 PROJECT SUMMARY PROJECT GOALS
SUPERIOR BLASTING AND EXPECTED A WIDE RANGE OF SUCCESS INDICATORS
BENEFITS The key blast performance criteria were:
Dyno Nobel’s trial at a West Australian gold mine set
out to measure the practical superiority of the electronic Productivity
detonator system over the existing NONEL® shocktube The main objective was to increase productivity, particularly
system. The mine Engineering and Geology Departments in the top flitch, by improving fragmentation.
selected sites of consistent geology.
 Electronics realised an increase to dig rate of almost 16%
The blast results were recorded using video footage, in the ore body (bcm/hour), nearly an additional 1500 bcm
vibration monitoring throughout the mine, spot heights over an 11 hour shift.
of muck-pile swell to provide heave profile graphs and
PITRAM data. Instantaneous dig rates were 119 bcm/hour higher using
 electronics. Bucket fill factors increased by 4% and
The expected benefits of using electronics were: excavator dig rates 6% due to blasting improvements.
DYNOSPLIT® EX (SDS), page 5 of 11

Safety Data Sheet
Hygiene Measures: Handle in accordance with good industrial hygiene and safety procedures. Wash hands and other
exposed areas with mild soap and water before eating, drinking, or smoking and again when leaving work. Do not eat,
drink or smoke when using this product.
Conditions for Safe Storage, Including Any Incompatibilities
Technical Measures: Proper grounding procedures to avoid static electricity should be followed. Protect container from
physical shock.
Storage Conditions: Store tightly closed in a dry, cool and well-ventilated place. Store at room temperature, below 100 °
F (38 °C). Always avoid open flames and excessive heat exposure. Protect from freezing. In case of electrical storm and
possible lightning, locations where lightning could strike and initiate explosions, such as storage areas, must be
evacuated to a safe distance. Store in accordance with local, regional, national or international regulation.
Incompatible Materials: Heat sources. Strong acids. Strong bases. Strong oxidizers. Reducing agents.
Storage Temperature: < 30 °C (< 86 °F)
Special Rules on Packaging: Keep only in the original container.
Specific End Use(s) Not available
TROJAN® SHIELD™ — Tech Info (Tech Info), page 1 of 2

TECHNICAL DATA SHEET
TROJAN® SHIELD® PRODUCT DESCRIPTION

Shock Resistant Cast Boosters TROJAN SHIELD cast boosters are detonator sensitive, high density, high energy
 molecular explosives available in two sizes designed to optimise initiation of all booster
Properties sensitive explosives.
DYNOMAX™ PRO (SDS), page 10 of 13

Safety Data Sheet
 ssssSSherrSheetSSh
14.2 In Accordance with IMDG
Proper Shipping Name : EXPLOSIVE, BLASTING, TYPE A

eeSheet
Hazard Class
Identification Number
Label Codes
 : 1.1D
 : UN0081
 : 1.1D
EmS-No. (Fire) : F-B
EmS-No. (Spillage) : S-Y
Marine pollutant : Marine pollutant
14.3 In Accordance with IATA
Proper Shipping Name : EXPLOSIVE, BLASTING, TYPE A
Identification Number : UN0081
Hazard Class : 1
Label Codes : 1.1D
ERG Code (IATA) : 1L
14.4 In Accordance with TDG
Proper Shipping Name : EXPLOSIVE, BLASTING, TYPE A
Packing Group : II
Hazard Class : 1.1D
Identification Number : UN0081
Label Codes : 1.1D
Marine Pollutant (TDG) : Marine pollutant
AMMONIUM NITRATE UN1942 (SDS), page 1 of 9

Safety Data Sheet
SECTION 1 – IDENTIFICATION
Name, Address, and Telephone of the Responsible Party
Dyno Nobel LTD SDS #: 1020
6440 S. Millrock Drive, Suite 150 Date: 05/01/2025
Salt Lake City, Utah 84121 Supersedes: 01/01/2025
Phone: 801-364-4800
E-Mail: dna.healthsafety@am.dynonobel.com
www.dynonobel.com
Product Identifier
Product Name: Superprill
Formula: NH4NO3
Other Means of Identification
Synonyms: Superprill™, Prilled Ammonium Nitrate, Industrial Grade LoDAN, Ammonium Nitrate, Industrial Grade
HiDAN, Ammonium Nitrate, Agricultural Grade
Intended Use of the Product
Industrial applications
Emergency Telephone Number
FOR 24 HOUR EMERGENCY, CALL CHEMTREC (USA) 800-424-9300
 CANUTEC (CANADA) 613-996-6666

SECTION 2 – HAZARD(S) IDENTIFICATION
Classification of the Substance or Mixture
Classification (GHS-US)
Ox. Sol. 3 H272
Eye Irrit. 2A H319
Label Elements
GHS-US Labeling
Hazard Pictograms (GHS-US) :

GHS03 GHS07
Shot Pattern Guide (Guide), page 1 of 38

Shot Pattern Guide

© 2001 Dyno Nobel Inc.
Revised 15 December 2006
FIRELINE 10/50 HMX LS RIBBON (SDS), page 9 of 16

Safety Data Sheet
According to: 1907/2006/EC (REACH), 1272/2008/EC (CLP), and OSHA GHS
Trade Name: Detonating Cord, Specialty (Oil Field) (Class 1.1D)

Colour : According to product specification
Odour : Odourless
Odour Threshold : Not determined.
pH-value : Not applicable.
Change in Condition
Melting point/Melting range : Not Determined.
Boiling point/Boiling range : Undetermined.
Flash point : Not applicable.
Flammability (solid, gaseous) : Explosive; mass explosion hazard.
Auto/Self-ignition temperature : Not determined.
Decomposition temperature : Not determined.
Self-igniting : Product is not self-igniting.
Danger of explosion : Risk of explosion by shock, friction, fire or other sources of ignition.
Explosion limits
Lower : Not determined.
Upper : Not determined.
Vapour pressure : Not applicable.
Density : Not determined.
Relative density : Not determined.
Vapour density : Not applicable.
Evaporation rate : Not applicable.
Solubility in / Miscibility with water : Variable, dependent upon product composition and packaging.
Partition coefficient (n-octanol/water) : Not determined.
Viscosity
Dynamic : Not applicable.
Kinematic : Not applicable.
9.2 Other Information : No further relevant information available.
TROJAN® GEOPRIME® dBX® (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.
Explosive Engineers Guide (Guide), page 56 of 66

Pa c kaged Products

SANFOLD®
SANFOLD® is a low-density explosive formulated for use in underground blasting. It provides
a range of explosive strengths for applications that require lower strength explosives such as
in perimeter blasting.

 Typical density Theoretical energy comparison Recomm
 g/cm3 (MJ/kg) RWS RBS min hole (mm)
Poured 0.55 3.54 96 64 50
Blow loaded 0.67 3.54 96 78 32

© Dyno Nobel Asia Pacific Pty Limited 2025. Reproduction without permission is strictly prohibited. 56
NONEL® EZ DET® 1.1B (SDS), page 4 of 19

CS: 231-143-9 substance with a Community workplace exposure limit
 CAS: 7429-90-5 aluminium powder (pyrophoric)
 EINECS: 231-072-3 F R15-17
 Index number: 013-001-00-6
 Pyr. Sol. 1, H250; Water-react. 2, H261
 CAS: 7440-36-0 antimony
 EINECS: 231-146-5 substance with a Community workplace exposure limit
 CAS: 2691-41-0 octahydro-1,3,5,7-tetranitro-1,3,5,7-tetrazocine (HMX)
 EINECS: 220-260-0 T R24; Xn R22; E R2
SDS# 1122 Date: 05/01/2025 Page 4/19
REDUCED BIURET UREA (RBU) (SDS), page 6 of 8

Urea (57-13-6)
LC50 Fish 1 16200 - 18300 mg/l (Exposure time: 96 h - Species: Poecilia reticulata)
EC50 Daphnia 1 3910 mg/l (Exposure time: 48 h - Species: Daphnia magna [static])
 Methylenediurea (68611-64-3)
EC50 Daphnia 1 > 150 mg/l (Exposure time: 48 h - Species: Daphnia magna [static])
Persistence and Degradability Not available
Bioaccumulative Potential
 Urea (57-13-6)
BCF fish 1 < 10
Log Pow -1.59 (at 25 °C)
Mobility in Soil Not available
Other Adverse Effects
Other Information: None

SECTION 13 - DISPOSAL CONSIDERATIONS
Waste Disposal Recommendations: Dispose of waste material in accordance with all local, regional, national,

SDS# 1132 Date: 05/01/2025 Page 6 of 8
BLASTGEL® 1000 (SDS), page 3 of 10

Safety Data Sheet
 Carc. 2, H351
 STOT RE 2, H373
 Asp. Tox. 1, H304

Distillates, petroleum, chemically (CAS No) 64742-35-4 0.1 - 6 Asp. Tox. 1, H304
neutralized light naphthenic
* This ingredient is not used in GREEN-named products.
Ingredients, other than those mentioned above, as used in this product are not hazardous as defined under current
Department of Labor regulations or are present in deminimus concentrations (less than 0.1% for carcinogens, less than
1.0% for other hazardous materials).

Full text of H-phrases: see section 16
TITAN® 9000xero® — SDS (SDS), page 6 of 7

PRODUCT NAME TITAN® XERO SERIES

LAND TRANSPORT (ADG) SEA TRANSPORT (IMDG / IMO) AIR TRANSPORT (IATA / ICAO)

14.1 UN Number 0241 0241 PROH
14.2 Proper EXPLOSIVE, BLASTING, TYPE E EXPLOSIVE, BLASTING, TYPE E Air transport PROHIBITED under
Shipping Name the International Air Transport
 Association (IATA) Dangerous
 Goods Regulations for transport by
 air in passenger and cargo aircraft.
14.3 Transport 1.1D 1.1D None allocated.
hazard class
14.4 Packing Group None allocated. None allocated. None allocated.
14.5 Environmental hazards
Not a Marine Pollutant.
14.6 Special precautions for user
 Hazchem code E
 GTEPG EXP1
 EmS F-B, S-X

15. REGULATORY INFORMATION
15.1 Safety, health and environmental regulations/legislation specific for the substance or mixture
Poison schedule A poison schedule number has not been allocated to this product using the criteria in the 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.
Electronic Initiation and Waveform Analysis improve off-Site Blasting Effects (Case Study), page 1 of 2

BACKGROUND TECHNOLOGY APPLIED
DEMANDING SEISMIC LIMITATIONS REQUIRES THE ELECTRONIC DETONATOR’S TIMING
USING STATE-OF-THE ART TECHNOLOGY FOR ACCURACY AND PROGRAMMABILITY IS USED
BLASTING IN CONJUNCTION WITH WAVEFORM ANALYSIS
 SOFTWARE
In 2011, a central Vermont quarry converted from
nonelectric detonators to Dyno Nobel’s DigiShot electronic The process to determine the optimum delay timing
initiation system. This change was made to better comply sequence for each specific blast event starts with accurate
with a 0.500 inches-per-second vibration limit mandated seismic data collection. A series of seismographs are
by the mineral rights holder, a global producer of industrial deployed at the quarry’s regular monitoring locations, to
fillers and pigments. capture seismic data from single test holes that are loaded
 and detonated on the active production benches.
Electronic Detonator precision and Signature Hole Analysis (SHA) provide new alternatives for pipeline construction (Case Study), page 1 of 3

on required per mile of trench. levels within project specifications of 2.00 ips for surface
 By eliminating decking, borehole loading could be
structures and 4.0 ips for buried utilities. simplified. With no need to deck between charges in
In order to meet these regulations, conservative blast each hole, the time required to load each hole would be
designs using multiple decks and reduced hole spacing dramatically reduced, again increasing linear trench
was employed, but this resulted in a reduction in the excavation per day. linear feet excavated per day.
DYNOMAX™ PRO (SDS), page 6 of 13

) 0.2 ppm
Sulfur (7704-34-9)
Alberta OEL TWA (mg/m³) 10 mg/m³
Exposure Controls
General: Inhalation and skin contact should be avoided. Exposure may cause headaches, nausea, and blood vessel
dilation. Protective clothing should be changed daily, more often if contaminated. Appropriate Engineering Controls: Forced ventilation may be necessary where natural ventilation is limited. Magazines containing NG and/or EGDN based explosives must be ventilated before entry. Ensure adequate ventilation,
especially in confined areas. Ensure all national/local regulations are observed. Personal Protective Equipment: Gloves. Safety glasses. Suitable work clothing. If insufficient ventilation: wear
respiratory protection.

Materials for Protective Clothing: Not specified.
Hand Protection: Wear chemically resistant protective (nitrile) gloves.
Eye Protection: Safety glasses are recommended.

SDS# 1019 Date:07/20/2020 Page 6 of 13
GEOSHOT® ELECTRONIC INITIATION SYSTEM 1.1B (Tech Info), page 1 of 2

TECHNICAL DATA SHEET
GEOSHOT® PRODUCT DESCRIPTION
 GeoShot joins the proven suite of electronic initiation
Seismic Electronic Initiation System systems from Dyno Nobel. This system provides enhanced safety and security for the
 geophysical exploration industry. GeoShot is configured with special features to meet
 the unique needs of drillers and data acquisition crews. GeoShot delivers accurate,
 SDS rugged and reliable hardware, along with smart, easy-to-use shotpoint data collecting
 Properties #1152
 software for our seismic customers.
 With safety always Dyno Nobel’s #1 priority, the GeoShot Tagger communicates with
 Detonator Shell / Cable Conductors Copper the GeoShot detonators using a voltage below minimum firing voltage and does not
 contain the encoded firing command. The GeoShot SIU is the only device that can
 Detonator Shell Dimensions 94 mm long / 7.5 mm O.D. deliver the encoded firing command to the GeoShot detonator.
 3.7 in long / 0.29 in O.D.
 Cable Color Orange
 Coiled Standard Wire Tensile Strength >200 N / 45 lbs @ 21°C / 70°F
 Spooled HD Wire Tensile Strength >300 N / 75 lbs @ 21°C / 70°F
 Wire Elongation Maximum 25%
 System Operating Temperature (range) -40° to +80°C / -40° to +176°F
 Detonator Strength #12
 Net Explosive Quantity (per 100 units) 0.10 kg / 0.22 lbs
DYNOSPLIT® AP (Tech Info), page 2 of 2

Note: Package diameter and type affect product density. Use cartridge count to determine
 actual explosive charge weight. Note: All weights are approximate.

DYNOSPLIT AP are available in a wide variety of sizes. Custom sizes are subject to
 Case Dimensions
 surcharge and may require longer than usual lead times. Check with your Dyno Nobel
 representative should you have any questions.
 X 127 x 27 x 16 cm 49.875 x 10.750 x 6.19 in
 *Add four pounds for Gross Case Weight Y 88 x 28 x 16 cm 34.750 x 10.875 x 6.25 in

ADDITIONAL INFORMATION – Visit dynonobel.com for Brochures and Case Studies related to this product.

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.
SANFOLD® (EEG Guide), page 1 of 1

Type
Poured g/cm3 (TD)
Blow Loaded g/cm3 (TD)
MJ/kg (TEC)
Poured mm (RMH)
Blow Loaded mm (RMH)

SANFOLD 50
0.55
0.67
3.51
50
0

TD = Typical Density

TEC = Theoretical Energy Comparison

RMH = Recommended Minimum Hole
Nobel Fire (Brochure), page 4 of 8

Advanced Vibration Prediction
Blasting Vibration Prediction Tool
Advanced Vibration Prediction is Dyno Nobel’s vibration prediction tool designed
to revolutionize the way the mining industry approaches vibration. While traditional
models assume every blasthole will generate an identical wave, Advanced Vibration
Prediction accounts for variability in blasting, including confinement, charge weight,
bearing to structure, geological differences, and destructive and constructive
interference, for the most accurate vibration prediction in the industry.
Through a proprietary waveform generation algorithm, Advanced Vibration Prediction
uses a seed waveform as a starting point. It then generates thousands of synthetic
waveforms to add variability to the synthetic convoluted blasting outcomes. These
iterations of a single blast give a stochastic analysis that provides the likelihood of
all potential outcomes so operations of all shapes and sizes can predict vibration
outcomes with confidence.

 Benefits
 • Industry-Leading Accuracy
 • Calibrated From Measured Blasts
 • Accounts for Intrinsic Variability in Blasting
 • Stochastic Approach for Confidence in
 Prediction
 • Simulates Hundreds of Blasts for Statistical
 Analysis

 Statistical analysis of outcome in AVP

 Shaping a waveform in AVP
Application Technology - 3D Blast Modeling (Case Study), page 1 of 1

Application Technology—3D Blast Modeling

Project Summary
CURRENT SITUATION
Waste rock was needed to re-establish haul roads for an Iron
Mine in the Midwest USA. This was an existing mine being
reopened. In order to obtain the materials needed for the haul
roads the customer selected a green site. This site was located
within 200ft (5m) of an existing lake.
Before any blasting took place the Department of Natural
Resources for the state determined no material from the blast
could enter the lake. Since this was a green site there was no
experience on how to shoot this material or information on how
much movement or flyrock could be expected employing 16in
(41cm) diameter holes.
The local Dyno Nobel Technical Representative produced a
blast pattern he was confident would control the flyrock off the
shot. Other blast patterns were also presented, so an application
needed to be applied to see which blast pattern would best
control flyrock.
BLENDED NITRIC ACID (Tech Info), page 1 of 1

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.
Electronic Detonators boost performance, cut costs at the Savannah Project (Case Study), page 2 of 2

UNDERGROUND CASE STUDY

VALUE ADDED
ELECTRONIC DETONATORS DELIVER BETTER
RESULTS
The most compelling argument for using electronics was
improved safety. With pyrotechnics, charge-up operators
would have been exposed twice at the brow.

The electronic detonator system enabled the firing of a
rise, slot and rings in one shot, aiding in removing risks to
charge crews.

Panoramic Resources production engineer Mark Shannon
said, “Electronics performed strongly, and greater precision
allowed effective solutions to complex mining problems.

“This would not have been possible without Dyno Nobel’s
electronic detonators. Broken dirt was uncommonly fine
and very easy to bog.

“Ore fragmentation exceeded expectations. The stope
brows had little overbreak, without a trace of a scat on the
pump station floor.

“We were also able to demonstrate a 54% saving on rock
breaking costs.

“ROM rock breaking had averaged 5.7 hours per day the
month prior to this stope, but in the first month of the
2190_6095 stope this decreased to 5.0 hours per day.

“As the stope emptied, this dropped to 2.6 hours per day.
Improved fragmentation from electronic detonators saved
approximately $7000 in rock breaking costs alone.
TITAN® 9000 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 9000 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. relevant regulations. TITAN 9000 emulsion matrix has a
• Alternate specialised fume product, Titan 9000xero®, recommended shelf life of three (3) months when
 may also be considered for softer ground and reduced transported & stored under ideal conditions. If storage
 weight and bulk strength blasting requirements.