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Battery Engineering Case Studies

BATTERY ENGINEERING & SYSTEM INTEGRATION

Battery Engineering Case Studies

Explore TUORDE battery engineering projects covering application-specific battery design, system integration, and technical validation. Review each project to understand its engineering scope, design considerations, and available technical evidence.

TUORDE lithium batteries in an RV battery compartment with power cables and service access
RV lithium battery compartment reference showing battery positioning, cable routing and service access.

Choose Your Application

Industrial Engineering Case Studies

Explore five custom high-voltage traction-battery projects. Open the engineering details below each overview to review the application, design choices, source-reported specifications and results without leaving this page.

Orange mining haul truck with a large dump body and heavy-duty chassis
Mining truck application reference illustrating the heavy-duty vehicle context for battery system engineering.

CASE STUDY 01 · HEAVY-DUTY MINING

M2000 · Electric Mining Truck

Custom high-voltage battery engineering for heavy-load mining equipment, covering modular packs, vehicle controls and thermal integration.

900V · 2000kWh system

  • Modular pack integration
  • High-voltage and vehicle controls
  • Thermal and environmental design
View Project Details →
Electric truck chassis and battery-system integration photographed in the T44 project brief
Vehicle and battery-integration photograph supplied in the T44 project brief.

CASE STUDY 02 · ELECTRIC COMMERCIAL VEHICLES

T44 · All-Season Electric Truck

Traction-battery development for an all-season electric truck, combining active thermal management with structural and BMS integration.

540V · 80Ah · about 44kWh

  • Active heating and cooling
  • Cold-weather charging development
  • Structural and BMS integration
View Project Details →
Red off-road electric motorcycle on rocky terrain
Electric motorcycle application reference showing vehicle layout and battery integration context.

CASE STUDY 03 · SPECIALTY ELECTRIC MOBILITY

MT100 · Electric Motorcycle

Compact high-power battery development for an electric motorcycle, with tailored BMS control, housing and heat-transfer design.

360V · 16.8Ah reported pack

  • Compact shaped packaging
  • Customized BMS and enclosure
  • Heat transfer and interconnects
View Project Details →
Blue tracked snow groomer with a front snow blade in a snowy mountain environment
Snow groomer application reference showing tracked equipment, a front snow blade and a snow-covered mountain environment.

CASE STUDY 04 · COLD-WEATHER EQUIPMENT

X300 · Electric Snow Groomer

Battery-system development for snow grooming equipment, addressing cold-weather charging, thermal management and structural integration.

680V / 230Ah pack · about 300kWh system

  • Cold-weather thermal design
  • Charging and structural integration
  • Sealing and corrosion protection
View Project Details →
Electric wheel loader with the battery housing identified in the Z245 project brief
Wheel-loader photograph with battery housing identified, supplied in the Z245 project brief.

CASE STUDY 05 · INDUSTRIAL VEHICLES

Z245 · Electric Wheel Loader

Electric wheel-loader battery engineering combining structural packaging, thermal management and vehicle-control integration.

614V · 400Ah · 245kWh reported system

  • Compact structural battery
  • Thermal and charging development
  • Vehicle and BMS integration
View Project Details →

Application illustrations, design renderings and source reference imagery are captioned explicitly. These project results do not establish the performance of every TUORDE battery.

Explore the Engineering Behind Each Project

Select a project to review its engineering approach, source-reported specifications and project results on this page.

Project evidence: Specifications and results in these five industrial cases come from TUORDE-supplied case briefs. Review the applicable test methods, operating conditions and acceptance records for your configuration. These source-reported outcomes are not independent validation or universal runtime, life or safety guarantees.

M2000 · Electric Mining Truck

900V · 2000kWh systemOpen project overview, engineering solution, specifications and results

Project Overview

A mining-equipment OEM required a high-voltage battery system for heavy-load operation in dust and changing temperatures. The M2000 brief documents TUORDE’s work from cell selection and pack layout to integrated high-voltage and vehicle controls.

Application and Engineering Challenges

  • Sustained heavy loads: The project combined a large energy requirement with the power demands of a multi-motor mining vehicle.
  • Harsh working conditions: Dust, temperature variation and corrosion exposure shaped the environmental and thermal design requirements.
  • Vehicle-level integration: The battery architecture had to work with high-voltage distribution and the vehicle control unit.

Customized Battery Solution

  • Cell and module architecture: The brief describes vehicle-grade cell selection and modular battery-pack integration for a 900V / 2000kWh system.
  • High-voltage and control interfaces: The collaboration covered high-voltage system integration and coordination with vehicle controls.
  • Thermal and environmental design: Thermal management and environmental adaptation were reviewed alongside physical pack layout.

Key Specifications

Source: M2000 Case Study.pdf · project-specific reported values
ParameterSource-reported information
ApplicationElectric mining truck traction power
System platform900V, as reported
Integrated system energy2000kWh, as reported
Cell capacity280Ah vehicle-grade lithium cells
Drive interface requirementFour 300kW motors; independent or coordinated control
Environmental requirementIP68 protection and anti-corrosion design targets

The motor arrangement and IP68 rating appear in the source as project requirements. They are not presented here as independently verified test results.

Design and Integration Highlights

  • Layout review: Cell arrangement and available installation space were reviewed together.
  • Prototype and process review: Prototype trials and process review formed part of the documented collaboration.
  • Milestone control: Project milestones provided review points for the engineering work.

Source-Reported Project Results

The project brief records the development of an integrated 900V / 2000kWh battery solution. It describes the engineering scope and collaboration, but does not supply measured uptime, energy savings or a complete acceptance-test dataset.

T44 · All-Season Electric Truck

540V · 80Ah · about 44kWhOpen project overview, engineering solution, specifications and results

Project Overview

T44 is a traction-battery engineering project for a fully electric truck. The customer’s brief combined winter operation below −30°C, summer conditions above 40°C, demanding terrain and the need to manage maintenance and operating time.

Application and Engineering Challenges

  • Seasonal temperature extremes: The operating requirements covered very cold winters and hot summer conditions.
  • Power and runtime: Vehicle duty, terrain and available battery energy had to be considered together.
  • Mechanical durability: Structural integration, vibration and environmental exposure required a coordinated pack design.

Customized Battery Solution

  • Active thermal management: The source describes fluid-based heating and cooling integrated into the battery system.
  • Power and charging development: High-power architecture, energy management and cold-weather charging were included in the development scope. No charging-time guarantee is stated here.
  • Structural and BMS integration: The brief includes a structural pack, vibration damping and condition-based or predictive-maintenance functions in the BMS.

Key Specifications

Source: T44 Case Study.pdf · project-specific reported values
ParameterSource-reported information
ApplicationFully electric truck traction battery
Reported battery pack540V / 80Ah
Reported energyApproximately 44kWh
Thermal approachActive fluid-based heating and cooling
Mechanical approachStructural battery pack and vibration damping
Environmental designEnhanced sealing and corrosion protection

The source reports 540V / 80Ah and approximately 44kWh. Their direct product is 43.2kWh; the reported energy is retained without replacing it with a calculated value. Confirm the nominal ratings and energy basis in the project datasheet.

Design and Integration Highlights

  • Temperature requirements: The cited environmental conditions are project requirements, rather than a universal operating range for TUORDE products.
  • Sealing and corrosion: The source describes enhanced IP67 sealing and corrosion protection as integration priorities.
  • Configuration review: Pack drawings, charging limits and vehicle interfaces remain specific to the selected project configuration.

Source-Reported Project Results

The source reports at least 3,000 cycles at 80% depth of discharge and vehicle operation of up to eight hours per charge. These are results reported in the T44 case brief; the brief does not provide the full duty cycle, temperature or acceptance-test conditions.

MT100 · Electric Motorcycle

360V · 16.8Ah reported packOpen project overview, engineering solution, specifications and results

Project Overview

The MT100 project addressed a compact, high-power battery for an electric motorcycle. Packaging, weight and mechanical loading influenced the enclosure, cell layout, interconnect process and customized BMS.

Application and Engineering Challenges

  • Compact packaging: The customer requested a battery that was as compact and lightweight as possible.
  • High-power duty: Discharge demand and BMS current control had to be reviewed within the available mechanical envelope.
  • Mechanical loading: The brief specifies an impact requirement and a reinforced enclosure, making structural design part of the battery development work.

Customized Battery Solution

  • Customized BMS and cell layout: The project combined high-rate cells with a tailored battery management system and a constrained cell arrangement.
  • Reinforced enclosure: The source describes ribs and buffer layers in a die-cast aluminum case, with attention to mold release and manufacturing feasibility.
  • Heat transfer and joining: Fin geometry, forced convection, cell-tab joining, plasma cleaning and visual inspection were part of the documented solution.

Key Specifications

Source: MT100 Case Study V1.1.pdf · project-specific reported values
ParameterSource-reported information
ApplicationElectric motorcycle traction battery
Reported battery pack360V / 16.8Ah
Cell technology describedHigh-rate LFP cells
BMSProject-specific battery management system
EnclosureReinforced die-cast aluminum housing
Thermal designFin design and forced-convection heat dissipation

The source also describes a 100-series / four-parallel BMS configuration alongside LFP cells and a 360V pack. The electrical topology and voltage basis require confirmation against the project drawings. No calculated energy or discharge-rating equivalence is inferred here.

Design and Integration Highlights

  • Power and space: The development scope linked power objectives with a motorcycle-specific battery envelope.
  • Manufacturing integration: The case connects structural reinforcement, casting considerations and interconnect inspection.
  • Image provenance: The motorcycle photograph in the original brief is reference-only. The application image on this page is illustrative and does not verify an MT100 installation.

Source-Reported Project Results

The MT100 brief reports a completed 360V / 16.8Ah battery pack, at least 3,000 cycles at 80% depth of discharge, a vehicle weight below 120kg and riding time of up to six hours per charge. The weight is for the vehicle, not the battery. Runtime is a source-reported project outcome and is not a guarantee for other vehicles or duty cycles.

X300 · Electric Snow Groomer

680V / 230Ah pack · about 300kWh systemOpen project overview, engineering solution, specifications and results

Project Overview

The X300 snow groomer project focused on heavy-duty electric equipment operating in snow, severe cold and at altitude. Thermal management, charging, structural integration and maintenance requirements were developed as a system.

Application and Engineering Challenges

  • Severe cold: The application brief includes conditions below −30°C and snowstorms.
  • Heavy-duty operation: Terrain, slopes, operating duration and high-altitude requirements shaped the engineering scope.
  • Charging and service: Cold-weather charging and maintenance needs had to be reviewed with the thermal and control systems.

Customized Battery Solution

  • Integrated thermal design: The source describes active fluid-based heating and cooling, rather than relying on cell selection alone.
  • Power and charging development: High-power battery architecture, energy management and cold-weather charging formed part of the project.
  • Mechanical and environmental integration: Structural packaging, vibration damping, sealing and corrosion protection were addressed together.

Key Specifications

Source: X300 Case Study.pdf · project-specific reported values
ParameterSource-reported information
ApplicationElectric snow groomer traction power
Reported battery pack680V / 230Ah
Reported system energyApproximately 300kWh; source describes a doubled-system design
Thermal approachActive fluid-based heating and cooling
Mechanical approachStructural battery integration and vibration damping
Environmental scopeSealing and corrosion-protection development

680V × 230Ah is 156.4kWh per reported pack. The source describes a doubled system and reports approximately 300kWh; the final pack count, connections and usable-energy basis require confirmation in the system documents.

Design and Integration Highlights

  • Pack versus system: 680V / 230Ah describes the reported pack; approximately 300kWh describes the doubled system. They are not interchangeable specification fields.
  • BMS scope: Condition-based and predictive-maintenance BMS functions are described in the source; their implementation is configuration-specific.
  • Reference imagery: The source explicitly says actual project photographs are not shown. The snow-groomer application image on this page is illustrative and does not verify an X300 installation.

Source-Reported Project Results

The X300 brief reports at least 3,000 cycles at 80% depth of discharge and operation of up to four hours per charge. These are source-reported project outcomes. Duty cycle, temperature, charging conditions and detailed test records should be reviewed before using them as a design basis.

Z245 · Electric Wheel Loader

614V · 400Ah · 245kWh reported systemOpen project overview, engineering solution, specifications and results

Project Overview

Z245 is an electric front-end loader battery project addressing heavy-load work, varied terrain and seasonal temperature extremes. The solution connected compact structural packaging with active thermal management and vehicle-level integration.

Application and Engineering Challenges

  • Heavy-duty work: The application required battery power and operating duration suited to loader work and demanding terrain.
  • Winter and summer conditions: The brief cites winter temperatures below −30°C and summer temperatures above 40°C as application challenges.
  • Packaging and maintenance: Compact structural integration and service requirements influenced the pack and BMS development.

Customized Battery Solution

  • Compact structural battery: The source describes a 614V / 400Ah battery system in a compact structural design.
  • Thermal and charging development: Active heating and cooling were developed together with high-power, cold-weather charging considerations.
  • Vehicle and BMS integration: Vibration damping, sealing, corrosion protection and predictive-maintenance BMS functions form part of the documented engineering scope.

Key Specifications

Source: Z245 Case Study.pdf · project-specific reported values
ParameterSource-reported information
ApplicationElectric front-end / wheel loader traction power
Reported system voltage614V
Reported capacity400Ah
Reported system energy245kWh
Thermal approachActive fluid-based heating and cooling
Integration scopeStructural pack, vibration damping, sealing and BMS functions

The source reports 245kWh; 614V × 400Ah gives 245.6kWh. The source value is retained. Confirm the nominal-voltage and reported-energy convention in the project datasheet.

Design and Integration Highlights

  • Mechanical envelope: The project combines the loader’s available installation space with a structural pack approach.
  • Environmental protection: Enhanced IP67 sealing and corrosion protection are described in the case brief; configuration-specific evidence should be requested.
  • System interfaces: Thermal equipment, charging and control interfaces must be reviewed for the exact vehicle configuration.

Source-Reported Project Results

The Z245 source reports at least 3,000 cycles at 80% depth of discharge and operating time of up to four hours per charge. These statements belong to the documented project and should be assessed with its operating and test conditions, rather than applied to every TUORDE battery.

Engineering Capabilities

These capabilities describe engineering work available for project review. Completed project results remain tied to the configuration and evidence reported on each case page.

High-Voltage Battery Systems

Cell, module, pack and system architecture aligned with the vehicle’s electrical requirements.

Thermal Management

Heating, cooling and heat-transfer design for application-specific operating conditions.

Mechanical Integration

Battery envelopes, structural housings, mounting and vibration considerations.

BMS & Control Integration

Protection, monitoring and communication interfaces developed for the battery and connected system.

Prototype & Verification

Design reviews, samples and engineering verification before production readiness decisions.

Engineering Development Process

Agree the review outputs and document scope for each stage before development begins. The steps below show how project information progresses toward a production configuration.

01 / Requirements Definition

Define application duty, voltage, energy, environment, interfaces and acceptance criteria. Review output: A requirements brief with the inputs and open questions recorded.

02 / System Architecture

Review cells, modules, pack layout, charging, distribution and thermal architecture. Review output: A proposed system architecture and equipment-interface list.

03 / Electrical & Mechanical Design

Develop controls, electrical interfaces, enclosure design and installation requirements. Review output: The agreed mechanical drawings and electrical-interface definitions.

04 / Prototype Development

Build samples and review assembly processes, tooling and integration. Review output: The sample configuration and prototype-review findings.

05 / Engineering Verification

Assess the agreed electrical, thermal, mechanical and system-level requirements. Review output: A validation plan, results from completed tests and any remaining actions.

06 / Production Readiness

Review manufacturing processes, quality controls and the release configuration. Review output: The approved configuration and production-quality documents within the agreed scope.

TUORDE Company Profile

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