Weidemann wheel loader 2080 cabin with sweeper in action
Weidemann wheel loader 2080 cabin with pallet fork, Studio
Weidemann wheel loader 2080 with cabin with round bale gripper in action

Technical data

Metric Imperial
Engine manufacturer Deutz
Motor type TD 2.9 L4 S5
Cylinder 4
Drive output 45 kW
Drive output 61 PS
At max. rpm 2,300 U/min
Cylinder capacity 2,900 cm³
Type of coolant Water
Exhaust standard level V
Exhaust aftertreatment DOC/DPF
Average sound power level LwA (cabin) 98.8 dB(A)
Guaranteed sound power level LwA (cabin) 101 dB(A)
Specified sound pressure level LpA (cabin) 74 dB(A)
Engine manufacturer Deutz
Motor type TCD 2.9 L4 S5
Cylinder 4
Drive output 55.4 kW
Drive output 75 PS
At max. rpm 2,300 U/min
Cylinder capacity 2,900 cm³
Type of coolant Water/charge air
Exhaust standard level V
Exhaust aftertreatment DOC/DPF
Average sound power level LwA (cabin) 100
Guaranteed sound power level LwA (cabin) 101
Specified sound pressure level LpA (cabin) 77
Operating voltage 12 V
Battery 100 Ah
Alternator 95 A
Operating weight 4,300 kg
Tipping load with bucket – machine straight, loading frame horizontal 3,719 kg
Tipping load with bucket – machine pivoted, loading frame horizontal 3,113 kg
Tipping load with pallet fork – machine straight, loading frame horizontal 3,170 kg
Tipping load with pallet fork – machine pivoted, loading frame horizontal 2,662 kg
Driver's cab Cab
Tank capacity for fuel 65 l
Tank capacity for hydraulic oil 50 l
Type of drive Hydrostatic
Drive unit universal joint shaft
Speed levels 2
Axle PA 1200
Travel speed Standard 0-20 km/h
Travel speed Option 1 0-28 km/h
Operating brake Hydrostatic drive system acting on all 4 wheels (wear-free)
Parking brake Service and parking brake in the drive train acts on all 4 wheels
Differential lock 100 % front axle + rear axle
Drive hydraulics working pressure (max.) 450 bar
Work hydraulics discharge volume (max.) 57,5 (74-115) l/min
Work hydraulics working pressure (max.) 210 bar
Kinematics type PZ
Lifting cylinder 2
Tipping cylinder 1
Quick change system hydraulic
Steering type hydraulically activated articulated pendulum steering
Steering cylinder 1
Oscillating angle ±12 degree

FSD = operator's canopy

DPF = diesel particulate filter

DOC = diesel oxidation catalyst

SCR = selective catalytic reduction

Tipping load calculation pursuant to ISO 14397

Lift capacity, tear out force, and tipping load

When comparing tipping loads and lift capacities from different manufacturers, make sure that they have been determined in accordance with the ISO 14397-1 and 2 standards!

General Information

Attention: The tipping load changes depending on the various equipment features of a machine (e.g. operator’s platform/cab, rear weight, engine, tires, etc.). The net weight of the various attachments naturally also plays a role here.

Important to note

Good to know: Tipping loads determined in the buckled state are highly dependent on the buckling angle of the machine. Weidemann determines these values in the fully folded state. When comparing with other manufacturers, please note the kink angle used!

When comparing tipping loads and lift capacities from different manufacturers, make sure that they have been determined in accordance with the ISO 14397-1 and 2 standards!

General Information

Attention: The tipping load changes depending on the various equipment features of a machine (e.g. operator’s platform/cab, rear weight, engine, tires, etc.). The net weight of the various attachments naturally also plays a role here.

Important to note

Good to know: Tipping loads determined in the buckled state are highly dependent on the buckling angle of the machine. Weidemann determines these values in the fully folded state. When comparing with other manufacturers, please note the kink angle used!

  • Values that have been determined outside the standard must not be considered relevant for a valid comparison!
  • Thus, values that have been determined by using other load distances are definitely not comparable!

Weidemann determines these values in accordance with the standard at the center of gravity of the bucket – not at the pivot point!

  • Attention: Values that are determined at the pivot point are usually considerably higher! Please consider this when comparing with other manufacturers!
Hoftrac, wheel loader, telescopic wheel loader graphic explaining lifting force, tearing force and tipping load

The maximum lift capacity in the bucket’s center of gravity is measured by Weidemann as follows:

  • Determination of the lift capacity in the center of gravity of the content for the bucket attachment.
  • Measured when the machine is upright with loading frame moving upwards until the maximum lift capacity is reached.
Wheel loader graphic explaining lifting force, tearing force and tipping load

The maximum tear out force on the below bucket edge is measured by Weidemann according to the standard ISO 14397-2, this means:

  • Determination of the tear out force, incl. bucket attachment, 100 mm behind the bucket peak.
  • Measured when the machine is upright and the loading frame is lowered, the bucket 20 mm is above the ground.
Wheel loader graphic explaining lifting force, tearing force and tipping load

The maximum load weight of a machine is known as the tipping load. This is achieved when the rear wheels of the machine lose contact with the ground. The tipping load is measured by Weidemann according to the standard ISO 14397-1, this means:

  • Bucket: Measurement in the bucket center of gravity (not in the bucket pivot point).
  • Measured in the machine’s upright or angled position.
  • The loading frame is in a horizontal position.
Wheel loader graphic explaining lifting force, tearing force and tipping load Wheel loader graphic explaining lifting force, tearing force and tipping load

The maximum load weight of a machine is known as the tipping load. This is achieved when the rear wheels of the machine lose contact with the ground. The tipping load in lowest position is measured by Weidemann as follows:

  • Bucket: Measurement in the bucket center of gravity (not in the bucket pivot point).
  • Measured in the machine’s upright or angled position.
  • The loading frame is in the lowest position and the bucket is retracted as far as it can be.
Wheel loader graphic explaining lifting force, tearing force and tipping load Wheel loader graphic explaining lifting force, tearing force and tipping load

The maximum load weight of a machine is known as the tipping load. This is achieved when the rear wheels of the machine lose contact with the ground. The tipping load is measured by Weidemann according to the standard ISO 14397-1, this means:

  • Pallet fork: Measurement on the upper edge of the fork, weight positioning 500 mm from fork spine. It is important to pay attention to: Please compare the information from different manufacturers with precisely this distance. Other presentations/values are not permitted according to the standard and are therefore not comparable.
  • Measured in the machine’s upright or angled position.
  • The loading frame is in a horizontal position.
Wheel loader graphic explaining lifting force, tearing force and tipping load Wheel loader graphic explaining lifting force, tearing force and tipping load

The maximum load weight of a machine is known as the tipping load. This is achieved when the rear wheels of the machine lose contact with the ground. The tipping load in transport position is measured by Weidemann as follows:

  • Pallet fork: Measurement at the upper edge of the fork, 300 mm from ground, weight positioning 500 mm from the fork spine. It is important to pay attention to: Please compare the information from different manufacturers with precisely these distances. Other presentations/values are not comparable.
  • Measured in the machine’s upright or angled position.
  • The loading frame is in the transport position.
Wheel loader graphic explaining lifting force, tearing force and tipping load Wheel loader graphic explaining lifting force, tearing force and tipping load

Vibrations (weighted average effective value)

When the loader is used in accordance with the intended purpose, the whole body vibrations vary from below 0.5 m/s² up to a short-term maximum value.

It is recommended to use the values specified in the table when calculating the vibration values according to ISO/TR 25398:2006. In doing so, the actual application conditions are to be taken into consideration.

Telehandlers, like wheel loaders, are to be classified by operating weight.

Hand-arm vibrations: The hand-arm vibrations are no more than 2.5 m/s²

 

Whole-body vibrations: This machine is equipped with an operator’s seat that meets the requirements of EN ISO 7096:2000.

Type of loader Typical operating conditions Mean value [m/s2 Standard deviation (s) in [m/s2]
1.4*aw,eqx

1.4*aw,eqy

aw,eqz
1.4*sx 1.4*sy sz
Compact wheel loader (operating weight < 4500 kg) Load & carry (load and transport work)
0.94 0.86 0.65
0.27 0.29 0.13
           
Wheel loader (operating weight > 4500 kg) Load & carry (load and transport work)
0.84 0.81 0.52
0.23 0.2 0.14
Application in extraction (harsh application conditions)
1.27 0.97 0.81
0.47 0.31 0.47
Delivery drive
0.76 0.91 0.49
0.33 0.35 0.17
V-operation
0.99 0.84 0.54
0.29 0.32 0.14

  • Please note that the product range may vary depending on the country. Under certain circumstances, the contents / products shown here may not be available in your country. The illustrations, equipment, and data shown may also differ from the current product range in your country. Optional extras may be shown that are subject to an additional charge. Subject to changes.
  • The engines shown may differ from the current delivery range in your country. Special equipment is depicted here that may be subject to extra charge. Subject to change without notice.

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