712 25 31 Rev B Logic LPI CRPS Op Tech
2014-08-07
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CR/PS Low Profile 
Instrumentation (LPI®)
EXACTECH KNEE
Operative Technique
®

TABLE OF CONTENTS
INTRODUCTION ................................................................................................................. 1
DESIGN RATIONALE .......................................................................................................... 1
PRE-OPERATIVE PLANNING ............................................................................................. 1
OPERATIVE TECHNIQUE  OVERVIEW   .............................................................................. 2
DETAILED  OPERATIVE TECHNIQUE ................................................................................. 4
APPROACH AND EXPOSURE .................................................................................... 4
PREPARATION OF THE FEMUR .................................................................................. 5
Step 1: Opening the Intra-medullary Canal ....................................................... 5
Step 2: Distal Femoral Resection ....................................................................... 6
Step 3: Sizing of Femoral Component ............................................................... 7
Step 4: Rotation of Femoral Component ........................................................... 8
Step 5: Resection of Anterior, Posterior and Chamfer Femoral Bone ............. 8
Step 6: Femoral Notch Preparation .................................................................... 9
PREPARATION  OF THE TIBIA   ....................................................................................10
Assembly of the Extra-medullary Tibial Alignment Guide ..............................10
Placement of the LPI Extra-medullary Tibial Alignment Guide .......................11
TRADITIONAL TIBIAL APPROACH: RECOMMENDED FOR PS KNEES.................. 12
CR TIBIAL RESECTION: POSTERIOR CRUCIATE REFERENCING TECHNIQUE ..... 13
Step 1: Identification of the Posterior Cruiciate Ligament (PCL)  
Insertion Points .................................................................................................. 13
Step 2: Placement and Distal Alignment  
of the Extra-medullary Alignment Guide ........................................................ 13
Step 3: Determination of Posterior Tibial Slope .............................................. 13
Step 4: Determination of Tibial Resection Depth ............................................ 13
Step 5: Securing Tibial Resection Guide to Tibia and Final Checking ............14
PREPARATION OF THE PATELLA ..............................................................................14
FINAL PROSTHESIS TRIAL CHECK .......................................................................... 15
Trial Placement .................................................................................................. 15
Alignment Check ............................................................................................... 15
Stability Check ................................................................................................... 15
PS Surgical Approach ....................................................................................... 15
CR Surgical Approach ....................................................................................... 16
Motion Check ..................................................................................................... 16
Patellar Tracking  Check ...................................................................................... 17
FINAL  PREPARATION  OF THE TIBIA ........................................................................ 17
IMPLANTATION OF FINAL COMPONENTS .............................................................19
Step 1: Final Bone Preparation ..........................................................................19
Step 2: Implantation of the Tibial Prosthesis ................................................... 20
Step 3: Implantation of Femoral Component ................................................. 21
Step 4: Polymerization of Cement ................................................................... 22
Step 5: Implantation of Patellar Component ................................................... 22
Step 6: Installation of Tibial Polyethylene Insert 
(Modular Tibial Component Only) .................................................................... 23
FINAL CHECK AND CLOSURE ................................................................................. 23
DESIGN SPECIFICATIONS ....................................................................................... 24
PTS ANNEX ...................................................................................................................... 24
INSTRUMENT LISTING ................................................................................................... 26

1
INTRODUCTION
Total knee replacement surgery has been one 
of the most successful orthopaedic procedures 
during the past three decades. Advanced surgical 
techniques and implant design improvements 
have been two of the factors responsible for 
that success. Exactech developed Low Profile 
Instrumentation (LPI®) to provide user-friendly 
instruments that achieve reproducible bone 
preparation and limb alignment and allow for 
superior visualization and accessibility while 
keeping soft tissue disruption to a minimum. 
Based on more than 30 years of clinical results 
from Hospital for Special Surgery, Exactech’s 
comprehensive knee systems address your 
concerns for contact stress, patellar tracking, 
polyethylene wear, joint stability and bone 
preservation with streamlined instrumentation 
that allows you to work quickly and efficiently.
DESIGN RATIONALE
Exactech’s LPI instrumentation is not a 
radical departure from the classic Optetrak 
instrumentation. It is, rather, an optimized system 
of instruments that can be used in total knee 
replacement surgery, regardless of the size of the 
incision or method of handling soft tissues. The 
system’s easy-to-use instrumentation allows you 
to work quickly and efficiently with streamlined 
solutions for your preferred surgical technique.
PRE-OPERATIVE PLANNING
The mechanical goal of total knee surgery is to 
effectively restore the normal alignment of the 
affected limb. Normal alignment implies that the 
mechanical axis, from the center of the femoral 
head to the center of the ankle, passes through 
the center of the knee joint. The implant should 
be positioned perpendicular to this axis. Correct 
positioning is usually accomplished by performing 
the tibial cut perpendicular to the frontal plane, 
usually with some degree of posterior slope and 
by cutting the distal femur between 5-7 degrees 
of valgus from the anatomical axis (Figure 1). 
Templating is done in both the frontal and sagittal 
planes to estimate the implant size for both the 
femur and tibia.
Optetrak Logic® is an advanced approach to total knee replacement that 
introduces modern design features and intuitive instrumentation while 
building on the wisdom of a strong design lineage. 
Figure 1
Different Alignment Angles of the
Mechanical Axis of the Lower Limb
5°6°7°

2
OPERATIVE TECHNIQUE OVERVIEW 
Enter Intra-medullary Canal 
with the IM Pilot Drill
Perform Distal Femoral Resection
12
Prepare Femur with Femoral 
Finishing Guide
Prepare PS Notch with Notch Cutting Guide* Prepare Tibia with Extra-medullary 
Alignment Guide and  
Perform Tibial Resection
6
54
65
Determine Femoral A/P Size 
3
*For PS Only

3
Prepare Patella
7
Assemble Trials and Perform  
Final Stability Assessment
Drill Pilot Hole on Tibia
8
9
Prepare Tibia with Fit Tamp
410
Implant Final Components
511

4
DETAILED OPERATIVE TECHNIQUE
APPROACH AND EXPOSURE
Setup is important, and because the degree of 
flexion and extension of the knee must be adjusted 
and optimized for each step of the procedure, 
an adjustable foot holder, an extra assistant or 
placement of multiple bolsters on the surgical 
table is helpful. Although a great deal of traditional 
arthroplasty is performed with the knee in a 
flexed or hyperflexed position, the use of reduced 
exposure is often facilitated by placing the knee 
in a more extended position, thereby relaxing  
the anterior soft tissue envelope. The landmarks 
shown in this procedure performed with the 
Optetrak Low Profile Instrumentation (LPI) are the 
same ones used during standard incision total 
knee replacement surgery, including the shape of 
the patella, the anterior tibial tuberosity and the 
joint line (Figure 2).
An 8-10cm incision is made, beginning at or 1cm 
above the superior pole of the patella and extending 
2cm distal of the joint line. Fascia adhesions of 
the quadriceps muscle to the tissues are freed 
with blunt and sharp dissection, which facilitates 
subsequent soft tissue and patellar mobilization. 
The joint is then entered through one of three 
approaches: subvastus, midvastus or rectus 
femoris split (Figure 3).
During a subvastus approach, the arthrotomy 
is capsular only, preserving the entire extensor 
mechanism insertion onto the patella. A fascia 
rim is preserved bordering the vastus medialis 
obliquus (VMO) to assure retractors are placed 
against this rim and not directly on the muscle over 
the quadriceps itself. The reflected retinaculum 
contains the medial patellofemoral ligament 
and must be tagged, retracted and protected. 
The medial capsular reflection under the VMO is 
released, allowing the quadriceps to be displaced 
laterally.
In the midvastus approach, an incision is made 
between the vastus medialis and the vastus 
medialis obliquus, beginning at the superior and 
medial corner of the patella. The muscle is split 
bluntly in line with its fibers, while the underlying 
fascia is split sharply by pushing scissors in a similar 
direction. This 2cm split can be safely extended for 
3-4cm, although this is rarely necessary. 
The  rectus femoris split approach is simply a 
shortened conventional arthrotomy. Of course, all 
approaches can be and are being used successfully. 
To optimize the ease and efficiency of the procedure 
in patients with increased obesity, increased thigh 
muscularity, increased distal femoral dimension, 
patella baja, a more horizontal VMO insertion, a 
decreased extensor mechanism mobility, or in any 
case when difficult exposure is anticipated, it is 
recommended to move away from the subvastus 
toward either the midvastus, or on occasion, the 
rectus split approach.
Figure 2
Skin Incision. Bony Landmarks Can Be 
Recognized Underneath the Skin
SubvastusMini-midvastusRectus Femoris Split
Figure 3
Enter Joint Through One of These 
Three Approaches

5
The exposure is expanded medially using an 
angled narrow and sharpened Hohmann Retractor. 
A second Hohmann Retractor is used to push the 
patella laterally. The patella is not everted. Initially, 
exposure is limited to the central and medial 
compartments. However, with some extension, the 
entire joint can be delivered into the wound. An 
interesting paradox exists with regard to both the 
number of retractors and the force of retraction: 
less is more. Retraction for exposure in one area 
will result in a proportionate and obligate reduction 
of exposure in another. Using fewer and narrower 
angled retractors and pulling reciprocally rather 
than forcefully is recommended. The retractor 
and leg position must be constantly adjusted and 
optimized for each step of the procedure. 
Exposure during the remainder of the procedure 
is achieved by moving the soft tissue window. The 
anterior cruciate ligament (ACL) and the anterior 
horns of both menisci are resected. The superficial 
layers of the medial collateral ligament (MCL) 
are subperiosteally elevated, and a meticulous 
resection of osteophytes is performed. This not only 
helps to mobilize the unresected patella into the 
lateral gutter of the knee, but also relieves tension 
off the lateral and medial collateral ligaments. 
A very important precaution in every small incision 
procedure is to keep the suprapatellar pouch as 
intact as possible; this decreases the incidence of 
short-term post-operative pain and long-term scar 
formation and limited flexion. 
PREPARATION OF THE FEMUR
Step 1: Opening the Intra-medullary Canal
The Intra-medullary (IM) Pilot Drill should be used 
to drill a hole in the distal femur coaxially with the 
femoral endosteal canal (Figure 4). The entry point 
for this drill is located in the intercondylar groove 
5-10mm anterior to the intercondylar notch. This 
entry point may be more accurately located by one 
of these two methods: 
1. palpating the femur in the cephalad portion of 
the exposure, or
2. opening the cortex anterior to the femoral notch 
with a rongeur, osteotome or gouge.
It may be beneficial to enlarge the hole in the distal 
femur while drilling so that a slightly malpositioned 
entrance point does not affect the alignment of the 
T-Handle Intra-medullary Rod. After the canal has 
been opened with the IM Pilot Drill, the T-Handle IM 
Rod should be inserted into the femoral canal to be 
sure it passes easily. The T-Handle IM Rod should 
then be removed from the canal.
Figure 4
Enter Intra-medullary Canal 
with the IM Pilot Drill

6
Step 2: Distal Femoral Resection
To set the distal femoral valgus alignment of 
the femoral cut, insert the LPI Intra-medullary 
Alignment Guide Bushing into the LPI Intra-
medullary Alignment Guide with the proper side 
(left or right) facing anteriorly (Figure 5). The  release 
button underneath the rectangular hole in the IM 
Alignment Guide should be pressed, allowing the 
IM Alignment Guide Bushing to slide into it.
Place the T-Handle IM Rod through the LPI IM 
Alignment Guide Bushing and introduce the 
assembly onto the distal femur (Figure 6). The  IM 
Alignment Guide can be aligned parallel to the 
transepicondylar axis, although alignment is not 
crucial at this point.
Affix the LPI Distal Link to the LPI Distal Femoral 
Resection Guide (Figure 5); this makes placement 
of the resection guide underneath the soft tissue 
easier (Figure 7a). 
The distal femoral resection will be influenced 
by the degree of flexion contracture documented 
during pre-operative examination. Adjusting the 
depth of distal femoral resection to the degree of 
flexion contracture is important to ease balancing 
the flexion and extension gaps. The Distal Femoral 
Resection Guide features different pinholes that 
allow for adjustment of the resection depth in 2mm 
increments. 
Pin the Distal Femoral Resection Guide in the 
nominal holes (Figure 7b). Performing the distal 
femoral cut through the standard slot resects 10mm 
from the distal femur (Figure 7b); the alternative 
slot resects 3mm more (13mm). The block may be 
shifted to the second pin location for an additional 
2mm resection. The Distal Femoral Resection Guide 
also features two extra holes for cross pins that 
enhance the fixation of the Resection Guide to the 
bone and make it more stable during the resection. 
Figure 6
Align Distal Femoral Cutting
Instruments 
Figure 7a
Assemble Distal Femoral 
Resection Guide to Distal Link 
Figure 7b
Pin Distal Resection Guide  
in Nominal Holes
4
3
1
2
Figure 5
Assemble the Femoral Alignment 
Instruments for Distal Femoral Resection 
1. Bushing
2. IM Alignment Guide
3. Distal Link
4. Distal Femoral Resection Guide 
Nominal Holes
Standard 
Slot

7
Remove the T-Handle, Alignment Guide and Distal 
Link. The quadriceps and skin must be retracted 
proximally and the knee slightly extended before 
performing the distal femoral resection.
The distal femoral resection is performed, always 
protecting the medial and lateral collateral 
ligaments (Figure 8). The medial condyle should be 
resected first. The surgical window should now be 
mobilized to the lateral compartment of the knee 
to perform the lateral condylar resection (Figure 9). 
The Distal Femoral Resection Guide should now 
be removed. Bone remnants may now be removed 
with a rongeur, a saw or a bone file. To be sure 
that the resected surfaces of the medial and lateral 
femoral condyles are coplanar, a flat cutting block 
may be used to check the cuts.
Step 3: Rotation of Femoral Components
Templating is essential in small incision 
procedures, since the surgeon has a limited view 
of the anterior aspect of the distal femur. Adjust 
the  LPI Femoral A/P Sizer to the templated size 
or set to 3 to begin. External femoral rotation is 
determined by inserting the LPI Femoral A/P Sizer 
Drill Guide Bushing into the LPI Femoral A/P Sizer. 
The LPI instruments feature different Drill Guide 
Bushings, including 0- and 3-degree options for 
both right and left. This handle does not interfere 
with the Drill Guide.
Step 4: Sizing the Femoral Component
The LPI Femoral A/P Sizer should be placed flush 
against the resected distal surface of the femur. 
The  LPI Offset A/P Sizer Handle is provided to 
facilitate insertion and manipulation of the A/P 
sizer (Figure 10). 
Figure 8
Perform Distal 
Femoral Resection
Figure 9
Resected Distal Femur 
Figure 10
Place Femoral A/P Sizer on 
Distal Femur 

8
The posterior feet of the Sizer should be inserted 
under the posterior femoral condyles. If a posterior 
condylar defect is present, the LPI Femoral A/P Sizer 
should be rotated to a position that accommodates 
the defect. Due to the size of the incision and the 
medial arthrotomy, the A/P Sizer could be placed 
slightly medial on the femoral bone. The Femoral 
A/P Sizer is adjusted to the femoral size. Slide 
the tip of the A/P Sizer Stylus underneath the 
quadriceps and into the suprapatellar pouch. The 
surgeon palpates the position of the tip of the Stylus 
Pointer, trying to make it rest in the midportion of 
the femoral metaphysis. It is advisable to choose a 
smaller femoral size if the A/P Sizer is measuring 
between sizes. The surgeon may correlate the 
template size with the size given by the Femoral 
A/P Sizer as a size confirmation.
Verify that the A/P Sizer is flat against the distal 
femoral surface, and drill holes with the LPI Collar 
Drill (Figure 11).
Step 5: Resection of Anterior, Posterior and  
Chamfer Femoral Bone
The  LPI Femoral Finishing Guide should be 
positioned onto the distal femur using the LPI 
Finishing Guide Impaction/Extraction Handle 
(Figure 12).
The size of the Femoral Finishing Guide has been 
determined previously with the LPI Femoral A/P 
Sizer. The Femoral Finishing Guide has two pegs 
that align with the pre-drilled rotation holes and 
can be pinned on the medial and lateral sides, as 
well as in the center with cross pins to enhance 
fixation stability. The anterior and posterior cuts 
are performed followed by the chamfer cuts. Once 
the cuts on the distal femur have been completed, 
the Femoral Finishing Guide should be removed 
and the resected bone excised. 
Figure 12
Position Femoral Finishing Guide
Figure 11
Verify Placement of A/P Sizer and 
Drill Rotational Alignment Holes

9
If an Optetrak Logic CR implant is selected, the femoral 
preparation is complete for now. Proceed to the next 
section, Preparation of the Tibia.
If an Optetrak Logic PS implant is selected, proceed 
to Step 6 to complete the femoral notch preparation.
Step 6: Femoral Notch Preparation
Select the Logic PS Femoral Notch Cutting Guide and 
the Logic PS Femoral Notch Cutter that correspond to 
the previously determined femoral component size.
Rotate the anterior flange of the Notch Cutting Guide to 
the appropriate side that corresponds to the operative 
knee (left or right), place on finished cuts and affix 
the Notch Cutting Guide onto the distal femur with 
fixation pins. 
Note: While pinning, be sure the Notch Cutting Guide 
maintains contact with the distal and anterior chamfer 
resections. Affix the two distal pins, then affix one pin 
in the offset medial anterior flange.
Attach the Notch Cutter to a power drill. With the knee 
in flexion, introduce the Notch Cutter into the Notch 
Cutting Guide, making sure that the drill is set on 
“drill” setting. Once the teeth on the Notch Cutter have 
cleared the black bushing and before the teeth contact 
the bone, activate the drill. Apply pressure to the Notch 
Cutter as it travels posteriorly and ream until the Notch 
Cutting Guide prevents the Notch Cutter from further 
travel (Figure 13). 
Turn the power drill off, and remove the Notch Cutter 
from the Cutting Guide. Note: Be sure not to activate 
the drill while removing the Notch Cutter in order 
to prevent the cutting teeth from scoring the black 
bushing.
Due to the cylindrical shape of the Notch Cutter, it 
is necessary to remove any existing bone remnants 
from the distal femur (Figure 14). It is recommended 
to use a sagittal saw to remove the bone remnants, 
aligning the saw to the inner surfaces of the Notch 
Cutting Guide and trim the medial and lateral sides 
of the notch. Remove the Notch Guide after all cuts 
are performed. Preparation for the Optetrak Logic PS 
femoral component is complete.
Figure 13
Prepare PS Notch 
with Cutting Guide
Figure 14
Remove Bone Remnants from 
the Distal Femur

10
Figure 15
Assembly of LPI Extra-medullary 
Tibial Alignment Guide
1. LPI Ankle Clamp Base
2. LPI Ankle Clamp Upright
3. LPI Tibial Resector Shaft
4. LPI Tibial Resection Guide
Figure 16
Insert Ankle Clamp Base
into Ankle Clamp Upright
PREPARATION OF THE TIBIA 
The tibia can be prepared using either the LPI 
extra-medullary preparation method or the LPI 
intra-medullary preparation method.
Note: See the Intra-medullary Tibial Preparation 
Operative Technique Addendum for preparation 
details. 
Assembly of the Extra-medullary Tibial  
Alignment Guide
The proximal tibial resection can be aligned and 
performed using the LPI  Extra-medullary Tibial 
Alignment Guide (LPI Ankle Clamp Base, LPI Ankle 
Clamp Upright, LPI Tibial Resector Shaft and LPI 
Tibial Resection Guide) (Figure 15).
To assemble the Extra-medullary Tibial Alignment 
Guide, slide the shaft of the LPI Ankle Clamp Base 
into the lower end of the LPI Ankle Clamp Upright. 
The markings on the LPI Ankle Clamp Base should 
face upward, and the push button on the LPI Ankle 
Clamp Upright should face away from the Ankle 
Clamp. While pressing the button on the LPI Ankle 
Clamp Upright, assemble the upright onto the shaft 
of the LPI Ankle Clamp Base (Figure 16).
Position the lever on the proximal end of LPI Ankle 
Clamp Upright pointing down. Press the button on 
the proximal end of the LPI Ankle Clamp Upright 
and insert the LPI Tibial Resector Shaft into the 
LPI Ankle Clamp Upright with the teeth facing 
posteriorly, or away from the lever and button 
(Figure 17).
When the button is pressed, the LPI Tibial  Resector 
Shaft will be able to move within the LPI Ankle 
Clamp Upright. When the button is released, the 
position of the LPI Tibial Resector shaft is locked. 
Note:  The lever can be shifted to either side to 
disengage the push button locking mechanism, 
allowing the LPI Tibial Resector Shaft to  
move freely.
Figure 17
Insert Tibial Resector Shaft into 
LPI Ankle Clamp Upright
4
3
2
1

11
Attach the LPI Tibial Resection Guide to the 
proximal end of the LPI Tibial Resector Shaft by 
pressing the button on the LPI Tibial Resector Shaft 
and sliding the LPI Tibial Resection Guide onto the 
dovetail, from posterior to anterior (Figure 18).
Placement of the LPI Extra-medullary Tibial 
Alignment Guide
Place the LPI EM Tibial Alignment Guide on the 
front of the tibia and clamp the spring-loaded arms 
around the ankle in the supra-malleolar position 
(Figure 19).
The distal end of the LPI EM Tibial Alignment 
Guide should be centered over the ankle joint. 
In most instances, the LPI Ankle Clamp Base will 
read 2-5mm medial when properly centered on 
the ankle. The second toe is another common 
landmark for the distal alignment of the Ankle 
Clamp. The position of the LPI Ankle Clamp Base 
can be adjusted by pressing the release lever and 
shifting the Guide medially or laterally (Figure 20).
Landmarks to center the LPI Tibial Resection Guide 
proximally include the medial 1/3 of the anterior 
tibial tuberosity and tibial spine. In the sagittal 
plane, the LPI EM Tibial Alignment Guide should be 
aligned parallel to a line extending from the center 
of the knee joint to the center of the ankle joint. 
The posterior slope of the LPI Tibial Resection 
Guide can be adjusted by positioning the proximal 
end of the Resector Shaft to the desired degree 
of posterior slope (0, 3, 5, 7 or 10 degrees). If the 
surgeon prefers, posterior slope may also be 
adjusted by repositioning the LPI Ankle Clamp 
Upright on the LPI Ankle Clamp Base. Positioning 
the LPI Ankle Clamp Upright more anterior onto 
the base will add slope to the LPI Tibial Resection 
Guide, while positioning it more posterior will 
reduce slope.
The next two sections outline the tibial resection 
technique for the Optetrak Logic PS and Optetrak  
Logic CR systems, respectively.
Figure 18
Assemble Tibial Resection Guide and 
Tibial Resector Shaft
Figure 19
Placement of Extra-medullary 
Tibial Alignment Guide
Release 
Lever
Figure 20
Center Distal End of LPI EM Tibial 
Alignment Guide Over the Ankle

12
TRADITIONAL TIBIAL APPROACH:  
RECOMMENDED FOR PS KNEES
Once the appropriate slope has been dialed in, 
the LPI Fixed Tibial Stylus should be placed in the 
cutting slot of the LPI Tibial Resection Guide. The 
resection level should be adjusted so that the LPI 
Fixed Tibial Stylus references the proximal tibia 
plateau.
The resection level of the LPI Tibial Resection 
Guide can be adjusted by pressing the button on 
the proximal end of the LPI Ankle Clamp Upright. 
Micro adjustments to the resection level can be 
made by rotating the knob on the proximal end of 
the LPI Ankle Clamp Upright (Figure 21). 
To set resection depth, use the 10mm side of the 
Stylus when referencing the most normal plateau 
and the 1mm side when referencing the most 
affected plateau (Figure 22).
The LPI Cut Line Predictor may be used to evaluate 
the tibial resection level. Once the LPI Tibial 
Resection Guide is adjusted to the desired resection 
level and slope, it can be pinned in position.
The alignment of the resection guide can be 
verified by locking the Mauldin Multi-Tool into the 
anterior recess of the block and inserting the drop 
rod into the holes of the Mauldin Multi-Tool. The 
drop rod can be used to assess alignment with 
extra-medullary landmarks (Figure 23). Proceed to 
resect the proximal tibia.
Knob
Button
Lever
Figure 21
Adjust Resection Level
Figure 22
LPI Fixed Tibial Stylus on the  
LPI Tibial Resection Guide
Figure 23
Assess Alignment 
with Extra-medullary 
Landmarks

13
CR TIBIAL RESECTION: POSTERIOR CRUCIATE  
REFERENCING TECHNIQUE (PCRT)  
Note: Standard CR inserts are available for a more 
traditional tibial approach.
Step 1: Identification of the posterior cruciate 
ligament (PCL) Insertion Points
Place the No-Touch PCL Retractor behind the tibia 
with one prong medial and one prong lateral to the 
PCL  (Figure 24). Subluxate the posterior margin 
of the tibia anterior to the femur. At this point, the 
No-Touch PCL Retractor should protect both the 
PCL and the resected surface of the distal femur. 
Connective and scar tissues are usually present 
around the anterior aspect of the tibial insertion 
of the PCL. These tissues are intimately attached to 
the fibers of the PCL. Proceed to release the tissues 
around the anterior portion of the PCL, until the 
fibers of the PCL are recognized at their insertion 
into the posterior tibia (Figure 25). 
Identification of the PCL fibers and release of the 
scar tissue surrounding the PCL is essential at this 
point. This is the anatomical landmark that will be 
used to reference the proximal tibial resection. 
It is also advisable to resect any remaining 
posterior horns of both menisci and menisco-
femoral ligaments at this time. 
Step 2: Placement and Distal Alignment of the 
Extra-medullary Alignment Guide
The proximal tibial resection can be aligned and 
performed using the LPI  Extra-medullary Tibial 
Alignment Guide. For assembly and positioning, 
please refer to the LPI Extra-medullary Tibial 
technique as described previously. 
Step 3: Determination of Posterior Tibial Slope
When setting up the sagittal orientation of the 
proximal tibial resection, aim for a posterior slope 
between 0 and 3 degrees. Increasing the posterior 
tibial slope angle beyond 5 degrees may damage 
the tibial insertion of the PCL. Adjustments to the 
flexion gap can be made during trial reduction 
by using various Logic CR Slope Tibial Insert Trial 
options as detailed later in the technique. 
Step 4: Determination of Tibial Resection Depth
The  Adjustable PCL Stylus should be placed in 
the cutting slot of the LPI Tibial Resection Guide 
with the stylus in the raised position (Figure 26a). 
After assembly, snap the stylus down and place 
the tip of the stylus at the tibial insertion of the 
PCL. The Adjustable PCL stylus has three settings: 
0, 2, and 4mm. This setting indicates the amount 
of additional distal tibial resection from the tip of 
the stylus. For example, if the stylus guide is set 
to 0mm, the tibia resection is aligned exactly to 
the tip of the stylus. If the stylus is set to 2mm or 
4mm, the tibial resection is aligned either 2mm 
or 4mm below (more distal) the tip of the stylus. 
The recommended resection level is at the 2mm 
position.
Figure 25
Clear Soft Tissues 
around PCL
Figure 25
Place Tip of PCL Stylus 
at Footprints of PCL
Figure 24
Placement of No-Touch 
PCL Retractor
Figure 26a
Determine Tibial Resection Depth

14
Figure 27
Prepare Patella with Freehand 
Patellar Resection Technique
Figure 26b
Place Drill Pins
Figure 28
Assemble the LPI Universal Patellar 
Drill Guide to the LPI Patella  
Preparation Handle
Step 5: Securing Tibial Resection Guide to Tibia 
and Final Checking
When the proper positioning of the LPI Tibial 
Resection Guide has been assured, drill pins 
should be placed through the guide into the tibia 
(Figure 26b). Drill pins should be placed in the “0” 
or “nominal” holes. 
The LPI Tibial Resection Guide may be adjusted 
proximally or distally in 2mm increments by 
shifting the LPI Tibial Resection guide to either the 
+2mm or -2mm holes on the block itself on the 
existing drill pins. 
Proceed to make your proximal tibial resection. 
PREPARATION OF THE PATELLA
For patellar resection performed without a Patellar 
Resection Guide (“free hand”), the patella should 
be stabilized with large towel clips or similar 
instruments. The articular surface of the patella 
should be resected with an oscillating saw from 
either (1) the edge of the medial articular surface 
to the edge of the lateral articular surface, or (2) 
from the patellar tendon insertion cephalad to the 
quadriceps tendon insertion (Figure 27). When 
patellar resection is complete, final determination 
of patellar size (diameter) and hole preparation 
should be performed using the LPI Patellar 
Universal Drill Guide assembled to the LPI Patella 
Preparation Handle (Figure 28). With the handle 
completely open, position the Drill Guide on 
the patella to determine the patellar diameter. 
The pattern and size of the Drill Guide holes are 
universal for all three-peg patella components. 
Clamp the patella and secure the handle by turning 
the knob. Holes should be drilled through the 
patellar universal drill guide in either the three-hole 
or the single-hole configuration. After the holes are 
drilled, loosen the knob and remove the handle and 
Drill Guide from the patella. The appropriate size of 
trial prosthesis should be placed on the patella.
Note: Other options for patella resection guides 
are available. See the Patella Operative Technique 
Addendum for details.
Nominal 
Holes

15
FINAL PROSTHESIS TRIAL CHECK
Final prosthesis trial check should include assessment of:
ALIGNMENT,
STABILITY,
MOTION and
PATELLAR TRACKING
Trial Placement
Place the CR Femoral Trial on the distal femur utilizing 
the Locking Femoral Impactor (Figure 29). Assemble the 
selected femoral trial to the Locking Femoral Impactor. 
Ensure that the femoral component is properly positioned 
on the distal femoral condyles in the medial and lateral 
direction. Apply slight upward pressure to the impactor 
handle as the component is being impacted to prevent 
the femoral component from rotating into flexion. Once 
correct positioning is assured, the component should be 
fully seated by striking the Locking Femoral Impactor with 
a mallet.
The tibial tray trial should be selected as the largest tray 
that fits within the borders of the resected tibial surface, 
without any overhang, and then fixed to the proximal tibia. 
Please note that the position of the tibial tray trial relative 
to the resected tibial surface should be centered along the 
A/P direction (Figure 30). Notably any anterior offset of the 
tibial tray trial should be avoided, as it would result in a 
posterior shift of the femoro-tibial contact point. Next, tibial 
insert trials should be exchanged using the LPI Trial Insert 
Handle until a “best fit” is achieved (Figure 31).
Keep in mind that the size of the femur must always match 
the size of the tibial insert in order to maintain the 0.96 
femoral/tibial congruency.
Alignment Check
With the knee in full extension and the Mauldin Multi-
Tool assembled to the Tibial Tray Trial, EM Alignment Rods 
should be placed in the holes in the Mauldin Multi-Tool 
and the alignment should be assessed (Figure 32). Proper 
rotation of the tibial component should be determined by 
its congruency with the femoral component. Normally, 
the anterior plane of the tibial component will point 
approximately in the direction of the tibial tubercle and 
second toe when congruency is established. 
Stability Check
The knee should be assessed for stability in both extension 
and flexion. The extension check should be performed 
with the knee flexed a few degrees to relax the posterior 
capsule. However, the knee should extend fully. The flexion 
check should be performed with the knee flexed to 90 
degrees. The most appropriate stability is achieved when 
the medial and lateral opening is similar to that of a normal 
knee during application of valgus and varus stress. An 
adjustment of ligament balance may be needed, if there is 
differential ligament tightness between varus and valgus in 
flexion or extension.
PS Surgical Approach
For the PS approach, if the knee is loose in extension and 
flexion, proceed to exchange the Insert Trial with greater 
thickness and reassess stability. A Proximal Tibial Spacer 
(PTS) can be used for gaps requiring larger than 15mm 
inserts, see the PTS Annex.
Note: Optional constraint may be added by utilizing a Logic 
PSC insert.
Figure 29
Place Femoral Trial
Figure 32
Assess Alignment
Figure 30
Fixation of Tibial Tray Trial
Figure 31
 Assemble Trial with the Insert 
Handle

16
Table 1: FLEXION/EXTENSION GAP BALANCING FOR OPTETRAK LOGIC CR
Figure 33
Anterior Lift-Off of 
the Tibial Tray Trial
Figure 34
Check Motion in Extension
Note: Some studies reported that an additional degree of insert 
slope on average increases peak flexion by 1.5° to 1.7° 1
CR Surgical Approach
The initial assessment should begin with the CR 
9mm Neutral or Standard Tibial Insert Trial. If the 
joint is tight in flexion, the CR Slope 9mm + or ++ 
insert may be selected. There are four different 
indicators of a tight flexion space:
1. Excessive femoral rollback with limited ROM in 
flexion
2. Anterior lift-off of the Tibial Insert Trial and/or 
Tibial Tray Trial  (Figure 33)
3. Palpable tension of the PCL when the knee is in 
flexion
4. If there is difficulty in extracting the Insert Trial 
with the Femoral Trial in place and the knee flexed 
at 90 degrees (pull-out test)
Refer to the table for tips regarding flexion/
extension gap balancing (Table 1).
The combination of additional thicknesses and 
slope continues until joint stability is achieved.
Motion Check
The knee should extend fully without force (Figure 
34). To check flexion, the surgeon should elevate the 
thigh and allow the leg to flex by the pull of gravity 
(Figure 35). The amount of flexion determined in 
this manner is the best intra-operative predictor of 
the flexion that will ultimately be achieved.
Tight Extension Loose Extension OK Extension
Tight Flexion
•  Use a thinner Logic CR Neutral Tibial 
Insert Trial if possible
•  Cut additional tibia, respecting the PCL 
insertion
•  Recess the PCL fi bers respecting the 
PCL footprint
•  Increase insert thickness and trial with 
Logic CR Slope+ or Slope++ Tibial Insert 
Trials
•  Downsize femoral component
•  Recess the PCL fi bers respecting the 
PCL footprint
•  Trial with Logic CR Slope+ or Slope++ Tibial 
Insert Trials of the same thickness 
•  Downsize femoral component
•  If trialed with Slope++ and fl exion gap is 
still tight, convert to Logic PS
Loose Flexion
•  Resect additional distal femoral bone 
and use a thicker Logic CR Neutral Tibial 
Insert Trial
•  Verify integrity of the PCL if the Neutral  
Tibial Insert Trial is thicker than 13mm
•  Use a thicker Logic CR Neutral  Tibial 
Insert Trial
•  Verify integrity of the PCL if the Neutral  
Tibial Insert Trial is thicker than 13mm
•  Resect additional distal femoral bone 
and use a thicker Logic CR Neutral  
Tibial Insert Trial 
•  Verify integrity of the PCL if the Neutral  
Tibial Insert Trial is thicker than 13mm
OK Flexion
•  Resect additional distal femoral bone
•  Increase insert thickness and trial with 
Logic CR Slope+ or Slope++ Tibial Insert 
Trials

17
Patellar Tracking  Check
As the knee is put through a range of motion 
(ROM), the patella should track smoothly in the 
patellar groove of the femoral prosthesis with little 
or no pressure exerted against its lateral edge and 
without it being held medially. If there is a tendency 
to lateral subluxation, lateral retinacular release 
should be performed. After final ROM assessment, 
remove the Optetrak Logic Tibial Insert Trial and LPI 
Tibial Tray Trial. 
For Logic CR, leave the Femoral Trial in place. The 
LPI One-Peg Patellar Drill is drilled through the 
medial and lateral holes on the Femoral Trial. This 
will create the space required to accommodate the 
pegs on the Logic CR femoral implant (Figure 36).
If the small holes created for the Femoral Finishing 
Guide are in the correct medial/lateral location, they 
may be used for the pegs of the cruciate retaining 
femoral prosthesis. 
FINAL PREPARATION OF THE TIBIA
When all checks have been completed and 
the appropriate size and rotation of the tibial 
components have been determined, the tibia 
must be prepared for the tibial tray implant. Pins 
may be drilled or driven into the medial and 
lateral outrigger holes on the LPI Tibial Tray Trial to 
provide stability during final tibial preparation. It 
is recommended to use Short-Headed Pins on the 
inside holes or LPI Quick-Connect Headless Pins on 
the outrigger holes (Figure 37). 
Figure 35
Assemble Trials and Perform 
Stability Assessment
Figure 36
Prepare Femoral Peg Hole
Figure 37
Fixation of Tibial Tray Trial

18
Assemble the Tibial Pilot Drill Guide to the Tibial 
Tray Trial. Drill through the Tibial Pilot Drill Guide 
with the IM Pilot Drill until the mark on the IM 
Pilot Drill matching the selected tray size reaches 
the proximal surface of the Tibial Pilot Drill Guide 
(Figure 38).
Note: For Half sizes, drill down to the closest whole 
size mark.
Assemble the LPI  Fit Tibial Tamp to the LPI Tibial 
Tamp Guide by pressing the button on the anterior 
distal end of the Tibial Tamp Guide and sliding 
the Fit Tibial Tamp into the Fit Tibial Tamp Guide 
(Figure 39).
Select the size on the LPI Fit  Tibial Tamp 
corresponding to the Tibial Tray size you intend to 
use. The size can be selected by rotating the dial 
until the appropriate size is viewed in the window 
(Figure 39).
Align the Tamp Guide to the posterior pegs of the 
Tray Trial and seat the Tamp Guide flush and stable 
against  the Tibial Tray Trial  (Figure 40). The Tamp 
is driven into the tibia until the impaction plate 
contacts the handle (Figure 41).
Note:  Be sure to hold the Tamp steady during 
impaction to avoid tilt or lift-off. 
The Tamp should be ejected from the proximal 
tibia by squeezing the release lever (Figure 42). If 
the Tamp Guide does not disengage from the tibia 
with the release lever, a Mauldin Multi-Tool can be 
used to disengage it by inserting the small stud on 
the end of the Mauldin Multi-Tool into the hole in 
the handle of the Tamp, then rotating the Mauldin 
Multi-Tool to loosen the Tibial Tamp (Figure 43).
Figure 39
Assemble Tibial Tamp
Figure 40
Align Tibial Tamp Guide 
Figure 38
Drill Pilot Hole on Tibia
Figure 41
Fully Impact Tamp

19
IMPLANTATION OF FINAL COMPONENTS
Surgeons have different preferences in regard 
to the sequences used to place the prosthesis 
components. A standard, successful technique 
sequence is described here. If the surgeon prefers 
another sequence, the Optetrak Logic knee system 
provides sufficient flexibility to accommodate 
adjustments in the implantation technique.
Step 1: Final Bone Preparation
Retractors should be placed to expose the joint 
(Figure 44). All tissue debris should be removed 
from resected bone surfaces. The bone trabeculae 
should be thoroughly cleansed with pulsed lavage.
Figure 42
Eject Tibial Tamp Using the  
Lever or Mauldin Tool 
Insertion Hole
Mauldin Tool 
Insertion Hole
Figure 44
Place Retractors to  
Expose the Knee Joint
Figure 43
Eject Tibial Tamp Using the 
Mauldin Tool

20
Step 2: Implantation of the Tibial Prosthesis
Method 1: Implantation of Modular Tibial 
Component
Bone cement should be applied to the prosthesis 
and prepared bone surfaces when the cement has a 
viscosity low enough to promote good penetration 
into the trabecular bone.
Apply bone cement to the proximal tibia and 
the distal surface of the tibial tray component, 
including the stem, using either a cement gun or 
by manually pressurizing the cement. Assure that 
both the bone and the boneside of the prosthesis 
are thoroughly coated with cement. When using 
the Fit tray components, ensure that cement is 
pressed into the cement pockets (Figures 45a-c). 
Care should be taken to limit the amount of cement 
placed on the posterior lateral corner of the implant 
to limit cement cleanup in the posterior capsule.
Next, assemble the LPI impactor handle to the 
appropriate size Tibial Impactor Plate (Figures 46).
Introduce the tibial tray component onto the 
prepared tibial surface using the Locking Tibial 
Tray Impactor construct by applying a constant 
downward force (Figure 47).
The extraneous cement must be removed from 
the borders of the tibial component, starting 
posteriorly and working around to the sides 
and front. All cement must be removed from the 
posterior capsular area of the knee. 
Figure 45b
Coat Tray Thoroughly with Cement
Figure 45c
Coat Keel Thoroughly with Cement 
Figure 45a
Press Cement Into Cement Pockets
Figure 46
Assemble Locking Tibial Tray Impactor 
and Impact Tibial Component

21
Method 2: Implantation of Pre-assembled Tibial 
Components
Alternately, the polyethylene tibial insert may be 
assembled to the tibial tray prior to implantation. 
In this case, the Tibial Insert Driver should be used 
to complete the installation of the pre-assembled 
tibial components. At this point, bone cement 
should be applied to the prosthesis and prepared 
bone surfaces as described in Method 1.
Introduce the pre-assembled tibial components 
onto the prepared tibial surface using the LPI 
Non-Locking Tibial  Impactor, applying a constant 
downward force.
All extraneous cement must be removed from 
the borders of the tibial component, starting 
posteriorly and working around to the sides 
and front. All cement must be removed from the 
posterior capsular area of the knee. The same 
technique applies when using all-polyethylene or 
metal-backed tibial components.
Step 3: Implantation of Femoral Component
With the femoral component assembled to the LPI 
Locking Femoral Impactor, apply bone cement to 
the bone mating surface of the femoral component 
(Figure 48). Take care to apply only a thin layer of 
cement on the posterior surface of the prosthesis 
in order to avoid excessive cement extrusion 
posteriorly where it could be difficult to remove.
Apply bone cement to the anterior, chamfer and 
distal surfaces of the prepared femur (Figure 49). 
Avoid placing cement on the posterior bone surface 
to prevent excessive cement extrusion posteriorly. 
Using the LPI Locking Femoral Impactor, position 
the femoral component onto the distal femur 
(Figure 50). Slight upward pressure should be 
applied to the Impactor Handle as the component is 
being impacted to prevent the femoral component 
from rotating into flexion.
Figure 47
Place Tibial Prosthesis
Figure 49
Place Cement on Distal Femur
Figure 50
Position Femoral Component 
on Distal Femur
Figure 48
Place Cement on  
Femoral Component

22
To assemble the Non-locking Femoral Impactor to 
the LPI Impactor Handle, place the lever on the LPI 
Impactor Handle to the “release” position, attach 
the Non-locking Femoral Impactor onto the handle 
then move the lever to the “locked” position (Figure 
51). Final impaction of the femoral component is 
performed with the Non-locking Femoral Impactor 
assembled to the LPI Impactor Handle (Figure 52).
Care should be taken to remove all excess bone 
cement.
Step 4: Implantation of Patellar Component
Coat the resected patella surface and bone-mating 
surface of the patellar component with cement. 
Align the pegs of the patellar implant with the 
previously drilled peg hole(s) in the patella bone 
and press the implant onto the patella.
Assemble the LPI Patella Clamp Head to the LPI 
Patellar Preparation Handle (Figure 53). Clamp the 
patellar component onto the patella bone with the 
LPI Patella Preparation Handle and Clamp Head, 
avoiding excessive clamping pressure as it may 
damage the patella, especially when the bone is 
soft. Lock the handle by adjusting the locking nut.
Step 5: Polymerization of Cement
A Tibial Insert Trial should be used when 
pressurizing the cement during polymerization. 
Hold axial pressure across the joint during cement 
polymerization, avoiding either hyperextension 
or flexion which may tip the prosthesis into either 
flexion or extension (Figure 54).
This is important in every case, but especially in 
osteopenic bone. Avoid any movement of the 
prosthesis until the bone cement has completely 
polymerized.
Figure 51
Assemble Non-Locking 
Femoral Impactor to the 
LPI Impactor Handle
Figure 52
Impact Final Femoral 
Component
Figure 53
Assemble LPI Patellar Clamp
Move Parallel to 
Handle to Lock

23
Step 6: Installation of Tibial Polyethylene Insert 
(Modular Tibial Component Only)
After polymerization of the cement, introduce the 
polyethylene insert into the previously implanted 
tibial tray taking care that the posterior feet of the 
insert appropriately engage the undercuts of the 
posterior aspect of the metal tibial tray (Figure 55). 
Be sure to check for any soft tissue or bony 
remnants that could interfere with implant 
assembly. Continue pushing the polyethylene 
insert back with two thumbs until the insert is fully 
engaged and the anterior gap between the tray and 
the insert is closed (Figure 56).
The Tibial Insert Driver should be used to complete 
the assembly of the tibial components (Figure 57). 
A mallet should be used for final impaction of the 
tibial component.
The surgeon should check to be certain that the 
tibial insert is fully seated in the metal tibial tray.
FINAL CHECK AND CLOSURE
Final check includes the following:
1. Removal of any remaining extruded cement
2. Final assessment of:
ALIGNMENT,
STABILITY,
MOTION and
PATELLAR TRACKING
Closure:
A standard closure technique preferred by the 
surgeon may be used.
Figure 54
Axial Pressure During Cement
Polymerization
Figure 55
Introduce Polyethylene Insert
Figure 56
Assemble Polyethylene 
Insert to Tibial Tray
Figure 57
Complete Tibial 
Component Assembly 
Using Tibial Insert Driver

24
Step 1: Perform a trial reduction and assess 
stability of the joint both in flexion and extension 
(Figure 59). If the flexion and extension gaps are 
loose during trial reduction with a 15mm tibial 
insert trial, PTS can be combined with the 9, 11, 13 
or 15mm tibial insert trial for 17mm to 23mm gaps 
(Table 1). Select the PTS trial that corresponds with 
the Optetrak Logic tibial insert trial size being used. 
For example, if a Size 3 tibial insert trial is being 
used, an 8mm Optetrak PTS Trial, Size 3 must be 
selected.
Step 2: Place the PTS trial onto the Optetrak Logic 
tibial tray trial. Place the Optetrak Logic tibial insert 
trial onto the Optetrak Logic PTS trial (Figure 60). 
Proceed with the trial reduction to assess stability. 
If the flexion and extension gaps are loose, select 
the next thickness insert trial and re-assess. Once 
the flexion and extension gaps have been properly 
balanced after the trial reduction, proceed to the 
final preparation of the tibia.
INTRODUCTION
Optetrak Logic Proximal Tibial Spacer (PTS) is a titanium spacer intended 
to provide surgeons more flexibility in the adjustment of flexion and 
extension gaps. PTS maintains the three-part locking features found on 
all Optetrak Logic modular tibial trays, including posterior undercuts, a 
central “mushroom” and a peripheral rim (Figure 58). This allows Optetrak 
Logic tibial inserts to lock into PTS exactly the same way they would lock 
into an Optetrak modular tibial tray.
DESIGN SPECIFICATIONS
Optetrak Logic PTS is compatible with all Optetrak  Logic modular tibial 
trays and tibial inserts that are 9 to 15mm thick, allowing surgeons to 
accommodate flexion and extension gaps ranging from 17 to 23mm. The 
femur, tibia and patella should be prepared as described previously in the 
Logic LPI Operative Technique. 
PTS ANNEX
For gaps that require greater than 15mm tibial inserts
Figure 58
Cross-section of Proximal Tibial Spacer
Figure 59
Assessment of Overall Stability of Knee 
Joint in Flexion and Extension
Figure 60
PTS Trial Assembled to Modular Insert Trial
Table 1: OVERALL THICKNESS OF OPTETRAK LOGIC 
INSERT  TRIALS AND PTS
Trial Insert Thickness PTS Thickness Overall Insert Thickness
9mm 8mm 17mm
11mm 8mm 19mm
13mm 8mm 21mm
15mm 8mm 23mm

25
Step 3: Assemble PTS onto the appropriate 
Optetrak Logic tibial tray. The assembly should be 
performed on the back table of the operating room. 
Engage the posterior feet of PTS with the posterior 
undercut of the Optetrak Logic tibial tray. Protect 
the anterior of the PTS with a lap or sponge and 
tap with a mallet. Place the PTS and Optetrak Logic 
tibial tray assembly upside-down on a flat surface. 
Protect the bottom surface of the tibial tray with a 
sponge or lap. Impact the Optetrak tibial tray until 
PTS is fully seated onto the tray (Figure 61).
Step 4: Insert the Optetrak Logic PTS Locking 
Screw through the central hole of PTS. The screw 
will keep the mushroom feature on PTS engaged 
with the Optetrak Logic tibial tray. Using the 
Optetrak Logic PTS Locking Hex Screwdriver, 
tighten the screw (Figure 62). The PTS Locking Hex 
Screwdriver should be rotated until the screw is 
fully seated, or flush with the mushroom hole in 
PTS (Figure 63).
Caution: Do not over-tighten the PTS Locking 
Screw. Over-tightening the locking screw will cause 
the hex feature on both components to deform, 
making it difficult to extract the PTS Locking Hex 
Screwdriver from the PTS Locking Screw.
Proceed to the implantation of final components 
and final check and closure. Recommended 
cementation techniques should be followed as 
described in the corresponding Optetrak Logic 
operative techniques.
Figure 63
PTS Locking Screw Fully Seated
Figure 62
Insert PTS Locking Screw with PTS Locking 
Hex Screwdriver
Figure 61
PTS and Tibial Tray 
Assembly Impaction 

26
* Special order
201-02-26 
201-02-29 
201-02-32 
201-02-35 
201-02-38 
201-02-41 
Three-Peg Patella Trial, Size 26 
Three-Peg Patella Trial, Size 29 
Three-Peg Patella Trial, Size 32 
Three-Peg Patella Trial, Size 35 
Three-Peg Patella Trial, Size 38 
Three-Peg Patella Trial, Size 41 
201-40-03 IM Pilot Drill
201-41-00  T-Handle Intra-medullary Rod
201-44-00  Mauldin Multi-Tool
201-58-01  Extra-medullary Tibial Alignment Rod/Coupler
201-58-02  Extra-medullary Alignment Rod
201-61-11 Patellar Drill, One-Peg, Zimmer Hudson
201-61-13 Patellar Drill, Three-Peg, Zimmer Hudson
201-78-11 Holding Pin, Small Head, Cup Point, 1.75"
201-78-51 Quick Chuck w/Hall End, 1/8" 
201-78-89 Quick Connect Drill Bit modified Hex, 3", 1/8" 
201-90-01 Tibial Insert Driver
213-03-02*
213-03-05
213-03-06
213-03-07
LPI  Intra-medullary Alignment Guide Bushing,  
2 Degrees, 8mm*
LPI  Intra-medullary Alignment Guide Bushing,  
5 Degrees, 8mm
LPI  Intra-medullary Alignment Guide Bushing,  
6 Degrees, 8mm
LPI  Intra-medullary Alignment Guide Bushing,  
7 Degrees, 8mm
INSTRUMENT LISTING
Catalog Number  Part Description

27
* Special order
213-37-02  LPI Femoral A/P Sizer
213-44-01  LPI Offset A/P Sizer Handle
213-46-12 LPI Pin Puller
213-56-00 
213-56-01 
213-56-02
LPI 0-Degree Femoral A/P Sizer Drill Guide
LPI 3-Degree Femoral A/P Sizer Drill Guide, Right
LPI 3-Degree Femoral A/P Sizer Drill Guide, Left
213-49-00 LPI A/P Sizer Collar Drill, 4mm
213-50-10*
213-50-11 
213-50-51*
213-50-12 
213-50-52
213-50-13 
213-50-53
213-50-14
213-50-15 
213-50-16*
LPI Femoral Finishing Guide, Size 0
LPI Femoral Finishing Guide, Size 1
LPI Femoral Finishing Guide, Size 1.5
LPI Femoral Finishing Guide, Size 2
LPI Femoral Finishing Guide, Size 2.5
LPI Femoral Finishing Guide, Size 3
LPI Femoral Finishing Guide, Size 3.5
LPI Femoral Finishing Guide, Size 4
LPI Femoral Finishing Guide, Size 5
LPI Femoral Finishing Guide, Size 6
213-52-10  LPI Finishing Guide Impaction/Extraction Handle
213-64-01 LPI Locking Femoral Impactor
213-72-00 Fit Tray Tibial Pilot Drill
Catalog Number  Part Description

28
213-83-00 LPI Distal Femoral Resection Guide
213-83-10 LPI Distal Link
213-60-00 LPI Patella Prep Handle
213-60-01 LPI Patella Clamp Head
213-60-08 LPI Patellar Universal Drill Guide
213-65-00 LPI Impactor Handle
213-65-01
213-65-02
213-65-03
LPI Tibial Tray Impact Plate, Sizes 0-2
LPI Tibial Tray Impact Plate, Sizes 3,4
LPI Tibial Tray Impact Plate, Sizes 4,5
213-65-04 LPI Femoral Impactor, Non-locking
213-65-05 LPI Tibial Insert Impactor Head
213-66-03 Logic PS Femoral Trial Extractor
INSTRUMENT LISTING
Catalog Number  Part Description

29
213-66-04 Logic CR Femoral Trial Extractor
213-67-00 Patella Thickness Gauge
213-73-17
213-73-18
LPI Tibial Resection Guide, Left
LPI Tibial Resection Guide, Right
213-75-00 LPI Fit Tibial Tamp Guide
213-75-01 LPI Fit Tibial Tamp Head
213-77-01  LPI Cut Line Predictor
231-04-01 No-Touch PCL Retractor
231-04-02 Adjustable PCL Stylus
231-04-03 LPI Trial Insert Handle
Catalog Number  Part Description
* Special order

30
02-011-01-0200*
02-011-01-0300*
02-011-01-0210 
02-011-01-0310 
02-011-01-0215* 
02-011-01-0315* 
02-011-01-0220 
02-011-01-0320 
02-011-01-0225 
02-011-01-0325 
02-011-01-0230 
02-011-01-0330 
02-011-01-0235 
02-011-01-0335 
02-011-01-0240 
02-011-01-0340 
02-011-01-0250 
02-011-01-0350 
02-011-01-0260* 
02-011-01-0360*
Logic Femoral Trial, PS, Size 0, Left 
Logic Femoral Trial, PS, Size 0, Right 
Logic Femoral Trial, PS, Size 1, Left 
Logic Femoral Trial, PS, Size 1, Right 
Logic Femoral Trial, PS, Size 1.5, Left 
Logic Femoral Trial, PS, Size 1.5, Right 
Logic Femoral Trial, PS, Size 2, Left 
Logic Femoral Trial, PS, Size 2, Right 
Logic Femoral Trial, PS, Size 2.5, Left 
Logic Femoral Trial, PS, Size 2.5, Right 
Logic Femoral Trial, PS, Size 3, Left 
Logic Femoral Trial, PS, Size 3, Right 
Logic Femoral Trial, PS, Size 3.5, Left 
Logic Femoral Trial, PS, Size 3.5, Right 
Logic Femoral Trial, PS, Size 4, Left 
Logic Femoral Trial, PS, Size 4, Right 
Logic Femoral Trial, PS, Size 5, Left 
Logic Femoral Trial, PS, Size 5, Right 
Logic Femoral Trial, PS, Size 6, Left
Logic Femoral Trial, PS, Size 6, Right
02-011-03-0200*
02-011-03-0300*
02-011-03-0210
02-011-03-0310
02-011-03-0215*
02-011-03-0315*
02-011-03-0220
02-011-03-0320
02-011-03-0225
02-011-03-0325
02-011-03-0230
02-011-03-0330
02-011-03-0235
02-011-03-0335
02-011-03-0240
02-011-03-0340
02-011-03-0250
02-011-03-0350
02-011-03-0260*
02-011-03-0360*
Logic Femoral Trial, CR, Size 0, Left
Logic Femoral Trial, CR, Size 0, Right
Logic Femoral Trial, CR, Size 1, Left
Logic Femoral Trial, CR, Size 1, Right
Logic Femoral Trial, CR, Size 1.5, Left
Logic Femoral Trial, CR, Size 1.5, Right
Logic Femoral Trial, CR, Size 2, Left
Logic Femoral Trial, CR, Size 2, Right
Logic Femoral Trial, CR, Size 2.5, Left
Logic Femoral Trial, CR, Size 2.5, Right
Logic Femoral Trial, CR, Size 3, Left
Logic Femoral Trial, CR, Size 3, Right
Logic Femoral Trial, CR, Size 3.5, Left
Logic Femoral Trial, CR, Size 3.5, Right
Logic Femoral Trial, CR, Size 4, Left
Logic Femoral Trial, CR, Size 4, Right
Logic Femoral Trial, CR, Size 5, Left
Logic Femoral Trial, CR, Size 5, Right
Logic Femoral Trial, CR, Size 6, Left
Logic Femoral Trial, CR, Size 6, Right
INSTRUMENT LISTING
Catalog Number  Part Description
* Special order

3131
02-013-35-0009*
02-013-35-0011*
02-013-35-0013*
02-013-35-0015*
02-013-35-1009 
02-013-35-1011 
02-013-35-1013 
02-013-35-1015 
02-013-35-1509* 
02-013-35-1511* 
02-013-35-1513* 
02-013-35-1515* 
02-013-35-2009 
02-013-35-2011 
02-013-35-2013 
02-013-35-2015 
02-013-35-2509 
02-013-35-2511 
02-013-35-2513 
02-013-35-2515 
02-013-35-3009 
02-013-35-3011 
02-013-35-3013 
02-013-35-3015 
02-013-35-3509 
02-013-35-3511 
02-013-35-3513 
02-013-35-3515 
02-013-35-4009 
02-013-35-4011 
02-013-35-4013 
02-013-35-4015 
02-013-35-5009 
02-013-35-5011 
02-013-35-5013 
02-013-35-5015 
02-013-35-6011*
02-013-35-6013*
02-013-35-6015*
Logic Tibial Insert Trial, PS, Size 0, 9mm 
Logic Tibial Insert Trial, PS, Size 0, 11mm 
Logic Tibial Insert Trial, PS, Size 0, 13mm 
Logic Tibial Insert Trial, PS, Size 0, 15mm 
Logic Tibial Insert Trial, PS, Size 1, 9mm 
Logic Tibial Insert Trial, PS, Size 1, 11mm 
Logic Tibial Insert Trial, PS, Size 1, 13mm 
Logic Tibial Insert Trial, PS, Size 1, 15mm 
Logic Tibial Insert Trial, PS, Size 1.5, 9mm 
Logic Tibial Insert Trial, PS, Size 1.5, 11mm 
Logic Tibial Insert Trial, PS, Size 1.5, 13mm 
Logic Tibial Insert Trial, PS, Size 1.5, 15mm 
Logic Tibial Insert Trial, PS, Size 2, 9mm 
Logic Tibial Insert Trial, PS, Size 2, 11mm 
Logic Tibial Insert Trial, PS, Size 2, 13mm 
Logic Tibial Insert Trial, PS, Size 2, 15mm 
Logic Tibial Insert Trial, PS, Size 2.5, 9mm 
Logic Tibial Insert Trial, PS, Size 2.5, 11mm 
Logic Tibial Insert Trial, PS, Size 2.5, 13mm 
Logic Tibial Insert Trial, PS, Size 2.5, 15mm 
Logic Tibial Insert Trial, PS, Size 3, 9mm 
Logic Tibial Insert Trial, PS, Size 3, 11mm 
Logic Tibial Insert Trial, PS, Size 3, 13mm 
Logic Tibial Insert Trial, PS, Size 3, 15mm 
Logic Tibial Insert Trial, PS, Size 3.5, 9mm 
Logic Tibial Insert Trial, PS, Size 3.5, 11mm 
Logic Tibial Insert Trial, PS, Size 3.5, 13mm 
Logic Tibial Insert Trial, PS, Size 3.5, 15mm 
Logic Tibial Insert Trial, PS, Size 4, 9mm 
Logic Tibial Insert Trial, PS, Size 4, 11mm 
Logic Tibial Insert Trial, PS, Size 4, 13mm 
Logic Tibial Insert Trial, PS, Size 4, 15mm 
Logic Tibial Insert Trial, PS, Size 5, 9mm 
Logic Tibial Insert Trial, PS, Size 5, 11mm 
Logic Tibial Insert Trial, PS, Size 5, 13mm 
Logic Tibial Insert Trial, PS, Size 5, 15mm 
Logic Tibial Insert Trial, PS, Size 6, 11mm 
Logic Tibial Insert Trial, PS, Size 6, 13mm 
Logic Tibial Insert Trial, PS, Size 6, 15mm 
Catalog Number  Part Description
* Special order

**Special order       *Special request only
INSTRUMENT LISTING
Catalog Number  Part Description
02-013-44-0009*
02-013-44-0011*
02-013-44-0013*
02-013-44-0015*
02-013-44-1009
02-013-44-1011
02-013-44-1013
02-013-44-1015
02-013-44-1509*
02-013-44-1511*
02-013-44-1513* 
02-013-44-1515*
02-013-44-2009
02-013-44-2011
02-013-44-2013
02-013-44-2015
02-013-44-2509
02-013-44-2511
02-013-44-2513
02-013-44-2515
02-013-44-3009
02-013-44-3011
02-013-44-3013
02-013-44-3015
02-013-44-3509
02-013-44-3511
02-013-44-3513
02-013-44-3515
02-013-44-4009
02-013-44-4011
02-013-44-4013
02-013-44-4015
02-013-44-5009
02-013-44-5011
02-013-44-5013
02-013-44-5015
02-013-44-6011*
02-013-44-6013*
02-013-44-6015*
Logic Tibial Insert Trial, PSC, SIZE 0, 9mm
Logic Tibial Insert Trial, PSC, SIZE 0, 11mm
Logic Tibial Insert Trial, PSC, SIZE 0, 13mm
Logic Tibial Insert Trial, PSC, SIZE 0, 15mm
Logic Tibial Insert Trial, PSC, SIZE 1, 9mm
Logic Tibial Insert Trial, PSC, SIZE 1, 11mm
Logic Tibial Insert Trial, PSC, SIZE 1, 13mm
Logic Tibial Insert Trial, PSC, SIZE 1, 15mm
Logic Tibial Insert Trial, PSC, SIZE 1.5, 9mm
Logic Tibial Insert Trial, PSC, SIZE 1.5, 11mm
Logic Tibial Insert Trial, PSC, SIZE 1.5, 13mm
Logic Tibial Insert Trial, PSC, SIZE 1.5, 15mm
Logic Tibial Insert Trial, PSC, SIZE 2, 9mm
Logic Tibial Insert Trial, PSC, SIZE 2, 11mm
Logic Tibial Insert Trial, PSC, SIZE 2, 13mm
Logic Tibial Insert Trial, PSC, SIZE 2, 15mm
Logic Tibial Insert Trial, PSC, SIZE 2.5, 9mm
Logic Tibial Insert Trial, PSC, SIZE 2.5, 11mm
Logic Tibial Insert Trial, PSC, SIZE 2.5, 13mm
Logic Tibial Insert Trial, PSC, SIZE 2.5, 15mm
Logic Tibial Insert Trial, PSC, SIZE 3, 9mm
Logic Tibial Insert Trial, PSC, SIZE 3, 11mm
Logic Tibial Insert Trial, PSC, SIZE 3, 13mm
Logic Tibial Insert Trial, PSC, SIZE 3, 15mm
Logic Tibial Insert Trial, PSC, SIZE 3.5, 9mm
Logic Tibial Insert Trial, PSC, SIZE 3.5, 11mm
Logic Tibial Insert Trial, PSC, SIZE 3.5, 13mm
Logic Tibial Insert Trial, PSC, SIZE 3.5, 15mm
Logic Tibial Insert Trial, PSC, SIZE 4, 9mm
Logic Tibial Insert Trial, PSC, SIZE 4, 11mm
Logic Tibial Insert Trial, PSC, SIZE 4, 13mm
Logic Tibial Insert Trial, PSC, SIZE 4, 15mm
Logic Tibial Insert Trial, PSC, SIZE 5, 9mm
Logic Tibial Insert Trial, PSC, SIZE 5, 11mm
Logic Tibial Insert Trial, PSC, SIZE 5, 13mm
Logic Tibial Insert Trial, PSC, SIZE 5, 15mm
Logic Tibial Insert Trial, PSC, SIZE 6, 11mm
Logic Tibial Insert Trial, PSC, SIZE 6, 13mm
Logic Tibial Insert Trial, PSC, SIZE 6, 15mm
32

33
**Special order
02-013-47-0009*
02-013-47-0011*
02-013-47-0013*
02-013-47-0015*
02-013-47-1009
02-013-47-1011
02-013-47-1013
02-013-47-1015
02-013-57-1509*
02-013-57-1511*
02-013-57-1513*
02-013-57-1515*
02-013-47-2009
02-013-47-2011
02-013-47-2013
02-013-47-2015
02-013-57-2509
02-013-57-2511
02-013-57-2513
02-013-57-2515
02-013-47-3009
02-013-47-3011
02-013-47-3013
02-013-47-3015
02-013-57-3509
02-013-57-3511
02-013-57-3513
02-013-57-3515
02-013-47-4009
02-013-47-4011
02-013-47-4013
02-013-47-4015
02-013-47-5009
02-013-47-5011
02-013-47-5013
02-013-47-5015
02-013-47-6011*
02-013-47-6013*
02-013-47-6015*
Logic Tibial Insert Trial, CR Neutral, Size 0, 9mm
Logic Tibial Insert Trial, CR Neutral, Size 0, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 0, 13 mm
Logic Tibial Insert Trial, CR Neutral, Size 0, 15 mm
Logic Tibial Insert Trial, CR Neutral, Size 1, 9mm
Logic Tibial Insert Trial, CR Neutral, Size 1, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 1, 13mm
Logic Tibial Insert Trial, CR Neutral, Size 1, 15mm
Logic Tibial Insert Trial, CR Neutral, Size 1.5, 9mm
Logic Tibial Insert Trial, CR Neutral, Size 1.5, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 1.5, 13mm
Logic Tibial Insert Trial, CR Neutral, Size 1.5, 15mm
Logic Tibial Insert Trial, CR Neutral, Size 2, 9mm
Logic Tibial Insert Trial, CR Neutral, Size 2, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 2, 13mm
Logic Tibial Insert Trial, CR Neutral, Size 2, 15mm
Logic Tibial Insert Trial, CR Neutral, Size 2.5, 9mm
Logic Tibial Insert Trial, CR Neutral, Size 2.5, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 2.5, 13mm
Logic Tibial Insert Trial, CR Neutral, Size 2.5, 15mm
Logic Tibial Insert Trial, CR Neutral, Size 3, 9mm
Logic Tibial Insert Trial, CR Neutral, Size 3, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 3, 13mm
Logic Tibial Insert Trial, CR Neutral, Size 3, 15mm
Logic Tibial Insert Trial, CR Neutral, Size 3.5, 9mm
Logic Tibial Insert Trial, CR Neutral, Size 3.5, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 3.5, 13mm
Logic Tibial Insert Trial, CR Neutral, Size 3.5, 15mm
Logic Tibial Insert Trial, CR Neutral, Size 4, 9mm
Logic Tibial Insert Trial, CR Neutral, Size 4, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 4, 13mm
Logic Tibial Insert Trial, CR Neutral, Size 4, 15mm
Logic Tibial Insert Trial, CR Neutral, Size 5, 9mm
Logic Tibial Insert Trial, CR Neutral, Size 5, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 5, 13mm
Logic Tibial Insert Trial, CR Neutral, Size 5, 15mm
Logic Tibial Insert Trial, CR Neutral, Size 6, 11mm
Logic Tibial Insert Trial, CR Neutral, Size 6, 13mm
Logic Tibial Insert Trial, CR Neutral, Size 6, 15mm
Catalog Number  Part Description

INSTRUMENT LISTING
Catalog Number  Part Description
02-013-48-0009*
02-013-48-0011*
02-013-48-0013*
02-013-48-1009
02-013-48-1011
02-013-48-1013
02-013-58-1509*
02-013-58-1511*
02-013-58-1513*
02-013-48-2009
02-013-48-2011
02-013-48-2013
02-013-48-2509
02-013-48-2511
02-013-48-2513
02-013-58-3009
02-013-58-3011
02-013-58-3013
02-013-48-3509
02-013-48-3511
02-013-48-3513
02-013-58-4009
02-013-58-4011
02-013-58-4013
02-013-48-5009
02-013-48-5011
02-013-48-5013
02-013-48-6011*
02-013-48-6013*
Logic Tibial Insert Trial, CR Slope+, Size 0, 9mm
Logic Tibial Insert Trial, CR Slope+, Size 0, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 0, 13mm
Logic Tibial Insert Trial, CR Slope+, Size 1, 9mm
Logic Tibial Insert Trial, CR Slope+, Size 1, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 1, 13mm
Logic Tibial Insert Trial, CR Slope+, Size 1.5, 9mm
Logic Tibial Insert Trial, CR Slope+, Size 1.5, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 1.5, 13mm
Logic Tibial Insert Trial, CR Slope+, Size 2, 9mm
Logic Tibial Insert Trial, CR Slope+, Size 2, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 2, 13mm
Logic Tibial Insert Trial, CR Slope+, Size 2.5, 9mm
Logic Tibial Insert Trial, CR Slope+, Size 2.5, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 2.5, 13mm
Logic Tibial Insert Trial, CR Slope+, Size 3, 9mm
Logic Tibial Insert Trial, CR Slope+, Size 3, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 3, 13mm
Logic Tibial Insert Trial, CR Slope+, Size 3.5, 9mm
Logic Tibial Insert Trial, CR Slope+, Size 3.5, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 3.5, 13mm
Logic Tibial Insert Trial, CR Slope+, Size 4, 9mm
Logic Tibial Insert Trial, CR Slope+, Size 4, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 4, 13mm
Logic Tibial Insert Trial, CR Slope+, Size 5, 9mm
Logic Tibial Insert Trial, CR Slope+, Size 5, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 5, 13mm
Logic Tibial Insert Trial, CR Slope+, Size 6, 11mm
Logic Tibial Insert Trial, CR Slope+, Size 6, 13mm
02-013-49-0009*
02-013-49-0011*
02-013-49-0013*
02-013-49-1009
02-013-49-1011
02-013-49-1013
02-013-59-1509*
02-013-59-1511*
02-013-59-1513*
02-013-49-2009
02-013-49-2011
02-013-49-2013
02-013-59-2509
02-013-59-2511
02-013-59-2513
02-013-49-3009
02-013-49-3011
02-013-49-3013
02-013-49-3509
02-013-49-3511
02-013-49-3513
02-013-59-4009
02-013-59-4011
02-013-59-4013
02-013-49-5009
02-013-49-5011
02-013-49-5013
02-013-49-6011*
02-013-49-6013*
Logic Tibial Insert Trial, CR Slope++, Size 0, 9mm
Logic Tibial Insert Trial, CR Slope++, Size 0, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 0, 13mm
Logic Tibial Insert Trial, CR Slope++, Size 1, 9mm
Logic Tibial Insert Trial, CR Slope++, Size 1, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 1, 13mm
Logic Tibial Insert Trial, CR Slope++, Size 1.5, 9mm
Logic Tibial Insert Trial, CR Slope++, Size 1.5, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 1.5, 13mm
Logic Tibial Insert Trial, CR Slope++, Size 2, 9mm
Logic Tibial Insert Trial, CR Slope++, Size 2, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 2, 13mm
Logic Tibial Insert Trial, CR Slope++, Size 2.5, 9mm
Logic Tibial Insert Trial, CR Slope++, Size 2.5, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 2.5, 13mm
Logic Tibial Insert Trial, CR Slope++, Size 3, 9mm
Logic Tibial Insert Trial, CR Slope++, Size 3, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 3, 13mm
Logic Tibial Insert Trial, CR Slope++, Size 3.5, 9mm
Logic Tibial Insert Trial, CR Slope++, Size 3.5, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 3.5, 13mm
Logic Tibial Insert Trial, CR Slope++, Size 4, 9mm
Logic Tibial Insert Trial, CR Slope++, Size 4, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 4, 13mm
Logic Tibial Insert Trial, CR Slope++, Size 5, 9mm
Logic Tibial Insert Trial, CR Slope++, Size 5, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 5, 13mm
Logic Tibial Insert Trial, CR Slope++, Size 6, 11mm
Logic Tibial Insert Trial, CR Slope++, Size 6, 13mm
*Special request only

35
285-08-71 PTS Inserter Handle
285-08-72 PTS Hex Inserter
02-013-42-0008
02-013-42-1008
02-013-42-2008
02-013-42-2508
02-013-42-3008
02-013-42-3508
02-013-42-4008
02-013-42-5008
02-013-42-6008
Logic Proximal Tibial Spacer Trial, 8mm, Size 0
Logic Proximal Tibial Spacer Trial, 8mm, Size 1
Logic Proximal Tibial Spacer Trial, 8mm, Size 2
Logic Proximal Tibial Spacer Trial, 8mm, Size 2.5
Logic Proximal Tibial Spacer Trial, 8mm, Size 3
Logic Proximal Tibial Spacer Trial, 8mm, Size 3.5
Logic Proximal Tibial Spacer Trial, 8mm, Size 4
Logic Proximal Tibial Spacer Trial, 8mm, Size 5
Logic Proximal Tibial Spacer Trial, 8mm, Size 6
02-019-10-0100** 
02-019-10-0110 
02-019-10-0115* 
02-019-10-0120 
02-019-10-0125 
02-019-10-0130 
02-019-10-0135 
02-019-10-0140 
02-019-10-0150
02-019-10-0160** 
Logic Femoral Notch Cutting Guide, PS, Size 0
Logic Femoral Notch Cutting Guide, PS, Size 1
Logic Femoral Notch Cutting Guide, PS, Size 1.5
Logic Femoral Notch Cutting Guide, PS, Size 2
Logic Femoral Notch Cutting Guide, PS, Size 2.5
Logic Femoral Notch Cutting Guide, PS, Size 3
Logic Femoral Notch Cutting Guide, PS, Size 3.5
Logic Femoral Notch Cutting Guide, PS, Size 4
Logic Femoral Notch Cutting Guide, PS, Size 5
Logic Femoral Notch Cutting Guide, PS, Size 6
02-019-11-0000** 
02-019-11-0010 
02-019-11-0015* 
02-019-11-0020 
02-019-11-0025 
02-019-11-0030 
02-019-11-0035 
02-019-11-0040 
02-019-11-0050
02-019-11-0060** 
Logic Femoral Notch Cutter, PS, Size 0
Logic Femoral Notch Cutter, PS, Size 1
Logic Femoral Notch Cutter, PS, Size 1.5
Logic Femoral Notch Cutter, PS, Size 2
Logic Femoral Notch Cutter, PS, Size 2.5
Logic Femoral Notch Cutter, PS, Size 3
Logic Femoral Notch Cutter, PS, Size 3.5
Logic Femoral Notch Cutter, PS, Size 4
Logic Femoral Notch Cutter, PS, Size 5
Logic Femoral Notch Cutter, PS, Size 6
213-70-00* 
213-70-10
213-70-15*
213-70-20
213-70-25
213-70-30
213-70-35
213-70-40
213-70-45
213-70-50
213-70-60* 
LPI Tibial Tray Trials, Size 0
LPI Tibial Tray Trials, Size 1
LPI Tibial Tray Trials, Size 1.5
LPI Tibial Tray Trials, Size 2
LPI Tibial Tray Trials, Size 2.5
LPI Tibial Tray Trials, Size 3
LPI Tibial Tray Trials, Size 3.5
LPI Tibial Tray Trials, Size 4
LPI Tibial Tray Trials, Size 4.5
LPI Tibial Tray Trials, Size 5
LPI Tibial Tray Trials, Size 6
Catalog Number  Part Description
**Special order

36

37
®

REFERENCES
1.  Bellemans J, Robijns F, Duerinckx J, Banks S, Vandenneucker H. The influence of tibial slope on maximal 
flexion after total knee arthroplasty. Knee Surgical Sports Traumatol Arthroscopy. (2005) 13: 193–196.
For additional device information, refer to the Exactech Optetrak® Logic® Knee System–Instructions for Use for a device 
description, indications, contraindications, precautions and warnings. For further product information, please contact Customer 
Service, Exactech, 2320 NW 66th Court, Gainesville, Florida 32653-1630, USA. (352) 377-1140, (800) 392-2832 or FAX (352) 378-2617. 
Exactech, as the manufacturer of this device, does not practice medicine, and is not responsible for recommending the 
appropriate surgical technique for use on a particular patient. These guidelines are intended to be solely informational and each 
surgeon must evaluate the appropriateness of these guidelines based on his or her personal medical training and experience. 
Prior to use of this system, the surgeon should refer to the product package insert for comprehensive warnings, precautions, 
indications for use, contraindications and adverse effects. 
The products discussed herein may be available under different trademarks in different countries. All copyrights, and pending and 
registered trademarks, are property of Exactech. This material is intended for the sole use and benefit of the Exactech sales force 
and physicians. It should not be redistributed, duplicated or disclosed without the express written consent of Exactech.  
©2012 Exactech.
Exactech is proud to have offices and distributors around the globe.  
For more information about Exactech products available in your country, please visit www.exac.com
352-377-1140 
1-800-EXACTECH
www.exac.com
712-25-31 Rev. B
Logic CR LPI Operative Technique  0113