APEX

Pre-engineered Connection System

Canadian and US Engineered
Canadian and US Manufactured
Interstory Drift Tested
MTC Solutions Owned
Download and axially tested
Installation Tolerances up to 1/8" (3.2mm) and 0.5°

Beam Hanger Comparison

APEX
MEGANT
RICON S VS

• CAN _ Limit States Design (LSD)

Download Capacity Range

159 - 227 kN

64 - 115 kN

22 - 129 kN

Uplift Capacity Range

Design with Toe Screws

11 - 29 kN

7 - 13 kN
with Clip Lock

Axial Capacity Range

13 - 32 kN

17 - 53 kN

14 - 29 kN

Manufactured in

US & Canada

Austria

Material

Aluminum

Mild Steel

Connection Type

Wood-to-Wood

Wood-to-Wood
Wood-to-Steel

Installation Time

13 to 20 mins

21 to 37 mins

9 to 20 mins

Installation Tolerances	Axial	3.2mm (1.8")	-	1mm (0.039") RICON S VS XL
	Horizontal	3.2mm (1.8")	-	1mm (0.039") RICON S VS XL
	Rotational	0.5°	-	-

Standard & Certifications

CSA O86:24

CSA O86:24
ETA-15/0667 2019

CSA O86:24
ICC-ESR-4300
ETA-10/0189 2019

Seismic Compatibility

> 4% interstory drift

Tested Fire Resistance Rating

Coming Soon

1 Hour

Notes:

This table is intended as a pre-selection tool only. Refer to each respective connector for full design guidelines.
The EOR is responsible for verifying all aspects of the connection design.

Wood-to-Wood Design Values

MTC Tech Support DL Design Guide

Pre-engineered download and axial capacities of the APEX beam hangers in wood-to-wood configurations (derived in accordance with CSA O86:24, ASTM D7147-21*, and ICC-ESR*) along with minimum beam and column sections for 45- to 120-minute fire-resistance ratings (FRR).

• CAN _ Limit States Design (LSD)
• USA _ Allowable Standard Design (ASD)
• USA _ Load and Resistance Factor Design (LFRD)

Minimum Secondary Beam Section Dimensions [ mm ]
APEX Model	Configuration	No FRR	45-min FRR	1-hr FRR	2-hr FRR	Relative Density [ G ]	Factored Resistance [ kN ]
APEX Model	Configuration	No FRR	45-min FRR	1-hr FRR	2-hr FRR	Relative Density [ G ]	Download	Axial
APEX S	Single	113 x 504	174 x 533	194 x 549	272 x 617	≥ 0.42	159	13
						≥ 0.44	168	14
						≥ 0.46	171	15
						≥ 0.49	171	17
	Double	196 x 504	282 x 533	301 x 549	379 x 617	≥ 0.42	270	23
						≥ 0.44	286	24
						≥ 0.46	291	26
						≥ 0.49	291	30
APEX M	Single	113 x 564	174 x 593	194 x 609	272 x 677	≥ 0.42	190	13
						≥ 0.44	201	14
						≥ 0.46	211	16
						≥ 0.49	211	18
	Double	196 x 564	282 x 593	301 x 609	379 x 677	≥ 0.42	323	23
						≥ 0.44	342	24
						≥ 0.46	358	26
						≥ 0.49	358	30
APEX L	Single	166 x 444	225 x 479	244 x 495	322 x 563	≥ 0.42	210	24
						≥ 0.44	222	25
						≥ 0.46	227	28
						≥ 0.49	227	32
	Double	302 x 444	383 x 479	403 x 495	481 x 563	≥ 0.42	357	41
						≥ 0.44	377	43
						≥ 0.46	386	47
						≥ 0.49	386	54
APEX XL	Coming soon
APEX XL	Coming soon

Notes:

Connection design must meet all relevant requirements of the General Notes to Designer and General Notes to Installer sections, as well as all minimum geometry requirements. Download a copy of the Beam Hanger Design Guide
Tabulated factored resistances are applicable for wood-to-wood connections only. Screw installation must follow the patterns presented in the Installation section.
Minimum dimensions for secondary beams with no FRR are based on minimum end and edge distances.
The listed connector resistances may be limited by the splitting resistance perpendicular to grain and the effective shear resistance of the timber members. Refer to Beam Hanger Design Guide Appendix C: Survey of Literature on Reinforcement for Tension Perpendicular to Grain (Page 116) for more information and available reinforcement strategies. It is the responsibility of the EOR to ensure the primary and secondary members have adequate capacity to resist connection forces.
Alternative minimum beam sizes for members with an ASTM E1966 compliant fire-resistant joint can be found in Beam Hanger Design Guide Appendix A: Fire Protection (Page 116).
APEX hangers require glued bond between plies; gaps and voids are not permitted. Split-laminated members shall be edge-glued or block-laminated and fabricated with pressure from all sides to ensure full contact between plies and no voids.
Factored resistances provided do not account for combined loading in multiple directions. Combined gravity and axial loading must be verified per Beam Hanger Design Guide (eq. 1) (Page 13).

Secondary Member Requirements

Canada
USA

Geometry Requirements [ mm ]
Model	Configuration	l_p	e_top	No FRR		45-min FRR		1-hr FRR		2-hr FRR		d_h	s_d
Model	Configuration	l_p	e_top	e_side	e_bot	e_side	e_bot	e_side	e_bot	e_side	e_bot	d_h	s_d
APEX S	Single	176	7	6	33	36	62	46	78	85	146	48	N/A
APEX S	Double	176	7	6	33	36	62	46	78	85	146	49	6
APEX M	Single	176	7	6	33	36	62	46	78	85	146	49	N/A
APEX M	Double	176	7	6	33	36	62	46	78	85	146	49	6
APEX L	Single	176	1	7	21	36	56	46	72	85	140	49	N/A
APEX L	Double	176	1	7	21	36	56	46	72	85	140	49	6
APEX XL	Coming soon

Notes:

Connection design must meet all relevant requirements of the General Notes to Designer and General Notes to Installer sections, as well as all minimum geometry requirements. Download a copy of the Beam Hanger Design Guide
Screw installation must follow the patterns presented in the Installation section of the Beam Hanger Design Guide.
Tabulated values presented are the minimum required unless noted otherwise. Tabulated values for l_p are to the deepest screw penetration and are fixed. Tabulated values for d_h are maximum values based on a gap between primary and secondary member of 1.6 mm [ 1/16 in. ]. Larger gaps will reduce dh accordingly.
Tabulated values that are not dependent on FRR, as well as those for secondary beams with no FRR, are based on minimum end and edge distances.
Dimensions for FRR’s other than those shown above may be linearly interpolated up to a maximum 2-hr FRR.
Placement of a connector within the depth of the beam must be verified by the EOR for splitting perpendicular to grain resistance as well as the effective shear resistance of the members.

Primary Column Requirement

Primary Member Geometry Requirements - Beam/Girder

Unhoused
Housed

Canada
USA

Geometry Requirements [ mm ]
Model	Configuration	l_p	e_top	No FRR		45-min FRR		1-hr FRR		2-hr FRR		d_h	s_d
Model	Configuration	l_p	e_top	e_bot	e_back	e_bot	e_back	e_bot	e_back	e_bot	e_back	d_h	s_d
APEX S	Single	176	33	7	10	36	36	52	46	120	85	49	N/A
APEX S	Double	176	33	7	10	36	36	52	46	120	85	49	6
APEX M	Single	176	33	7	10	36	36	52	46	120	85	49	N/A
APEX M	Double	176	33	7	10	36	36	52	46	120	85	49	6
APEX L	Single	176	21	1	10	36	36	52	46	120	85	49	N/A
APEX L	Double	176	21	1	10	36	36	52	46	120	85	49	6
APEX XL	Coming soon

Notes:

Connection design must meet all relevant requirements of the General Notes to Designer and General Notes to Installer sections, as well as all minimum geometry requirements. Download a copy of the Beam Hanger Design Guide
Screw installation must follow the patterns presented in the Installation section of the Beam Hanger Design Guide.
Tabulated values presented are the minimum required unless noted otherwise. Tabulated values for l_p are to the deepest screw penetration and are fixed. Tabulated values for d_h are maximum values based on a gap between primary and secondary member of 1.6 mm [ 1/16 in. ]. Larger gaps will reduce dh accordingly.
Tabulated values that are not dependent on FRR, as well as those for secondary beams with no FRR, are based on minimum end and edge distances.
Dimensions for FRR’s other than those shown above may be linearly interpolated up to a maximum 2-hr FRR.
Placement of a connector within the depth of the beam must be verified by the EOR for splitting perpendicular to grain resistance as well as the effective shear resistance of the members.

Primary Beam Requirement

Primary Member Geometry Requirements - Post

Unhoused
Housed

Canada
USA

Geometry Requirements [ mm ]
Model	Configuration	l_p	e_top	No FRR		45-min FRR		1-hr FRR		2-hr FRR		d_h	s_d
Model	Configuration	l_p	e_top	e_side	e_back	e_side	e_back	e_side	e_back	e_side	e_back	d_h	s_d
APEX S	Single	176	33	6	10	36	36	46	46	85	85	49	N/A
APEX S	Double	176	33	6	10	36	36	46	46	85	85	49	6
APEX M	Single	176	33	6	10	36	36	46	46	85	85	49	N/A
APEX M	Double	176	33	6	10	36	36	46	46	85	85	49	6
APEX L	Single	176	21	7	10	36	36	46	46	85	85	49	N/A
APEX L	Double	176	21	7	10	36	36	46	46	85	85	49	6
APEX XL	Coming soon

Notes:

Connection design must meet all relevant requirements of the General Notes to Designer and General Notes to Installer sections, as well as all minimum geometry requirements. Download a copy of the Beam Hanger Design Guide
Screw installation must follow the patterns presented in the Installation section of the Beam Hanger Design Guide.
Tabulated values presented are the minimum required unless noted otherwise. Tabulated values for l_p are to the deepest screw penetration and are fixed. Tabulated values for d_h are maximum values based on a gap between primary and secondary member of 1.6 mm [ 1/16 in. ]. Larger gaps will reduce dh accordingly.
Tabulated values that are not dependent on FRR, as well as those for secondary beams with no FRR, are based on minimum end and edge distances.
Dimensions for FRR’s other than those shown above may be linearly interpolated up to a maximum 2-hr FRR.
Placement of a connector within the depth of the beam must be verified by the EOR for splitting perpendicular to grain resistance as well as the effective shear resistance of the members.

2D & 3D Geometry

APEX beam hanger’s connector geometry (height, width, thickness) and downloadable 2D and 3D geometry files (.DXF, .DWG, .IFC, .STEP) for use in drawings and BIM models.

Canada ( Metric)
US (Imperial)

Connector Geometry	Model
	APEX S	APEX M	APEX L	APEX XL
	[ mm ]
H₁	463.5	523.5	422.3	Coming soon
H₂	489.5	549.5	549.5
W	101.6	101.6	152.4
T	50.8	50.8	50.8

Model	.DXF	.DWG	.IFC	.STEP

Notes:

Connection design must meet all relevant requirements of the General Notes to Designer and General Notes to Installer sections, as well as all minimum geometry requirements. Download a copy of the Beam Hanger Design Guide
Minor manufacturing tolerances may apply; actual product dimensions may vary slightly.

Design Guide

Design Guides

Beam Hanger Design Guide

The Beam Hangers Design Guide is a comprehensive resource for designing post and beam mass timber structures. It provides off-the-shelf, pre-engineered solutions such as the APEX or the RICON S VS, featuring tabulated design values and complete installation instructions to support project completion.

Installation Steps

INSTALLATION STEPS

Download Coming Soon MTC Tech Support

Get it right the first time with fast, field-ready instructions for clean, concealed connections. Review each step below or download the APEX installation guide—simplified for quick reference in a black-and-white format, ideal for clipboards and printouts.

Download Coming Soon
MTC Tech Support

Tools - Use the Correct Bit

MTC Solutions fasteners should only be driven using RW bits, or appropriately sized star bits. This ensures good centering and positioning with optimal torque transmission. For the APEX, use an RW 50 bit for the 10 mm [ 3/8 in. ] screws.

Tools - Use the Correct Drill

Use low-RPM, high-torque drills equipped with a feather (variable speed) trigger to install fasteners. Avoid excessive acceleration and deceleration during the drive-in process. Do not overtorque fasteners. Although impact guns are not expressly prohibited, their use is discouraged – particularly for beam hanger systems – due to an increased risk of overtorquing. Use the appropriate drill chuck size according to the fastener.

Estimated Installation Time

This process includes the following steps:
1. Layout (~10%)
2. Positioning (~10%–15%)
3. Pilot Holes (~20%–25%)
4. Screw Installation (~50%–60%)
5. Optional Measures (not included in the time installation % breakdown)

Installation time can be reduced with efficient fabrication and site practices such as:
1.Drilling pilot holes for the nonstructural positioning screws at the time of fabrication
2.Utilizing templates to drill pilot holes for structural screws
3.Optimizing beam positioning to reduce worker fatigue

Layout - Reference Points

Begin by laying out the installation locations in the primary and secondary members using a pencil and square.

The connector’s point of reference is the top of the beam. The lower nonstructural positioning screw should be measured from that point of reference.

The pocket should be at the bottom on the primary member and on the top on the secondary member.

Layout - Split Lamination Considerations

It is recommended that vertical joints in split lamination glulam beams be tight at the time of manufacturing. Gaps between adjacent plies may occur due to wood shrinkage. APEX installation requires glued bond between plies due to its high capacity; gaps and voids are not permitted. Split-laminated members shall be edge-glued or block-laminated and fabricated with pressure from all sides to ensure full contact between plies and no voids.

If gaps exist in the end grain, the APEX must be positioned so that fasteners can be installed at least 16 mm [ 5/8 in. ] away from these gaps.

Positioning - Nonstructural Positioning Screw Installation

Positioning screws ensure accurate placement of the APEX connector. To improve accuracy and reduce time, it is recommended to predrill the nonstructural positioning screw locations during member fabrication. Install one nonstructural positioning screw into the hole highlighted at the top of the plate. Check to ensure alignment is maintained and then install the second nonstructural positioning screw into the hole highlighted at the bottom of the plate.

Pilot Holes - Recommendations

Pilot holes are optional; however, they facilitate screw thread engagement, help reduce splitting risks, ensure a proper penetration path which reduces screw wandering, and reduce insertion torque. For the structural fasteners used with the APEX series, pilot holes 6.4 mm [ 1/4 in. ] in diameter and 25 mm [ 1 in. ] in length are recommended. The use of MTC Predrilling Jig for the inclined screws of the APEX is recommended to ensure proper hole placement.

Screw Installation - Align Drill Bit Axis

Align the driver bit axis parallel to the fastener axis during installation to allow proper torque transmission and to avoid stripping.

Screw Installation - Decrease RPM

To avoid overtorquing the screw, decrease the rotation speed about 12.7 mm [ 1/2 in. ] away from the final installed position. This is crucial to prevent wood crushing due to overtorquing, which can impact beam hanger tolerances, potentially impeding overall connection assembly. This is especially important when using an impact drill.

Screw Installation - Drill Pressure

Do not apply excessive pressure on the drill while driving the fastener to prevent fastener buckling or deviation during installation. Only apply the required force or use the recommended holder case to eliminate cam-out effects.

Screw Installation - One-Step Process

To avoid increased torque peaks caused by stopping and restarting the drive-in process, install the screw in one run until the head is lightly seated against the side member. If necessary, a torque wrench may be used to complete installation immediately after the screw has been driven.

Screw Installation - Structural Screws

Install the 10 mm x 200 mm [ 3/8 x 7-7/8 in. ] MTC-FTC screws in all perpendicular holes first. Once all perpendicular screws are installed, install the 10 mm x 200 mm [ 3/8 x 7-7/8 in. ] MTC-FTC screws in all inclined holes.

Optional Measures - Pre-Install Wood Plug

Where connectors are housed in the secondary beam, it is recommended to seal the void in the routing below the connector for aesthetics and fire protection. The APEX system is equipped with diagonal holes so that a wood plug may be pre-installed on the non-routed member in the shop or on site before the secondary beam is lifted into place.