fig1 shows a perspective view of a terminal 100 in an example embodiment . the terminal 100 has a longitudinal axis 107 and a substantially u - shaped contact portion 102 , a substantially u - shaped mid portion 104 , a solder portion 106 and a carrier portion 108 . the contact portion has a pair of generally parallel legs 103 joined by a transverse base 105 . the legs 103 extend generally parallel to the axis 107 . the mid portion 104 has a pair of generally parallel legs 109 joined by a transverse base 111 . the legs 109 extend generally perpendicular to the axis 107 . the solder portion 106 comprises an elongate main body 110 and a solder tail 112 . the solder tail 112 is formed at one end of the main body 110 and extends substantially perpendicularly from the main body 110 in the example embodiment . the carrier portion 108 is attached to the main body 110 and extends substantially in the direction of the main body 110 . the carrier portion 108 is releasably connected to the main body 110 via a break line 114 . it will be appreciated by a person skilled in the art that arranging the carrier portion 108 substantially parallel to the main body 110 allows the terminal 100 to be handled more easily during processing , as fewer portions of the terminal 100 may be relatively far away from a plane of the carrier portion 108 . thus , the terminal 100 advantageously is less susceptible to bending during handling . in the example embodiment , a dimension 113 of the terminal 100 perpendicular to the main body 110 of the solder portion 106 is substantially equal to or smaller than a length 115 of the main body 110 . the dimension 113 is the transverse width from the contact portion 102 to the extremity of the portion 104 . the carrier portion 108 of the terminal 100 comprises a stem portion 116 connected to a base portion 118 in the example embodiment . the stem portion 116 is connected to the main body 110 of the solder portion 106 . the base portion 118 of the terminal 100 is connected to another base portion 118 of another terminal 100 , forming a terminal strip of terminals 100 . fig2 shows a perspective view of a terminal strip 200 of interconnected terminals e . g . 100 in the example embodiment . the interconnected terminals e . g . 100 are arranged adjacent one another . a length of the terminal strip 200 can be wound around a reel ( not shown ) or a cartridge ( not shown ) for provision during production processes . referring back to fig1 , an extension portion 120 is formed at the opposite end of the main body 110 of the solder portion 106 compared to the solder tail 112 . the extension portion 120 extends perpendicularly from the main body 110 in the example embodiment . the extension portion 120 facilitates pushing of the terminal 100 into the connector housing ( not shown ) in the example embodiment . details of the assembling of the terminal 100 and the connector housing ( not shown ) will be described below with reference to fig3 . at the opposite end of the main body 110 of the solder portion 106 compared to the solder tail 112 , a leg 122 of the u - shaped mid portion 104 is connected to the main body 110 . the leg 122 of the mid portion 104 extends substantially perpendicularly from the main body 110 in the opposite direction compared to the solder tail 112 in the example embodiment . a leg 124 of the mid portion 104 is connected to a leg 126 of the contact portion 102 . the leg 124 of the mid portion 104 and 126 of the contact portion 102 are substantially perpendicular in the example embodiment . the u - shaped mid portion 104 provides resilience to the contact portion 102 for accommodating compression when a printed circuit board ( pcb ) ( not shown ) is pressed onto the contact portion 102 . a retention barb 128 is formed on the leg 122 of the mid portion 104 in the example embodiment . the retention barb 128 secures the terminal 100 in a connector housing ( not shown ) after the terminal 100 is inserted into the connector housing ( not shown ). fig3 shows a perspective view of a compression connector 300 in the example embodiment . during assembly of the compression connector 300 , a terminal strip 200 of the interconnected terminals e . g . 100 are held near a connector housing 302 and aligned in front of respective cavities 304 ( shown in the right side of fig3 ), with the longitudinal axis 107 substantially parallel to a side wall 301 of the connector housing 300 . a block 306 is used to push the terminals 100 into the housing 302 in the direction 308 . the block 306 presses against the extension portions 120 of each terminal 100 while the terminals 100 are pushed into the housing 302 . the retention barbs ( 128 of fig1 ) secure the terminals 100 in the housing 302 by engaging with sidewalls of the housing 302 . after the terminals are inserted into the housing 302 , the carrier portions 108 are disconnected from the main body ( 110 of fig1 ) of the solder portion 106 . the carrier portions can be cut away or broken off from the main body 110 at the break line 114 in the example embodiment . it can be seen that the cavities 304 are arranged in two rows along the housing 302 . the two rows of cavities 304 are arranged adjacent one another in the example embodiment . the housing 302 further comprises four rectangular protrusions 310 at the base of the housing 302 . the protrusions 310 are utilised in mounting the connector 300 on the pcb ( not shown ) in the example embodiment . it will be appreciated by a person skilled in the art that numerous variations and / or modifications may be made to the present invention as shown in the specific embodiments without departing from the spirit or scope of the invention as broadly described . the present embodiments are , therefore , to be considered in all respects to be illustrative and not restrictive . for example , the terminal may be made from conductive materials including , but not limited to , copper alloy , phosphor bronze , and / or gold or tin plated materials . further , the terminal can be manufactured using known methods including but not limited to e . g . cutting and press forming . furthermore , the housing may be made of high temperature engineering plastic and other non - conductive materials such as , but not limited to , generic engineering plastics , e . g . liquid crystal polymer ( lcp ). the housing can be manufactured using known methods including but not limited to e . g . casting and molding . the shapes of the terminals and / or the housings are not limited to that shown in the example embodiments . other shapes can be used in different embodiments , including differently shaped contact portions , mid portions , solder portions and carrier portions . further , it will be appreciated that the number of terminals per housing may be different in different embodiments .